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hp tooling 2026-#2

Overcome titanium machining challenges, How super-hard cutting materials revolutionized machining, Gear cutting and grinding from a single source,Ultra-fine and high-purity cleaning

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ISSN 2628-5444<br />

high precision <strong>tooling</strong><br />

Machine Tools, PCD, PVD, CVD, CBN, Hard Metal <strong>2026</strong> – 2<br />

■ Overcome titanium machining challenges ■ How super-hard cutting materials revolutionized machining ■<br />

■ Gear cutting and grinding from a single source ■ Ultra-fine and high-purity cleaning ■


Stop long Chips<br />

»IC-plus« world´s best (pat.)<br />

chipbreaker<br />

GrindingHub Stuttgart<br />

Hall 7 · Booth C56<br />

...a must have for turning aluminium<br />

®<br />

®<br />

tradition. passion. innovation. since 1922<br />

office@lach-diamant.de · www.lach-diamant.de


editorial<br />

Eric Schäfer<br />

editor-in-chief<br />

There’s more to it than that!<br />

Sometimes, it’s the little things that make the biggest<br />

difference. It doesn’t always have to be “the next big<br />

thing.” This becomes clear when you look at the new<br />

product announcements in the run-up to a trade show<br />

like GrindingHub. Minor changes here and there can<br />

lead to amazing results. This can be achieved through<br />

the use of automation or AI, optimized coolant usage,<br />

or improved coatings. By tweaking the right parameters,<br />

surprising improvements in efficiency and productivity<br />

can be achieved.<br />

can help to achieve optimal results in specific machining<br />

processes. It may be precisely such a practical tip, this<br />

redesigned tool, that further-developed spindle, or<br />

this new seamless in-process measurement that helps<br />

you to further optimize your own machining process.<br />

In short, every reader can find inspiration here. It’s often<br />

worth making small adjustments to the right parameters<br />

to increase efficiency, productivity, and sustainability —<br />

and thereby get the most out of a machining process. A<br />

trade journal like “<strong>hp</strong> <strong>tooling</strong>” simply has more to offer.<br />

Visitors to GrindingHub in Stuttgart can look forward to<br />

seeing such examples for themselves and, of course, they<br />

can also find them in advance in the following pages of<br />

our trade magazine.<br />

We also feature numerous user reports detailing the impact<br />

of design enhancements in machine tools or minor tool<br />

modifications on daily operations, and how these changes<br />

Eric Schäfer<br />

editor-in-chief


table of contents<br />

cover story<br />

The perfect fitting with diamonds 6<br />

materials & tools<br />

Quality in CFRP milling increases with manufacturing demands 8<br />

Precision solutions for metalworking 12<br />

Overcome titanium machining challenge through carbide tool blank design<br />

written by Eduardo Favila 14<br />

How super-hard cutting materials revolutionized machining 18<br />

Edge quality without compromise 20<br />

processes<br />

Gear cutting and grinding from a single source 27<br />

Strategic aircraft component with all the trimmings 28<br />

Micrometer in the fiber optic connector 30<br />

machining center<br />

Increasing efficiency in tool machining with automation and AI 32<br />

Kellenberger expands its grinding portfolio in the entry-level segment 34<br />

Universal grinding machines for precision manufacturing tasks 36<br />

Size matters… 40<br />

Innovative manufacturing of ultra-hard tools 42<br />

components<br />

Engineered for governed constant high speeds, ultra-precision and reliability accelerating<br />

advanced CNC machining applications 43<br />

Ultra-fine and high-purity cleaning 46<br />

A new generation of oil mist separators designed for the machining industry 48<br />

Introducing cloud-powered <strong>tooling</strong> integration to accelerate mould & die machining and<br />

standardize workflows 49<br />

news & facts 21<br />

fairs 5, 25<br />

impressum & company finder 51<br />

4 no. 2, <strong>2026</strong> April


fairs in alphabetical order<br />

AMB Stuttgart, Germany<br />

(September 15-19, <strong>2026</strong>)<br />

bauma Shanghai, China<br />

(November 24-27, <strong>2026</strong>)<br />

CCMT Beijing, China<br />

(April 21-25, <strong>2026</strong>)<br />

EPHJ Geneva, Switzerland<br />

(June 16-19, <strong>2026</strong>)<br />

FABTECH Toronto, Canada<br />

(June 9-11, <strong>2026</strong>)<br />

current status<br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

FEIMEC Sao Paulo, Brazil<br />

(May 5-9, <strong>2026</strong>)<br />

FILTECH Cologne, Germany<br />

(June 30-July 2, <strong>2026</strong>)<br />

glasstec Düsseldorf, Germany<br />

(October 20-23, <strong>2026</strong>)<br />

GrindingHub Stuttgart, Germany<br />

(May 5-8, <strong>2026</strong>)<br />

Hannover fair Hanover, Germany<br />

(April 20-24, <strong>2026</strong>)<br />

HIMTEX Hyderabat, India<br />

(August 20-24, <strong>2026</strong>)<br />

IMTS Chicago, USA<br />

(September 14-19, <strong>2026</strong>)<br />

JIMTOF Tokyo, Japan<br />

(October 26-31, <strong>2026</strong>)<br />

MACH-TECH and Budapest, Hungary<br />

INDUSTRY DAYS (May 18-21, <strong>2026</strong>)<br />

METALEX Bangkok, Thailand<br />

(November 18-21, <strong>2026</strong>)<br />

MSV Brno, Czech Republic<br />

(October 6-9, <strong>2026</strong>)<br />

SIAMS Moutier, Switzerland<br />

(April 21-24, <strong>2026</strong>)<br />

SIMTOS Seoul, South Korea<br />

(April 13-17, <strong>2026</strong>)<br />

sps Nuremberg, Germany<br />

(November 24-26, <strong>2026</strong>)<br />

Stone+tec Nuremberg, Germany<br />

(Juni 17-20, <strong>2026</strong>)<br />

Surface Stuttgart, Germany<br />

Technology (May 5-7, <strong>2026</strong>)<br />

TIMTOS Taipei, Taiwan<br />

(March 2-7, 2027)<br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

<strong>2026</strong><br />

2027<br />

trade fair dates as by end of March <strong>2026</strong>; we are not responsible for reliability of these dates<br />

no. 2, <strong>2026</strong> April<br />

5


cover story<br />

The perfect fitting with diamonds<br />

Designers, architects and discerning clients – when<br />

planning bathrooms or kitchens, they all place high<br />

demands on the taps installed. The design of the taps<br />

and shower heads must fit seamlessly into the overall<br />

interior design concept. The Belgian company RVB<br />

shows that not all taps are the same.<br />

The manufacturer produces its high-quality taps in Brussels,<br />

through which water flows every day worldwide. Production<br />

Manager Louis-Philippe Gillieaux relies on modern CNC machining<br />

centers and manual work in production. To ensure<br />

the high quality of his products, he relies on diamond tools<br />

from Paul Horn GmbH for high-gloss surfaces.<br />

“The quality of the surfaces is very important. It should<br />

be precisely cylindrical or, in the case of shallow fittings,<br />

perfectly flat. We can’t achieve this precision by polishing”,<br />

says Gillieaux. A polished surface plays and shines, but it is<br />

not flat. This is why polishing is not a geometrically precise<br />

manufacturing process, even if it is done by a machine. The<br />

best possible polishing results cost a lot of time and money.<br />

“Finding a good polisher is very difficult. It’s a job that not<br />

many people want to do because it’s very demanding”, says<br />

Gillieaux and continues: “To further increase the quality of<br />

our premium fittings, we coat these fitting parts with a layer<br />

of copper and nickel before chrome-plating or gold-plating,<br />

just like in the old days. This enhances the subsequent shine<br />

and color impression and improves the adhesion of gold and<br />

chrome to the brass base material, which contributes to an<br />

even longer service life of the fittings. Although polishing<br />

produces a high luster, it is not a geometrically precise processing<br />

method, as anyone who knows anything about<br />

polishing will tell you. Polishing away one µm too much on<br />

a geometric control surface on the brass part destroys the<br />

perfect impression of the subsequent mirror finish. These<br />

tiny geometric errors are particularly noticeable on rotationally<br />

symmetrical or flat mirror finish surfaces.”<br />

RVB:<br />

The engineer Gaston van Bastelaere founded the RVB company<br />

in 1935. In 1936 van Bastelaere patented his first inventions,<br />

including the FOR valve system. This ensures that the tap<br />

closes perfectly in 1/3 of a turn by preventing the seal from<br />

being squeezed. A small revolution even then. With numerous<br />

other developments and bold designs, the entrepreneur was<br />

often ahead of the trends in the tap industry. The shapes and<br />

functions of RVB taps are still contemporary today.<br />

In 2004 Alain Gillieaux bought the company and modernized<br />

it fundamentally. However, he always took care to retain the<br />

in-house expertise. Louis-Philippe Gillieaux continues the<br />

company with the same approach.<br />

The user does not need any special machines<br />

for the high-gloss turning process<br />

Monocrystalline diamonds<br />

For these reasons, Gillieaux and his team have been using<br />

MCD tools for over 15 years. When used, the monocrystalline<br />

diamonds produce surfaces that make subsequent polishing<br />

unnecessary. The switch to machine production not<br />

only resulted in a high increase in quality, but also in cost<br />

savings. “By using diamond tools, we have greatly reduced<br />

the cycle time”, explains Gillieaux. Before switching to the<br />

diamond tool systems from Horn, the team used tools on<br />

which the diamond was soldered directly onto the tool holder.<br />

Due to the cumbersome handling and the time-consuming<br />

servicing of the tools, they were looking for a modular tool<br />

solution. The arguments put forward by Horn technician<br />

Kees van Bers convinced Gillieaux and his team.<br />

Today, RVB relies on a wide range of Horn MCD tools.<br />

The high-caliber inserts are used on conventional CNC machines.<br />

“You don’t need special machines for milling and<br />

turning high-gloss surfaces. The quality is produced by<br />

the inserts”, explains van Bers. In addition to turning tools,<br />

Gillieaux also relies on MCD milling tools. “We were sceptical<br />

at first because of the high cost of the cutting tools,<br />

but the performance and results have now completely won<br />

us over”, says Gillieaux. When asked about the tool life of<br />

the tool systems, van Bers jokes: “With an infeed setting of<br />

around 0.02 mm in brass, the tool life is ‘eternal’. If an insert<br />

does become blunt, it can be re-polished up to 20 times – with<br />

the same ‘eternal’ tool life. The greatest danger for MCD<br />

tools is operator error.”<br />

The supreme discipline in machining<br />

High-polish machining with MCD is one of the supreme<br />

disciplines of metalcutting processes with geometrically<br />

defined inserts. Two hundredths of a millimeter of finishing<br />

allowance separate a very good surface from the perfect<br />

6 no. 2, <strong>2026</strong> April


cover story<br />

High-polish milling produces perfect flatness and mirror<br />

like surface finishes in the nanometer range<br />

High-gloss turning of the outside diameter with an<br />

MCD-tipped ISO insert<br />

surface with a mirror finish. The range of applications is<br />

broad. The manufacturing process is used in numerous industries.<br />

In the jewelry industry, for example, the tools provide<br />

the shine in the production of visible parts of a highquality<br />

wristwatch and most wedding rings. In the production<br />

of mirrors for space telescopes, the almost perfect dimensional<br />

accuracy of the milled mirror surface guarantees<br />

a distortion-free view into space. Diamond-tipped tools were<br />

used in the manufacture of almost every visual aid, whether<br />

spectacles or contact lenses. Another possible application is in<br />

tool, model and mould making. Here, time-consuming and<br />

expensive polishing work can be saved. The list goes on, and<br />

these tool systems are firmly established, not least in the<br />

medical industry.<br />

The quality of the tool cutting edge plays a decisive role in<br />

producing surface finishes with a mirror finish. The quality<br />

of the cutting edge is reflected in the surface to be machined.<br />

The final inserts or polishing of the MCD cutting edge<br />

resembles craftsmanship. Similar to the cutting of a jewelry<br />

diamond, the finishing of a tool cutting edge for high-polish<br />

machining is done by hand using grinding pliers. Airbearing<br />

grinding tables with a solid granite table top provide<br />

A successful collaboration:<br />

Louis-Philippe Gillieaux (l.) in conversation with Kees van Bers<br />

Source: HORN/Sauermann<br />

optimum conditions for grinding the inserts. A microscope<br />

with 200x magnification is used for visual inspection. Under<br />

this magnification, the cutting edge must be absolutely free<br />

of nicks. The resulting insert has a maximum radius of<br />

0.0002 mm. Horn has developed a special grinding machine<br />

for grinding MCD ball nose end mills for high-polish machining<br />

of free surfaces, with which even the smallest radii<br />

can be reliably ground.<br />

Synthetic diamonds<br />

Horn relies on high-purity MCC diamonds to equip its MCD<br />

tools. These monocrystalline stones are created using the<br />

CVD process. Various gases, mainly methane, are used as a<br />

carbon source, which are deposited during the process and<br />

allow the diamond to grow. The diamonds are characterized<br />

by their crystal clear to, depending on their thickness, slightly<br />

brownish color. A major advantage of this process is the<br />

possible edge length of the stones. This means that even long<br />

tools with cutting edge lengths of 30 mm, for example, can<br />

be realized. Previously, natural diamonds had to be used for<br />

such tools, which are difficult to realize due to their high<br />

price, availability and natural inclusions.<br />

International designers<br />

The MCD inserts are used at RVB in over 50 different fitting<br />

parts. The design of the various series of fittings comes from<br />

international designers. “The design is the most important<br />

feature for successful competition”, says Gillieaux. To this<br />

end, RVB works closely with renowned artists. “The designers<br />

get in touch with us with their ideas. If they match our DNA<br />

and are technically feasible, we realise them in a series”, says<br />

Gillieaux.<br />

The partnership between RVB and Horn has existed for<br />

over 15 years. In addition to MCD tools, the team also relies<br />

on Horn tools for grooving and parting off. “No matter what<br />

requirement we contact Horn with, we are always presented<br />

with the appropriate solution for us. The service doesn’t stop<br />

after the sale. The Horn technicians keep at it until the production<br />

process runs perfectly”, says Gillieaux.<br />

further information: www.horn-group.com<br />

no. 2, <strong>2026</strong> April<br />

7


materials & tools<br />

Quality in CFRP milling increases with<br />

manufacturing demands<br />

Greater process reliability and cost efficiency for aircraft construction:<br />

CemeCon and Hufschmied collaborate to design new tool<br />

When milling carbon fiber reinforced plastics, the<br />

aviation industry in particular demands maximum<br />

quality of the machined surfaces and the highest process<br />

reliability. Hufschmied Zerspanungssysteme GmbH<br />

and CemeCon have been working together closely to<br />

set new standards for this important industry of the<br />

future. A jointly developed premium tool combines<br />

geometry, substrate and diamond coating to create an<br />

optimal solution.<br />

The machining of carbon fiber reinforced plastics, or CFRP<br />

for short, which are particularly advantageous for lightweight<br />

construction, is one of the greatest challenges in the<br />

machining industry. Even more demanding variants of these<br />

composite materials are used in aircraft construction. At the<br />

same time, there is an absolute focus on maximum component<br />

quality, which completely rules out compromises and<br />

demands the highest performance from the milling tools<br />

The diamond coating adapted for the new premium tool –<br />

shown here magnified 1,000 times – ensures a very uniform<br />

wear pattern and guarantees a clear, smooth cutting edge<br />

at a consistently high level throughout the<br />

entire service life of the tool<br />

being used. This is because the high-strength fibers must<br />

be cleanly divided, despite their different orientations within<br />

the matrix. Otherwise fiber protrusions or delaminations<br />

occur, which at least require time-consuming manual<br />

reworking.<br />

The manufacture of large aircraft parts, such as shells or<br />

segments for the fuselage, presents aircraft manufacturers<br />

and suppliers with a very specific problem: the wall thicknesses<br />

here often range from a few millimeters to several<br />

centimeters. Enormous transverse forces act on the milling<br />

tool at the transitions. In the worst case, it can break and<br />

fragments can get inside the component – resulting in costly<br />

production interruptions or even the loss of entire components.<br />

The use of copper mesh as lightning protection poses<br />

a further challenge during machining. The aim is to achieve<br />

a component edge that requires no reworking – without any<br />

copper protrusions.<br />

Jointly developed by Hufschmied and CemeCon, the new<br />

HEXACUT® 058 milling cutter impresses with maximum<br />

process reliability and outstanding service life when<br />

machining CFRP for aircraft construction<br />

These are precisely the challenges that development partners<br />

Hufschmied and CemeCon have set themselves. The<br />

Bavarian tool manufacturer and the coating specialist<br />

worked together to design a new milling tool that significantly<br />

increases process reliability in CFRP milling and<br />

at the same time extends its service life by more than 50 %<br />

compared to tools used in the same application.<br />

8 no. 2, <strong>2026</strong> April


materials & tools<br />

A structured path to the new premium tool<br />

“Our customers in the aviation industry repeatedly emphasize this in discussions:<br />

when machining components made of fiber-reinforced composites, process reliability<br />

is the top priority, as even the smallest component deviations can be very<br />

expensive. This has inspired us to develop a significantly improved solution to win<br />

over users in this field”, says Fabian Lindinger, head of application technology at<br />

Hufschmied. The foundation was laid for the groundbreaking HEXACUT® 058<br />

milling cutter specifically designed for CFRP aircraft components.<br />

On the way there, the existing tool geometry was first re-examined and revised<br />

at the Hufschmied development center near Augsburg, Germany. In addition to<br />

optimum process reliability, the new tool had to meet another requirement: the<br />

cutting quality had to be guaranteed over the period of use as long as possible.<br />

Perfect coordination of tool parameters<br />

The rest of the process showed how a strong partnership in innovative techno -<br />

logy can make all the difference: essential to achieving an ideal overall result was,<br />

of course, the customized coating, which was tailored to the tool geometry developed<br />

by Hufschmied and the innovative substrate. To this end, the coating experts<br />

at CemeCon specified a diamond coating material for the new tool, which already<br />

achieved absolutely outstanding quality in tests. “It was extremely fascinating<br />

to observe how the optimal pairing of carbide substrate and coating material<br />

gradually emerged”, recalls Javier Fuentes. The head of coating and cutting material<br />

development at Hufschmied emphasizes: “Through productive teamwork we<br />

were finally able to achieve a homogeneous wear pattern that allowed us to achieve<br />

a clear, smooth milling edge at a consistently high level throughout the entire tool<br />

life. And coating spalling or even tool breakage simply no longer occurred in the<br />

product tests.”<br />

Marco Furrer, sales manager at CemeCon, explains: “We specifically adapted the<br />

proven CemeCon coating material CCDia®AeroSpeed® for the new Hufschmied<br />

tool. This enabled us to achieve exceptional adhesion to the carbide selected by<br />

Hufschmied despite the high coating thickness. The impressive result: the new<br />

HEXACUT® 058 from Hufschmied offers users consistently high cutting quality,<br />

maximum process reliability, also due to substantially less vibration, and a significantly<br />

longer service life.<br />

Strong partners working on an equal footing<br />

The entire project benefited greatly from the professional cooperation between the<br />

parties involved, as the partnership between Hufschmied and CemeCon has long<br />

gone beyond a mere supplier-customer relationship. Working closely together they<br />

worked out important details such as edge preparation, cutting radii, layer thickness<br />

and layer architecture. “By combining our expertise, we were able to optimize<br />

all parameters until we had achieved a solution that was consistent in every respect”,<br />

explains Michael Woda, manager development diamant at CemeCon.<br />

The companies are also continuing to work together in the series production<br />

of the HEXACUT® 058. The premium milling cutters of the new type are coated<br />

at CemeCon’s headquarters in Würselen, in the world’s largest diamond coating<br />

center, and subjected to comprehensive quality control. Independently of this,<br />

Hufschmied rechecks relevant criteria, such as homogeneous layer thickness distribution<br />

– for end customers, this means additional process reliability.<br />

“This project, like our other collaborations with CemeCon, some of which have<br />

been going on for many years, makes an important contribution to establishing<br />

Hufschmied worldwide as a synonym for first-class machining solutions”, says<br />

managing director Christel Hufschmied, delighted with the development success.<br />

“The new diamond tool and the joint effort with CemeCon to bring it to industrial<br />

maturity are helping us to achieve our goals in the long term.“<br />

further information: www.cemecon.de<br />

Tools cut better<br />

with TIGRA<br />

PCD<br />

PcBN<br />

Tungsten Carbide<br />

Customized<br />

Preforms<br />

PCD and PcBN<br />

Blanks and<br />

Segments<br />

Carbide Rods<br />

and Milling<br />

Cutter Blanks<br />

Carbide Inserts for<br />

tipping with PCD<br />

or PcBN<br />

www.tigra.com<br />

TIGRA GmbH<br />

Hall 9 D31<br />

TIGRA GmbH<br />

Gewerbering 2<br />

D-86698 Oberndorf a. Lech<br />

Tel +49 (0)9090 9680-01<br />

sales@tigra.de


materials & tools<br />

Wide variety of carbide blanks,<br />

ultra-hard cutting materials and<br />

latest straightening and hammering technologies<br />

At GrindingHub <strong>2026</strong> (May 4–8) in Stuttgart,<br />

TIGRA GmbH will present its comprehensive portfolio<br />

of precision carbide blanks such as preforms,<br />

milling cutter blanks, carbide inserts, rods and flat<br />

bars, and ultra-hard cutting materials made of PCD.<br />

Modern flatness control and hammering systems for<br />

circular saw measuring and machining will also be<br />

presented for the first time.<br />

Precision preforms and milling cutter blanks<br />

One focus of the trade fair presentation is on customerspecific<br />

preforms, which TIGRA manufactures individually<br />

according to customer drawings. The blanks are pressed in<br />

application-specific carbide grades and formed close to the<br />

final contour, significantly reducing the amount of grinding<br />

and erosion effort required downstream. TIGRA produces<br />

preforms with variable diameters, integrated plate<br />

seats, functional surfaces and axial, radial and helical<br />

coolant holes.<br />

The preform production takes place on highly automated,<br />

partly self-developed production facilities with multi-stage<br />

quality controls and optical inspection. Modern CAD/CAM<br />

processes, CNC turning and milling, and application-specific<br />

carbide grades with optimized brazing, toughness and<br />

bending strength properties enable the economical manufacture<br />

of both individual pieces (batch size 1) and large<br />

series. The range of carbide milling cutter blanks includes<br />

rods in various lengths and diameters with different radial<br />

coolant exits.<br />

Rods and flat bars<br />

The preform range is complemented by a wide assortment of<br />

carbide rods and flat bars, which are characterized as follows:<br />

Numerous carbide solutions and ultra-hard cutting materials are the focus of GrindingHub <strong>2026</strong><br />

10 no. 2, <strong>2026</strong> April


materials & tools<br />

→ as-sintered and ground rods (h5)<br />

→ metric and inch dimensions<br />

→ rods with straight coolant holes, double helix<br />

coolant holes and preformed geometries<br />

→ in standard and application-specific carbide<br />

grades for machining graphite, aluminum,<br />

non-ferrous alloys and fiber-reinforced plastics,<br />

as well as for optimum machining of steels and<br />

non-ferrous alloys.<br />

→ very fine-grained, tough carbide grade with<br />

excellent properties for high-speed milling<br />

→ for machining MDF, chipboard, laminate,<br />

CFRP<br />

→ flat and square bars in various dimensions<br />

→ heavy alloy tool body blanks (TIGRAmet)<br />

in the most important dimensions<br />

Carbide inserts<br />

In the field of PCD tipping, TIGRA offers carbide<br />

inserts as blanks for positive and negative plates<br />

in a wide variety of types, shapes, angles, tolerances<br />

and dimensions – with and without plate<br />

seats. The carbide inserts are specifically designed<br />

for subsequent tipping with ultra-hard cutting<br />

materials.<br />

PCD for demanding applications<br />

In the field of ultra-hard cutting materials, TIGRA<br />

pre sents PCD as blanks and segments. The PCD<br />

materials are available in grades adapted to specific<br />

applications, including:<br />

New machine developments for<br />

circular saw production<br />

Another highlight of the trade fair presentation will be two newly<br />

developed machines, which TIGRA will present together with its<br />

Italian partner Novotic. The Q800 system is used for high-precision<br />

flatness control of circular saws and combines pneumatic<br />

clamping technology with high-resolution sensor technology,<br />

Siemens PLC control and 21” HMI including Novotic Tensoflat<br />

software for measurement data acquisition and report generation.<br />

The P800 expands the portfolio with a solution for flatness<br />

control including automated straightening hammering. The system<br />

features an electrically operated double hammer station,<br />

dual IO-link measurement sensors, AI-supported straightening<br />

functions and comprehensive modules for data acquisition, remote<br />

diagnosis and system integration.<br />

With this combination of high-precision preforms and other<br />

carbide blanks, ultra-hard cutting materials and modern testing<br />

and straightening systems, TIGRA is positioning itself as a system<br />

partner for the tool industry. The focus is on process stability,<br />

reproducibility, service life optimization and economical manufacturing<br />

concepts along the entire process chain. Trade visitors<br />

are invited to visit the TIGRA stand to discuss individual blank<br />

solutions, material strategies and integrated system solutions. You<br />

will find TIGRA’s booth in hall 9, booth D31.<br />

further information: www.tigra.com<br />

→ for super finishing and finishing<br />

→ aluminum alloys with low and<br />

high Si content<br />

→ universal applications<br />

→ MDF, chipboard, laminate, CFRP<br />

→ concrete, limestone and highly<br />

abrasive materials<br />

→ wear-intensive applications and<br />

grindable wear parts<br />

TIGRA’s quick service for laser-cut PCD segments<br />

enables production according to drawings within<br />

3-5 working days – with or without angles, cleaned,<br />

securely packaged and more cost-effective than<br />

traditional wire cutting methods.<br />

Carbide for woodworking<br />

As the global market leader for reversible knives<br />

and carbide blanks for profiling, TIGRA has been<br />

a technological partner to the woodworking industry<br />

for decades. Alongside its wide range of planer<br />

knives, the company offers optimized carbide solutions<br />

in a wide variety of dimensions and carbide<br />

grades for solid wood and abrasive composite materials<br />

in standard and special designs. Depending<br />

on the application, wear-resistant, fine-grained<br />

or particularly tough carbide grades are used. The<br />

portfolio is complemented by an extensive range of<br />

carbide saw tips and carbide for brazed cutters.


materials & tools<br />

Precision solutions for metalworking<br />

SIMTEK Präzisionswerkzeuge GmbH<br />

presented its latest innovations at BIEMH<br />

in Bilbao, one of the leading trade fairs<br />

for manufacturing and automation technology.<br />

Visitors could see an extended<br />

selection of 3D laser-cut chip form geo -<br />

metries, the versatile simmill 9W milling<br />

tool system and newly developed, lengthadjustable<br />

holders in addition to the<br />

tried-and-tested tool range. There was<br />

also a special focus on individual tool<br />

solutions for machining the smallest<br />

diameters.<br />

SIMTEK is setting new standards in chip<br />

control with its 3D lasered chip shape geometries.<br />

This technology not only increases process<br />

reliability, but also extends the service life<br />

of the tools.<br />

“The introduction of laser geometries<br />

marks an enormous advance in tool technology.<br />

It not only makes our tools sharper and<br />

more precise, but also enables them to reliably<br />

meet the requirements for chip control”,<br />

explains CEO Norbert Seifermann.<br />

At BIEMH, SIMTEK presented the simturn DX clamping holders – a versatile<br />

solution for the internal machining of small components; with their variable<br />

length adjustment and the friction-locked ME clamping system,<br />

they offer maximum stability and precision<br />

According to SIMTEK, the 3D lasered tools<br />

are ideal for applications in the automotive<br />

industry, medical technology and other sectors<br />

with high demands on precision and process<br />

stability. The number of customers using<br />

cutting tools with 3D laser geometries from<br />

SIMTEK has increased more than tenfold<br />

since 2019.<br />

simmill 9W - monoblock performance<br />

meets modular flexibility<br />

Another highlight is the simmill 9W tool<br />

family. It combines the precision and stability<br />

of monoblock tools with the flexibility and<br />

cost-effectiveness of modular systems. The<br />

system is particularly suitable for applications<br />

Grooving and longitudinal turning with a simturn TK2 cutting insert with<br />

a chip geometry ground in two directions produces whirling chips (left);<br />

these can wrap around the tool or the workpiece and lead to downtimes;<br />

the lasered version produces short chips that can be easily removed from<br />

the machining process, thus ensuring high process reliability<br />

The simmill 9W family, an innovative milling tool system that combines the<br />

flexibility of modular systems with the precision and stability of monoblock<br />

tools; the version on show has 12 teeth and is suitable for cutting depths of<br />

up to 16.5 mm – ideal for demanding industrial applications<br />

12 no. 2, <strong>2026</strong> April


news & facts<br />

such as grooving, parting and slotting – for example in<br />

the automotive industry, in mechanical engineering and<br />

for demanding precision applications.<br />

“With the simmill 9W series we are closing the gap<br />

between classic, modular interchangeable tools and monoblock<br />

solutions”, explains Norbert Seifermann.<br />

Thanks to innovative toothing technology, the system<br />

guarantees maximum stability and precision – even with<br />

milling depths of up to 16.5 mm in the standard range,<br />

which is far beyond the capabilities of many other comparable<br />

tool solutions. With standard cutting widths<br />

from 0.5 mm to 6.0 mm and an integrated coolant supply,<br />

the series scores highly in terms of both efficiency<br />

and sustainability. In the individual area, the application<br />

possibilities in terms of diameters, widths and depths are<br />

even greater.<br />

Brings solutions<br />

to the surface.<br />

Stuttgart, 05-08/05/<strong>2026</strong><br />

Length-adjustable holders for<br />

maximum flexibility<br />

The length-adjustable clamping holders and carrier tools<br />

presented at BIEMH are specially designed for small series<br />

production and individual requirements. Highlights<br />

include the simturn DX clamp holders with infinitely<br />

variable length adjustability and patented ME clamping<br />

principle, which offers high stability even with long overhang<br />

lengths.<br />

Thanks to their versatility, the length-adjustable<br />

holders are not only particularly economical and flexible<br />

to use, but also help to reduce the variety of tools<br />

required by users.<br />

The range covers a wide spectrum of applications: from<br />

machining small bores from Ø 4.7 mm with simturn AX<br />

carrier tools, to simturn DX carrier tools for bores<br />

from Ø 7.0 mm, to larger diameters from 10.5 mm with<br />

simturn PX systems. “With these products we enable<br />

our customers to reduce their tool inventories and still<br />

react flexibly to new production requirements”, emphasizes<br />

Norbert Seifermann.<br />

High-precision tools for small diameters and<br />

individual requirements<br />

A growing segment at SIMTEK is the development and<br />

production of tools for machining in the smallest diameters.<br />

The standard range already includes numerous tools<br />

from the simturn AX, simturn DX and simturn PX product<br />

families, which have been specially developed for this<br />

purpose. However, SIMTEK users are not restricted to<br />

the use of standard tools. With more than 10,000 individual<br />

tool concepts per year, SIMTEK offers customized<br />

tool solutions for small diameter applications. Thanks to<br />

many years of experience in the customization sector and<br />

the use of laser-cut chip geometries, users benefit from<br />

economically viable custom tools even for small batch<br />

sizes – regardless of whether they are based on existing<br />

standard tools or developed from scratch.<br />

Where everything revolves<br />

around grinding – and you!<br />

The leading trade fair<br />

for grinding technology.<br />

grindinghub.de<br />

further information: www.simtek.com<br />

In Zusammenarbeit mit<br />

In cooperation with<br />

Trägerschaft<br />

Sponsorship


materials & tools<br />

Overcome titanium machining challenges<br />

through carbide tool blank design<br />

written by Eduardo Favila<br />

segment director, carbide rods, Hyperion Materials & Technologies<br />

Titanium’s strength and corrosion resistance make<br />

it ideal for applications in the aerospace, medical and<br />

chemical industries, but its low thermal conductivity<br />

complicates machining. Poor heat dissipation can<br />

lead to tool wear, thermal deformation and workpiece<br />

distortion, while the abrasive chips that titanium<br />

produces further increase heat and wear.<br />

In precision-focused industries like aerospace, well-designed<br />

coolant systems at the cutting edge are critical to enhance<br />

tool performance, extend tool life, improve in-cut precision,<br />

and maintain efficiency throughout the machining process.<br />

Toolmakers can achieve significant gains in tool life and<br />

precision by combining application-specific carbide rod<br />

blanks with appropriate coolant systems. Depending on the<br />

specific needs of the machining operation, toolmakers have<br />

a few choices:<br />

1. solid blanks and flood cooling for high-volume<br />

<strong>tooling</strong> at controlled costs<br />

2. standard coolant rods and through-tool cooling for<br />

high-precision and consistent cutting tools<br />

3. tailored coolant rods and through-tool cooling for<br />

top-performing tools in complex cutting applications<br />

For high-volume <strong>tooling</strong> at controlled costs<br />

For high-volume cutting operations where cost control is<br />

a priority, flood cooling is an effective method. Flood cooling<br />

involves continuously pouring a large volume of coolant<br />

over the cutting area. In these scenarios, tools can be made<br />

from standard solid carbide rods without coolant channels<br />

because the flood cooling system surrounds the cutting tool<br />

and reaches the cutting edges effectively.<br />

Using standard solid carbide rods with flood cooling has<br />

historically been a cost-effective solution for general machining<br />

needs. The flood cooling approach is best suited for applications<br />

where cutting tools are used in high volumes and<br />

changed frequently. However, flood cooling can be less efficient<br />

in deep or complex cuts where coolant penetration into<br />

the cutting zone is limited, potentially leading to early tool<br />

breakage. Traditionally, standard solid rods have worked well<br />

as a cost-conscious option because blanks have been readily<br />

available for fast fulfillment and quick delivery times.<br />

However, in today’s environment where the cost of carbide<br />

is rising rapidly because of the restricted supply of am -<br />

monium paratungstate (APT), one of the critical raw<br />

materials in carbide, toolmakers should consider higherperformance<br />

options that maximize the value of the carbide<br />

they are purchasing.<br />

Hyperion carbide rods – coolant channel assortment<br />

14 no. 2, <strong>2026</strong> April


materials & tools<br />

Hyperion carbide rods – specialty coolant channels<br />

For high-precision and consistent cutting tools<br />

For more complex cutting applications, a through-tool coolant<br />

system is recommended. Machining operations can vary<br />

from drilling deep holes in titanium turbine discs to long<br />

continuous milling of titanium compressor housings, engine<br />

blades and vanes.<br />

In a through-coolant tool, coolant is delivered through<br />

internal channels within the tool, exiting directly at the cutting<br />

edge. This method is highly efficient because it ensures<br />

coolant reaches the critical areas directly, thereby preventing<br />

overheating, tool wear and workpiece deformation.<br />

For toolmakers looking to enhance tool life and cutting<br />

performance without significant investment, leveraging standard<br />

coolant rods is an excellent starting point. Using drill<br />

blanks with one or two straight channels delivers an upgraded<br />

solution to solid rods by more effectively applying<br />

coolant to the cutting surface. Drill blanks with standard<br />

helical channels support even better performance by more<br />

effectively directing the coolant to the cutting edge and evacuating<br />

chips. End mill blanks with a central channel and<br />

multiple lateral exit holes around the cutting diameter allow<br />

for upgraded performance through the creation of a coolant<br />

curtain around the cutting edge that reduces temperature<br />

and stabilizes performance over extended milling periods.<br />

The direct delivery of coolant to the cutting zone mini mizes<br />

the risk of damaging the valuable workpiece or breaking a<br />

tool unexpectedly, which improves efficiency and reduces<br />

scrap overall. In more complex machining operations, these<br />

factors are even more critical.<br />

For top-performing tools in<br />

complex cutting applications<br />

For toolmakers aiming to outperform the competition and<br />

achieve superior performance in highly specialized cutting<br />

operations, designing coolant channels tailored to specific<br />

requirements is essential. Controlled wall thickness in these<br />

carbide rod blanks reduces the risk of tool breakage, further<br />

enhancing tool longevity. Precision engineering and tight<br />

blank tolerances provide higher quality to drills and end<br />

mills for deep hole drilling and deep pocket milling in titanium<br />

turbine discs or drilling large numbers of consistent<br />

holes in titanium engine casings.<br />

While using a custom-designed coolant channel carbide<br />

rod to develop a specialized carbide tool requires a greater<br />

initial investment, the benefits – much longer tool life, improved<br />

performance, reduced tool wear and increased<br />

precision – are worth considering. High-volume operations<br />

increase productivity and reduce tool consumption<br />

by achieving more cutting passes or holes drilled<br />

before replacement, which can pay for the higher cost of<br />

the tool many times over. Highly specialized operations<br />

often experience impressive performance gains, with easyto-measure<br />

factors like more parts made per tool and less<br />

downtime.<br />

For manufacturers, especially those that make their own<br />

specialized <strong>tooling</strong>, these benefits are undeniable. However,<br />

toolmakers also benefit from delivering premium specialized<br />

tools by winning market share and improving profit margins.<br />

Additionally, because specialized <strong>tooling</strong> reduces the risk of<br />

damaging titanium workpieces and improves cutting time,<br />

manufacturers and toolmakers alike can position themselves<br />

in high-performance industries and gain trust with<br />

key players.<br />

Choosing the right tool blank<br />

makes the difference<br />

Machining titanium presents unique challenges, primarily<br />

due to its low thermal conductivity and the generation of<br />

long, abrasive chips. To overcome these challenges, effective<br />

coolant systems and well-designed coolant channels<br />

in cutting tools are essential. By strategically selecting and<br />

designing carbide rod blanks with coolant holes, toolmakers<br />

can significantly enhance tool life, machining efficiency,<br />

and overall performance for the specific applications of their<br />

customers.<br />

Whether you are managing high-volume operations with<br />

standard carbide rods or developing custom-engineered solutions<br />

for highly specialized applications, the right coolant<br />

system and channel design can make a substantial difference.<br />

Hyperion Materials & Technologies offers a wide range of<br />

solid and coolant carbide rods and provides engineering<br />

expertise to deliver optimal solutions.<br />

further information: www.hyperionmt.com/carbide-rods<br />

no. 2, <strong>2026</strong> April<br />

15


materials & tools<br />

Gear skiving made easy<br />

New digital engineering portal from LMT Fette revolutionizes skiving<br />

Skiving offers decisive advantages in terms of<br />

productivity, quality and efficiency, but it is one of the<br />

most demanding manufacturing processes. Tool specialist<br />

LMT Tools, known for its high level of innovation<br />

and consistent customer focus, is now simplifying<br />

the process with an engineering portal that provides<br />

targeted support, minimizes errors, saves time and ensures<br />

quality.<br />

The engineering portal combines over 100 years of gear cutting<br />

expertise with the possibilities of digitalization, ushering<br />

in a new era for the process. Skiving has never been so easy.<br />

Skiving is one of the most efficient methods for producing<br />

gear teeth. It combines flexibility with high productivity and<br />

offers clear advantages over conventional methods such as<br />

hobbing, gear shaping and broaching. Even complex internal<br />

gear teeth can be manufactured precisely in a very short time,<br />

and machining close to interfering contours or block tooth<br />

machining can also be carried out without any problems. Another<br />

plus: the kinematics can be mapped on many universal<br />

machines with the appropriate software, so special machines<br />

are not necessary. Several machining steps, such as turning,<br />

drilling, and even gear skiving, can be performed in a single<br />

clamping. In summary, this results in a number of benefits<br />

for the user: short machining times, reduced non-productive<br />

and setup times, long tool life, low tool costs, excellent surface<br />

quality and expanded application possibilities.<br />

Skiving is technically demanding<br />

However, despite these strengths, the process is not yet in<br />

widespread use. The reason: it requires precise interaction<br />

between the process, tool, and machine and is extremely demanding<br />

from a technical standpoint. This poses challenges<br />

for many users. “In skiving the tool is positioned at an angle<br />

to the axis of the workpiece being machined. The gear teeth<br />

are formed by this so-called axis cross angle in conjunction<br />

with a synchronous movement between the tool and<br />

LMT Fette's skiving<br />

wheels set standards in<br />

terms of machining time,<br />

manufacturing costs, component<br />

quality, tool life, and process reliability<br />

LMT Fette's gear cutting tools<br />

impress with their unique performance,<br />

high level of innovation, and unparalleled efficiency<br />

workpiece axes and an axial feed. It is a very precise and fast<br />

process, but complex to use”, explains Sascha Beblein, head<br />

of RD&E gear cutting at LMT Tools, adding: “Many of our<br />

customers would like to use skiving, but lack practical and<br />

process knowledge. We are now closing this gap. Our new<br />

digital engineering portal makes working with our tools<br />

noticeably easier and makes skiving usable for everyone.”<br />

LMT Tools: excellence meets innovation<br />

LMT Tools is one of the most renowned experts in the development<br />

and production of precision tools and has unique<br />

tool expertise, comprehensive technology and application experience,<br />

and a high level of vertical integration. All process<br />

steps are carried out in-house – from raw materials to the finished<br />

tool. This ensures quality, flexibility and cost efficiency.<br />

Customers appreciate the company’s forward-looking approach,<br />

holistic methodology and collaborative partnership.<br />

Powerful and reliable gear skiving wheels<br />

The group’s gear cutting specialist is LMT Fette, a subsidiary<br />

of LMT Tools. The company supplies high-performance, reliable<br />

tools for skiving, combining the latest research findings<br />

with proven application and manufacturing expertise. With<br />

their unique combination of excellent cutting edge preparation<br />

and individual process simulation, the skiving wheels set<br />

standards in terms of machining time, manufacturing costs,<br />

component quality, tool life and process reliability, guaranteeing<br />

maximum performance in the production of internal<br />

and external gears. Specially developed simulation software<br />

allows a detailed assessment of the relevant process parameters<br />

to be made during the design phase, considering the<br />

respective customer requirements, and provides valuable<br />

support on the way to safe and successful tool use.<br />

Digital assistance for self-help<br />

Each skiving wheel is unique: the cutting material, cutting<br />

geometry, coating and cutting edge preparation are precisely<br />

tailored to the component and the customer-specific process.<br />

Accordingly each tool is individually parameterized and calibrated<br />

on the machine. However, the complex adjustment and<br />

calibration processes are anything but trivial and regu larly<br />

cause even experienced users to ponder. A key problem is that<br />

16 no. 2, <strong>2026</strong> April


materials & tools<br />

if deviations occur in the measurement report –for example<br />

during initial commissioning, after prolonged use, or after regrinding<br />

this usually requires consultation with LMT Tools.<br />

That costs time. “As the manufacturer we know our tools best<br />

and know exactly what correction values are required in the<br />

event of deviations from the target value”, says André Bollow,<br />

head of the gear cutting product line at LMT Tools, making it<br />

clear: “With the new engineering portal we enable users now<br />

to analyze deviations independently and correct them immediately<br />

without having to forego our expertise – quickly,<br />

easily and without detours.”<br />

Complex in theory, simple in practice<br />

After entering the material and serial number (indicated on<br />

the tool) and the relevant measured values, the tool calculates<br />

the appropriate correction values in seconds and provides<br />

clear adjustment instructions, including for the cross<br />

angle and kappa angle – two key parameters in skiving. This<br />

transforms a complex correction process into a streamlined<br />

workflow. The application is deliberately designed to be simple<br />

and intuitive so that machine operators of all experience<br />

levels can use the digital engineering portal with confidence.<br />

This is groundbreaking considering the shortage of skilled<br />

workers and demographic change.<br />

A new standard<br />

The engineering portal is automatically available with every<br />

tool purchase and can be used immediately after a one-time<br />

online registration. Determining correction values for deviations<br />

from the target value is an essential function, but not<br />

the only one. Other features include the retrieval of cutting<br />

data, an overview of available tools, the provision of setting<br />

data sheets, drawings and tool information, as well as practical<br />

application aids. All information is accessible at any time<br />

and from any device – be it a PC, tablet, or smartphone.<br />

Gear skiving for everyone<br />

“Our motto ‘to ease machining’ is both a benchmark and<br />

a promise. We don’t just supply tools, we supply solutions”,<br />

Sascha Beblein sums it up, emphasizing: “We support our<br />

customers throughout the entire life cycle of our tools – from<br />

the initial idea to recycling – and are always available to assist<br />

them. With the new digital engineering portal we offer practical<br />

support and give users a decisive competitive edge.” The<br />

The envelope geometry shows the trajectory of the<br />

cutting edge during tool engagement<br />

Gear skiving is one of the most efficient<br />

methods for producing internal and external gear teeth;<br />

even when there are interfering contours at the gear tooth exit,<br />

as on this component, skiving can be used in many cases<br />

advantages are obvious: time savings thanks to immediately<br />

available correction values, autonomy thanks to independence<br />

from experts, higher gear quality thanks to precise<br />

parameterization and greater process reliability by minimizing<br />

sources of error. This leads to measurably higher productivity<br />

and lower unit costs.<br />

Gear skiving: an efficient process<br />

with a promising future<br />

There’s no question about it: roll forming is a process with a<br />

bright future. With its efficiency, high performance and wide<br />

range of applications, it offers great potential, especially in<br />

the manufacturing of internal gear teeth. A practical example<br />

illustrates its superiority in use: one customer relied on<br />

erosion to manufacture gears, which took six hours per component.<br />

After switching to roll peeling, the process step was<br />

reduced to 1.5 minutes – an enormous time saving. This<br />

increase in efficiency is invaluable, especially against the<br />

backdrop of rising demand for hollow wheels with internal<br />

gear teeth for electromobility.<br />

Digitally simple. Simply digital<br />

With its engineering portal LMT Tools is breaking new<br />

ground and making it easier to access skiving. This innovative<br />

tool simplifies the use of this complex technology and<br />

combines expertise, data and support in a single solution. It is<br />

the only one of its kind in the world. “Customer and market<br />

requirements are key drivers of innovation for us. Digitalization<br />

plays a key role in this”, says André Bollow, adding: “We<br />

see ourselves as partners to our customers and want to make<br />

working with our products as easy and efficient as possible.<br />

The customer experience platform is the next logical step:<br />

it makes our tool and process expertise digitally accessible<br />

and opens up skiving to many users.”<br />

Currently the engineering portal focuses primarily on<br />

skiving but also includes other tool families. ChamferCut<br />

and hobs are already integrated, with additional tools and<br />

services to follow gradually.<br />

further information: www.lmt-tools.com<br />

no. 2, <strong>2026</strong> April<br />

17


materials & tools<br />

PCD – for more than 50 years available for the cutting tool industry – 1973-<strong>2026</strong><br />

How super-hard cutting materials revolutionized<br />

machining<br />

Horst Lach, CEO of LACH DIAMANT looks back:<br />

“When I received the first polycrystalline diamonds for testing<br />

from the manufacturer General Electric in April 1973,<br />

shortly before the Hanover spring tradeshow, I immediately<br />

gave them to our diamond cutting shop for natural diamonds.<br />

We wanted to find out how this material could be ground<br />

compared to natural diamonds.”<br />

The answer did not take long. The head of our natural<br />

diamond cutters, Kurt Wagner (†), an excellent diamond<br />

expert, came to me and said: “Boss, we usually do everything<br />

for you, but this beastly material is impossible to cut, nothing<br />

works…” Just “poly” – or what?! Two more days until the start<br />

of the tradeshow. We wanted to present this PCD material<br />

under the trademarked name “dreborid” for turning interrupted<br />

cuts as a tradeshow novelty for aluminum processing.<br />

Someone had an idea regarding “poly” – actually, the diamond<br />

grit within a diamond grinding wheel is also “poly”.<br />

No sooner said than done. During grinding with a resin bond<br />

diamond grinding wheel, mounted on a small steel grinding<br />

machine, the first abrasion tracks or facets became visible.<br />

This was the initial demonstration of grinding a cutting-edge<br />

geometry on a polycrystalline diamond.<br />

PCD compact milling cutter with direct cooling<br />

(patented) through the diamond cutting edge<br />

for machining aluminum and fiber composites<br />

PCD tool program for manufacturing the wings for<br />

wind power systems, milling, drilling and cutting<br />

of glass fiber materials (GRP)<br />

PCD milling cutter for<br />

machining composite materials –<br />

GRP – CFRP – wood-based materials<br />

18 no. 2, <strong>2026</strong> April


materials & tools<br />

PCD chip breaker Type »IC-plus-world’s best« with active chip breaker for process-reliable turning of aluminum alloys<br />

In retrospect, this first presentation at the Hanover tradeshow<br />

in 1973 marked the beginning of a new era of cutting<br />

technology. The turbo was ignited. In 1975 cubic crystalline<br />

boron nitride (CBN) cutting materials complemented the<br />

program of super-hard cutting materials for machining highalloy<br />

hardened steel, starting from 58 HRC. Based on the success<br />

of Borazon® CBN grinding wheels since their premiere in<br />

1969, I personally had not anticipated compact boron nitride<br />

(CBN) inserts before PCD.<br />

The successful presentation of PCD-tipped saws and<br />

milling cutters for the manufacturing of glass fiber reinforced<br />

(GRP) circuit boards at productronica in 1977 in<br />

Munich showed LACH DIAMANT the limitations for a<br />

further distribution of PCD rotating tools.<br />

The polycrystalline diamond material available for us,<br />

had to be cut extensively, piece by piece, tooth by tooth. 25-<br />

30 min. per tooth were quite common, and it had to be with<br />

an accurate geometry. In addition the PCD manufacturers,<br />

like General Electric, had to elaborately segment the pressed<br />

PCD blanks by cutting off with diamond saws in order to be<br />

able to deliver 60 °, 90 ° cutting edges, rectangles or squares.<br />

Change, and the truly “sparkling” idea came from<br />

LACH DIAMANT<br />

At the end of 1978, Horst Lach filed a patent application for<br />

spark/electro erosion for machining and forming polycrystalline<br />

diamond and boron nitride. The second turbo was ignited.<br />

An up to 350 times longer tool life than that of previously<br />

used carbide tools convinced users all over the world.<br />

Whole industries began to compete in using diamond tools.<br />

Ahead of all, in the 1980’s, the wood and plastic industry,<br />

followed by the automobile and aviation industry. Using<br />

PCD tools was fashionable and – since highly economical<br />

– virtually a “MUST-HAVE.”<br />

At the next IMTS in Chicago/USA, September 14 - 19, <strong>2026</strong>,<br />

LACH DIAMOND INC., Grand Rapids, Michigan, will showcase<br />

a complete portfolio of their polycrystalline diamond<br />

and CBN tools, developed in more than 50 years.<br />

Already today, a visit to www.lach-diamant.de will be<br />

worthwhile your time.<br />

further information: www.lach-diamant.de<br />

no. 2, <strong>2026</strong> April<br />

19


materials & tools<br />

Edge quality without compromise<br />

Modern furniture fronts combine sophisticated<br />

design with high durability. High-gloss surfaces, glass<br />

laminates and decorative coated panels have become<br />

indispensable in industrial furniture production. At the<br />

same time these materials place the highest demands<br />

on machining: even the smallest chipping, damaged<br />

edges, or frayed protective films impair the visual appearance<br />

and often result in rework and increased<br />

scrap rates. With the Diamaster PRO EdgeExpert,<br />

Leitz offers a <strong>tooling</strong> solution specifically developed for<br />

these sensitive applications.<br />

The innovative concept of the Diamaster PRO EdgeExpert<br />

combines the strengths of a sizing cutter and a jointing cutter<br />

in a single tool. This results in exceptionally high edge quality<br />

already during the sizing process – a decisive advantage, as<br />

perfect results are achieved in the very first machining step.<br />

Perfect cut edges on all common machine types<br />

The Diamaster PRO EdgeExpert produces chip-free cut edges<br />

on console machines, nesting machines and panel dividing<br />

saws – even with demanding surfaces and high-quality top<br />

layers. Especially in serial production, this significantly increases<br />

process reliability. The protective film is cut cleanly<br />

without fraying. Downstream operations can be carried out<br />

without additional corrections.<br />

A key quality factor is the precisely coordinated tool geometry.<br />

The axial angles are specifically adapted to the different<br />

material zones: a higher axial angle in the area of the<br />

top layers improves cut quality and minimizes tear-out, while<br />

a lower axial angle in the core layer optimizes chip evacuation.<br />

At the same time only minimal pressure is exerted on<br />

the core layer, preventing compression and preserving the<br />

structural integrity of the material. Large chip gullets ensure<br />

reliable chip removal, even at high feed speeds.<br />

The<br />

Diamaster<br />

PRO EdgeExpert<br />

combines a sizing cutter<br />

and a jointing cutter in a<br />

single tool, delivering exceptionally<br />

high edge quality already during the sizing process;<br />

for perfect surfaces without tear-out –even on the most<br />

demanding materials<br />

Higher feed rates, less rework<br />

The Diamaster PRO EdgeExpert enables feed speeds of up to<br />

25 m/min. This noticeably reduces cycle times and increases<br />

efficiency in the production process. Less rework and lower<br />

scrap rates further enhance cost-effectiveness. The diamondtipped<br />

tool also sets benchmarks in terms of service life. It<br />

can be resharpened up to three times and maintains its performance<br />

over extended operating periods. This makes the<br />

Diamaster PRO EdgeExpert a sustainable and economically<br />

sound investment for companies with the highest quality<br />

standards.<br />

The standard range includes two versions with a diameter<br />

of 12 mm and cutting lengths of 24 mm or 30 mm. The tool is<br />

ideally designed for panel thicknesses from 16 to 28 mm and<br />

offers maximum flexibility when machining a wide variety of<br />

furniture materials with high-quality surfaces.<br />

Optimized cutting geometry and generously dimensioned<br />

chip gullets enable high feed rates while maintaining<br />

excellent surface quality<br />

The Diamaster PRO EdgeExpert stands for perfect edges,<br />

maximum precision, and productivity that delivers measurable<br />

benefits directly in production.<br />

further information: www.leitz.org<br />

20 no. 2, <strong>2026</strong> April


news & facts<br />

Change on the management board<br />

After more than 36 years with the LEUCO Group,<br />

including nine years as CEO, Jean-Michel Peter retired<br />

at the end of February <strong>2026</strong>.<br />

During his time with the company, he promoted the development<br />

of LEUCO with commitment, strategic vision, and<br />

a sense of responsibility. Under the management board<br />

LEUCO S.à.r.l. consolidated its position, expanded its expertise,<br />

and continued its dynamic innovation and growth. His<br />

leadership qualities, high professional standards and commitment<br />

to the company’s values have had a lasting impact<br />

on the team and partners.<br />

To ensure continuity and maintain this momentum<br />

Dr. Dominique Fendeleur took over the position of CEO<br />

on March 1, <strong>2026</strong>. Dominique Fendeleur has been with the<br />

LEUCO Group since 1997 and has held various strategic<br />

positions, most recently as technical product director at<br />

LEUCO production S.à.r.l. His high level of expertise,<br />

detailed knowledge of the company, and forward-looking<br />

innovative strength make him the ideal person to meet the<br />

challenges and achieve the goals facing the Group. This transition<br />

is in line with the desire for continuity, stability and<br />

sustainable development of the business.<br />

Dominique Fendeleur (left) has been CEO of LEUCO S.à.r.l. since<br />

March 1, <strong>2026</strong>, he succeeds Jean-Michel Peter, who is retiring<br />

after nine years as CEO and a 36-year career at LEUCO<br />

LEUCO S.à.r.l was founded in 1961 in Ostwald (France,<br />

near Strasbourg). Today LEUCO is one of France’s leading<br />

suppliers of new tools, grinding services and consulting<br />

in the field of tools for the wood and furniture industry.<br />

LEUCO S.a.r.l employs 80 people at its headquarters in<br />

Ostwald (département 67) and at its four grinding centers in<br />

Meyzieu (69), Ballan Miré (37), Vitrolles (13) and Ostwald<br />

further information: www.leuco.com<br />

Change in management<br />

A change in management is taking place at the British<br />

subsidiary of the Vollmer Group. After many successful<br />

years, Martyn Cross will step down from his role<br />

as managing director of VOLLMER UK Ltd in April<br />

<strong>2026</strong> and retire.<br />

Martyn Cross has played a key role in shaping the development<br />

of VOLLMER UK and has significantly strengthened<br />

the company’s market position in Great Britain. Through his<br />

strong commitment, extensive expertise and close ties with<br />

the Vollmer Group, he has made a substantial contribution<br />

to the company’s success. The Vollmer Group would like to<br />

express its sincere thanks to Martyn Cross for his dedication<br />

and valuable work, and wishes him all the best, good health<br />

and many new personal projects in this new phase of life.<br />

In April <strong>2026</strong> Christopher Hellyer will assume the role of<br />

managing director of VOLLMER UK Ltd. After completing<br />

his apprenticeship, he began his professional career as a service<br />

technician before moving into sales, where he gained<br />

more than 33 years of extensive experience in senior sales<br />

management positions. He will take on his new responsibilities<br />

gradually and will work closely with Martyn Cross over<br />

the coming months to ensure a smooth transition. With his<br />

long-standing industry experience and in-depth market and<br />

sales knowledge, Christopher Hellyer brings excellent qualifications<br />

to continue the successful development of VOLLMER<br />

UK. The Vollmer Group considers itself well positioned for<br />

the future with this management change and looks forward<br />

Martyn Cross (right), outgoing managing director of<br />

VOLLMER UK Ltd, and his successor Christopher Hellyer,<br />

who will assume the role of managing director in April<br />

to continuing its successful collaboration with the team in<br />

Great Britain.<br />

“The years at VOLLMER UK have been a very special and<br />

enriching time for me. Together with a dedicated team and<br />

in close cooperation with the Vollmer Group, we were able<br />

to continuously develop and strengthen our market position<br />

in Great Britain. I am very grateful for the trust placed in me<br />

and the support I have received. I am confident that VOLLMER<br />

UK will continue to be successfully positioned under the<br />

leadership of Christopher Hellyer”, adds Martyn Cross.<br />

further information: www.vollmer-group.com<br />

no. 2, <strong>2026</strong> April<br />

21


news & facts<br />

Mitsubishi Materials appoints new president<br />

of the metalworking solutions division<br />

Mitsubishi Materials Corporation announces the<br />

appointment of Mirko Merlo as president of its<br />

Metalworking Solutions Division, effective from<br />

April 1 st , <strong>2026</strong>.<br />

An accomplished executive with a strong track record in<br />

organizational transformation and value creation, Merlo will<br />

lead the division’s next phase of international expansion,<br />

focusing on high-growth and high-margin market segments.<br />

He succeeds Kazuo Ohara, who will retire after many years<br />

of dedicated service to the Group.<br />

In his previous role as chief strategy and sales officer of<br />

the Metalworking Solutions Company, Mirko Merlo played a<br />

pivotal role in modernizing the organization’s operating<br />

model. Under his leadership the company implemented major<br />

structural and operational improvements, including process<br />

optimization, integration of shared services and cost efficiency<br />

programs. These initiatives significantly strengthened the<br />

company’s resilience and long-term competitiveness.<br />

In his new position Merlo will oversee the continued international<br />

development in established and emerging markets.<br />

The division will continue to grow across Europe, Asia-Pacific<br />

and the Americas responding to increasingly sophisticated<br />

application requirements and growing sustainability expectations<br />

from customers worldwide.<br />

Commenting on his appointment, Mirko Merlo said: “Together<br />

with Moldino and Mitsubishi Materials Hardmetal, we<br />

will leverage our robust technical capabilities and profound<br />

customer relationships to deliver innovative, high-performance<br />

solutions. Our focus will be on supporting demanding<br />

applications with a comprehensive, reliable service portfolio<br />

that generates measurable value.”<br />

Tetsuya Tanaka, chief executive officer and president of<br />

Mitsubishi Materials, added: “Mirko Merlo’s strategic vision<br />

and collaborative leadership will be instrumental in advancing<br />

our internationalization strategy and strengthening our<br />

market position. His strong focus on operational discipline,<br />

customer value and sustainability supports both our shortterm<br />

priorities and long-term objectives.”<br />

This leadership transition reflects Mitsubishi Materials’<br />

commitment to developing a resilient, more customer-centric<br />

organization capable of delivering high-impact technologies<br />

and services across global markets.<br />

further information: www.mmc-carbide.com<br />

New director of global key account management<br />

at MAPAL Group<br />

Recently Mark Lich assumed the role of director global<br />

key account management, taking over the leadership<br />

of this newly established department with the same<br />

name.<br />

He is responsible for the strategic and operational management<br />

of sales activities and results for MAPAL’s global key<br />

accounts. Lich reports directly to the chief sales officer of the<br />

MAPAL Group, Claudio Gabos.<br />

Mark Lich joined the company at the end of 2013 and<br />

has extensive experience in various sales roles at MAPAL.<br />

Among other roles, he has served as regional sales manager<br />

in Southern Germany and managed global strategic sales<br />

projects.<br />

Since January 2023 he has headed the sales management<br />

office (SMO), which is responsible for steering and supporting<br />

global growth and efficiency goals within strategic sales<br />

management. He will continue to fulfil this role alongside his<br />

other responsibilities.<br />

further information: www.mapal.com<br />

22 no. 2, <strong>2026</strong> April


news & facts<br />

STUDER reports positive results<br />

for the 2025 financial year<br />

The Swiss technology company for precision cylindrical<br />

grinding machines was able to strengthen its<br />

global market position despite the challenging geopolitical<br />

situation, expand its portfolio with innovative<br />

new products, develop its customer care further<br />

and invest several million Euros in infrastructure.<br />

Fritz Studer AG’s annual press conference took place in<br />

Steffisburg in front of international media representatives<br />

under the motto “Swiss Made”. “The year 2025 was marked<br />

by challenging markets and geopolitical uncertainties.<br />

Nevertheless we exceeded our expectations and emerged<br />

from this phase stronger than ever”, said CEO Sandro<br />

Bottazzo. Despite complex global conditions, the Swiss technology<br />

company was able to strengthen its market position<br />

worldwide, expand its portfolio with important innovations<br />

and further increase its operational efficiency. Particularly<br />

pleasing was the excellent market response to the new S23<br />

universal cylindrical grinding machines and the latest generation<br />

of favoritCNC. In customer care, the long-established<br />

manufacturer even achieved record sales in paid<br />

service and maintenance.<br />

STUDER maintains and expands market share<br />

worldwide<br />

Total sales were slightly below the previous year’s level but<br />

exceeded expectations thanks to a strong year-end performance.<br />

Thanks to its excellent market positioning, STUDER<br />

achieved good sales in North America despite customs<br />

challenges. The result in Asia was also positive and above<br />

the previous year’s level, especially in China. STUDER<br />

also exceeded the previous year’s level in terms of machine<br />

orders received. The high proportion of new customers, at<br />

44 %, was also encouraging. Orders from North America,<br />

Asia, and European countries such as France, Czechia and<br />

Denmark in particular supported this result.<br />

Germany, Italy and Switzerland, on the other hand, fell<br />

short of expectations. Overall, however, market share was<br />

maintained or expanded in all regions of the world. The<br />

customer care segment performed very well. “Thanks to<br />

our global, customer-focused service organization, we were<br />

able to set new sales records in the service and maintenance<br />

business areas,” explained Bottazzo. In many markets, over<br />

70 % of the active installed base has a maintenance contract<br />

now. In the area of machine overhauls, the year ended<br />

with one of the best order backlogs in the company’s 114-year<br />

history.<br />

STUDER is very well positioned<br />

in the aerospace industry<br />

The aerospace segment delivered another record. It closed as<br />

the largest single segment for the first time, accounting for<br />

Stephan Stoll – COO, Sandro Bottazzo – CEO,<br />

Daniel Huber – CTO (from left to right)<br />

almost a third of all orders. Other important categories were<br />

precision engineering, machine tools and the automotive<br />

industry. “Our broad portfolio remains a pillar of success<br />

and covers a wide range of universal cylindrical grinding applications”,<br />

emphasized Bottazzo. The best-selling machine<br />

was the S33, followed by the S31 and the S41. External and<br />

machines for internal cylindrical grinding also both performed<br />

well. The S141 even achieved one of the best sales<br />

results of the last ten years.<br />

An additional event in 2025 was the acquisition of<br />

GF Machining Solutions by the UNITED GRINDING Group,<br />

which now operates under the name UNITED<br />

MACHINING SOLUTIONS. With total sales of over USD<br />

1.5 billion and around 5,000 employees at over 50 locations,<br />

the group is one of the largest machine tool manufacturers<br />

in the world. As part of the acquisition the STUDER<br />

Competence Center for internal cylindrical grinding moved<br />

to the modern premises of UNITED MACHINING at<br />

Roger-Federer-Allee 7 in Biel (Switzerland), just a few minutes<br />

away from its previous location.<br />

STUDER expects the economy to pick up in <strong>2026</strong><br />

In the third and especially in the fourth quarter, STUDER<br />

recorded a significant increase in the number of sold<br />

machines, which, from today’s perspective, is set to continue<br />

in <strong>2026</strong>. Consequently the company expects a further<br />

increase for the current fiscal year.<br />

further information: www.studer.com<br />

no. 2, <strong>2026</strong> April<br />

23


news & facts<br />

New center for applications and<br />

assembly of drive systems<br />

Motion control specialist Aerotech is significantly expanding<br />

its capacity at its Fürth site. In addition to<br />

setting up a state-of-the-art laser laboratory, controls<br />

components will also be assembled there in the future.<br />

With this expansion, the company is responding to the growing<br />

global demand for its high-precision positioning and<br />

automation solutions while also strengthening its delivery<br />

capabilities in Europe.<br />

The first phase of the expansion will focus on the assembly<br />

and testing of XA4 series servo drives and motion controllers.<br />

The additional capacity is intended to create greater flexibility<br />

in production, help stabilize supply chains and further<br />

increase product availability in European markets.<br />

“With the expansion of our site in Fürth we are investing<br />

specifically in growth, customer proximity and operational<br />

flexibility”, explains David Holmes, COO of Aerotech Inc.<br />

“By assembling drives locally we are accelerating our market<br />

response and scaling production while maintaining our<br />

high quality standards.”<br />

The building in Fürth was designed in 2016 to support<br />

future growth. The current initiative is therefore part of<br />

Aerotech’s long-term investment strategy to systematically<br />

develop and strengthen its European location.<br />

Laser laboratory as a European center of excellence<br />

In parallel with the expansion of its assembly capacities,<br />

Aerotech is commissioning a new laser laboratory for applications<br />

in laser material processing. In order to not only<br />

Initial assembly workstations ensure fast delivery<br />

of Aerotech drives to the European market<br />

be able to design processes theoretically, but also to verify<br />

them in interaction with real systems, Aerotech is creating<br />

the appropriate environment in Fürth, thereby significantly<br />

facilitating cooperation with customers and interested parties.<br />

Customers from all over Europe will have the opportunity<br />

to test and optimize laser-based manufacturing processes<br />

under realistic conditions and develop them further<br />

in collaboration with Aerotech. In the long term, the laboratory<br />

will serve as a European center of excellence for micro<br />

and precision material processing.<br />

further information: www.aerotech.com<br />

VIGEL to announce the acquisition of MCM<br />

On January 30 th , <strong>2026</strong>, VIGEL S.p.A. (Borgaro Torinese,<br />

TO) and MCM S.p.A. (Vigolzone, PC) announced<br />

that the transfer of ownership of the MCM S.p.A. to<br />

MCM Manufacturing Technologies S.r.l., a subsidiary<br />

of the GENFIN holding , which also controls VIGEL<br />

S.p.A., was completed.<br />

Both Vigel and MCM are recognized as players of excellence<br />

in the manufacturing technologies sector, the acquisition<br />

supports the long-term vision of building a strong and diversified<br />

organization focused on advanced machining<br />

solutions for the global industry.<br />

VIGEL SpA is a company founded in 1947 in Torino and<br />

still owned by the founder’s family. VIGEL was one of the<br />

pioneers in the design and manufacture of multi-spindle<br />

machining centers and is now a multinational company with<br />

factories in Italy (Turin), India and China, and branches in<br />

Europe, the United States, Mexico, India, China and Korea.<br />

MCM Manufacturing Technologies S.r.l.Vigolzone, PC<br />

In addition to machining centers, VIGEL’s product range<br />

also includes vertical lathes and special machine tools for<br />

the automotive industry.<br />

24 no. 2, <strong>2026</strong> April


fairs<br />

news & facts<br />

MCM SpA is a company founded in 1978 in Piacenza,<br />

specializing in the design and manufacture of horizontal<br />

machining centers and flexible production systems that<br />

operate through supervision software developed by its own<br />

IT division. MCM’s mechanical processing technologies are<br />

applied to a wide range of industrial sectors, with a focus<br />

on aerospace.<br />

The acquisition strengthens the ability to offer a wider<br />

range of products and technologies, diversify the market<br />

of reference and build up strategies which will reinforce the<br />

synergies between the two companies as sales, product’s<br />

development, manufacturing, procurement as well reinforce<br />

the presence and closeness to our today even wider and<br />

diversified customer base.<br />

further information: www.vigel.com<br />

Vigel S.p.A., sede Borgaro Torinese, TO<br />

Strong international presence<br />

at GrindingHub<br />

With over 430 exhibitors from 28 countries, the worldleading<br />

trade fair, taking place from May 5-8, <strong>2026</strong>, in<br />

Stuttgart is once again sending out a powerful message<br />

to the industry: despite falling production and export<br />

figures, grinding technology remains highly innovative,<br />

and GrindingHub is positioning itself as the<br />

central platform for the industry.<br />

Industry caught between decline and innovation<br />

The economic conditions remain challenging, as recent statistics<br />

show. German production of grinding, honing, lapping<br />

and polishing machines reached € 626 million in the first<br />

three quarters of 2025 – down 15 % from the same period<br />

of the previous year. The downturn was particularly pronounced<br />

in exports, which fell by 25 % to € 456 million. In<br />

contrast, domestic sales developed positively, growing to<br />

a volume of € 170 million between January and September<br />

2025 – a 33 % increase. Incoming orders tapered off toward<br />

the end of 2025, with the annual balance closing with a 5 %<br />

deficit. The domestic market in particular was significantly<br />

weaker, whereas exports remained largely stable. “The numbers<br />

show clearly that the industry is navigating a challenging<br />

environment. Yet we are also seeing strong innovation<br />

momentum across many companies. In times like these the<br />

sector needs guidance, avenues for information sharing<br />

and tangible business opportunities – which is exactly what<br />

GrindingHub delivers”, says Dr. Markus Heering, executive<br />

director of VDW and organizer of GrindingHub.<br />

International participation continues at<br />

all-time high<br />

More than 430 exhibitors – from start-ups to global giants –<br />

have confirmed their booths at GrindingHub. Over three<br />

halls at Messe Stuttgart exhibitors from Germany, China,<br />

Switzerland and Italy in particular will present their innovations<br />

from every stage of the valued chain – from<br />

grinding machines and abrasives, process peripherals and<br />

software solutions, to measuring and testing technology.<br />

“GrindingHub is so much more than just a product show. It<br />

is the international stage for grinding technology and a place<br />

where partnerships are forged, investments are prepared and<br />

future technologies are set in motion”, emphasizes Heering.<br />

The fact that Switzerland is one of the most strongly represented<br />

countries among the exhibitors highlights the importance<br />

of grinding technology for its industry at home.<br />

“Grinding machines make up around a fifth of Swiss machine<br />

tool exports. This underscores the critical role of such technology<br />

for our member companies”, says Christoph Blättler<br />

from Swissmem, the association for the Swiss technology<br />

industry. “The Grinding Pavilion Switzerland gives smaller<br />

companies in particular an efficient way to shine at the<br />

trade fair.”<br />

further information: www.grindinghub.de<br />

no. 2, <strong>2026</strong> April<br />

25


news & facts<br />

A reward for sustained innovation<br />

Hainbuch GmbH has been awarded the TOP 100-Innovator<br />

<strong>2026</strong> – in category C (more than 200 employees).<br />

The recognition places HAINBUCH among Germany’s<br />

most innovative mid-sized companies. The official<br />

award ceremony will take place on June 26, <strong>2026</strong>,<br />

at the Congress Center Heidelberg, as part of the<br />

German SME Summit.<br />

At HAINBUCH innovation is not accidental – it’s systematic.<br />

The TOP 100 evaluation does not focus on individual inventions;<br />

instead it assesses innovation management and innovation<br />

performance. Professor Nikolaus Franke (Vienna University<br />

of Economics and Business Administration) and his<br />

team examine more than 100 criteria in five categories:<br />

innovation-friendly senior management, climate of innovation,<br />

innovative processes/organization, outward looking/<br />

open innovation and successful innovations.<br />

“Smart solutions” – and the courage<br />

to try something new<br />

HAINBUCH is a leading manufacturer of solutions for<br />

clamping, change-over, measurement and automation for<br />

milling, turning and grinding on machine tools. The familyowned<br />

company has been based in Marbach am Neckar since<br />

1951 and operates worldwide with eleven subsidiaries.<br />

HAINBUCH is defined by a blend of Swabian ingenuity,<br />

hands-on practicality and a clear customer focus. Doers,<br />

thinkers and developers share one mission: to continuously<br />

simplify, advance and automate workholding processes.<br />

The company’s innovation culture is closely linked to the<br />

spirit of the owner family. Gerhard Rall, owner and inventor<br />

of the SPANNTOP principle, sums up this mindset: “We<br />

want to make our customers successful and strive for excellence<br />

and smart solutions. We would rather fail with an<br />

innovation than succeed by copying.”<br />

Employes and management celebrate the award<br />

This attitude has shaped HAINBUCH for decades –<br />

from the breakthrough in workpiece clamping with the<br />

SPANNTOP principle in the 1970’s to today’s solutions for<br />

reliable, connected, and automation-ready manufacturing.<br />

Examples include intelligent IQ clamping devices and the<br />

automated centroteX AC quick change-over interface for<br />

changing over entire clamping devices in automated manufacturing<br />

processes. Innovation also shows up in everyday<br />

execution: every year HAINBUCH develops more than 1,000<br />

custom solutions together with customers for demanding<br />

clamping applications.<br />

“For us the TOP 100 award confirms that our commitment<br />

to innovation is lived throughout the entire company – from<br />

the idea and the process to measurable customer benefits.<br />

We invest specifically in technology, know-how and collaboration<br />

to make manufacturing easier, more precise and more<br />

automatable”, explains Sylvia Rall, owner and CEO.<br />

further information: www.hainbuch.de<br />

Enhanced e-commerce platform to<br />

enhance customer experience<br />

Sunnen Products Company, a global leader in hig<strong>hp</strong>recision<br />

bore finishing and measurement, announced<br />

the launch of its new public website and B2B e-commerce<br />

platform, designed to enhance the online experience<br />

for customers seeking precision honing equipment<br />

and solutions.<br />

The website introduces a modern look and intuitive feel, offering<br />

easier and more user-friendly navigation for shoppers.<br />

Online ordering of Sunnen’s consumable products is currently<br />

available for customers in the US and Canada. Visitors<br />

to the site will benefit from access to all their online orders,<br />

including those placed through the previous online ordering<br />

platform, ensuring continuity and convenience. Users can<br />

create saved lists similar to wish lists and save shopping carts<br />

for future use, while the ability to place orders for any saved<br />

ship to location from the same account removes the hassle of<br />

multiple logins.<br />

In addition to the new online ordering experience, the over -<br />

all website has been redesigned to help global visitors access<br />

the product and application information they need when eval -<br />

uating Sunnen’s portfolio of machines and consumables.<br />

further information: www.sunnen.com<br />

26 no. 2, <strong>2026</strong> April


Gear cutting and grinding from a single source<br />

processes<br />

Liebherr-Verzahntechnik GmbH is continuing the<br />

systematic development of its platform strategy with<br />

the redesign of its machine platform for workpieces<br />

up to two meters in diameter. The new series encompasses<br />

all relevant gear technologies and is aimed<br />

at manufacturers of large gears, particularly in the<br />

mechanical engineering, marine propulsion, construction<br />

machinery and wind power industries.<br />

The lineup begins with milling and profile grinding<br />

machines designed for this size range – making it possible,<br />

for the first time, to perform precision hard machining on<br />

large workpieces.<br />

By expanding the platform Liebherr now offers the entire<br />

machining spectrum in this size range and is responding<br />

to growing demand for soft and hard-fine machining<br />

from a single source. “Our concept is designed specifically<br />

for this segment as a comprehensive solution”, explains<br />

Thomas Breith, head of product management for Gear Technology.<br />

The new LGP 2000 enables profile grinding of<br />

workpieces up to 2,000 mm in diameter. In future customers<br />

will receive a machine package that includes milling and<br />

grinding – a combination that is often used in the machining<br />

of large components.<br />

mally than with the previous machines”, explains Thomas<br />

Breith. The machines feature a high-precision, hydrostatically<br />

mounted table with wear-free direct drive. Depending<br />

on the machine type, flat or roller linear guides are used,<br />

which enable high damping during gear cutting and maximum<br />

precision during grinding and gear testing on the machine.<br />

Two main stand variants with 1,500 and 2,000 mm of<br />

stroke enable efficient machining of even particularly long<br />

shafts with multiple gear teeth. The platform’s machines are<br />

designed to accommodate automation solutions like pallet<br />

changers and ringloaders.<br />

New gear cutting features: integrable<br />

chamfering device, optimized chip removal<br />

A new feature is that the gear cutting machines offer an<br />

optional chamfering device with a conventional end mill<br />

(FlexChamfer) that can be used directly on the cutter head.<br />

This allows for cost-effective machining even with small<br />

batch sizes. When milling internal gear teeth, an integrated<br />

chip removal system eliminates the need for a separate,<br />

costly channel in the factory floor. The gear cutting machines<br />

are suitable for both dry and wet machining.<br />

Profile grinding:<br />

new LGP series for large gear teeth<br />

Various grinding head configurations are available on the<br />

LGP for profile grinding of large gears. A unique feature<br />

is the sequential use of two grinding wheels without a tool<br />

change. This allows different tool specifications to be used,<br />

which either shorten the grinding time or enable higher<br />

surface qualities to be achieved in production.<br />

LGP allows both high speed grinding and creep feed<br />

grinding. Single- or double-sided topological profile grinding<br />

and internal grinding using an optional, swivelling internal<br />

grinding arm are possible thanks to the modern<br />

LHGearTec. In addition to a conventional double dresser,<br />

the LGP can also be equipped with a double dresser for simultaneous<br />

dressing of both grinding wheel flanks. This<br />

allows dressing times to be almost halved and the productivity<br />

of the profile grinding machine to be significantly<br />

increased once again.<br />

New platform:<br />

modular, economical, precise<br />

The newly designed large machine platform offers consistent<br />

synergies across all machining processes, thanks in part<br />

to a uniform control interface. Shorter processing times for<br />

profile grinding reduce machine costs and thus reduce unit<br />

costs for the customer. The modular design also improves<br />

the availability of spare parts, ensuring high machine availability.<br />

The new milling and profile grinding machines<br />

was unveiled at EMO in September 2025.<br />

The new high-performance grinding head<br />

Modular system<br />

The redesign was focused on modularity, flexibility and<br />

reduced component diversity – with the aim of optimizing<br />

delivery times and spare parts availability. All machines are<br />

built on a thermally symmetrical machine bed that is precisely<br />

temperature-regulated via circulating coolant. “This<br />

makes gear cutting and grinding even more stable therfurther<br />

information: www.liebherr.com<br />

no. 2, <strong>2026</strong> April<br />

27


processes<br />

Strategic aircraft component with all the trimmings<br />

As part of a joint project, MAPAL and machine<br />

manufacturer bavius designed and manufactured a<br />

demonstration part for the aerospace industry. The<br />

aluminum component, measuring approximately<br />

3 x 1 m, is based on a real rear spar from aircraft manufacturing<br />

enhanced with a variety of complex features.<br />

Besides its complexity, the component is also impressive due<br />

to the short machining time of ten hours thanks to the productivity<br />

of the bavius AeroCell and the special MAPAL tools<br />

used for aluminum machining.<br />

bavius technologie, from Baienfurt in Southern Germany,<br />

is specialized in the high-speed volume machining of structural<br />

components made of aluminum, which are typically<br />

required in the aerospace industry for wings and fuselages.<br />

Previously known as Handtmann A-Punkt Automation, bavius<br />

has been active as an independent family business since 2017,<br />

concentrating on two product lines: HBZ and AeroCell horizontal<br />

machining centers and the PBZ profile machining centers.<br />

With around 120 employees, bavius generates more than<br />

80 % of its turnover in the aerospace industry. As an OEM or<br />

supplier, their customers produce components for commercial<br />

and military applications. Components for satellites or<br />

rockets like the Ariane 6 are also produced on their machines.<br />

Entirely ‘Made in Germany’<br />

Most bavius machines are located in Europe, but they are<br />

also strong in North American and Asian markets. While<br />

the company has offices in the United States, production for<br />

all markets worldwide exclusively takes place in Baienfurt in<br />

two air-conditioned halls with a production area of approximately<br />

10,000 m 2 .<br />

The NeoMill-Alu-QBig with Ø 50 mm<br />

A particular strength of bavius’s five-axis machining<br />

centers is that they are extraordinarily dynamic, which ensures<br />

high productivity during high-speed machining. To<br />

get every last drop of productivity out of their machines,<br />

bavius manufactures its own milling heads. The flagship of<br />

their product range is the bavius AeroCell 160 | 400 with a<br />

spindle power of 140 kW and top speeds of 30,000 rpm. The<br />

140 kW are already reached at 18,000 rpm, i.e. the maximum<br />

power is available over a wide range of speeds. “When<br />

we do something, we make sure it’s done excellently – we are<br />

global technology leaders with our AeroCell 160 | 400”, says<br />

Dominik Merz, director global sales.<br />

Over 90 % chips<br />

The rear spar is selected as a demonstration part because<br />

it fits perfectly on the machine with a table height of 1.6 m<br />

and width of 4 m. The rear spar is a common structural component<br />

in wings. Ribs run between the rear spar and front<br />

spar, which are arranged perpendicularly to the spars. These<br />

structural components define the geometry of the wings.<br />

The outer skin is riveted onto them. The completed component<br />

is made of 7075 aircraft aluminum and measures<br />

2977 × 748 mm. Its flat form measuring 138 mm high is typical<br />

of aircraft components. From one ton of starting weight,<br />

only 70.61 kg remain after machining – a proportion that is<br />

quite common in the aerospace industry.<br />

Legal reasons prevented bavius and MAPAL from using a<br />

real aeroplane component for the machining. This however<br />

gave those responsible the freedom to use the design for<br />

a variety of applications. As a result, this demonstration piece<br />

is much more complex than any normal rear spar. It includes<br />

features that are not necessarily associated with a spar but<br />

could be useful for other components. “A customer who<br />

knows structural components and sees our part will recognize<br />

it and notice characteristics that are also found in their<br />

own components”, Merz says, explaining this approach.<br />

Proudly presenting the finished demonstration part<br />

in front of the AeroCell 160 | 400 (from left): Jens Ilg (MAPAL),<br />

Alexander Follenweider (MAPAL), Stefan Diem (bavius) and<br />

Dominik Merz (bavius), left to right;<br />

the clamping setup can be seen in the foreground<br />

Machining takes place in Baienfurt in two clamping setups.<br />

While setup 1 uses low tension, setup 2 harnesses vacuum for<br />

secure hold. At first glance, the front looks simpler than it actually<br />

is. The surface is not flat but curves slightly outward<br />

over a radius of 9.5 m. This means that the component cannot<br />

simply be face milled. Instead five-axis machining is nec-<br />

28 no. 2, <strong>2026</strong> April


processes<br />

essary. For roughing and finishing the NeoMill-Alu-QBig<br />

with Ø 50 mm and the OptiMill-Alu-Wave with Ø 25 mm are<br />

employed. The surface finish is performed by a PCD custom<br />

milling cutter.<br />

All sorts of pockets<br />

The machining of the back is particularly sophisticated. It is<br />

separated in nine different sections, each with its own special<br />

features. Like any rear spar, the demonstration part has<br />

many pockets. They are however completed here in all sorts<br />

of forms: rectangular, triangular, round, open, closed, some<br />

with inclined or curved bottoms. The ribs are very thin; the<br />

walls are mostly inclined. The pockets are up to 137 mm deep.<br />

After pre-machining with the NeoMill-Alu-QBig, the<br />

pockets are cleared out by an OptiMill-Alu-Wave of various<br />

lengths. The semi-finishing is performed by a shoulder<br />

milling cutter modified specifically for aerospace applications.<br />

Thanks to its special geometry, the tool is particularly<br />

suitable for machining residual material in the corners as<br />

well as subsequent finish milling of the floors and walls. The<br />

special core rise ensures optimal stability during the machining<br />

process. To machine all the areas efficiently, MAPAL experts<br />

use different diameters and lengths of the modified<br />

shoulder milling cutter.<br />

MAPAL also sets great store by efficiency during programming,<br />

as component manager Alexander Follenweider<br />

explains: “We work with a zigzag strategy in the parallel<br />

and counter feed to save on travel time. We thus constantly<br />

switch strategies during machining.” Despite the high machining<br />

speeds the aluminum may not be damaged as it<br />

changes properties when overheated.<br />

At top speeds, the OptiMill-Alu-Wave achieves a feed of<br />

12 m/min at a cutting depth of 48 mm at 29,000 rpm. The bigger<br />

NeoMill-Alu-QBig achieves a feed of 25 m/min at 10 mm<br />

cutting depth. Alone in the first 55 min. of machining of the<br />

second clamping, 425 kg of aluminum are thus machined. At<br />

its peak, this results in a chip volume of more than 14 l/min.<br />

“The results we were able to achieve here are excellent – and<br />

we were also able to create very good surfaces in the process”,<br />

says Stefan Diem, application engineer at bavius.<br />

Nothing is standard<br />

The various pockets are not the only challenges on the component:<br />

the bores on the four lugs can only be reached via an<br />

angled head. Undercuts are required elsewhere. A T-stiffener,<br />

which is common for structural components and provides<br />

rigidity, is also found on the demonstration part and is machined<br />

with a special PCD tool. Bore and reaming operations<br />

are also called for in certain areas. “Nothing is normal on our<br />

component”, Merz says, referring to the fact that you will be<br />

hard pressed to find a right angle anywhere on the part. Such<br />

oblique constructions are however the norm in the aerospace<br />

industry.<br />

For the involved partners’ customer presentations and as<br />

an eyecatcher for trade fairs, five of these rear spars are produced<br />

in Baienfurt. The machining of a part takes a total<br />

of almost precisely 10 h. “A component like this can take<br />

The pockets with various forms were the biggest challenge of the<br />

demonstration part; some special features were included, such<br />

as lugs with bores or a T-stiffener (top left of figure)<br />

between 20 - 30 h on other machines”, Merz estimates.<br />

Structural parts are usually machined vertically on gantry<br />

machines with big tools. Cutter heads with diameters of<br />

125 mm are normal. Feeds and speeds remain low. One disadvantage<br />

of this way are chips being left behind which<br />

can cause scratches. Heat is also transferred to the component.<br />

Horizontal machining precludes this. Together with<br />

powerful tools that enable high cutting data, the dynamic<br />

AeroCell 160 | 400 opens entirely new possibilities thanks to<br />

its extreme acceleration.<br />

Close collaboration<br />

MAPAL and bavius have been profiting from their close cooperation<br />

since many years. While MAPAL was developing<br />

the NeoMill-Alu-QBig and OptiMill-Alu-Wave, they were<br />

able to test and further optimize prototypes of the new tools<br />

in Baienfurt. As a tool manufacturer MAPAL doesn’t have<br />

equally powerful machines in Aalen, and bavius depends on<br />

innovative tools, as Diem explains: “For our premium machines<br />

we need top tools by suppliers like MAPAL offering<br />

high-volume milling cutters that take our machines to their<br />

limits. That doesn’t work with universal tools – we don’t gain<br />

any insights with them.” Two years ago the partners demonstrated<br />

what the AeroCell 160 could do. During test operations<br />

with overloading, the solid-carbide milling cutter<br />

OptiMill-Alu-Wave achieved chip volumes of up to 20 l/min<br />

while full slot milling normal aluminum. The top results<br />

achieved here are every bit as impressive: 12 l/min for a component<br />

made of the AL 7075 with its higher tensile strength.<br />

“I really appreciate the collaboration with MAPAL because<br />

we speak openly and treat each other fairly, and because<br />

they always provide a solution”, Diem highlights. For Jens Ilg,<br />

business development Aerospace & Composites at MAPAL,<br />

the success has also a personal dimension: “I also get an optimal<br />

feel of our own products when I see them being used in<br />

real and demanding conditions. And then I can offer them to<br />

customers with corresponding recommendations.”<br />

further information: www.mapal.com<br />

no. 2, <strong>2026</strong> April<br />

29


processes<br />

Micrometer in the fiber optic connector<br />

Data transmission rates in high-speed networks<br />

are influenced by many different things – one of the<br />

most important ones is the quality of the connectors.<br />

Especially in fiber optic networks, insert housings play<br />

a central role in speed and signal quality. The more<br />

precisely these parts are manufactured, the less loss<br />

and the more stable electromagnetic light waves are<br />

transmitted.<br />

Kern Microtechnik implements the highest precision standards<br />

in contract manufacturing – with tolerances of up to<br />

2 μm and production quantities of several thousand units.<br />

Plug connections are often the “bottleneck” for transmissions.<br />

This applies to high-pressure applications of liquids as<br />

well as to data that is transmitted with fiber optic cables in<br />

electromagnetic light waves. Even the slightest inaccuracies<br />

in position, angle or parallelism inhibit the transmission rate.<br />

To prevent this the insert housings of the connectors, which<br />

are primarily made of stainless steel, brass or Arcap, must be<br />

manufactured with uncompromising precision.<br />

The contract manufacturing department of Kern<br />

Microtechnik GmbH in Murnau, Germany, has developed a<br />

high level of expertise in this area over many years together<br />

with demanding customers. Many companies working with<br />

data processing, analytics and metrology technology as well<br />

as chemical and pharmaceutical industries appreciate this.<br />

Alexander Stauder, plant manager of Kern’s shop, explains:<br />

“The main challenge for us is to meet the requirements of<br />

each individual customer. To be able to guarantee this we<br />

are usually always on board during the development phase<br />

of the first prototypes.”<br />

Kern Microtechnik manufactures the insert housings of the<br />

fiber optic connectors, which are primarily made of stainless<br />

steel, brass or Arcap, with uncompromising precision; here,<br />

Alexander Stauder (left), plant manager of Kern’s shop explains<br />

what is important<br />

Precision manufacturing makes test redundant<br />

In this way, according to Stauder, aspiration and result can<br />

be steered in the right direction right from the start. Depending<br />

on requirements, quality and cost specifications<br />

are weighed up together to achieve the best result in the<br />

end. As a high-end quality example, the experienced engineer<br />

cites insert housings for fiber optic connectors from<br />

various customers, which can be found in many different<br />

industries, for example in entertainment technology and<br />

defense industries.<br />

The connectors must be very durable so that they can also<br />

be used under difficult conditions. For example in the event<br />

of extreme natural influences they still need reliably to transmit<br />

maximum data volumes. This means that if the opposite<br />

holes of the connector are shifted by even a few μm, this has<br />

enormous, negative effects.<br />

“To prevent this, most high-end manufacturers often check<br />

the conformity of the holes during connector assembly by a<br />

one hundred percent visual inspection”, explains Alexander<br />

Stauder. “But after intensive development work and with<br />

the high-end Kern Micro HD machining center we use for<br />

production, this expensive additional test effort is a thing<br />

of the past for our customers.”<br />

The Kern Micro HD five-axis machining centers are crucial<br />

for the extremely high, reproducible precision that<br />

Kern Microtechnik’s shop achieves on its parts<br />

Fully automated series production – μm-accurate<br />

The Murnau-based shop manages to reliably manufacture<br />

the insert housings of the fiber optic connector with an<br />

accuracy of ≤ 2 μm in position, and not only as one single<br />

part or a small series, but a fully automated batch size of ten<br />

thousand pieces per year. “This number is by no means an<br />

upper limit for us”, plant manager Stauder explains.<br />

30 no. 2, <strong>2026</strong> April


processes<br />

Kern Microtechnik’s shop reliably manufactures<br />

insert housings of fiber optic connectors – such<br />

as the test parts shown in the photo – with an<br />

accuracy of ≤ 2 μm in position and position;<br />

this is not only possible on a single part or a<br />

small series, but also fully automated in<br />

batches of ten thousand parts per year<br />

Kern’s contract manufacturing department is working with<br />

the high-end Kern Micro HD five-axes machining center<br />

to manufacture insert housings. The entire process is fully<br />

automated. This means that the operator loads the tool<br />

changer and workpiece changer at the beginning of the job.<br />

He then calls up the corresponding program and clicks on<br />

‘start’. Then, without any further action needed, a prefabricated<br />

blank is positioned in the machine by the automation<br />

system (internal or external). Then the part is completely<br />

machined, removed and deposited as a finished part in the<br />

same way while the next blank is already being picked up.<br />

Quality of the machining center<br />

makes the difference<br />

What is described here in a few simple words represents a<br />

highly complex process in practice, which is mainly based on<br />

the quality of the machining center used. The most delicate<br />

chips fly, and it only needs to be re-clamped once, including<br />

finishing. This is important because the requirements for<br />

position, angle and diameter tolerances of the decisive drill<br />

are one in the single digit μm range. No matter what material<br />

is being machined.<br />

AMETEK, Inc., Berwyn, Pennsylvania, USA, was founded<br />

in 1930 and is today a globally leading provider of<br />

industrial technology solutions with annual sales of<br />

approximately 7.0 billion USD. With a focus on highly<br />

precise and differentiated products in various niche<br />

markets, the group holds well over 100 renowned brands<br />

in its portfolio. About 20 years ago, AMETEK invested in a<br />

German medium-sized company for the first time.<br />

Since February 2025, Kern Microtechnik has been the<br />

sixth German company to join.<br />

For Alexander Stauder and his team, this is not a problem<br />

at all. According to their own statements, they feel absolutely<br />

comfortable even in large-scale production with up to 2 μm<br />

in all the aforementioned position tolerances: “The finished<br />

parts are usually even more accurate. The biggest challenge<br />

above all is reproducibility. And we prefer to stay conservative<br />

with our information. We can proudly say that we are<br />

the supplier with the best possible results.”<br />

Highest precision with micro-gap technology<br />

Several technical highlights are decisive for the extremely<br />

high, reproducible precision of the used Kern Micro HD<br />

five-axes machining centers. One of them are the largedimensioned<br />

and temperature-controlled linear motors,<br />

which do not require any mechanical transmission elements<br />

that could wear out. Additionally the machines features a<br />

unique hydrostatic micro-gap technology, developed and<br />

patented by Kern. According to Sebastian Guggenmos, technical<br />

director of Kern Microtechnik GmbH, the thin gap<br />

of less than 10 μm in all linear axes ensures highest rigidity<br />

and the best damping properties of the system.<br />

In addition, chief technologist Guggenmos emphasizes the<br />

actively temperature-controlled aluminum axes and hydrostatic<br />

systems and adds: “With all these technical details, we<br />

can guarantee highest stability and persistent perfect quality<br />

of the parts coming out of serial production. Ultimately this<br />

also applies when the surrounding is less than ideal, such as<br />

we currently have in Murnau.” This refers primarily to trains<br />

passing on nearby tracks and cause slight vibrations in the<br />

building. Plant manager Stauder is unimpressed by this:<br />

“Other machines would have a problem with the required<br />

accuracies. Ours don’t.”<br />

Growing demand from analytics and metrology<br />

For customers with particularly high demands, the achieved<br />

results are very helpful. On the one hand this allows them to<br />

reliably guarantee their customers the highest data transfer<br />

rates. On the other hand, possible further work steps – such<br />

as pairing or inserting lenses – are significantly simplified<br />

during assembly. And since the advantages of high-precision<br />

serial production are also interesting for other industries,<br />

this has a positive effect on the general order intake in<br />

Murnau. According to Alexander Stauder, the demand from<br />

companies in the analytics and metrology industries is increasing<br />

just as strongly as from those that, as described here,<br />

require insert housings for fiber optic connectors.<br />

further information: www.kern-microtechnik.com<br />

no. 2, <strong>2026</strong> April<br />

31


machining center<br />

Increasing efficiency in tool machining<br />

with automation and AI<br />

At GrindingHub <strong>2026</strong>, VOLLMER WERKE<br />

Maschinenfabrik GmbH will present itself as a competent<br />

partner for tool manufacturing. The Biberachbased<br />

sharpening specialist will showcase its comprehensive<br />

portfolio of grinding, erosion and laser<br />

machines for the efficient machining of ultra-hard<br />

cutting materials such as PCD, CVD diamond, PcBN<br />

and carbide. The focus will be on automated production<br />

concepts, digital solutions and the targeted use<br />

of artificial intelligence (AI).<br />

Hybrid machine concept as the key to efficiency<br />

With increasing demands for precision and cost-effectiveness,<br />

Vollmer is specifically focusing on the hybrid machine concept<br />

of the VHybrid 260, which combines mechanical<br />

grinding processes with contactless EDM technology and<br />

digital solutions in a single machine. The VHybrid 260<br />

not only represents the combination of several sharpening<br />

technologies but also forms the basis for fully digitalized<br />

and automated production processes. A central element is<br />

the Vpulse EDM generator, which enables the highly precise<br />

production of even the smallest micro-tools with Ø of<br />

0.2 mm. During the erosion process, surface finishes of up<br />

to 0.05 µm Ra can be achieved. In addition cutting edge radii<br />

of up to 1.5 µm can be produced. This can eliminate the need<br />

for subsequent grinding of functional surfaces, avoiding<br />

tolerance risks caused by re-clamping as well as additional<br />

process-intensive steps, thereby significantly reducing overall<br />

production costs.<br />

At GrindingHub <strong>2026</strong> Vollmer will present its portfolio of<br />

grinding, erosion and laser machines that allow customers to<br />

machine ultra-hard cutting materials such as carbide, PCD,<br />

CVD diamond and PcBN. With a view to greater efficiency,<br />

hybrid machines in particular make it possible to sharpen<br />

tools faster and with higher quality. This can be seen, for<br />

example, in full-head PCD tools with complex geometries:<br />

within a single clamping operation, contours can be ground<br />

in carbide while the cutting edges in the PCD head are<br />

eroded. This approach not only shortens main and auxiliary<br />

processing times but also ensures a virtually seamless transition<br />

between the PCD head and the carbide blank – without<br />

irregularities or steps. The VHybrid 260 demonstrates particular<br />

strengths in cylindrical EDM. This contactless, highly<br />

precise process enables economical machining. Micro-tools<br />

in particular benefit from this, where dimensional accuracy,<br />

surface quality and reproducible processes are decisive. The<br />

combination of cylindrical grinding and cylindrical EDM<br />

enables the production of extremely small tool diameters<br />

with high precision, process reliability and efficiency – within<br />

a continuous, automated process chain.<br />

Process for producing defined edge chamfers<br />

For drilling tools a rounded edge chamfer proves advantageous<br />

for several reasons. Sharply eroded cutting edges can<br />

lead to problems in various application scenarios – particularly<br />

in the area of PCD drilling tools. A cutting edge without<br />

a rounded chamfer can result in unstable cutting, increased<br />

wear, reduced tool reliability and deterioration in workpiece<br />

quality.<br />

A rounded chamfer not only creates a defined cutting edge<br />

contour with reduced chipping but also improves the stability<br />

of the cutting edge as well as the surface structure and roughness<br />

in the cutting edge area. This leads to longer tool life, increased<br />

process reliability and improved workpiece quality.<br />

By integrating the chamfering process into the VHybrid 260,<br />

users are able to perform complete machining on a single<br />

machine. Geometry machining and the production of the<br />

rounded chamfer – whether eroded or ground – can be carried<br />

out in one clamping operation. By using the LaserCheck, a<br />

closed-loop process can also be implemented, eliminating<br />

the need for manual adjustments during machining.<br />

Automation and digitalisation for 24/7 production<br />

Regardless of the sharpening technology used, all Vollmer<br />

machines are consistently designed for automated 24/7 production.<br />

Central robot systems handle loading via carts,<br />

pallet loaders or chain magazines and monitor the fully<br />

automated complete machining process. A newly developed<br />

ND gripper with an automatically adjustable gripping<br />

diameter significantly expands possibilities in tool handling.<br />

Its flexible adaptation to a wide range of tool types increases<br />

both process reliability and versatility in operation. These innovative<br />

solution helps noticeably increase efficiency in automated<br />

loading.<br />

Machine and production data are recorded, analyzed and<br />

managed via a central IoT platform. The web-based VPortal<br />

serves as a central information and service platform, offering<br />

32 no. 2, <strong>2026</strong> April


machining center<br />

users a transparent overview of documentation and service<br />

information. In addition the Smart Hub intelligently consolidates<br />

production and machine data and prepares them for<br />

further analysis. AI-supported algorithms and an intelligent<br />

chatbot assist users in analyzing documentation and historical<br />

data, providing relevant information on machine utilization,<br />

production volumes and scrap rates.<br />

AI and digitalization as an opportunity for SMEs<br />

“Especially for small and medium-sized enterprises, the<br />

combination of hybrid machine technology, digitalization<br />

and AI offers major opportunities”, says Tobias Trautmann,<br />

managing director of the Vollmer Group. “Processes can be<br />

made more transparent, downtime reduced and resources<br />

used more efficiently. With the VHybrid 260 we are creating<br />

a platform where different sharpening technologies, digital<br />

solutions and AI applications work seamlessly together to<br />

measurably optimize production processes.”<br />

Machine portfolio live at GrindingHub<br />

At GrindingHub <strong>2026</strong> Vollmer Werke will also present additional<br />

solutions from its current machine program. These<br />

include the VLaser 370 in an automated version as well as<br />

the VGrind Infinity linear. The exhibition appearance will<br />

be rounded off by the models CS 860 and CP 650 as well as<br />

the KSC560-B from the subsidiary Loroch.<br />

further information: www.vollmer-group.com<br />

Multi-axis machining and ai-driven<br />

smart manufacturing<br />

TMTS <strong>2026</strong> Taiwan International Machine Tool<br />

Show took place from March 25 - 28 at the Taichung<br />

International Convention and Exhibition Center<br />

(TICEC). The Fair Friend Group (FFG) brought together<br />

its Italian brand SIGMA alongside Taiwanese<br />

brands FEELER, LEADWELL and EQUIPTOP.<br />

This joint exhibition presented a comprehensive technological<br />

layout ranging from stand-alone machining and<br />

multi-axis solutions to multitasking machining, with the AI<br />

Command Center and Smart Manufacturing Systems serving<br />

as the core highlights.<br />

The exhibit focused on high-rigidity structural design,<br />

multi-axis applications, process integration, and intelligent<br />

user interfaces, addressing industry demands for hig<strong>hp</strong>recision,<br />

high-efficiency, and flexible production. SIGMA<br />

showcased the UCH-660 5-axis machining center, featuring<br />

a large-stroke design with B-axis ± 110 ° and C-axis 360 °<br />

capabilities – ideal for multi-sided and complex curved surface<br />

machining while maintaining stable quality through<br />

high-rigidity and dynamic stability. FEELER presented the<br />

VUX-300T multitasking machine and VUX-400 4/5-axis vertical<br />

machining center, equipped with AICC II and Manual<br />

Guide i to enhance precision and efficiency for sectors like<br />

automotive, medical, and precision molds. LEADWELL put<br />

the TM-1700IST multitasking machine on display, capable<br />

of 5-axis simultaneous machining, drilling, milling, slanted<br />

holes, and self-measurement compensation. EQUIPTOP<br />

featured the ESG-1244CNC surface grinder, integrating big<br />

data analysis and life-cycle monitoring to track utilization<br />

rates in real-time and enable predictive maintenance.<br />

In response to smart manufacturing trends, the booth<br />

featured an AI command center that centralizes equipment<br />

operation and production line data. It tracks power con-<br />

FEELER<br />

SIGMA<br />

sumption and costs to calculate carbon emissions and carbon<br />

footprints. Through analysis and warning mechanisms,<br />

it assists managers in real-time decision-making and effi -<br />

ciency optimization, driving the transition from stand-alone<br />

machines to data-driven smart factories and rapidly establishing<br />

professional domain data models.<br />

further information: www.tmts.tw<br />

no. 2, <strong>2026</strong> April<br />

33


machining center<br />

Kellenberger expands its grinding portfolio<br />

in the entry-level segment<br />

The Swiss grinding specialist<br />

Kellenberger is presenting two new<br />

cylindrical grinding machines at<br />

GrindingHub fair in Stuttgart – the<br />

KELLENBERGER K8 and the<br />

KELLENBERGER K10– significantly expanding<br />

its machine portfolio for beginners<br />

and smaller companies.<br />

Kellenberger cylindrical grinding machines<br />

are characterized by maximum precision,<br />

process reliability, productivity, and flexibility.<br />

Until now the range available to dedicated<br />

grinding professionals extended from<br />

the cost- and cycle-time-optimized, energyefficient<br />

universal cylindrical grinding machine<br />

K10, through the flexibly configurable<br />

K100, up to the premium-class K1000<br />

and VM1000. All of Kellenberger cylindrical<br />

grinding concepts are optimally configured<br />

for their respective application areas and can<br />

be expanded with a wide range of options.<br />

With the new KELLENBERGER K8 cylindrical<br />

grinding solution, Kellenberger offers<br />

an optimally configured standard machine in<br />

which advanced equipment options have been<br />

deliberately omitted. The K8 was designed<br />

for beginners and smaller companies looking<br />

for a cost-effective machine without having<br />

to compromise on Kellenberger’s proven premium<br />

quality.<br />

0i-TF control system and user-friendly standard grinding software for external,<br />

internal and shoulder grinding ensure excellent grinding results.<br />

Unlike the K10, K100, K1000 and VM1000 series, the KELLENBERGER<br />

K8 does not have a loader interface. The KELLENBERGER K8 is distributed<br />

through its own sales structure, which also integrates the service network in<br />

accordance with the Kellenberger standard.<br />

More features and a wide range of options:<br />

the new KELLENBERGER K10<br />

In addition to the K8, the advanced universal cylindrical grinding machine<br />

KELLENBERGER K10 stands out with new features and an expanded range<br />

of options. These include, among other things, active longitudinal positioning,<br />

which enables precise position control of the workpiece during external,<br />

face and internal grinding.<br />

The universal grinding head of the K10 accommodates two external<br />

grinding wheels (Ø 500/400 mm) as main and auxiliary wheels, as well as<br />

a directly driven high-frequency internal grinding spindle available in two<br />

speed ranges: 6,000–40,000 rpm and 10,000–60,000 rpm. The continuous<br />

Kellenberger table profile – already proven in the K100 and K1000 and suitable<br />

for all standard and optional configurations –is also used in the K10.<br />

A special feature is the low-maintenance energy supply via table interfaces.<br />

The dressing interface running along the entire rear side of the table reduces<br />

setup time and expands dressing options.<br />

This includes the stability and rigidity<br />

required for a successful grinding process,<br />

ensured by the solid machine bed cast in<br />

a single piece. The V-flat guideways in the<br />

Z-axis also contribute to this, featuring a special<br />

coating to prevent friction losses. Highquality<br />

Fagor measuring systems with a resolution<br />

of 0.05 μm guarantee maximum precision<br />

throughout the grinding process.<br />

The K8 is ideally suited for grinding workpieces<br />

in small and medium batch production.<br />

With a center height of 200 mm, a center<br />

distance of 1,000 mm, and a maximum<br />

grinding Ø of 380 mm, the K8 covers a wide<br />

range of parts. The grinding head can be<br />

equipped with an external grinding wheel<br />

and an internal grinding spindle. The Fanuc<br />

Kellenberg K10<br />

34 no. 2, <strong>2026</strong> April


machining center<br />

For extended machining capabilities, the<br />

KELLENBERGER K10 offers generous X- and<br />

Z-axis strokes (X = 365 mm / Z = 1,150 mm).<br />

The low-maintenance, high-precision linear<br />

guide in the X-axis and the V-flat slideways in<br />

the Z-axis are equipped with optical, absolute<br />

linear measuring systems. The B-axis is designed<br />

as an automatic indexing axis (1 °) with<br />

high positioning accuracy and a swivel range<br />

of + 30 ° / – 210 °.<br />

Like the high-performance machines K100,<br />

K1000 and VM1000, the KELLENBERGER<br />

K10 is equipped with the powerful Fanuc<br />

0i-TFP control system featuring a 19-inch<br />

touch control panel and Kellenberger user<br />

interface. The BLUE Solution software with<br />

object guide, ISO guide, and DXF import enables<br />

fast programming and setup, even for<br />

inexperienced operators. The BLUE Solution<br />

is continuously developed by Kellenberger’s<br />

software experts and enhanced with innovative<br />

features for process optimization. These<br />

features include the structure-borne sound<br />

sensor gTOUCH and the semi-automatic<br />

balancing system gBALANCE. The latest<br />

program enhancements for optimal grinding<br />

processes include the quality measurement<br />

control gMEASURE and grinding time monitoring<br />

gTIME. The newest BLUE Solution<br />

edition will be demonstrated at GrindingHub.<br />

Global leadership team complete<br />

Kellenberger’s board of directors<br />

has appointed Jörg Schmauder as the<br />

new chief sales officer (CSO) with<br />

immediate effect. Jörg is an experienced<br />

international sales and general<br />

management executive with a<br />

distinguished career as CSO in<br />

various globally operating machine<br />

tool companies; he will be based in<br />

Goldach, Switzerland.<br />

With this additional appointment,<br />

Kellenberger’s global leadership team is<br />

complete – in addition to Jörg Schmauder,<br />

it consists of:<br />

Carsten Liske (CEO),<br />

Norbert Finger (CFO),<br />

Joe Loiselle (president America),<br />

Viktor Gaspar (president Europe),<br />

Alison Zhang (president China) and<br />

Sandro Mock (senior director sales &<br />

service ROW, i.e. Asia outside of China)<br />

Kellenberg K8<br />

Visitors can also look forward to a presentation of the company’s new inhouse<br />

component manufacturing. In the future Kellenberger will produce<br />

key machine components – essential for achieving the highest precision<br />

standards required by the company – at its Goldach facility. These include,<br />

among others, spindles and grinding heads.<br />

At GrindingHub Kellenberger will also showcase its proven cylindrical<br />

grinding concepts for the highest demands: the KELLENBERGER K100,<br />

KELLENBERGER K1000, and KELLENBERGER VM1000. The Kellenberger<br />

100 is available with center distances of 1,700 / 1,000 and 600 mm and a<br />

center height of 200 mm, and is designed for workpiece weights of up to<br />

200 kg. High grinding wheel drive power ensures high productivity, while<br />

the new Z-guide system delivers high profile accuracy. The C-axis with<br />

direct drive provides increased precision in non-cylindrical grinding. The<br />

K100 features a tandem grinding head with 10 grinding head variants.<br />

The KELLENBERGER K1000 is equipped with hydrostatic guideways<br />

in all main axes for maximum form accuracy in grinding tasks involving<br />

interpolating axes. The CNC-controlled B-axis for the grinding head is<br />

hydrostatically mounted and therefore wear-free. It features a direct drive<br />

with a water-cooled high-torque motor and an angular measuring system<br />

with a resolution of 0.1 arcseconds. The K1000 is optionally available with<br />

center distances of 1,000 / 1,600 mm and center heights of 200 / 250 and<br />

300 mm. More than 30 different grinding head variants with external and<br />

internal grinding spindles are available as standard, covering virtually every<br />

machining requirement.<br />

The VM1000 is optimized for flexible, universal internal and external<br />

cylindrical machining of complex workpieces up to 300 mm in length. The<br />

range of workpieces includes the smallest individual parts for fuel injection<br />

systems in car engines, ball bearing rings, transmission components,<br />

hydraulic components and complex components used in machine tool<br />

construction. The special feature of the VOUMARD 1000 are the two highly<br />

precise hydrostatic B-axes. The spindle turret on the B1 axis is equipped<br />

with a uniquely compact grinding spindle head with a flexible spindle<br />

arrangement. This allows spindles and measuring sensors to be optimally<br />

positioned, enabling the machining of virtually any workpiece geometry<br />

as well as multiple internal and external grinding operations in a single<br />

clamping setup.<br />

further information: www.kellenberger.com<br />

no. 2, <strong>2026</strong> April<br />

35


machining center<br />

Universal grinding machines for<br />

precision manufacturing tasks<br />

The universal grinding machines in the EMAG<br />

UG series combine proven grinding technology with<br />

a cost-efficient machine base. They are ideal for users<br />

who are looking for a sophisticated solution for internal,<br />

exter nal and out-of-round grinding and do not<br />

want to com promise flexibility, precision and process<br />

reliability.<br />

The UG series include machines with grinding lengths from<br />

400 to 1,500 m. This gradation covers a wide range of requirements<br />

– from compact workshop machines for toolmaking to<br />

universal production solutions for longer shafts and complex<br />

geometries – whether clamped between centers or in a chuck.<br />

Model overview and range of applications<br />

The series is divided into four variants:<br />

• UG 400 with 400 mm grinding length<br />

• UG 630 with 630 mm grinding length<br />

• UG 1000 with 1,000 mm grinding length<br />

• UG 1500 with 1,500 mm grinding length<br />

Linear guides in the X- and Z-axes, servo drives with recirculating<br />

ball screws and direct-drive motorized grinding spindles<br />

form the technical basis. The standard center height is<br />

175 mm and the maximum workpiece weight is 120 kg (model<br />

UG 1000). Larger center heights and workpiece weights are<br />

possible with additional equipment.<br />

Grinding head – precision through direct drive<br />

The grinding head is equipped with direct-drive motor<br />

spindles. The spindle power is up to 11 kW. As there is no<br />

belt drive, there are no sources of vibration, and the torque is<br />

transmitted without loss. This leads to uniform power transmission<br />

and reduces vibrations during the grinding process.<br />

The automatically swiveling B-axis enables infinitely variable<br />

positioning between - 15 ° and + 225 ° with an accuracy<br />

of 0.0005 °. This precision is required for surface and contour<br />

grinding, where the exact angular position of the<br />

grinding wheel determines the machining result. The achievable<br />

peripheral speed of the grinding wheel is 50 m/s. Precision<br />

grinding spindles are used for internal machining.<br />

These spindles are characterized by high motor speeds and a<br />

robust bearing with oil-air lubrication, which is required for<br />

internal grinding of small bores.<br />

Workhead – rigidity and concentricity<br />

The workhead is equipped with precision tapered roller bearings<br />

that ensure high rigidity. The concentricity accuracy on<br />

the test workpiece is 0.5 μm. This accuracy is the result of the<br />

rigid bearings and the quality of the components used.<br />

A swivel range of 0 ° to + 30 ° enables various grinding strate -<br />

gies for cone grinding. A pneumatic lifting device facilitates<br />

set-up and positioning of the workpiece. AE sensory equipment<br />

can be integrated as an option. These sensors detect<br />

the contact between the grinding wheel and workpiece and<br />

reduce idle times.<br />

An optional workpiece spindle with C-axis is available for<br />

out-of-round and thread grinding. In this case, the workpiece<br />

spindle is designed as a motor spindle with rotary positioning.<br />

This enables synchronized movements between the feed<br />

of the grinding spindle and the rotation of the workpiece.<br />

Tailstock – precision centering<br />

when grinding between centers<br />

The standard tailstock is equipped with a quill with a Ø of<br />

63 mm for MK4 centers. It runs low backlash in the guide,<br />

which enables precise centering of the workpiece. A fine adjustment<br />

of ± 40 μm allow the correction of taper deviations<br />

and ensures concentricity of well under one micrometer.<br />

Manual or hydraulic actuation systems are available. The<br />

hydraulic version speeds up workpiece changeover, as the<br />

quill is automatically retracted after machining. An integrated<br />

sensory equipment monitors the correct position of<br />

the workpiece tip and increases process reliability.<br />

Work area of the EMAG UG series; the combination of<br />

swiveling B-axis and direct-drive spindles enables<br />

internal and external grinding<br />

Dressing systems – ensuring<br />

constant grinding conditions<br />

Various dressing systems are available for different requirements.<br />

Dressing is an essential part of the grinding process,<br />

as the geometry and sharpness of the grinding wheel<br />

signifi cantly determine the surface quality and dimensional<br />

accuracy.<br />

36 no. 2, <strong>2026</strong> April


machining center<br />

The EMAG UG series at a glance: UG 400, UG 630, UG 1000 and UG 1500 cover grinding lengths from 400 to 1,500 mm<br />

The following systems are available:<br />

→ Table dresser with flexible positioning: the table dresser<br />

can be placed at any position on the top table. This<br />

flexibility allows it to be adapted to different workpiece<br />

geometries and grinding wheel diameters. The user can<br />

optimize the dressing position for specific workpieces,<br />

which shortens set-up times for frequently changing<br />

production tasks.<br />

→ Dressing spindle on the workhead: the dressing spindle<br />

is mounted at the rear of the workhead and enables<br />

automated dressing without manual intervention.<br />

This solution is suitable for batch production where<br />

constant dressing cycles increase process reliability.<br />

Integration into the machine structure reduces the<br />

footprint and shortens non-productive times.<br />

→ Holder for dressing tiles on the tailstock and workhead:<br />

for simple dressing tasks, holders for dressing tiles<br />

can be mounted on the tailstock or workhead. This<br />

cost-effective solution is suitable for manual dressing<br />

processes or as a supplement to automated systems.<br />

The modular design allows the dressing system to be adapted<br />

to the respective application. The selection of a suitable dressing<br />

system depends on the type of grinding wheel, number<br />

of pieces, workpiece geometry and required surface qualities.<br />

Of course, the machines in the UG series can be extended<br />

according to customer requirements, for example with NC<br />

synchronous tailstock, in-process measuring technology,<br />

automatic tailstock with NC axis, hydraulic steady rests and<br />

many other options.<br />

Control and operation<br />

The UG machines are equipped with the FANUC 0i-TF CNC<br />

control as standard. This control offers a dialog-oriented<br />

HMI that simplifies programming and operation.<br />

User guidance is logically structured, and frequently used<br />

functions are directly accessible. The FANUC 31iB Plus<br />

is available for more complex contours, especially for outof-round<br />

and thread grinding. This controller has a higher<br />

computing power and supports extended functions for synchronized<br />

motion control. Interpolation between the axes<br />

is performed with high precision, which is necessary for<br />

machining out-of-round geometries.<br />

The use of FANUC controllers offers advantages in international<br />

applications. The controllers are used worldwide,<br />

service availability is high and spare parts are available at<br />

short notice. This minimizes downtime and facilitates the<br />

training of operators who are familiar with FANUC controls.<br />

Worldwide customer support<br />

EMAG maintains a global service network covering all continents.<br />

The service locations are in Germany, Great Britain,<br />

France, Spain, Italy, the USA, Mexico, Brazil, India, China<br />

and South Korea. This decentralized structure enables<br />

short response times and a rapid on-site presence for service<br />

requests.<br />

The service technicians at all locations have access to a<br />

shared knowledge pool. Experiences from service cases are<br />

systematically analyzed and made available worldwide. This<br />

allows customers to benefit from the accumulated know-how<br />

of the EMAG organization irrespective of their location.<br />

As an OEM supplier, EMAG guarantees to help the customer<br />

as quickly as possible – whether during commissioning,<br />

with technical questions or in the event of a malfunction. On<br />

request EMAG can supply a turn-key package that includes<br />

not only the machine but also the tool, workholding technology,<br />

cutting fluids and the finished workpiece program. The<br />

customer thus receives a production-ready solution from a<br />

single source.<br />

The service program also offers preventive servicing,<br />

training courses at the EMAG academy, retrofits and original<br />

spare parts that are always available. The aim of all services is<br />

to maximize machine availability and ensure a long service<br />

life for the investment.<br />

further information: www.emag.com<br />

no. 2, <strong>2026</strong> April<br />

37


machining center<br />

Precision and process reliability redefined<br />

In the high-precision world of mechanical engineering<br />

and tool reconditioning, every detail matters.<br />

For Fraisa GmbH, a leading provider in the field of<br />

cutting tools, defined edges and absolute process reliability<br />

are critical to success. To further secure their<br />

already established quality standards while simultaneously<br />

increasing efficiency and the level of automation,<br />

Fraisa sought a solution to specifically optimize their<br />

existing processes. They found the answer in OTEC’s<br />

Mass Finishing Technology.<br />

This collaboration demonstrates how remarkable results can<br />

be achieved through customized adaptations and technological<br />

excellence.<br />

The challenge: long setup times and<br />

process optimization potential<br />

Before partnering with OTEC, Fraisa faced specific challenges<br />

in surface finishing. The company, based in Willich<br />

and specializing in the ReTool process and the reconditioning<br />

of milling tools, was using a DF 4 Tools machine. While<br />

this system was already delivering reliable performance and<br />

good results, there was room for further optimization. The<br />

focus was primarily on reducing setup times and achieving<br />

longer autonomous operation through a higher degree of<br />

automation. In a market where precision and efficiency are<br />

key factors for competitiveness, it was essential to further<br />

develop these aspects. Yves Krause, team leader of process<br />

technology at Fraisa, and his team sought a solution that was<br />

technologically advanced and could seamlessly integrate into<br />

their existing workflows. The goal was to establish a method<br />

that ensured consistently high quality while reducing time<br />

and cost efforts.<br />

The solution: customized<br />

Mass Finishing Technology from OTEC<br />

Fraisa has been utilizing OTEC technology for around<br />

25 years. The most recent implementation in early 2025, an<br />

SF-DC-78 1/1 PLS, marks another milestone in this longstanding<br />

and successful partnership. This machine was<br />

specifically selected and tailored to meet Fraisa’s demanding<br />

requirements. The integration of the OTEC solution into the<br />

existing process was carried out step by step in close coordination<br />

between Fraisa and OTEC.<br />

Crucial to the success was OTEC’s willingness to accommodate<br />

customer-specific requests and tailor the machine<br />

precisely to the user’s challenges. This flexibility, combined<br />

with quick response times and open communication, was a<br />

key aspect that Fraisa particularly values. OTEC delivered<br />

not just a machine but a holistic solution approach designed<br />

to address the specific challenges of tool reconditioning.<br />

Results that convince:<br />

higher quality, less required time<br />

The introduction of the OTEC SF-DC-78 1/1 PLS led to<br />

immediate and measurable improvements at Fraisa. The<br />

results speak for themselves and highlight the effectiveness<br />

of mass finishing technology.<br />

→ increased process reliability<br />

Fraisa was able to further enhance process reliability.<br />

The defined edge conditioning was standardized and<br />

developed into an even more stable and repeatable<br />

process. This ensures consistently high quality<br />

for the reconditioned milling tools.<br />

→ reduced setup and processing times<br />

The previously time-intensive setup processes were<br />

significantly reduced with the new system. Thanks<br />

to the minimal setup requirements of the OTEC<br />

machine, Fraisa was able to optimize auxiliary times.<br />

Combined with faster processing times, this resulted<br />

in a noticeable increase in overall efficiency.<br />

→ high flexibility in application<br />

The new system offers Fraisa high flexibility to<br />

quickly adapt to different tool types and processing<br />

requirements. This is a decisive advantage in a<br />

dynamic market environment<br />

A partnership for the future<br />

The success story of Fraisa and OTEC is an impressive example<br />

of how technological innovation and a customer-focused<br />

approach lead to outstanding results. Fraisa not only overcame<br />

its initial challenges but also consistently advanced its<br />

processes, particularly in terms of efficiency and automation.<br />

When asked whether he would recommend OTEC, Yves<br />

Krause, team leader of process technology at Fraisa, responded<br />

with a resounding “Yes, 100 %.” His reasoning highlights<br />

OTEC’s strengths: “They manage to act in a timely,<br />

technologically advanced and user-oriented manner.”<br />

This strong endorsement underscores OTEC’s commitment<br />

to not just delivering machines but acting as a true<br />

partner, understanding their customers’ processes and<br />

improving them sustainably. The collaboration with Fraisa<br />

demonstrates that the right surface finishing technology<br />

can be a decisive lever for greater productivity and quality<br />

in mechanical engineering.<br />

further information: www.otec.de<br />

38 no. 2, <strong>2026</strong> April


machining center<br />

Automated assembly of clamping devices and<br />

mobile robot cells for adaptive manufacturing<br />

With Smart FMS (flexible manufacturing system),<br />

Schwäbische Werkzeugmaschinen GmbH (SW) opened<br />

a new chapter in automation systems in 2025. The<br />

new manufacturing system enables flexible, resourcesaving<br />

and sustainable workpiece processing – regardless<br />

of the number of pieces.<br />

Two core technologies, the automated clamping system Sfix<br />

and the mobile robot cell S-cell, were presented for the first<br />

time at automatica in Munich and EMO in Hanover, where<br />

they were met with a positive response.<br />

While classic production lines are designed for fixed processes,<br />

the Smart FMS enables flexible machining of different<br />

workpiece types and batch sizes without time-consuming<br />

changeovers. This results in an approach that addresses<br />

both economic requirements – such as higher utilization and<br />

shorter setup times – and ecological goals aimed at reducing<br />

material and energy consumption. With its three core technologies<br />

– the Sfix system, the S-cell mobile robot cell and<br />

the pallet changing system – the Smart FMS enables the transition<br />

from isolated machine concepts to adaptive manufacturing<br />

systems that can be dynamically adapted to changing<br />

production conditions.<br />

The Sfix system for<br />

different workpiece variants and batch sizes<br />

The Sfix system greatly simplifies the clamping of workpieces.<br />

Until now each workpiece required an individual clamping<br />

device that had to be designed and stored – an expense<br />

that was particularly significant for small series with many<br />

variants. In the Sfix-cell, a robot automatically assembles the<br />

required clamping device from standardized components in<br />

just a few minutes. The basis for this is the patented Sfix plate,<br />

on which the elements are precisely positioned using the<br />

CAD model of the workpiece.<br />

“Sfix makes the clamping process plannable and reproducible”,<br />

explains Michael Kreuzberger, product manager at<br />

SW. “This significantly reduces setup and storage costs and increases<br />

process reliability – especially with frequently changing<br />

components.” The modular system can replace up to 150<br />

conventional clamping devices. This reduces material consumption<br />

and storage needs while enabling economical, resource-saving<br />

production across a wide range of batch sizes.<br />

The pallet changing system – also a component of the<br />

Smart FMS – further automates the production process: it acts<br />

as an interface between the Sfix-cell and the machine tool,<br />

enabling the quick and safe exchange of workpiece pallets<br />

without manual intervention. The pallet changing system<br />

can be moved flexibly via a floor axis or positioned by an<br />

autonomous mobile robot (AMR).<br />

At the heart of the Sfix systemis a robot<br />

that automatically assembles<br />

clamping devices from<br />

standardized<br />

components<br />

in just a few<br />

minutes<br />

S-cell system: mobile automation for<br />

flexible manufacturing environments<br />

The S-cell system complements the Smart FMS with an intelligent<br />

automation solution. It enables flexible material flow<br />

between machining, cleaning, or assembly stations without<br />

rigid interlinking. The S-cell, a mobile platform with a permanently<br />

installed industrial robot, moves autonomously<br />

through the production facility via a driverless transport<br />

system. It docks precisely at the respective station, takes over<br />

the loading and unloading of workpieces, and moves on to<br />

the next task once the process is complete. The cell independently<br />

recognizes the type of station it is connected to and<br />

automatically adapts its processes. This eliminates the need<br />

for manual changeovers, which are usually associated with<br />

high costs in classic production lines. At the same time<br />

the machines remain freely accessible, for example for<br />

maintenance or setup processes.<br />

In combination with the advanced orchestration software<br />

SmartFlow, the system ensures optimal efficiency and utilization<br />

of the entire plant. Thanks to AI-supported planning, it<br />

adapts dynamically and flexibly to changes in the production<br />

process – without any manual intervention. “This solution<br />

is highly cost-effective, as it enables step-by-step investment,<br />

high component reusability and short amortization times”,<br />

says Michael Kreuzberger about the advantages. “Companies<br />

can implement the system gradually and expand it as needed,<br />

as it can be easily networked with SW machines and systems<br />

from other manufacturers thanks to open interfaces.”<br />

Introduction of Smart FMS generates great interest<br />

SW presented the Smart FMS concept for the first time at<br />

automatica and EMO. “The feedback at both trade fairs<br />

showed that companies are looking for solutions that are<br />

flexibly scalable and do not require long changeover times”,<br />

says Michael Kreuzberger. “The Smart FMS provides exactly<br />

this foundation – regardless of industry, batch size, or workpiece<br />

variant.”<br />

further information: www.sw-machines.com<br />

no. 2, <strong>2026</strong> April<br />

39


machining center<br />

Size matters…<br />

Zimmermann, Inc. has installed and commissioned<br />

its FZU37 portal milling machine, with a 5 x 4 x 1.5 m<br />

workpiece capacity, at Century Tool, a major tool and<br />

die manufacturer in Fenton, Michigan and part of the<br />

Tooling Tech Group. The machine has already proven<br />

its worth, according to the customer’s director of manufacturing,<br />

Tom Bradford: “The table size, speed and<br />

accuracy of this Zimmermann machine have already<br />

increased our capabilities by 30 % or more.”<br />

Bradford and the operator on the machine, David Hawes,<br />

further note the benefits of the Heidenhain TNC7 control,<br />

the first machine tool installation in America for this advanced<br />

CNC, as a key factor in production planning,<br />

CAD/CAM integration, cycle performance and data logging.<br />

The CNC also features a visual simulator of the cutting path<br />

for cycle validation and in-process monitoring.<br />

According to Cornelius Kiesel, president of Zimmermann,<br />

Inc., his company was approached for the discussion of a<br />

new machine, which would be replacing an existing, smaller<br />

machine that was no longer in operation, plus expand the<br />

capabilities of other machines on the floor at Century. “We<br />

determined the spec of the new machine and its tasks for finishing<br />

and semi-finishing. The primary goal was to cut down<br />

the immense number of hours for such processes on the very<br />

large workpieces at Century, while enabling them to run the<br />

roughing process on their existing equipment.”<br />

Kiesel continues, “To keep things simple, we selected<br />

the FZU37 machine, so the foundation of the replacement<br />

machine could be filled up to make it flush without a major<br />

foundation rework. After several conversations and a few<br />

adjustments on the accessories, we were able to lock in the<br />

layout. These layout improvements allowed us to go even<br />

wider for a total of 5000 x 4000 x 1500 mm (197” x 157” x 59”)<br />

of travel, which was 79 % more travel in the same amount of<br />

floor space. The FZU37 was subsequently ordered with the<br />

state-of-the-art spec for an advanced machine shop such as<br />

Century, including our tool changer, top cover, mist extraction,<br />

high-pressure coolant, tool laser, touch probe and more.<br />

Century Tool also wanted to step up their control to the new<br />

generation Heidenhain TNC7.”<br />

Lastly, Kiesel notes “Zimmermann also integrated an extended<br />

spindle housing for deeper cavities plus the side walls<br />

Century machine operator David Hawes<br />

sets the <strong>tooling</strong> on the spindle of the<br />

Zimmermann machine<br />

A 5 x 4 x 1.5 m work envelope is<br />

available on the Zimmermann<br />

machine, which substantially<br />

increased the run capabilities<br />

at Century<br />

Tom Bradford and David Hawes of Century<br />

review a cycle setup on the Heidenhain TNC7<br />

CNC on the Zimmermann machine; this<br />

portal milling machine is the first in America<br />

with this advanced CNC onboard; the cycle<br />

can be simulated before running<br />

40 no. 2, <strong>2026</strong> April


machining center<br />

were raised to create enough clearance and the machine table<br />

reinforced for the challenging molds our customer expected<br />

to be produced on this machine. When all these machine<br />

parameters got worked out and finalized, we completed the<br />

machine rather quickly, commissioned it, did the training<br />

onsite and helped Tom and his team start up.” Tom Bradford<br />

cited Alfio Campagna, project manager for Zimmermann,<br />

for his critical help in getting the machine into production<br />

at Century, as this was the first Zimmermann portal mill<br />

purchased by the moldmaker.<br />

Bradford also commended the Heidenhain team, who<br />

provided three days of training on the CNC at their<br />

Chicago location and two more onsite at Century. Operator<br />

Hawes commented that he had substantial experience on<br />

Heidenhain controls, so the training went quickly for him,<br />

though the new control has numerous new features, including<br />

its smart programming, a graphical programming<br />

feature that allows the user to draw contours directly onto<br />

the touchscreen, after which the CNC converts the result into<br />

a “Klartext” (German for clear text) program. Century uses<br />

Visi as its main CAD program and Tebis as its CAM software<br />

and Bradford noted the seamless matching of these programs<br />

with the onboard CNC software to configure programs and<br />

posts made startup and run a smoother process.<br />

In addition the new CNC offers the user its Component<br />

Monitoring feature, which can protect the spindle bearing<br />

from overloading, while also detecting increased component<br />

wear in the drive train, all while the machine is running.<br />

This feature provides valuable data for predictive maintenance<br />

and evaluation of the process capability of the machine.<br />

This is vital at Century, who uses the Zimmermann<br />

machine exclusively for large, one-off mold prep, often<br />

removing over 90 % of the material from a workpiece, over<br />

multiple days of machining.<br />

Also, the ergonomics of the CNC are extremely user-friendly.<br />

Screen layouts and touc<strong>hp</strong>ad controls can be suited to user<br />

preferences. The intuitive contour programming is enabled by<br />

symbolic gestures on the touchscreen. Since Klartext remains<br />

the main format for files and exporting from the Heidenhain<br />

control, existing NC programs can continue in use.<br />

Currently, the Zimmermann machine at Century is running<br />

on two shifts, often remotely tended in a low-light or<br />

lights-out mode.<br />

Tom Bradford comments on the Zimmermann machine<br />

performance. “We do a lot of large tools for compression<br />

molding of composites and other substrates. We work for a<br />

variety of industries, from automotive to heavy truck, offhighway<br />

to agriculture, power sports to infrastructure such<br />

as water tanks. Century specializes in class-A exterior body<br />

panels, so the surface finish is critical. During the very long<br />

runs we do on the Zimmermann, maintaining tight tolerances<br />

is key and the machine plus its onboard control technology<br />

make that happen for us.”<br />

Brian Czapla, director of sales at Century, adds “The trend<br />

toward high-strength, lightweight composites and large<br />

Cornelius Kiesel, president of Zimmermann, Inc.,<br />

Brian Czapla, director of sales at Century,<br />

Yousif Sallan, project manager at Zimmermann, Inc. and<br />

Tom Bradford, director of manufacturing at Century,<br />

with the FZU37 portal milling machine<br />

dimensioned, unitized parts for auto and heavy truck make<br />

this machine a real asset in our operation.”<br />

In use, the typical workpiece on the Zimmermann is P20<br />

steel, the industry standard for molds, as well as various aluminum<br />

materials. HSK 63 and HSK 80 are the primary toolholder<br />

types, used for cutting and laser touch probing here.<br />

Standard carbide cutting tools and inserts are typical, as well.<br />

Bradford further notes “As a <strong>tooling</strong> source we serve the<br />

Tier One and OEMs in the manufacturing space. We have a<br />

strong reputation in automotive and heavy truck and we’re<br />

looking to expand into aerospace and other consumer products<br />

as well. As Brian noted, our core strength in composite<br />

molds gives us a real advantage in entering these other<br />

markets. The Zimmermann machine helps us achieve<br />

superior RA finishes with consistent quality, even on much<br />

larger structures.”<br />

Century Tool is part of the Tooling Tech Group. With<br />

roots that go back over 40 years, Tooling Tech Group (TTG)<br />

has grown to be a leading manufacturer of <strong>tooling</strong> in the<br />

United States. They provide solutions for thermoform molding,<br />

high compression composite molding, blow molding,<br />

rotational molding, die casting and stamping, as well as custom<br />

automation systems for assembly, joining and inspection<br />

applications in a variety of industrial sectors. TTG comprises<br />

Century Tool, Century Automation for post-molding materials<br />

handling and assembly strategies, Die Cad for <strong>tooling</strong><br />

design & simulation, Majestic for production of stamping<br />

dies, Tooling Technology for turnkey cast & billet aluminum<br />

<strong>tooling</strong> solutions, Alpha Integration for assembly automation<br />

and G&H Tool & Mold for high-pressure die cast molds.<br />

further information: www.zimmermann-inc.com<br />

no. 2, <strong>2026</strong> April<br />

41


machining center<br />

Innovative manufacturing of ultra-hard tools<br />

In modern production involving difficult-tomachine<br />

materials and high quality requirements,<br />

tools made from ultra-hard cutting materials such as<br />

PCD, CVD, MCD and CBN are becoming increasingly<br />

important. Users benefit from optimal cutting speeds,<br />

longer service life and better surfaces. Machining these<br />

cutting materials is more demanding than machining<br />

conventional carbides, which is driving the development<br />

of innovative manufacturing solutions for these<br />

advanced tools.<br />

At GrindingHub in Stuttgart, May 5 - 8, <strong>2026</strong>, DMG MORI<br />

will present a holistic process chain in which a LASERTEC<br />

12 SLM first builds a milling head from polycrystalline diamond<br />

(PCD) in a powder bed. The cutting edge is finished<br />

on a LASERTEC 20 PrecisionTool using a laser. In addition<br />

the machine tool manufacturer will be showcasing a secondgeneration<br />

vertical Mate 85 for conventional grinding.<br />

LASERTEC SLM:<br />

ultra-hard milling heads from the powder bed<br />

Both the LASERTEC 12 SLM exhibited at GrindingHub and<br />

the larger LASERTEC 30 SLM 3. Generation serve as productive<br />

solutions for the additive manufacturing of milling heads<br />

in a powder bed. The decisive advantage over conventional<br />

manufacturing processes lies in the complex geometries that<br />

the additive process can achieve. For example internal cooling<br />

channels can be integrated, ensuring optimal heat dissipation<br />

when machining with ultra-hard cutting materials.<br />

On the control side LASERTEC SLM machines feature<br />

CELOS X with easyAM. This makes the powder bed machines<br />

easy to operate and maintain. rePLUG powder modules<br />

also enable quick changes between different materials.<br />

LASERTEC 20 PrecisionTool:<br />

cutting edge rounding in a single clamping ong<br />

DMG MORI offers advanced finishing of cutting edges with<br />

the LASERTEC 20 PrecisionTool. The 5-axis laser machine<br />

rounds cutting edges without any post-processing in a single<br />

clamping at a speed of up to 5 mm/min with 1.6 mm thick<br />

PCD. It is also possible to measure the stroke profile of the<br />

round laser chamfer and to customize or adjust it on the<br />

machine. The LASERTEC 20 PrecisionTool produces cutting<br />

edges with a sharpness of less than 1 μm and a defined cutting<br />

edge rounding of 3 μm, 6 μm, 9 μm, and 15 μm. Negative<br />

chamfers are also possible. In addition the process-reliable<br />

laser processing contributes to higher cost-effectiveness because<br />

it increases the service life of the tools by a factor of 2.5.<br />

LASERTEC 50 PrecisionTool Femto: miniature tools<br />

The DMG MORI LASERTEC 20 PrecisionTool produces<br />

sharp cutting edges under 1 μm. In addition to this process<br />

chain DMG MORI serves another highly dynamic market<br />

segment with micro tool machining on the LASERTEC 50<br />

PrecisionTool Femto. The focus here is on miniature tools<br />

with a diameter of 0.2 mm or more, which consist of soldered<br />

PCD diamonds and are manufactured with extreme precision<br />

using ultra-short pulsed femto laser ablation. With tools<br />

of this size in particular, classic mechanical machining<br />

processes such as grinding or electrical discharge grinding<br />

often reach their technological limits. High process forces,<br />

tool wear and complex and fragile geometries often make<br />

reproducible machining impossible.<br />

The femto laser technology of the LASERTEC 50<br />

PrecisionTool, on the other hand, enables virtually force-free<br />

material removal with maximum geometric accuracy. This<br />

allows even the most demanding cutting geometries and defined<br />

cutting edge qualities to be achieved, which is a decisive<br />

advantage, especially in applications with the highest requirements<br />

for precision, service life and process reliability. Users<br />

benefit not only from the laser processing itself, but also from<br />

DMG MORI’s comprehensive machine, control and process<br />

expertise in the field of precision tool manufacturing.<br />

Vertical Mate 85 2. Generation: multi-process<br />

grinding for demanding industries<br />

With the Vertical Mate 85 2. Generation multi-process grinding<br />

machine DMG MORI is building on the success of its predecessor<br />

model. It allows the machining of inner and outer diameters<br />

as well as flat surfaces in a single clamping. Its speed-<br />

MASTER LongNose spindle achieves an output of 18.5 kW,<br />

35.3 Nm torque and a speed of 10,000 rpm. An optimized machine<br />

structure and high thermal stability contribute to hig<strong>hp</strong>recision<br />

machining, as does the linear scale in the X-axis.<br />

The Vertical Mate 85 2. Generation achieves a roundness of<br />

1 μm, making it ideal for precision applications in challenging<br />

industries such as mobility, semiconductors, and aviation.<br />

With its combination of additive manufacturing, laser<br />

finishing and classic grinding technology, DMG MORI is underlining<br />

its position at GrindingHub as a technology partner<br />

for the entire value chain of modern tool manufacturers,<br />

from micro to macro machining.<br />

further information: www.dmgmori.com<br />

42 no. 2, <strong>2026</strong> April


components<br />

Engineered for governed constant high speeds,<br />

ultra-precision and reliability accelerating<br />

advanced CNC machining applications<br />

Air Turbine Technology Inc., the leading manufacturer<br />

of revolutionary high-speed turbine products,<br />

highlights its ‘All Rounder’ 625 Series Spindles, transforming<br />

high-speed machining for manufacturers<br />

seeking precision, reliability and higher productivity<br />

in industrial applications.<br />

Governed constant high speeds under load from 30,000 to<br />

65,000 RPM with power ratings up to 0.55 HP are easily added<br />

to any CNC with the 625 Series Spindle and are ideal for<br />

engraving, mold making, milling and finishing with small<br />

tools up to 1/8” (3 mm) capacity. Utilizing a patented directdrive<br />

design with only two moving parts and optimized<br />

air circulation over bearings, these spindles operate 24/7<br />

with no heat or thermal expansion and eliminate duty cycle<br />

limitations.<br />

By increasing air flow volume to match cutting load,<br />

Air Turbine Technology’s governor-controlled turbine maintains<br />

constant rated speeds and torque under load, allowing<br />

users to cut faster and cleaner while extending tool life and<br />

ending frequent breakages of small tools. The performance<br />

of the 625 Series Spindle therefore stands apart for its proven<br />

ability to accelerate cycle times and minimize tool breakage,<br />

while maintaining exceptional accuracy at 2 micron TIR and<br />

vibration at just 0.4 mm/s. This is completely different from<br />

nominal high speed coolant spindles that fade in cut and clog<br />

up with chips.<br />

All that is required is a connection to 90 PSI compressed<br />

air. Full ATC is available on any CNC with air through the<br />

spindle or using the patented Air Turbine Technology collar<br />

and block.<br />

By avoiding gears, vanes and brushes, the spindle’s design<br />

reduces friction and wear as well as eliminates heat. This<br />

reliable turbine direct drive dramatically reduces downtime<br />

as well as repair costs from friction and overheating.<br />

Supported by a range of toolholder configurations including<br />

JS, HSK, CAT, BT and DIN, the 625 Series Spindle can be<br />

seamlessly integrated into any CNC machine magazine for<br />

automated, uninterrupted production.<br />

The extra power 625X Series Spindle further boosts<br />

performance on any CNC with its patented double turbine<br />

delivering speeds up to 50,000 RPM and power of 0.76 HP.<br />

This makes the 625X Series Spindle effective in demanding<br />

operations with larger tools or operations such as contouring<br />

and peck drilling in hard materials with tools up to 1/4”<br />

(6 mm) capacity.<br />

Both 625 Series Spindles provide practical benefits, power<br />

to maintain high speed, no duty cycle, continuous operation,<br />

predictable precision and versatile mounting options,<br />

enabling manufacturers to achieve superior surface finishes,<br />

reduce cycle times and maintain quality across a wide range<br />

of machining tasks.<br />

further information: www.airturbinetools.com<br />

no. 2, <strong>2026</strong> April<br />

43


components<br />

The new standard for<br />

digital shop floor data management<br />

With the new TDM release <strong>2026</strong>, customers can take data<br />

management on the shop floor to a whole new level, with automated<br />

data flows to the machine and even more processes that are fully<br />

digital and mobile.<br />

The TDM release <strong>2026</strong> features automatic and seamless data transfer to the<br />

machine using a standard connection, without interruptions or intermediate<br />

manual steps. In addition mobile apps enable quick access to data and tasks<br />

directly in the machine and tool crib environment, whereby tools can be<br />

booked directly to cost centers via barcodes and NC programs are accessed<br />

on the go.<br />

The main highlight of the <strong>2026</strong> release is the new standardized Interface<br />

“TDM Machine Data Connector”, that further supports and accelerates the<br />

automation on the shopfloor. TDM already had several dedicated solutions<br />

in place, but the new standardized machine connection from TDM can work<br />

with most current machine controls on the market. The interface already<br />

works with Heidenhain machine controls, with Siemens and Fanuc controls<br />

as of mid-<strong>2026</strong>. This means that all tool-related information, from master-data<br />

to wear values, flows bidirectionally and without manual intervention,<br />

independent of the control system in use. This gives full transparency,<br />

allows for forward-looking planning and results in significantly higher<br />

productivity.<br />

TDM ScanEasy, the mobile barcode scanner for the shop floor, now supports<br />

all tool crib processes and inventory, as well as quantity bookings. The<br />

significantly simplified workflows result in faster and more efficient management<br />

of items on the shop floor. In addition to querying item information,<br />

TDM ScanEasy now allows for mobile booking of tools in any situation,<br />

The two essential scenarios of the Interface TDM Machine Data Connector<br />

are reliable data transmission and continuous tool monitoring<br />

The TDM Machine Data Connector interface’s availability will initially<br />

be limited to selected Heidenhain controls, with Siemens and<br />

FANUC controls to follow shortly<br />

at the workplace or at the machine, while the<br />

new dynamic search function displays suitable<br />

item suggestions for selection after entering<br />

just a few letters.<br />

One of TDM’s biggest advantages is its high<br />

level of integrability and connectivity with<br />

other systems. As of release <strong>2026</strong>, TDM software<br />

can communicate with the CRIBWISE<br />

(Sandvik) manufacturing inventory management<br />

system. This includes the exchange of<br />

component data, synchronized inventories<br />

and stock postings, which can be booked in<br />

either system. By using TDM and CRIBWISE,<br />

TDM-users can implement automated ordering<br />

processes and a transparent warehouse<br />

structure for consumable tools. And thanks<br />

to the systems’ synchronization, both systems<br />

are always up to date.<br />

A new feature in TDM’s integrated<br />

NC Program Manager is the TDM NC web<br />

transfer that enables mobile, browser-based<br />

provision of approved NC programmes.<br />

These can be available in machine-related directories<br />

for further use or transferred back<br />

after optimization on the machine. This saves<br />

time, creates greater transparency in the machine<br />

environment and increases the usability<br />

of the TDM Integrated NC Program Manager.<br />

As calibration and testing of measuring and<br />

calibration equipment is often conducted by<br />

external suppliers, the resulting data may not<br />

be immediately available to users of the TDM<br />

Gauge and Calibration Management Module.<br />

By transferring the calibration data from<br />

external systems, users can optimize this<br />

process as well as their measurement and test<br />

equipment management.<br />

TDM release <strong>2026</strong> also offers comprehensive<br />

new features for data entry and maintenance.<br />

This ensures the efficient processing of<br />

mass data for components and complete tools,<br />

with easy conversion from inches to metric<br />

and vice versa, automatic collision data<br />

generation for large amounts of data, deletion<br />

of graphics or data in specific fields,<br />

optimized measurement of graphics and simplified<br />

assembly of complex tools.<br />

further information: www.tdmsystems.com<br />

44 no. 2, <strong>2026</strong> April


components<br />

ISBE: a reliable partner for<br />

digital tool manufacturing<br />

The demands placed on tool manufacturing companies<br />

have intensified significantly in recent years.<br />

Increasing product diversity, smaller batch sizes,<br />

extensive documentation requirements, and a growing<br />

shortage of skilled workers coincide with highly automated<br />

machinery and mounting cost pressure. Also<br />

expectations for transparent, stable and reproducible<br />

processes continue to rise – without compromising the<br />

flexibility essential to modern production.<br />

In this challenging environment, ISBE GmbH has supported<br />

tool manufacturers for many years as a reliable partner. Its<br />

objective is clearly defined: to develop software solutions that<br />

accurately reflect industrial reality. ISBE combines in-depth<br />

expertise in tool manufacturing processes with modern software<br />

architecture, deliberately focusing on areas where standard<br />

systems reach their limits.<br />

Proximity to production as a core principle<br />

ISBE’s solutions are developed from practical experience.<br />

They are aligned with real-world processes along the entire<br />

value chain – from order entry and production to quality<br />

assurance. The goal is to make complexity manageable without<br />

oversimplifying it. Variants, special processes and company-specific<br />

rules are not bypassed but instead mapped in a<br />

structured and transparent way.<br />

Rather than offering isolated IT tools, ISBE provides<br />

flexible software solutions that meaningfully complement<br />

existing tool grinding machines, measuring systems and ERP<br />

solutions. The result is a consistent data flow that effectively<br />

supports operational teams.<br />

Products with tangible technical value for<br />

tool manufacturing<br />

At the heart of ISBE’s solutions lies not traditional process<br />

tracking, but the structured provision and utilization of manufacturing<br />

data for cutting tools throughout the entire value<br />

chain. The objective is to consistently translate technical<br />

requirements – from the tool user through production to<br />

quality assurance – into actionable data.<br />

The starting point is always the end customer’s requirements:<br />

geometries, tolerances, operating conditions and tool<br />

life criteria. This information is processed, for example, in<br />

ISBE TD Sketcher in such a way that it forms a reliable basis<br />

for tool design. Manufacturing and quality assurance teams<br />

therefore work from a shared, clearly defined data foundation<br />

– regardless of batch size or product variation.<br />

Building on this foundation ISBE supports the structured<br />

provision of necessary grinding wheel data, programs and<br />

descriptive manufacturing information. Instead of relying on<br />

implicit knowledge or scattered data sources, relevant parameters<br />

are centrally maintained and made available in context.<br />

This increases reproducibility, reduces dependency on individual<br />

expertise, and ensures stable manufacturing processes,<br />

even in environments with frequently changing products.<br />

Another key component is the systematic evaluation of<br />

measurement and quality data. Measurement results are not<br />

viewed in isolation but directly linked to tool requirements<br />

and manufacturing parameters, and made accessible at the<br />

tool measuring machine. This enables targeted analysis of<br />

deviations and real-time process adjustments. Quality assurance<br />

thus evolves from a mere inspection checkpoint into an<br />

active contributor to process control.<br />

Partnership instead of software project<br />

What distinguishes ISBE is its partnership-based approach.<br />

Collaboration does not end with the commissioning of a software<br />

solution. Instead, software products and systems are<br />

continuously developed together with customers, aligned<br />

with real manufacturing requirements. Changes in product<br />

portfolios, new customer demands, or organizational adjustments<br />

can therefore be implemented gradually and in a controlled<br />

manner.<br />

For tool manufacturers, this means investment security,<br />

predictable digitalization steps, and a partner who understands<br />

industrial contexts – technically and economically.<br />

Conclusion<br />

Digital solutions only deliver their full value when they are<br />

consistently aligned with the realities of tool manufacturing.<br />

ISBE GmbH represents precisely this approach: software that<br />

understands context, accommodates variants and makes industrial<br />

rules explicit. As a reliable partner ISBE supports its<br />

customers in shaping transparent, stable and future-ready<br />

processes.<br />

further information: www.isbe.de<br />

no. 2, <strong>2026</strong> April<br />

45


components<br />

Ultra-fine and high-purity cleaning<br />

In the course of industrial transformation, more<br />

and more companies are focusing on the manufacture<br />

of high-quality products and components with good<br />

margins. The focus is on high-tech industries that<br />

promise stable demand through growth in the future.<br />

The extremely high demands on manufacturing precision<br />

in these industrial sectors, such as the semiconductor<br />

supply industry, electronics manufacturing,<br />

e-mobility, the optical and optoelectronic industry,<br />

sensor technology, photonics, thin-film technology,<br />

vacuum, laser and analysis technology, and aerospace,<br />

include the cleanliness of components.<br />

This applies regardless of whether the components are barely<br />

visible electronic parts, millimeter-small connecting<br />

elements, precision optics or meter-sized structural components,<br />

and regardless of the materials from which they are<br />

manufactured.<br />

The specifications for particulate cleanliness extend into the<br />

submicrometer range, and in the case of film-like<br />

contamination, even nanolayers of organic and inorganic<br />

residues, for example, must be removed in a<br />

process-reliable and reproducible manner<br />

Defining cleanliness according to requirements<br />

This trend poses challenging tasks for parts cleaning. Unlike<br />

conventional component cleaning, which usually involves<br />

removing large quantities of manufacturing residues such as<br />

chips and processing media, ultra-fine and high-purity cleaning<br />

is all about removing minimal residual contamination.<br />

The specifications for particulate cleanliness extend into the<br />

submicrometer range. Depending on the industry, component<br />

and its application, film-like residual contamination,<br />

such as organic and inorganic residues, ionic residues and<br />

microorganism residues, must be removed in a processreliable<br />

and reproducible manner down to nanometer levels.<br />

In high-purity applications, such as the manufacture of components<br />

for EUV lithography, so-called hydrogen-induced<br />

outgassing (HIO) substances must also be taken into account.<br />

The requirements for particulate cleanliness to be met<br />

during cleaning are specified by the corresponding surface<br />

cleanliness class (ORK) according to EN ISO 14644-9 (SCP –<br />

surface cleanliness by particle concentration) or the corresponding<br />

VDI guideline 2083, sheet 9.1. Film-chemical, organic<br />

and inorganic surface cleanliness is usually defined by<br />

individual specifications or factory standards. In addition,<br />

outgassing rates may be evaluated using mass spectrometers.<br />

These demanding tasks require a partner who has comprehensive<br />

technological expertise and knowledge of the applications<br />

and physical relationships. And experience in this field<br />

of cleaning, and appropriate test facilities for cleaning trials<br />

under production-related conditions should be available. As<br />

an experienced full-service provider of future-oriented and<br />

globally available solutions for ultra-fine and high-purity<br />

cleaning, Ecoclean meets these requirements.<br />

Whether you need to handle a wide variety of materials,<br />

meet high throug<strong>hp</strong>ut requirements and/or strict cleanliness<br />

specifications, modular ultrasonic multi-bath immersion<br />

systems can be efficiently adapted to the task at hand – even<br />

for integration into or connection to a cleanroom<br />

Selecting the right cleaning process<br />

and system technology<br />

In order to meet these very strict cleanliness specifications<br />

in a process-reliable, reproducible and sustainable manner,<br />

several cleaning steps are usually required along the manufacturing<br />

chain. The following questions play a role in selecting<br />

the optimal solution for the respective cleaning process:<br />

what material is the part made of? What are the geometry, dimensions<br />

and weight of the component? What contaminants<br />

need to be removed? What cleanliness requirements must be<br />

met? Which cleaning process and which chemicals are suitable<br />

for this? On this basis, it is possible to determine which<br />

46 no. 2, <strong>2026</strong> April


components<br />

The extremely high demands placed on manufacturing precision<br />

in high-tech industries include the cleanliness of components.<br />

These sometimes extremely strict requirements call for<br />

appropriately designed cleaning processes and systems<br />

as well as a suitable manufacturing environment<br />

and how many cleaning steps are required, using which<br />

medium and which process technologies. Other aspects to<br />

be taken into account include the required quality of the<br />

rinsing medium and the appropriate drying technology, as<br />

well as clean part handling and the ambient conditions, for<br />

example connection or integration into a clean room or clean<br />

environment.<br />

Cleaning along the production chain<br />

The basis for ultra-fine or high-purity cleaning is “oil- and<br />

grease-free” parts. In order to achieve and maintain this level<br />

of cleanliness a cleaning process is carried out after the various<br />

processing steps, such as machining, forming, grinding<br />

or polishing. The effect of the cleaning medium used is enhanced<br />

by various process technologies that can be combined<br />

in almost any combination, such as steam degreasing,<br />

spray, high-pressure, immersion, ultrasonic and megasonic<br />

cleaning, as well as plasma cleaning, injection flood washing,<br />

pulsed pressure cleaning (PPC) and ultrasonic plus. These<br />

process options ensure that the required cleanliness is consistently<br />

achieved, even for geometrically complex workpieces.<br />

For intermediate cleaning processes or parts with less<br />

stringent cleanliness specifications, modular single- or multichamber<br />

systems operating under full vacuum, such as<br />

EcoCstretch or EcoCvela, are typically used. Depending on<br />

the processing medium used, these systems can be operated<br />

with an environmentally friendly solvent, e.g. hydrocarbons<br />

or modified alcohol, or a specially selected water-based<br />

cleaner. The design, system engineering, media flow and<br />

treatment of these systems are specially tailored to ultra-fine<br />

cleaning and high-purity applications. Thanks to the process<br />

mechanics concentrated in the working chamber, e.g.<br />

injection flood washing, ultrasound and PPC, this type of<br />

system also offers advantages when cleaning large and complex<br />

workpieces.<br />

Ultrasonic multi-bath immersion systems are the optimal<br />

solution for parts with a wide variety of materials, high<br />

throug<strong>hp</strong>ut requirements and/or strict cleanliness specifications.<br />

In addition to individually designed cleaning systems<br />

for high-end applications, Ecoclean offers an efficient solution<br />

with the UCMSmartLine and UCMPerformanceLine<br />

series of systems consisting of standardized modules. The<br />

electrical and control technology is integrated into the<br />

respective modules for the process steps of cleaning, rinsing,<br />

drying, loading and unloading, as well as for the transport system.<br />

This, together with the provision of process mechanics<br />

tailored to requirements, such as PPC, allows the systems to<br />

be optimally adapted to the respective task. The option of<br />

upgrading the cleaning system at a later date ensures futureproofing<br />

in the event of increased requirements.<br />

Test center for process design or contract cleaning<br />

Ecoclean determines the right system concept for the application<br />

and the optimal cleaning process in its own High<br />

Purity Test Centre. It has a Class 7 clean room with Class 6<br />

zones and various measurement and analysis methods (e.g.<br />

microscopy, residual gas analysis, UV light and fluorescence<br />

measurement). In addition to the product-specific development<br />

of cleaning processes and parameters, the test centre<br />

is used to carry out contract cleaning orders. A packaging<br />

station for cleaned parts ensures that the high level of cleanliness<br />

achieved is also delivered to the customer.<br />

further information: www.ecoclean-group.net<br />

no. 2, <strong>2026</strong> April<br />

47


components<br />

A new generation of oil mist separators<br />

designed for the machining industry<br />

Built on 3nine’s proven centrifugal separation<br />

technology, the APEX series represents a new step in<br />

simplifying oil mist management while improving<br />

air quality and reducing operating costs in industrial<br />

workshops.<br />

Unlike traditional collectors that capture oil mist in filters<br />

requiring frequent filter replacement, 3nine’s separators<br />

remove oil mist from the air through patented separation<br />

technology. This enables:<br />

→ recovery and reuse of cutting fluids,<br />

reducing waste and operating costs<br />

→ long-lasting filters requiring minimal maintenance<br />

→ consistently clean air, improving both<br />

working conditions and operator health<br />

The APEX series is designed as a universal solution capable<br />

of handling a wide range of machining applications – including<br />

demanding grinding operations, cast-iron machining,<br />

and processes using both neat oil and emulsions. At<br />

GrindingHub <strong>2026</strong>, 3nine will showcase FREJA and VERA,<br />

two models from the APEX Series.<br />

◆ FREJA handles airflow rates up to 1000 m³/h,<br />

making it suitable for larger and more demanding<br />

machining applications<br />

◆ VERA is optimized for smaller machines and<br />

applications, handling airflow rates up to 500 m³/h<br />

Both models offer:<br />

→ 99.9 % separation efficiency down to 1 micron<br />

before the final filter<br />

→ automatic cleaning (CIP system) to maintain<br />

optimal separation performance and<br />

reduce manual maintenance<br />

→ real-time monitoring with an LED indicator<br />

showing operating status and filter performance<br />

With the APEX Series, 3nine continues its mission to simplify<br />

oil mist management in machine shops while helping manufacturers<br />

create cleaner, safer and more sustainable working<br />

environments.<br />

further information: www.3nine.com<br />

Measurement of metal workpieces<br />

The use of the new TomoScope® XS machines from<br />

Werth Messtechnik is not limited to typical measurement<br />

objects made of plastic. Economic measurements<br />

during production with high throug<strong>hp</strong>ut are also possible<br />

for different metal workpieces.<br />

The Werth TomoScope® XS FOV provides high-performance<br />

computed tomography at the price of tactile or multisensor<br />

coordinate measuring machines. Special software tools also<br />

make the machine suitable for worker self-inspection: the<br />

workpiece is simply placed on the rotary table and the associated<br />

measuring program is started by pressing a button,<br />

barcode or RFID code. The measurement result consists in,<br />

for example, exact measured values for each geometrical<br />

characteristic or, in the simplest case, a color-coded deviation<br />

plot from a nominal-actual comparison. Complete<br />

auto mation for inline applications is also possible, e.g., with<br />

robot loading. The machines in the TomoScope® XS family<br />

have the smallest footprint on the market for machines in<br />

this performance class, making them ideal for direct in-line<br />

use. The TomoScope® XS FOV is suitable for small plastic and<br />

metal workpieces in the medium accuracy range.<br />

With the aid of the high-power X-ray source and tube<br />

voltages of up to 160 kV, even uncooperative materials can<br />

be irradiated from different orientations in a short time and<br />

thus captured completely and three-dimensionally – including<br />

internal geometries. With multi-object measurements<br />

and automatic workpiece separation, measurement times of<br />

some tens of seconds per workpiece can be achieved. The<br />

measuring range can be optionally extended with additional<br />

axes and Raster Tomography.<br />

further information: www.werth.de<br />

48 no. 2, <strong>2026</strong> April


components<br />

Introducing cloud-powered <strong>tooling</strong> integration<br />

to accelerate mould & die machining and<br />

standardize workflows<br />

Hexagon’s Manufacturing Intelligence Business<br />

Area has introduced a significant advancement for<br />

mould & die and precision machining, with the first<br />

production ready integration between its WORKNC<br />

CAM software and the cloud-based Tool Library.<br />

This integration strengthens how CAM programmers apply<br />

validated <strong>tooling</strong> data and proven machining methods, enabling<br />

faster programming and more predictable results on<br />

complex parts.<br />

Increasing part complexity, tighter tolerances and the scarcity<br />

of experienced programmers continue to place pressure<br />

on machinists. Many lose valuable time recreating <strong>tooling</strong><br />

assemblies, maintaining fragmented data or relying on undocu<br />

mented knowledge exchange across shifts. Hexagon’s latest<br />

release addresses these challenges by unifying enhanced<br />

work flow automation in WORKNC with centralized, validated<br />

cutting-tool information from industry leading tool<br />

manufacturers (OEMs) through the platform.<br />

“Reliable <strong>tooling</strong> information is one of the most powerful<br />

levers for reducing programming time and eliminating variability”,<br />

said Steffen Dilger, president of Hexagon’s production<br />

software division. “As manufacturers adopt more advanced<br />

automation and AI-assisted programming, centralized and<br />

high-quality tool data will play an increasingly critical role.<br />

Our focus is on removing workflow bottlenecks and connecting<br />

the full manufacturing toolkit, from tool selection<br />

through simulation and NC verification.”<br />

Cloud-powered <strong>tooling</strong> for<br />

faster, smarter CAM programming<br />

The Tool Library provides WORKNC users with direct access<br />

to verified cutting-tool data from a growing network of leading<br />

<strong>tooling</strong> partners. Programmers can pull <strong>tooling</strong> information<br />

directly into their CAM environment without re-entry<br />

or model reconstruction, reducing set-up time and ensuring<br />

digital tool definitions match actual cutting performance.<br />

“This integration helps manufacturers adopt smarter, more<br />

efficient digital workflows”, said Dr. Carlonda Reilly, chief<br />

technology officer, Kennametal. “By combining our validated<br />

<strong>tooling</strong> data with Hexagon’s powerful CAM technology, we’re<br />

advancing our strategy by expanding our digital capabilities<br />

to better serve machining shops worldwide.”<br />

“Having Sandvik Coromant <strong>tooling</strong> available inside the<br />

Tool Library means less guesswork and more productive machining”,<br />

said Tobias Unosson, business & partner development<br />

manager, Sandvik Coromant. “With validated data at<br />

your fingertips, shops can standardize, reduce setup time,<br />

WORKNC by Hexagon is designed as CAM software for<br />

2- to 5-axis CNC programming of complex models<br />

in the tool, die, and mold manufacturing industry<br />

and maintain consistent best practices. Smarter tools mean<br />

smarter workflows.” This growing number of featured partners<br />

also includes MachiningCloud and ToolsUnited, with additional<br />

partners being onboarded as the ecosystem expands,<br />

giving shops broader access to validated <strong>tooling</strong> data.<br />

The integration of the Tool Library enables accurate digital<br />

twins of tools and assemblies, automatic application of material-specific<br />

cutting data, and the sharing of standardized<br />

<strong>tooling</strong> definitions across teams. Its cloud-based architecture<br />

supports scalability and consistency across thousands of tool<br />

items, while searchable catalogues give users direct access to<br />

OEM information without installing additional applications<br />

or consuming CAM licenses.<br />

Enhanced automation and quality improvements<br />

in WORKNC 2025.4<br />

Alongside the Tool Library integration, Hexagon has introduced<br />

new automation and finishing enhancements designed<br />

to simplify complex programming tasks and help shops<br />

achieve more consistent machining outcomes:<br />

▶ Improved finishing quality: a new parallel finishing<br />

algorithm delivers cleaner transitions at surface edges<br />

and improves geometry accuracy. Combined with<br />

toolpath extension in tangency, it reduces<br />

tedious CAD preparation.<br />

▶ Simplified programming: new enhancements improve<br />

detection of remaining material and provide<br />

finer control of tool entry and exit positions,<br />

helping programmers generate collision-safe<br />

toolpaths with less manual intervention.<br />

With this release, Hexagon continues to prioritize<br />

practical automation that fits existing processes, enabling<br />

manufacturers to modernize at a pace that suits their<br />

operations.<br />

further information: www.hexagon.com<br />

no. 2, <strong>2026</strong> April<br />

49


components<br />

From a secondary process<br />

to a productivity driver<br />

How intelligent KSS management determines quality, productivity, and costs<br />

In modern metalworking, the quality of the cooling<br />

lubricant (KSS) not only determines the service life<br />

of the tools, it also influences the entire value chain.<br />

Full-flow microfiltration, intelligent control, and temperature-optimized<br />

processes make KSS management<br />

a key lever for efficiency, product quality and sustainability.<br />

With its modular microfiltration systems, filter<br />

specialist Vomat from Treuen demonstrates how filter<br />

technology today not only “cleans”, but also contributes<br />

to the optimization of the entire production<br />

process actively.<br />

In many companies cooling lubricant management is still<br />

regarded merely as a necessary peripheral task. However the<br />

purity of the cooling lubricant has a direct and measurable im -<br />

pact on key performance indicators such as scrap rates, machine<br />

availability, tool costs and energy consumption. Modern,<br />

integrated cooling lubricant management therefore<br />

includes continuous fine filtration in full flow, constanttemperature<br />

cooling, demand-based operation of pumps<br />

and filter elements, and well-thought-out concepts for waste<br />

disposal and recycling.<br />

These components interact particularly closely in tool<br />

grinding: the cleaner the grinding oil and the more stable<br />

the temperature, the better the geometry, surface quality and<br />

service life can be reproduced. At the same time cooling lubricants<br />

remain in the system for significantly longer, which<br />

reduces costs for replacement, storage, and disposal.<br />

How Vomat systems optimize<br />

the entire process chain<br />

Steffen Strobel, technical sales manager at Vomat: “Vomat<br />

deliberately positions itself not only as a filter supplier, but<br />

as a solution provider for the entire cooling lubricant periphery<br />

in metalworking. We supply everything from individual<br />

to large-scale industrial central systems.” And they all offer<br />

the same advantages. “Full-flow ultra-fine filtration with<br />

constant purity: Vomat fine filtration systems separate dirty<br />

and clean oil 100 % in a full-flow process and achieve purity<br />

classes of NAS 7 (3 - 5 μm). This ensures that extremely clean<br />

cooling lubricants are permanently available for the grinding<br />

process – a decisive factor for dimensional accuracy, surface<br />

quality and tool life.<br />

Demand-based backwashing and energy efficiency: the degree<br />

of contamination of each filter element is monitored;<br />

backwash cycles only run when they are actually necessary.<br />

While one element is being backwashed, the others continue<br />

to ensure a continuous supply of clean oil. This extends the<br />

service life of the filter elements, reduces energy consumption<br />

and prevents process interruptions.<br />

Temperature-stable processes for μ-precise quality: in addition<br />

to filtration, Vomat offers integrated cooling concepts<br />

that keep the cooling lubricant within a narrow tolerance<br />

range (up to approx. ± 0.2 - 0.5 K, depending on the design).<br />

This minimizes thermal influences on the tool and workpiece<br />

– a must for demanding grinding processes with tight<br />

tolerances.<br />

Modular systems for every size of operation<br />

From individual FA systems to central ZFA systems with outputs<br />

in the four to five-digit liter range per minute: the modular<br />

concepts can be tailored precisely to machining volumes,<br />

machine configurations and future expansions. This transforms<br />

filtration from an isolated unit into strategic infrastruc -<br />

ture: cooling lubricant microfiltration, cooling and recyclable<br />

material processing are planned as an integrated system and<br />

contribute directly to OEE, TCO, and process reliability.<br />

Clean processes, better parts:<br />

quality gains through ultra-fine filtration<br />

Clean processes mean better parts, because ultra-fine filtration<br />

has a direct impact on product quality. Contaminants<br />

in the cooling lubricant act like an invisible abrasive in the<br />

circuit during everyday production: they cause scoring, unclean<br />

cutting edges, thermal damage and increased wear on<br />

grinding wheels and machine parts. Conversely, consistently<br />

clean cooling lubricants offer several quality advantages: dimensional<br />

accuracy and surface quality increase thanks to<br />

stable removal rates and homogeneous heat dissipation. Tool<br />

life is extended due to reduced abrasive wear, and scrap and<br />

rework are significantly reduced thanks to reproducible<br />

grinding conditions. Also machine downtime is reduced<br />

because components such as spindles, seals and valves are<br />

subjected to less stress. Clean machining processes thus<br />

directly contribute to delivery quality, adherence to delivery<br />

dates, and competitiveness – both in series production and<br />

in precision toolmaking.<br />

Ultrafine filtration is core technology,<br />

not an accessory<br />

Ultrafine filtration of cooling lubricants is not just a “filter<br />

box next to the machine.” As an integral part of a welldesigned<br />

cooling lubricant management system, it influences<br />

product quality, productivity, energy consumption, and sustainability<br />

throughout the entire production process.<br />

further information: www.vomat.de<br />

50 no. 2, <strong>2026</strong> April


impressum<br />

ISSN 2628-5444<br />

publisher<br />

Benno Keller<br />

phone + 49 (0)911 - 2018 200<br />

fax + 49 (0)911 - 2018 100<br />

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SBS Ecoclean Group ................ 46<br />

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advertising index<br />

GrindingHub ..........................................................page 13<br />

Hartmetall-Werkzeugfabrik Paul Horn GmbH ...............................cover<br />

JOHN CHEN SCREW Ind. Co., Ltd. ................................... back cover<br />

Lach Diamant Jakob Lach GmbH & Co. KG .......................inside front cover<br />

Liebherr-Verzahntechnik GmbH. .........................................page 11<br />

TIGRA GmbH ..........................................................page 9<br />

no. 2, <strong>2026</strong> April<br />

51

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