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Issue 11 | April 2018<br />

<strong>Insight</strong><br />

The innovation magazine<br />

from Siemens India<br />

Prototype Robot<br />

Solves Problems without<br />

Programming<br />

Pg. 6<br />

siemens.co.in


<strong>For</strong>eword<br />

Dear Valued Customer<br />

As Business leaders, we are often challenged to keep pace with change, to keep our organisations future-ready and to<br />

also be nimble-footed in the marketplace. While long-term strategic planning is still critical, it has become imperative<br />

that we revisit it regularly. I believe that disruptors will be companies we have not heard of so far.<br />

At Siemens, which we consider to be a 170-year old startup, Innovation is the engine for growth. We firmly believe<br />

that giving our customers a competitive advantage through innovations, will help them build sustainable businesses.<br />

This magazine is but another step in that direction, where we choose relevant and ground-breaking applications of<br />

technology from around the Siemens world that can add value to your businesses, and possibly also create new lines<br />

of business for you. We will also be showcasing some of these at the upcoming “Innovation Day” to be held in Mumbai<br />

on 10.05.2018, to which you will be receiving your invitation shortly. We look forward to meeting you there!<br />

In the interim, please do reach<br />

out to your Siemens Key<br />

Account / Vertical Market<br />

Manager, or to Krishnakumar –<br />

our Chief Customer Officer<br />

(r.krishnakumar@siemens.com)<br />

– should you wish to start a<br />

conversation with us on any<br />

of these topics.<br />

On behalf of my Executive<br />

Management Team, I thank<br />

you for the trust reposed in us.<br />

We also thank you for the<br />

warm feedback to “<strong>Insight</strong>”, do<br />

keep writing in to us.<br />

Christian Rummel<br />

CFO<br />

Ashish Bhat<br />

Head,<br />

Digital Factory<br />

Bhaskar Mandal<br />

Head,<br />

Process Industries & Drives<br />

Devidas Kulkarni<br />

Head,<br />

Building Technologies<br />

Warm regards,<br />

Harald Griem<br />

Head,<br />

Energy Management<br />

Prashant Jain<br />

Head,<br />

Power Generation Services<br />

Gerd Deusser<br />

Head,<br />

Power & Gas<br />

Tilakraj Seth<br />

Head,<br />

Mobility<br />

Sunil Mathur<br />

Managing Director and Chief Executive Officer<br />

Siemens Limited<br />

2


Editorial<br />

Dear Customer<br />

Greetings from Siemens, and welcome to the eleventh edition of Siemens INSIGHT, our Innovation and Technology<br />

magazine designed exclusively for you. This edition brings to the fore multiple key technologies for Sustainability,<br />

Manufacturing and E-vehicles – all very relevant topics for us in India today.<br />

This edition starts with a look at something which our planet really needs - a unique solution for De-carbonization, using<br />

a combination of Siemens’ Electrolysis process and our customer Evonik’s chemical expertise to convert Carbon Dioxide<br />

into Specialty Plastics and Ethylene. Next, we look at a solution which may be relevant for India, given our expertise in<br />

custom engineering and manufacturing – robots that can program themselves based on inputs from software like<br />

CAD/CAM. This removes the need for extensive programming, and is ideal for small-batch manufacturing situations for<br />

all industries, including SMEs. With the IoT revolution comes the requirement for very secure and large Data Centers –<br />

and we look at a very modern Data Center that we have built in Munich, which is designed for the lowest PUE, along<br />

with the highest level of safety and security standards.<br />

We move on to look at a new device ‘SICAM Q 200’ that will become essential for our Power Grids, considering the<br />

increasing composition of Renewable Energy in our overall energy mix. This device helps improve the power quality of<br />

the grid, saves energy and prevents blackouts as well. Next is an article on an efficient yet inexpensive solution to<br />

provide multiple charging points for e-vehicles within a city, by converting streetlights (Lamp-posts) into charging<br />

stations. With the focus and thrust in India for moving to electric passenger vehicles by 2030, and the first order for<br />

10,000 cars already placed by EESL, this might just be the ideal and cost-effective solution for our cities.<br />

This is followed by a few key events at Siemens – Signing of a charter for Cybersecurity in Munich with Industry partners,<br />

a “Green Corridor” in Kolkata that was enabled using our Automation, inauguration of our roof-top solar plant at Kalwa<br />

near Mumbai, commissioning of an MV Lab for the Indian Navy at Jamnagar and the launch of our own Solar Inverter.<br />

We also look at the “In Retrospect” section showcasing a few innovations from the past, all of which became part of our<br />

lives. We hope that in a similar manner, some of innovations covered in this edition will replicate that success in the<br />

future.<br />

Kindly reach out to your Siemens Key Account or Vertical Market Manager, or to me (r.krishnakumar@siemens.com) if<br />

you would like to evaluate any of these further. We shall take it from there onwards.<br />

The globally renowned Siemens Innovation Day is coming to India (Mumbai) in May, after successful debuts in Germany,<br />

USA and China. We look forward to meeting you there.<br />

Warm regards,<br />

Krishnakumar Ramanathan<br />

Head – Key Accounts, Vertical Markets &<br />

Chief Customer Officer<br />

Siemens Limited<br />

r.krishnakumar@siemens.com<br />

3


Materials Science and Processing<br />

Putting Carbon Dioxide to Work<br />

With its reputation as a top greenhouse gas, carbon dioxide doesn’t have a very positive<br />

image. However, not all the news is bad. In two government-funded projects that Siemens<br />

is conducting in cooperation with German chemical company Evonik, researchers are using<br />

CO2 to produce valuable basic and specialty chemicals for industry. The scientists expect to<br />

gain important insights that will enable them to gradually implement electrochemical<br />

synthesis processes for large-scale industrial applications.<br />

Rheticus: Converting CO2 into Specialty Chemicals<br />

In January Siemens and Evonik<br />

presented a new joint research<br />

project called Rheticus. In the<br />

project, approximately 20<br />

experts from both companies<br />

are working to generate<br />

specialty chemicals from CO2.<br />

The first phase of the project<br />

will end in 2019, and plans call<br />

for the completion of an initial<br />

test facility at Evonik’s<br />

headquarters in northwestern<br />

Germany two years later.<br />

How will the process<br />

envisioned by the two<br />

companies work? In the first<br />

step, a Siemens electrolyzer<br />

uses energy from renewable<br />

sources to convert carbon<br />

dioxide and water into metabolizable<br />

carbon monoxide (CO). Next, a<br />

fermentation process from Evonik very<br />

selectively converts the gases containing<br />

CO into valuable substances with the help<br />

of specialized microorganisms. The end<br />

products are chemicals such as butanol<br />

and hexanol, both of which are feedstocks<br />

for products such as specialty plastics and<br />

food additives.<br />

“We are operating experimental setups,”<br />

says Günter Schmid, who is responsible<br />

for electrolyzers at Siemens Corporate<br />

Technology. “This is where we can test<br />

and optimize our electrolysis cells and gas<br />

diffusion electrodes.” The aim of the<br />

project is to scale the technology from lab<br />

dimensions to those of a testing facility by<br />

2021. The Rheticus facility is expected to<br />

have a production capacity of 10 to 20<br />

tons per year. This would set the stage for<br />

building an industrial plant with a<br />

production capacity of up to 20,000 tons<br />

of butanol or hexanol per year. “We’re also<br />

discussing the possible production of<br />

other specialty chemicals or even fuels,”<br />

Schmidt adds. Depending on the needs of<br />

future customers, the dimensions of the<br />

Rheticus platform could also be expanded.<br />

Rheticus is part of the Copernicus Initiative<br />

for Germany’s energy transition. The<br />

initiative is designed to find new solutions<br />

for converting the country’s energy supply<br />

system. The German Federal Ministry of<br />

Education and Research (BMBF) is<br />

providing Rheticus with €2.8 million in<br />

funding.<br />

Siemens researchers in the Rheticus research project are working to generate specialty chemicals from carbon dioxide. Elena Volkova is<br />

preparing electrodes, a cell, and a set of operating parameters for a new series of tests.<br />

4


eEthylene: CO2-neutral Production<br />

In the government-funded<br />

eEthylen project, experts from<br />

Siemens are working together<br />

with scientists from Evonik,<br />

Berlin Technical University,<br />

Ruhr University Bochum, and<br />

the Helmholtz Institute<br />

Erlangen-Nuremberg to study<br />

how carbon dioxide can be<br />

converted into ethylene. “We<br />

are convinced that not only will<br />

CO2 help to produce coveted materials,<br />

but that it will also open up new business<br />

opportunities for Siemens,” says Dan<br />

Taroata, a project manager at Siemens,<br />

the consortium’s leader.<br />

The researchers are using electricity in a<br />

direct, single-stage electrolysis system to<br />

synthesize ethylene out of carbon dioxide<br />

and water. Their work focuses on<br />

electrocatalysts because these materials<br />

can charge inert CO2 with energy-rich<br />

electrons in order to create ethylene. If<br />

the electrons cluster in the surrounding<br />

water instead, the process creates<br />

hydrogen. That’s why the catalyst plays a<br />

decisive role in the method’s success.<br />

However, it is a great technological<br />

challenge to find a stable cupriferous<br />

electrode for the production of ethylene.<br />

Siemens researchers in the Rheticus research project are working to generate specialty chemicals from carbon dioxide. Elena Volkova is<br />

preparing electrodes, a cell, and a set of operating parameters for a new series of tests.<br />

Electrolyzers: A Core Area of Expertise at Siemens<br />

<strong>For</strong> the CO2-to-ethylene<br />

production process, Siemens is<br />

contributing a system from one<br />

of its key areas of expertise: an<br />

electrolysis facility for<br />

continuous operation. It is<br />

based on electrolyzers for<br />

hydrogen production, which<br />

are part of the company’s current product<br />

range.<br />

The three-year project, which was<br />

launched in October 2016, is receiving<br />

funding from the German Ministry of<br />

Education and Research and is part of the<br />

CO2Plus research initiative for the use of<br />

CO2 to broaden the production base for<br />

raw materials. Siemens is the leader of the<br />

project consortium. With a total budget of<br />

€2.9 million, the eEthylen project could<br />

revolutionize ethylene production. Its goal<br />

is to find out how carbon dioxide can be<br />

efficiently converted into ethylene.<br />

Economical Ethylene Production<br />

Ethylene is currently used in a<br />

wide variety of ways. <strong>For</strong> one<br />

thing, it is the feedstock for the<br />

production of polyethylene,<br />

polyvinylchloride, and<br />

polyester. As such, it is<br />

contained in most plastics.<br />

Ethylene also helps to make<br />

fruits and vegetables ripen at<br />

precisely the right time — an<br />

important application in a world of<br />

globalized food-supply chains.<br />

If the electrolytic production process can<br />

be optimized, it might be able to compete<br />

with the conventional manufacturing<br />

method. In addition to the fact that the<br />

process would use atmospheric CO2 and<br />

thus be desirable from an environmental<br />

perspective, it would also be worth<br />

pursuing from a business point of view.<br />

That’s because one ton of ethylene costs<br />

between €850 and €1,200 — a hefty sum,<br />

considering that around 180 million tons<br />

are used annually worldwide.<br />

• Ulrich Kreutzer<br />

Picture credits: Evonik<br />

Taken from Pictures of the Future, the Siemens<br />

Magazine for Research and Innovation<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

5


The Future of Manufacturing<br />

Prototype Robot Solves Problems<br />

without Programming<br />

How can a robot assemble something without first being programmed to do so? Put simply, the robot gets the information on how to<br />

manufacture an object from the associated software model.<br />

With the help of artificial intelligence, researchers at Siemens have developed a two-armed<br />

robot that can manufacture products without having to be programmed. In a glimpse of the<br />

future of automated production, the robot’s arms autonomously divide tasks and work<br />

together as one.<br />

A click is heard as one hand<br />

snaps a gray part into place on<br />

a rail. The hand withdraws and<br />

grasps another component, this<br />

time passing it to a second<br />

hand to achieve the best<br />

possible positioning, as the two<br />

extremities coordinate their movement to<br />

assemble part of a control cabinet. Part of<br />

a two-armed robot, the collaborative<br />

activity of the hands was recently<br />

demonstrated at Siemens Corporate<br />

Technology (CT) in Munich, the company’s<br />

global research unit. The robotic system is<br />

nothing less than a crucial element in the<br />

future of manufacturing — a future in<br />

which entire factories will control<br />

themselves.<br />

Making Batch Size 1 Economical<br />

To some extent, this is already<br />

possible in mass production, as<br />

demonstrated, for example, by<br />

Siemens’ showcase plant in<br />

Amberg, Germany. The factory<br />

produces Simatic<br />

programmable logic controls —<br />

with a 75 percent degree of<br />

automation and 99.99885<br />

percent quality. However, these<br />

parts are manufactured in large<br />

batches. Each year, 12 million<br />

Simatic controls are shipped to<br />

over 60,000 customers around<br />

the world. As a result, the<br />

future has already become a<br />

reality here for high production<br />

volumes. The ability to perform<br />

tasks autonomously – rather<br />

than automatically – is exactly<br />

what’s needed for<br />

manufacturers of smaller<br />

batches and those who<br />

produce many different<br />

product variants in response to growing<br />

demand for customized products.<br />

Conventional automation hasn’t yet been<br />

profitable at this level, which is sometimes<br />

referred to as “batch size 1.”<br />

A team of Siemens Corporate Technology<br />

headed by Kai Wurm and Georg von<br />

Wichert, who research autonomous<br />

systems at Siemens, managed to solve<br />

this problem. “Our two-armed smart<br />

prototype illustrates that economical<br />

batch size 1 production is possible,” says<br />

Wurm. “In the future, robots will no longer<br />

have to be expensively programmed in a<br />

time-consuming manner with pages of<br />

code that provide them with a fixed<br />

procedure for assembling parts. We will<br />

only have to specify the task and the<br />

system will then automatically translate<br />

these specifications into a program.”<br />

Experts in the field of autonomous systems: Kai Wurm (centre) and Georg von Wichert (right)<br />

from Siemens Corporate Technology observe the behavior generated by the machine.<br />

6


Transitioning to Semantic Information<br />

“We simply tell the robot to<br />

attach a specific component to<br />

the mounting rail,” says Wurm.<br />

“And that’s exactly what it<br />

does.” On a small scale, this<br />

task describes what batch size 1<br />

is all about. It involves<br />

manufacturing or assembling a<br />

product in a wide variety of<br />

variants that contain different<br />

components. The robot gets<br />

the information on how to<br />

manufacture a product from an<br />

associated software model.<br />

Although this CAD/CAM<br />

(Computer Aided Design and<br />

Manufacturing) model is<br />

incomprehensible for<br />

conventional robots, the new<br />

prototype can understand such<br />

models. In a sense, it is as if the<br />

robot can understand different<br />

languages, thus eliminating the<br />

need to program its<br />

movements and processes.<br />

To do this, the prototype<br />

successively divides tasks, such<br />

as the general command<br />

“assemble,” from the software<br />

construction plan into doable<br />

units, such as “pick” and “hand<br />

over” until it finally moves an<br />

arm or opens its grippers. The<br />

robot itself also decides which<br />

task each arm should perform.<br />

To make this possible, the<br />

developers have enabled the<br />

prototype to raise information<br />

from the product development<br />

software to a semantic level.<br />

“Product parts and process<br />

information are semantically<br />

converted into ontologies and<br />

knowledge graphs,” says Wurm.<br />

“This makes implicit information<br />

explicit. Until now the<br />

A great objective: With their research, Georg Wichert (left) and Kai Wurm have demonstrated that<br />

economical batch size 1 production is possible.<br />

things that people simply know from<br />

experience when they are told to snap<br />

component X onto rail Y have had to be<br />

taught to robots in the form of code.<br />

However, our prototype analyzes the<br />

problem by itself and finds a corresponding<br />

solution.”<br />

In the case of Siemens’ prototype<br />

demonstrator, one can witness this<br />

process in a vastly simplified form on a<br />

monitor to the right of the robot arms.<br />

The monitor displays two rows of color<br />

tiles, each of which bears words such as<br />

“assemble” (left-hand column) and “pick”<br />

(right-hand column). These tiles gradually<br />

move upward in a manner similar to<br />

scrolling down a long webpage. The tiles<br />

depict each assembly step. On the<br />

monitor to the left, the demonstrator<br />

shows the information that the robot<br />

arms receive at the beginning of a<br />

production process. This information<br />

consists of a 3D depiction of the<br />

surrounding area and the objects it<br />

contains. Above the demonstrator are two<br />

more screens that show what the robot<br />

arms are currently seeing through their<br />

integrated cameras.<br />

Toward Self-Correcting Systems<br />

Siemens Corporate Technologies’<br />

prototype system can also<br />

correct faults without having to<br />

be told beforehand that this is<br />

an option. If a part slips, for<br />

example, one of its arms will<br />

find the part as long as it is<br />

within its camera’s field of<br />

vision. The arm will then pick<br />

up the component and adjust<br />

all of its subsequent movements<br />

so that it can still install<br />

it correctly. And if the component<br />

needs to be snapped into<br />

place on the other side of an<br />

assembly, the arm will hand the component<br />

to its counterpart. These groundbreaking<br />

developments are part of the<br />

Company Core Technology (CCT) Future<br />

of Automation program. CCTs enable<br />

Siemens to focus on crucial fields of<br />

innovation such as digital twins, artificial<br />

intelligence, and additive manufacturing.<br />

Naturally, assembling control cabinets is<br />

just the beginning. Siemens developers<br />

envision self-organizing production<br />

facilities that responds to autonomously<br />

changing production requirements,<br />

continuously optimize their operations,<br />

and are populated by robots that assist<br />

one another. Such facilities would be a<br />

revolutionary step – essentially systems<br />

that feed themselves with design data,<br />

corrects faults, and calculates all movements<br />

and actions on their own. “There<br />

are many other researchers who are trying<br />

to solve this problem. But there is nothing<br />

comparable to what we have developed<br />

on the market yet,” says Wurm.<br />

• Sandra Zistl<br />

Taken from Pictures of the Future, the Siemens<br />

Magazine for Research and Innovation<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

7


IT Security<br />

Munich’s <strong>For</strong>t Knox<br />

Intellectual property, highly classified data – the company’s ‘golden nuggets,’ are stored in the EAGLE DataCenter. But this Center is more than a place<br />

to store data – it is also where value is created; that’s because data can be refined into actionable information and a competitive advantage.<br />

Data are a company’s most important asset – particularly today with the Industrial Internet of<br />

Things. When it comes to this important resource, Siemens doesn’t leave anything to chance.<br />

The company operates its own highly secure data center – the EAGLE DataCenter. The site in<br />

Munich is not only a model of best practice, but also a showcase for Siemens Building<br />

Technologies.<br />

What’s your most valuable<br />

possession? Your grandmother’s<br />

jewelry? A watch you<br />

received for graduation? Or an<br />

album of family photos?<br />

Whatever it may be, it is<br />

certainly in a safe place. But in<br />

the world of the Industrial<br />

Golden nuggets<br />

Internet of Things, perhaps the most<br />

valuable asset is data. And just like your<br />

prized personal possessions, it too must<br />

be kept safe, which means that it will be<br />

stored in a data center.<br />

But data centers are more than a place to<br />

store data – they are also where value is<br />

created; that’s because data can be<br />

refined into actionable information and a<br />

competitive advantage. Indeed, data<br />

centers are considered to be the new<br />

factories of the 21st century. Siemens’<br />

EAGLE DataCenter is one such factory. But<br />

so strategic is its significance that it is<br />

spread across four sites worldwide.<br />

“Intellectual property, highly<br />

classified data – the company’s<br />

‘golden nuggets,’ if you will –<br />

are stored in the EAGLE<br />

DataCenter,” says Uli Kohler<br />

from the EAGLE DataCenter.<br />

Welcome to the site in Munich,<br />

which is housed in a<br />

non-descript building. On the<br />

outside, there’s no indication of<br />

what the building holds – no<br />

need to attract undue<br />

attention. The building features<br />

the latest in intrusion<br />

technologies. Access to its servers is<br />

reserved for a select group of specialists.<br />

To enter, an employee first has to hold a<br />

special token over a reader, then the palm<br />

of his or her hand is scanned. If storage<br />

media has to be replaced, the old discs are<br />

destroyed on the spot. No storage media<br />

ever leaves the data center in one piece.<br />

Intrusion protection is only one side of the<br />

coin for keeping data safe. The other very<br />

real danger is fire. The risk of fire is high<br />

considering the heavy power loads in data<br />

centers, the quantities of combustible<br />

materials, extensive cabling, and the high<br />

air velocity caused by cooling systems.<br />

And fires do happen: 6 percent of<br />

infrastructure failures in data centers are<br />

related to fire. At the EAGLE DataCenter,<br />

an early warning smoke detection alarm<br />

(VESDA) system is in place. If the alarm is<br />

triggered, gas is pumped into the building<br />

to reduce the oxygen content so that the<br />

fire is put out on the spot. “The gas poses<br />

no danger for people in the building,”<br />

notes Kohler. The system also<br />

automatically notifies the local fire<br />

department.<br />

8


One-hundred percent uptime<br />

Safety and security are one<br />

aspect of operating a data<br />

center. The other is uptime.<br />

“Our internal goal is 100<br />

percent uptime. In the five<br />

years the EAGLE DataCenter in<br />

Munich has been open, we’ve<br />

achieved that,” says Kohler.<br />

Here, redundancy is the<br />

watchword, and it applies to<br />

systems ranging from<br />

air-conditioning components to<br />

those managing the facility’s<br />

power supply. <strong>For</strong> example, if the facility’s<br />

electricity were to be cut off, a diesel<br />

engine would spring to life to supply the<br />

necessary power. The data center can<br />

operate for 48 hours on a tank of fuel.<br />

Always up means electricity is constantly<br />

flowing into the data center. In fact,<br />

worldwide, data centers are responsible<br />

for 1.5 to 2 percent of all energy demand.<br />

But the Munich site is an exception, as its<br />

power comes from renewable sources and<br />

built-in efficiency. <strong>For</strong> instance, waste<br />

heat from the servers contributes to<br />

heating the building in the winter.<br />

The building itself was built to use as little<br />

energy as possible; for instance, it is<br />

equipped with a raised floor in the server<br />

rooms, which facilitates low-energy<br />

air-conditioning equipment. The servers<br />

are also configured so that energy<br />

consumption is as low as possible. These<br />

efforts have helped contribute to the data<br />

center’s internationally recognized LEED<br />

Gold certification, which is issued by the<br />

U.S Green Building Council.<br />

Guardians of highly classified data: Christian Böhm (left) and Uli Kohler from the EAGLE DataCenter<br />

Model of excellence<br />

“The EAGLE facility is Siemens<br />

Building Technologies’ top<br />

reference site for its data center<br />

expertise,” comments Kohler.<br />

Wherever possible, Siemens<br />

technologies were installed.<br />

The result is a living example of<br />

what Siemens is capable of –<br />

from state-of-the-art security to<br />

high uptime and energy<br />

efficiency.<br />

To safeguard its flagship status,<br />

the facility is continuously<br />

evolving. “We do everything<br />

possible to keep our power consumption<br />

as low as possible. We therefore trace our<br />

power usage effectiveness (PUE) to ensure<br />

that our supporting systems are efficient.<br />

That means that when it is commercially<br />

reasonable to do so, we replace hardware<br />

with more energy efficient systems,” says<br />

Kohler. The team also employs high<br />

virtualization rates to make the most of<br />

existing servers.<br />

Everyday, new data is added to Siemens’<br />

treasure trove – data that is essential to<br />

the company’s operations as well as those<br />

of its customers. Today, all of Siemens’<br />

EAGLE DataCenters collectively hold 8<br />

Petabytes of data – that’s 8,000 Terabytes.<br />

The majority of the data is in the Munich<br />

facility, which now holds around 6<br />

Petabytes. When it can hold no more,<br />

there’s room to construct a twin facility at<br />

the site. That will provide more space for<br />

one of the prized possessions of the 21st<br />

century: data.<br />

• Alexander Chavez<br />

Taken from Pictures of the Future, the Siemens<br />

Magazine for Research and Innovation<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

9


Power Transmission<br />

Device Spots Vulnerabilities<br />

in Power Grids<br />

Power grid providers as well as industrial enterprises both benefit from better grid monitoring.<br />

A new power analyzer monitors and analyzes the power grid, helps prevent downtimes and<br />

avoid damage to equipment, especially when there is a high proportion of energy generated<br />

from renewable sources.<br />

Siemens experts estimate that<br />

blackouts cause approximately<br />

€150 billion in damage<br />

worldwide every year when<br />

production or IT is down. In<br />

Germany, downtimes are very<br />

short, an average of only<br />

approximately twelve minutes<br />

per year. But conditions are<br />

changing, due to the high<br />

proportion of renewable energy<br />

in the grid. In the past, the<br />

supply quality – that is, the<br />

constant voltage quality,<br />

availability and quality of<br />

service – was established by<br />

the equilibrium between power<br />

generation and consumption.<br />

But as the amount of energy<br />

produced from renewable sources<br />

increases, significant voltage fluctuations<br />

and uneven availability may arise.<br />

Modern technology also impairs grid<br />

quality. Devices that consume highly<br />

variable amounts of energy produce<br />

harmonics and thus interfere with<br />

sensitive electronics. An example of such<br />

a nonlinear consumer is a<br />

frequency-controlled drive, which is a<br />

motor that adjusts its power as demand<br />

changes. Many industrial enterprises use<br />

this technology to make their production<br />

processes more energy-efficient.<br />

However, if they operate sensitive plants<br />

at the same time, they have to secure the<br />

quality in their power grids.<br />

With these considerations in mind,<br />

Siemens has developed a new power<br />

analyzer. The device gives grid operators<br />

and industrial enterprises a solution that<br />

allows them to correctly evaluate<br />

changing loads on power grids. To<br />

accomplish this, data regarding electrical<br />

variables, such as current, voltage,<br />

frequency and power as well as<br />

harmonics, need to be collected in the<br />

grid. Based on the results of such an<br />

analysis, operators can decide on the best<br />

way to ensure supply quality. After all,<br />

poor power quality not only burdens<br />

equipment, but a failure can shut down<br />

factories, damage plants and cut off<br />

households from the power supply. Good<br />

supply quality, on the other hand, reduces<br />

downtimes and increases the life of<br />

devices on the power grid.<br />

10


Locating disturbances, identifying energy savings potential<br />

Siemens’ Sicam Q200 power<br />

analyzer measures all important<br />

parameters for power quality,<br />

analyzes them and visualizes<br />

the results. When installed at<br />

key points in power distribution<br />

stations, transfer points,<br />

feeders for industrial plants,<br />

industrial grids, etc. the device<br />

detects current, power,<br />

voltage, frequency and<br />

harmonics. It identifies<br />

disturbances and can detect<br />

short circuits and nonlinear<br />

consumers based on<br />

measurements of current. The<br />

device also indicates whether<br />

and where damage has<br />

occurred. Operators can use the<br />

resulting data to decide<br />

whether to preventively replace<br />

a device or component.<br />

provides detailed insights into energy<br />

consumption on the grid and thus<br />

identifies savings potential.<br />

The power analyzer displays measured<br />

values directly on the device and transmits<br />

them to a computer in the user’s energy<br />

automation or SCADA system. The device<br />

also stores measured values for additional<br />

analyses and can transmit long-term data<br />

and certain events to a higher level<br />

control center for further analysis.<br />

The power analyzer is operated via an<br />

integrated web server, which saves<br />

money, since no additional software is<br />

needed for configuration or data<br />

evaluation.<br />

• Christine Rüth<br />

Taken from Pictures of the Future, the Siemens<br />

Magazine for Research and Innovation<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

Sicam Q200 detects the power<br />

and corresponding phase angle<br />

of harmonics. These variables<br />

make it possible to determine<br />

the precise nonlinear consumer<br />

that is distorting a current.<br />

Active filters can then be<br />

installed to compensate for the<br />

harmonics. Thanks to its power<br />

measurements, the power<br />

analyzer also helps save<br />

energy. Measured data<br />

The Sicam Q200 power analyzer measures all important parameters for power quality, analyzes<br />

them and visualizes the results. In addition it can be interfaced with energy management<br />

devices.<br />

11


#InnodayIndia<br />

Coming soon to India<br />

Innovation Day<br />

Unlock the potential<br />

Continuing with a successful series of events in<br />

Germany, USA & China, Innovation Day now comes to<br />

India to unlock the potential with digitalization.<br />

Dr. Roland Busch, Chief Technology Officer and<br />

Member of the Managing Board, Siemens AG will be<br />

hosting this Innovation Day.<br />

Experience innovation through our interactive<br />

exhibits and lab sessions.<br />

Date : Thursday, May 10, 2018<br />

Venue : Hotel Trident, Mumbai<br />

Time : 12 noon onwards


Electric Mobility<br />

Converting Street Lamps into<br />

Charging Stations<br />

At the core of the Ubitricity solution is a mobile electricity meter. Integrated into an intelligent charging cable with secure mobile<br />

communication, it automatically activates charging processes, records the consumption data for each specific vehicle, and sends these for billing<br />

to an energy data platform. The basis for this is an electricity contract that is concluded for the cable.<br />

A Berlin-based startup has developed technology that enables street lamps to be easily<br />

converted into charging stations for electric vehicles. Siemens has invested in this promising,<br />

new technology.<br />

The International Energy<br />

Agency (IEA) would like to see<br />

100 million electric cars on the<br />

road worldwide by 2030. The<br />

idea is to stay on course to<br />

achieving the goals of the Paris<br />

climate accord. In addition, the<br />

IEA wants one fifth of all road<br />

vehicles, including motorcycles,<br />

buses and trucks, to run on<br />

batteries by then. The Paris city<br />

council might even ban<br />

vehicles with combustion<br />

engines from entering the city<br />

from 2030 on. In addition, also<br />

by 2030, the European Union is<br />

planning to have 30 percent of<br />

all new vehicles equipped with<br />

electric or other alternative<br />

drive systems.<br />

into charging times will drive off with fully<br />

charged batteries and help spread the use<br />

of renewable energies, because their cars<br />

will become energy storage devices.<br />

Unless they are making a long trip, drivers<br />

will then rarely have to stop at quick<br />

charging stations to rapidly recharge their<br />

vehicles’ batteries.<br />

Ubitricity, a young company based in<br />

Berlin, Germany, has developed a<br />

technology that enables drivers to obtain<br />

electricity generated from renewable<br />

resources from the grid at almost any<br />

location. What’s more, it could turn<br />

vehicles into smart storage devices while<br />

they are connected to the grid. In view of<br />

this, Siemens has now bought an interest<br />

in Ubitricity, because the startup’s<br />

technology plugs into a number of<br />

Siemens’ business activities at the<br />

interface between electrification, digital<br />

systems, and smart grids.<br />

Clearly, electric mobility is on a<br />

roll. However, to make the<br />

vision of greenhouse-gas-free<br />

transportation a reality, we<br />

need not only enough<br />

renewably-generated electricity<br />

in the grid but also charging<br />

stations in the right places —<br />

especially where vehicles park<br />

for long periods – in other<br />

words, at work and at home.<br />

People who turn parking times<br />

In contrast to other charging cables, a mobile, calibrated electricity meter and SIM card is<br />

integrated into the SmartCable. Thanks to it an electricity contract can be closed for the cable,<br />

which would only be possible for the whole household other- wise.<br />

14


A Smart Technology with a Mobile Electricity Contract<br />

At its heart, Ubitricity’s<br />

technology encompasses three<br />

elements: a smart electric<br />

meter that is incorporated into<br />

the charging cable and handles<br />

battery charging billing, a<br />

mobile electricity contract that<br />

is linked to the charging cable,<br />

and power sockets that can be<br />

installed anywhere —<br />

essentially creating docking<br />

stations to the grid. Known as<br />

SimpleSockets, these outlets<br />

can be inexpensively installed<br />

in parking garages, residential<br />

and commercial buildings, and<br />

existing infrastructure systems<br />

such as street lamps.<br />

Drivers merely need to park<br />

next to such street lamps and<br />

use the mobile “tap” to<br />

purchase electricity that is then<br />

directly billed.<br />

In a pilot project, SimpleSockets<br />

were installed in dozens of<br />

street lamps in several London<br />

boroughs. Drivers merely need<br />

to park next to such street<br />

lamps and use the mobile “tap”<br />

to purchase electricity that is<br />

then directly billed. It takes only<br />

half an hour and around<br />

€1,000 to convert a street lamp<br />

— a fraction of what it costs in<br />

time and money to install a<br />

separate charging station.<br />

After a smart cable is inserted<br />

into the socket, it identifies the<br />

charging point and turns on the<br />

Since part of the technology that is usually installed in charging stations is already integrated<br />

into the charging cable, the charging points are correspondingly cheap and small. The latter fact<br />

allows, for example, affordable installations in real estate.<br />

power. Once the charging process has<br />

been completed, the associated data is<br />

transmitted to Ubitricity via a secure<br />

mobile communications link. The<br />

company then forwards the data to<br />

mobile power suppliers, who bill the users<br />

each month for the electricity they have<br />

consumed. “Ideally, the smart charging<br />

cable will make the charging of electric<br />

cars as easy as using a smartphone,”<br />

explains Frank Pawlitschek, CEO and<br />

co-founder of Ubitricity.<br />

Because power sockets can be<br />

inexpensively installed in walls and street<br />

lamps and produce almost no ongoing<br />

costs, they are ideal for large structures<br />

such as lampposts. “At least one to two<br />

percent of the ten million street lamps in<br />

Germany could be converted<br />

immediately,” says Pawlitschek. “Thus we<br />

could enable the drivers who recharge at<br />

street lamps to quickly and easily get what<br />

they urgently need when they purchase<br />

an electric vehicle: an inexpensive way to<br />

recharge batteries right outside their front<br />

doors.” The technology could also provide<br />

other benefits in the future, because the<br />

cables can control the charging processes<br />

in line with grid loads and integrate<br />

vehicles into the smart grid for use as<br />

decentralized storage devices. The basis<br />

for this is provided by the data generated<br />

by the smart charging cables themselves.<br />

Moving Electric Meters into Cars<br />

Because of these<br />

considerations, Siemens’<br />

Energy Management Division<br />

decided to get involved in<br />

Ubitricity — financially and in<br />

other ways. The company plans<br />

to contribute its know-how<br />

regarding digital grids and<br />

other technologies to the<br />

partnership so that large-scale<br />

charging infrastructures can be<br />

created. “We are not<br />

particularly interested in single<br />

charging stations,” says Moritz<br />

Ingerfeld from Siemens Energy<br />

Management. “Instead, we’re<br />

interested in offering scalable<br />

solution packages and digital<br />

services to our customers,<br />

including energy utilities,<br />

industrial companies, logistics firms, and<br />

real estate businesses. These packages<br />

and services are needed for installing<br />

charging infrastructures in parking<br />

garages, large company parking lots,<br />

building complexes, and entire streets. In<br />

this way we can work together with our<br />

customers to enhance their business<br />

models.” Ubitricity also augments<br />

Siemens’ portfolio of wall-mounted and<br />

quick charging stations, as well as the<br />

company’s existing involvement in<br />

ChargePoint, a U.S. startup that is already<br />

very successful in the United States.<br />

However, the smart charging cable is by<br />

no means the last word in mobile<br />

electricity for automobiles. In the next<br />

step, Siemens will further optimize the<br />

smart meter inside the cable and<br />

eventually transfer it into vehicles,<br />

because most of the electronics that are<br />

installed in the smart cable today are<br />

already available inside automobiles. “We<br />

want the technology to ultimately develop<br />

in the same way the satnav system did,”<br />

says Pawlitschek. “Initially it was a piece of<br />

supplementary equipment, but later it<br />

became part of the vehicle. We are<br />

convinced that in the future cars will be<br />

sold together with vehicle-related green<br />

power contracts. That way, cars will play<br />

their proper role as major electric<br />

consumers within the grid.”<br />

• Hubertus Breuer<br />

Picture credits: Ubitricity<br />

Taken from Pictures of the Future, the Siemens<br />

Magazine for Research and Innovation<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

15


Siemens and partners sign joint charter<br />

on cybersecurity<br />

• Ten action areas for greater cybersecurity<br />

• Call for dedicated government ministries and chief information security officers<br />

• Independent certification for critical infrastructures and solutions in the Internet of Things<br />

• Nine partners present first charter on cybersecurity at Munich Security Conference<br />

At the Munich Security<br />

Conference today, Siemens and<br />

eight partners from industry<br />

will sign the first joint charter<br />

for greater cybersecurity.<br />

Initiated by Siemens, the<br />

Charter of Trust calls for<br />

binding rules and standards to<br />

build trust in cybersecurity and<br />

further advance digitalization.<br />

In addition to Siemens and the<br />

Munich Security Conference<br />

(MSC), the companies Airbus,<br />

Allianz, Daimler Group, IBM,<br />

NXP, SGS and Deutsche<br />

Telekom are signing the<br />

Charter. The initiative is further<br />

welcomed by Canadian foreign<br />

minister and G7 representative<br />

Chrystia Freeland as well as<br />

witnessed by Elżbieta<br />

Bieńkowska, the EU<br />

Commissioner for Internal Market,<br />

Industry, Entrepreneurship and Small and<br />

Medium-sized Enterprises.<br />

“Confidence that the security of data and<br />

networked systems is guaranteed is a key<br />

element of the digital transformation,”<br />

said Siemens President and CEO Joe<br />

Kaeser. “That’s why we have to make the<br />

digital world more secure and more<br />

trustworthy. It’s high time we acted – not<br />

just individually but jointly with strong<br />

partners who are leaders in their markets.<br />

We hope more partners will join us to<br />

further strengthen our initiative.”<br />

The Charter delineates 10 action areas in<br />

cybersecurity where governments and<br />

businesses must both become active. It<br />

calls for responsibility for cybersecurity to<br />

be assumed at the highest levels of<br />

government and business, with the<br />

introduction of a dedicated ministry in<br />

governments and a chief information<br />

security officer at companies. It also calls<br />

for companies to establish mandatory,<br />

independent thirdparty certification for<br />

critical infrastructure and solutions –<br />

above all, where dangerous situations can<br />

arise, such as with autonomous vehicles<br />

or the robots of tomorrow, which will<br />

interact directly with humans during<br />

production processes. In the future,<br />

security and data protection functions are<br />

to be preconfigured as a part of<br />

technologies, and cybersecurity<br />

regulations are to be incorporated into<br />

free trade agreements. The Charter’s<br />

signatories also call for greater efforts to<br />

foster an understanding of cybersecurity<br />

through training and continuing<br />

education as well as international<br />

initiatives.<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

16


India Focus<br />

Ingenuity makes Kolkata traffic<br />

signals green<br />

Recently, the Kolkata Traffic<br />

Police used the Green Corridor<br />

for an emergency – to transport<br />

liver and kidney from one<br />

hospital to another for a<br />

transplant! A 10-kilometer<br />

stretch between the two<br />

hospitals, which usually takes<br />

45 minutes, was covered in a<br />

mere 14 minutes!<br />

Ujjal Chowdhury of PD S ER<br />

BHU, says, “The automated and<br />

time-based solution can<br />

monitor, control and synchronize<br />

all traffic signals along the<br />

corridor. The average commute<br />

time has reduced by a fifth as a<br />

result of the speed of traffic<br />

flow increasing by 20 percent,<br />

leading to comfort and safety of citizens.”<br />

This data has been verified by an independent<br />

research agency using data from 50<br />

million cab commutes and published in<br />

front page of Times of India.<br />

The project came about when Siemens<br />

colleagues found out that the Kolkata<br />

Traffic Police chief was seeking a solution<br />

for the endless traffic chaos in his city.<br />

As part of the solution, each traffic signal<br />

along the green corridor is equipped with<br />

an antenna and a GPRS-enabled SIM card,<br />

which is connected to a central control<br />

room. Traffic police personnel who used<br />

to manually change sequences, time and<br />

modes at traffic signals, will now do so at<br />

the central control room. The GPRS allows<br />

all signals of a particular zone to communicate<br />

with each other, optimizing<br />

operations. In total, over 350 modems<br />

have been installed at 350 locations<br />

presently out of the 700 traffic signals.<br />

The recently-concluded U-17 World Cup<br />

had 11 matches including the final in<br />

Kolkata. The Kolkata Traffic Management<br />

System helped the city to make it a show<br />

piece in front of World of Football resulted<br />

Bus-led spectator evacuation declined<br />

from 45 minutes to 15 minutes due to<br />

traffic density optimization.<br />

This is a perfect example of Ingenuity for<br />

life which shows economical engineering<br />

expertise, smart local innovation and the<br />

willingness to give our best for society on<br />

a daily basis.<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

Siemens medium voltage capabilities<br />

contribute to Indian Navy’s modernization<br />

Process Industries and Drives<br />

Division completed the setup of<br />

the first-of-its-kind medium<br />

voltage training facility for the<br />

Indian Navy named “Medium<br />

Voltage Lab”, contributing to<br />

the modernization and<br />

strengthening of the naval<br />

fleet. The laboratory will<br />

contribute significantly to the<br />

Indian Navy’s transition from<br />

diesel/gas mechanical<br />

propulsion to electric<br />

propulsion.<br />

The facility will be used for first-stage<br />

training of naval officers and crew of<br />

naval ships, primarily, on medium voltage<br />

power generation, protection and<br />

distribution, and medium voltage drives<br />

and motors. The laboratory has been set<br />

up on the campus of INS Valsura, where<br />

officers and sailors from Indian Navy,<br />

Indian Coast Guard and various friendly<br />

foreign navies are trained in the fields of<br />

electrical, electronic and weapon<br />

technologies and systems. The turnkey<br />

MV Lab project is an excellent example of<br />

building a solution using products of<br />

several BUs within Siemens world.<br />

The construction phase of this mega<br />

project commenced in early February<br />

2017 and has been completed in a record<br />

time of 11 months. The lab as it stands<br />

today is a one-of-its-kind training facility<br />

in the subcontinent and is one of only two<br />

such facilities worldwide. The setup<br />

comprises equipment manufactured at<br />

varied locations across India and is in line<br />

with the Government’s Make in India<br />

initiative.<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

17


India Focus<br />

Another first in the world at Kalwa<br />

Zsolt Sluitner, Head of Siemens Real Estate, Siemens AG, and Sunil Mathur, Siemens India CEO, inaugurated the facility today.<br />

More than 6,800 solar modules<br />

cover 13,640 square meters<br />

across three factory roofs in<br />

Kalwa. The 2.2 Megawatt peak<br />

solar plant will generate around<br />

2.9 Million Kilowatt hour of<br />

power, around 13 percent of<br />

the annual consumption of the<br />

Kalwa Factory Complex and<br />

enough to power 2,900<br />

households!<br />

The plant cuts annual CO2<br />

emissions by 2,400 tonnes –<br />

equal to 62,000 newly-planted<br />

trees! The generation and<br />

consumption of power as well<br />

as water and security will be<br />

monitored from the spanking<br />

new Energy Monitoring &<br />

Control Centre. This is the first<br />

facility of such magnitude<br />

installed in an existing factory<br />

anywhere in the Siemens world!<br />

The solar plant is the result of<br />

an outstanding collaborative<br />

effort by the team from<br />

Siemens Real Estate together<br />

with colleagues across the<br />

Siemens organization, who<br />

work on Solar Decentralized Energy<br />

Systems (DES).<br />

Zsolt Sluitner, Head of Siemens Real<br />

Estate, Siemens AG, and Sunil Mathur,<br />

Siemens India CEO, inaugurated the<br />

facility today. “In order to continuously<br />

improve our customer’s efficiency, we<br />

have energy efficiency programs in place<br />

since long. Slashing energy costs and<br />

reducing carbon emissions goes hand in<br />

hand. As Siemens CEO Joe Kaeser puts it,<br />

a low carbon footprint is not only good<br />

corporate citizenship, it’s also good<br />

business. I can confirm that this is the first<br />

example worldwide in a brownfield<br />

solution. I hope a lot of our customers will<br />

be impressed with this and will buy our<br />

systems. It will help us to reduce costs,<br />

improve efficiency and leverage dynamic<br />

load management. Kalwa is a very good<br />

example for me of sustainability and EHS<br />

efforts,” said Mr. Sluitner.<br />

Mr Mathur said, “The government is<br />

talking about a 100 gigawatts of<br />

renewables; 75 gigawatts of that is solar<br />

rooftop. Very few cases of this being done<br />

on brownfield rooftop installations.<br />

Being green is critical for us… but more<br />

importantly Kalwa being in the center of<br />

Mumbai’s commercial district, this is<br />

a first real example to show our customers<br />

of what even SMEs can do in their<br />

manufacturing environment. We are<br />

looking at digitalization as a major step<br />

forward in Siemens. <strong>For</strong> this, we need<br />

to be able to demonstrate that it makes<br />

business sense!”<br />

Sangeeta Ray, Head of SRE, Siemens India,<br />

explains, “The power plant would be used<br />

as a captive power plant. The return of<br />

investment will be through a re-financing<br />

model worked out based on annual<br />

existing energy consumption of units.<br />

The team was exceptional, completing the<br />

entire project less than 9 months during<br />

running factory operations and<br />

overcoming challenges such as limited<br />

access, traffic movement and weather!”<br />

The solar PV project at Kalwa is a replicable<br />

model for other factories within Siemens<br />

and makes an excellent business case for<br />

customers. It fits into the decarbonization<br />

plans of Siemens and showcases the<br />

technologies that we sell to our customers<br />

in our own operations.<br />

• Marina Patrao<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

18


NEA selects Siemens for<br />

Load Dispatch Center upgrade<br />

Nepal Electricity Authority<br />

(NEA) has selected Siemens for<br />

upgrading its Supervisory<br />

Control and Data Acquisition /<br />

Energy Management System<br />

(SCADA/EMS) at its Load<br />

Dispatch Center (LDC) located<br />

in Kathmandu. The prestigious<br />

fast-track project has been<br />

funded by German governmentowned<br />

development bank KfW.<br />

NEA, parent generator and<br />

distributor of electric power<br />

under the supervision of the<br />

government of Nepal, has<br />

been planning to replace its<br />

15-year-old SCADA/EMS with<br />

a state-of- the art system to<br />

enhance the capacity of the LDC.<br />

The upgradation will help meet the<br />

requirements of expansion of the<br />

network and the smooth operation of<br />

Integrated Nepalese Power System.<br />

Siemens will implement the new<br />

SCADA/EMS system, built around<br />

Spectrum Power 7, its innovative Energy<br />

Management System platform for<br />

controlling and monitoring the INPS.<br />

This system provides advanced tools for<br />

monitoring and operational improvement<br />

of a large and complex electrical<br />

transmission network. The ‘multi-site’<br />

feature of the Spectrum Power 7 helps<br />

in establishing an emergency / backup<br />

control center in a seamless manner.<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

Energy Management Division launches<br />

new generation of photovoltaic inverters<br />

in India<br />

Siemens India launched<br />

Sinacon PV, a new generation<br />

of photovoltaic (PV) central<br />

inverters with an output up to<br />

5,000 kVA. The inverter is part<br />

of Siemens’ new electrical<br />

Balance of Plant (eBoP) solution<br />

for PV power plant installations.<br />

The state-of-the-art Sinacon PV<br />

inverter will be locally produced<br />

and manufactured at Siemens’<br />

Kalwa plant near Mumbai for<br />

the domestic market as well as<br />

for export into the region.<br />

About India’s role in the global<br />

market, Ralf Christian opined,<br />

“India is a nicely growing<br />

market in many aspects and<br />

now turning green. It is a<br />

market where we have a lot of<br />

hope on stable development in<br />

the next years. “Harald Griem,<br />

Executive Vice-President and<br />

Head of Energy Management,<br />

Siemens Limited, said “Siemens<br />

is committed to partner the<br />

Government in its endeavor to<br />

increased use of clean energy<br />

sources. The National Solar<br />

Mission of the Government<br />

aims to establish India as a<br />

global leader in solar energy.<br />

Siemens aspires to contribute<br />

to this with local value-addition in line<br />

with Make in India.”<br />

As a leading supplier of transmission,<br />

distribution and smart grid solutions,<br />

Siemens intends in addition to the inverter<br />

manufacturing also a local assembly of<br />

medium voltage inverter stations.<br />

The new Siemens inverters and medium<br />

voltage inverter stations target large scale;<br />

ground mounted solar PV power plants,<br />

comprising of comprehensive eBoP<br />

solutions. The eBoP solution enables solar<br />

power to be intelligently integrated into<br />

the grid. The portfolio includes all<br />

electrotechnical equipment needed.<br />

Siemens offers complete end-to-end<br />

planning, engineering, and financing,<br />

all the way to commissioning and service,<br />

including optimum interconnection of<br />

energy storage systems and even<br />

complete microgrids.<br />

• Ritvik Balgi<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

19


Driving Digital Transformation<br />

Krishnakumar Ramanathan, Head of Key Accounts and Vertical Markets and Chief Customer Officer, Siemens India, introduced the audience to<br />

Siemens and all that it represents. Ashish Bhat, CEO – Digital Factory, Siemens India, and the main speaker for the evening, made a brilliant<br />

presentation of what Digitalization is and how it is being driven by the Digital Factory and Process Industries & Drives Divisions.<br />

Customers not just in major<br />

metros but also in so-called tier<br />

II cities like Coimbatore and<br />

Ahmedabad are consciously<br />

making the shift toward digital<br />

transformation. Siemens India<br />

has taken the lead in partnering<br />

customers in their digitalization<br />

journey.<br />

Recently, during an interactive<br />

session on “Driving Digital<br />

Transformation”, experts from<br />

Siemens shared insights on<br />

Industry 4.0, digitalization<br />

technologies and their impact<br />

across the entire value chain,<br />

from production planning,<br />

design and manufacturing. The<br />

location was Coimbatore, one<br />

of the fastest-growing tier II<br />

cities in India and the hub of<br />

automotive ancillary, textile<br />

and poultry industries. In<br />

attendance were key<br />

representatives from over 130<br />

top corporates in Coimbatore,<br />

such as Lakshmi Machine<br />

Works, Elgi Equipments, Elgi<br />

Rubber, Hirotec, LGB, Malabar Cements,<br />

Pricol, Ponni Sugars, ITC, TVS Srichakra<br />

and Gedee Weiler.<br />

The participants got insights into the<br />

global trends and how digitalization can<br />

help overcome the challenges. In the field<br />

of energy, for instance, the conventional<br />

energy paradigms are shifting. The<br />

upheaval that the energy systems are<br />

undergoing is referred to as the “3D Model<br />

of Energy” because it can be traced to<br />

three trends: decarbonization,<br />

decentralization, and digitalization<br />

While decentralization refers to small,<br />

secure grids "everywhere", decentral<br />

generation (PV, storage) and distributed<br />

energy management, decarbonization is<br />

all about renewables, energy efficiency<br />

and electrification of heat & transport.<br />

Digitalization is brought into the equation<br />

though intelligent connectivity, new<br />

energy services and self-learning &<br />

healing (AI).<br />

In manufacturing, the Siemens low<br />

voltage switchgear factory at Kalwa<br />

Works is a perfect example of how digital<br />

transformation can deliver tangible<br />

benefits, specially for the small and<br />

medium enterprises.<br />

The globally-benchmarked factory is<br />

capable of producing more than 180<br />

variants at the rate of one product every<br />

nine seconds. The plant can manufacture<br />

over five million devices annually.<br />

Products at the plant communicate with<br />

machines and all processes are optimized<br />

for IT control, resulting in a minimal<br />

failure rate. The production methods<br />

deployed at the plant are expected to be<br />

a standard for small and medium-sized<br />

manufacturing units in India, achieving<br />

a visionary model for the future of<br />

manufacturing: end-to-end digitalization<br />

where the real and virtual worlds merge<br />

in “Digital Factory”.<br />

According to Ashish Bhat, CEO – Digital<br />

Factory, Siemens India, “Digitalization will<br />

help us engage with our customers and<br />

industry suppliers across the complete<br />

value chain. A key element in this<br />

evolution is an improved technological<br />

prowess and a world-class product<br />

manufacturing plant.”<br />

<strong>For</strong> more information,<br />

write to insight.in@siemens.com<br />

20


The Foundation of Siemens’ Innovative Strength<br />

Start-up in a Berlin Backyard<br />

In the mid-19th century, a<br />

small, square box weighing<br />

about ten kilograms marked<br />

the birth of the pointer<br />

telegraph. The device, which<br />

was developed by artillery<br />

officer and inventor Werner von<br />

Siemens in a backyard in Berlin<br />

in 1847, ushered in a new era<br />

of electric telegraphy. The<br />

protagonist of this story had a<br />

mindset similar to that of<br />

today’s start-up founders; it was<br />

characterized by an unshakable<br />

faith in his innovation, his skill,<br />

and a venturesome spirit,<br />

which was not dampened by<br />

early failures. “I am now firmly<br />

resolved to make a strong<br />

career out of telegraphy,” he<br />

wrote to his brother William in<br />

December 1846. Indeed, only<br />

five months after he filed a patent for his<br />

telegraph in May 1847, he and Johann<br />

Georg Halske founded “Telegraphen<br />

-Bauanstalt von Siemens & Halske.”<br />

In the following year, the young company<br />

was awarded a contract to build Prussia’s<br />

first electric telegraph line from Berlin to<br />

Frankfurt am Main. One year later, news<br />

of the resolutions of the Frankfurt<br />

National Assembly, the first German<br />

parliament, was telegraphed across a<br />

distance of roughly 500 kilometers to<br />

Berlin in less than an hour. In those days,<br />

this was a veritable sensation and became<br />

the basis for the later worldwide fame of<br />

“Telegraphen-Bauanstalt von Siemens &<br />

Halske.”<br />

Siemens celebrated the 200th birthday of<br />

its founder in 2016 and the 170th<br />

anniversary of its establishment in 2017.<br />

Werner von Siemens’ legacy continues to<br />

this day, in the many brilliant minds that<br />

stand behind the Siemens name and are<br />

responsible for the company’s innovative<br />

strength.<br />

Venturesome Spirit:<br />

Werner von Siemens, 1816 – 1892<br />

21


In Retrospect<br />

1847<br />

Werner von Siemens refined the pointer telegraph invented by Englishman Charles Wheatstone by synchronizing<br />

the transmitter and receiver electrically – making the new device a major improvement over earlier versions. A year<br />

later a young telegraph company, the “Telegraphen-Bauanstalt von Siemens & Halske,” got its first commission – to<br />

install what would be Europe’s longest telegraph line of its day, from Berlin to Frankfurt am Main.<br />

1953<br />

Siemens researchers developed and patented a special technique for making ultrapure silicon for semiconductor<br />

applications. The discovery revolutionized the entire field of electrical engineering, and also represented a<br />

successful entry into microelectronics, tapping a key technology that also extended into other fields of production.<br />

22


1980<br />

Siemens made its successful debut in digitalizing telephone technology, with its EWSD digital electronic exchange<br />

system. EWSD soon became the world's best-selling landline switching system. Four years later, the company<br />

introduced the Hicom private communications system – its first proprietary digital telephone set solution. The<br />

product found rapid acceptance in industry, business and government.<br />

2010<br />

In 2010, Siemens delivered the world's largest, most powerful 800 kilovolt (kV) converter transformer, intended for<br />

the high-voltage DC (HVDC) transmission segment then under construction between Xiangjiaba and Shanghai in<br />

China. At more than 2,000 kilometers and with a transmission capacity of 6,400 megawatts (MW), this HVDC<br />

connection was the longest and most powerful in the world.<br />

Credit: Siemens Historical Institute.<br />

23


Published by and copyright © 2018<br />

Siemens Ltd.<br />

Birla Aurora, Level 22,<br />

Plot No. 1080, Dr. Annie Besant Road,<br />

Worli, Mumbai – 400030, India<br />

Corporate Identity Number:<br />

L28920MH1957PLC010839<br />

Tel: +91 22 3967 7000<br />

Fax: +91 22 3967 7500<br />

<strong>For</strong> more information, call us on our<br />

toll-free number: 1800 209 1800<br />

(Monday to Saturday, 8:00 am to 8:00 pm)<br />

/SiemensPayIt<strong>For</strong>ward<br />

/SiemensIndia<br />

All rights reserved. On account of certain regional limitations of sales<br />

rights and service availability, we cannot guarantee that all products<br />

included in this magazine are available through the Siemens sales<br />

organization worldwide. Availability and packaging may vary by country<br />

and are subject to change without prior notice. The information in this<br />

document contains general technical descriptions of specifications and<br />

options as well as standard and optional features which do not always<br />

have to be present in individual cases. Siemens reserves the right to<br />

modify the design, packaging, specifications, and options described<br />

herein without prior notice. Please contact your local Siemens sales<br />

representative for the most current information. The required technical<br />

options should therefore be specified in the contract.<br />

Note: Any technical data contained in this document may vary within<br />

defined tolerances.<br />

www.siemens.co.in

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