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Universal testing machine Zwick/Roell Z005, 5kN cell ... - irasm.ro

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Horia Hulubei National<br />

Institute of Physics and<br />

Nuclear Engineering<br />

ARCON - PN2/92083/2008<br />

Disinfestation by ionizing radiation: A chance for<br />

future of archives<br />

Physical, chemical and<br />

mic<strong>ro</strong>biological tests for<br />

irradiation of paper<br />

Ioan Valentin Moise 1 , Marian Virgolici 1 , Mihaela Manea 1 , Mihalis Cutrubinis 1 ,<br />

Daniel Negut 1 , Rodica Maria Georgescu 1 , Mioara Alexandru 1 , Laura Trandafir 1 ,<br />

Florina Lucica Zorila 1 , Mihai Constantin 1 , Ioana Stancurescu, 1, 5 Catalina Mihaela<br />

Talasman 2 , Maria Haiducu 3 , Elena Ilie 4<br />

1 IFIN-HH – “Horia Hulubei” National Institute for Physics an Nuclear Engineering<br />

2 CEPROHART SA – Pulp and Paper Research Institute<br />

3 – “Alexandru Darabonţ” National Institute for Work Safety<br />

4 – Braila Museum<br />

5 – University of Bucharest, Physical Chemistry Department


Mechanical p<strong>ro</strong>perties vs. TGA/DSC<br />

� Materials:<br />

• Xe<strong>ro</strong>x Business, 80g/m 2 , 0.1mm;<br />

• Cep<strong>ro</strong>hart, 80g/m 2 , , 0.1mm;<br />

• Whatman (nr. 42, ICHR)<br />

• Hardwood and softwood pulp (chemically bleached)<br />

May 2011- IAEA TC<br />

RER/8/015<br />

• Watermark paper Letea SA (1996)<br />

• Coated paper SC GHIMBAV SA (1996)<br />

• Neutral sized copy paper Austria (2006)<br />

• P<strong>ro</strong>nosport paper 70 g/m2 (1996)<br />

• 1A type paper 60 g/m2 (1996)<br />

- Book printed in 1923 in France (private collection)<br />

- Official Journal of RSR (newspaper) – 1968 (IFIN-HH archive)<br />

- Book printed in 1894 (Perspessicius Collection – Braila Musem)<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 2


Mechanical p<strong>ro</strong>perties vs. TGA/DSC<br />

May 2011- IAEA TC<br />

RER/8/015<br />

� Methods:<br />

IFIN-HH: <st<strong>ro</strong>ng>Universal</st<strong>ro</strong>ng> <st<strong>ro</strong>ng>testing</st<strong>ro</strong>ng> <st<strong>ro</strong>ng>machine</st<strong>ro</strong>ng><br />

<st<strong>ro</strong>ng>Zwick</st<strong>ro</strong>ng>/<st<strong>ro</strong>ng>Roell</st<strong>ro</strong>ng> <st<strong>ro</strong>ng>Z005</st<strong>ro</strong>ng>, <st<strong>ro</strong>ng>5kN</st<strong>ro</strong>ng> <st<strong>ro</strong>ng>cell</st<strong>ro</strong>ng>; <st<strong>ro</strong>ng>testing</st<strong>ro</strong>ng> speed: 10<br />

mm/min<br />

TENSILE TEST: Samples according to ISO 3167 type 1A and<br />

ISO 37 type 1; TEAR TEST: Samples according to ISO 8067;<br />

PUNCTURE: ISO 3036:1975Conditioning: 24 hours at 23°C<br />

and 50% rH;<br />

CEPROHART SA: <st<strong>ro</strong>ng>Universal</st<strong>ro</strong>ng> <st<strong>ro</strong>ng>testing</st<strong>ro</strong>ng> <st<strong>ro</strong>ng>machine</st<strong>ro</strong>ng><br />

INSTRON 4411, 5 kN force <st<strong>ro</strong>ng>cell</st<strong>ro</strong>ng>, test speed:<br />

20 mm/min<br />

– accredited pulp and paper <st<strong>ro</strong>ng>testing</st<strong>ro</strong>ng> laboratory (ISO 536,<br />

ISO 534, ISO 1924/2, EN 21974, ISO 2471, STAS 4748, ISO<br />

2470, ISO 5627, ISO 2758, EN 20535, ISO 5626 )<br />

Netzsch STA 409<br />

PC Luxx<br />

Simultaneous<br />

Thermal Analyzer -<br />

TG/DSC-S sample<br />

carrier, inert (nit<strong>ro</strong>gen,<br />

40-80 ml/min) and<br />

oxidative (sintetic air,<br />

40 ml/min) dynamic<br />

atmosphere at<br />

2,5,10,20 K/min.<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 3


Thermo-Gravimetric Analysis Differential Scaning Calorimetry<br />

TG /%<br />

90<br />

80<br />

WHATMAN<br />

[1.6] DSC-S-10K-N2-WHATMAN-W0-100717.dsv<br />

TG<br />

70<br />

BORSR-1968<br />

[3.6] DSC-S-10K-N2-BORSR-68-P0-100710.dsv<br />

TG<br />

60<br />

50<br />

40<br />

30<br />

20<br />

10<br />

CALENDAR [4.6] DSC-S-10K-N2-CALENDAR-CP0-100726.dsv<br />

1894<br />

TG<br />

150<br />

DTG /(%/min)<br />

200 250 300 350<br />

Temperature /°C<br />

400 450 500 550<br />

0<br />

-5<br />

-10<br />

-15<br />

-20<br />

150 200 250 300 350<br />

Temperature /°C<br />

400 450 500 550<br />

May 2011- IAEA TC<br />

RER/8/015<br />

WHATMAN<br />

[1.6] DSC-S-10K-N2-WHATMAN-W0-100717.dsv<br />

DTG<br />

BORSR-1968<br />

[3.6] DSC-S-10K-N2-BORSR-68-P0-100710.dsv<br />

DTG<br />

CALENDAR [4.6] DSC-S-10K-N2-CALENDAR-CP0-100726.dsv<br />

1894<br />

DTG<br />

DSC /(mW/mg)<br />

1.0<br />

0.5<br />

0.0<br />

-0.5<br />

-1.0<br />

↑ exo<br />

WHATMAN<br />

[1.6] DSC-S-10K-N2-WHATMAN-W0-100717.dsv<br />

DSC<br />

BORSR-1968<br />

[3.6] DSC-S-10K-N2-BORSR-68-P0-100710.dsv<br />

DSC<br />

CALENDAR [4.6] DSC-S-10K-N2-CALENDAR-CP0-100726.dsv<br />

1894<br />

DSC<br />

150 200 250 300 350 400 450 500 550<br />

Temperature /°C<br />

STA = Simultanous<br />

Thermal Analysis<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 4


NETZSCH Peak Separation P<strong>ro</strong>ject: TG CEPROHART<br />

dMass/dt/(%/min)<br />

0<br />

-2<br />

-4<br />

-6<br />

-8<br />

-10<br />

DTG /(%/min)<br />

0<br />

-5<br />

-10<br />

-15<br />

-20<br />

-25<br />

0 kGy<br />

100 200 300 400 500<br />

Temperature/°C<br />

May 2011- IAEA TC<br />

RER/8/015<br />

[4.6] HARTIE_WHATMANN42-0kGy-TG-DSC-S-10K-N2-3-scan 50-600C-090804.dsv<br />

DTG<br />

[5.6] HARTIE_WHATMANN42-5kGy-TG-DSC-S-10K-N2-1-scan 50-600C-090714.dsv<br />

DTG<br />

[6.6] HARTIE_WHATMANN42-10kGy-TG-DSC-S-10K-N2-1-scan 50-600C-090714.dsv<br />

DTG<br />

[7.6] HARTIE_WHATMANN42-25kGy-TG-DSC-S-10K-N2-1-scan 50-600C-090715.dsv<br />

DTG<br />

[8.6] HARTIE_WHATMANN42-50kGy-TG-DSC-S-10K-N2-1-scan 50-600C-090731.dsv<br />

DTG<br />

[9.6] HARTIE_WHATMANN42-100kGy-TG-DSC-S-10K-N2-1-scan 50-600C-090801.dsv<br />

DTG<br />

150 200 250 300 350 400<br />

Temperature /°C<br />

NETZSCH Peak Separation P<strong>ro</strong>ject: TG CEPROHART<br />

dMass/dt/(%/min)<br />

0<br />

-2<br />

-4<br />

-6<br />

-8<br />

-10<br />

100 kGy<br />

100 200 300 400 500<br />

Temperature/°C<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 5


100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

50<br />

40<br />

30<br />

20<br />

10<br />

Mechanical p<strong>ro</strong>perties vs. TGA/DSC<br />

0<br />

F break, MD / N<br />

0 50 100 150 200<br />

Dose / kGy<br />

F break, CD / N<br />

0 50 100 150 200<br />

Dose / kGy<br />

May 2011- IAEA TC<br />

RER/8/015<br />

50<br />

45<br />

40<br />

35<br />

30<br />

25<br />

20<br />

DSC Area / J/g<br />

0 50 100 150 200<br />

Dose / kGy<br />

Rank Xe<strong>ro</strong>x<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 6


100<br />

50<br />

40<br />

30<br />

20<br />

10<br />

80<br />

60<br />

40<br />

20<br />

0<br />

Mechanical p<strong>ro</strong>perties vs. TGA/DSC<br />

0<br />

Fbreak, MD / N<br />

May 2011- IAEA TC<br />

RER/8/015<br />

y = -0.2005x + 83.974<br />

R 2 = 0.9954<br />

0 25 50 75 100 125 150 175 200<br />

Dose / kGy<br />

Fbreak, CD / N<br />

y = -0.0285x + 27.117<br />

R 2 = 0.9875<br />

0 25 50 75 100 125 150 175 200<br />

Dose / kGy<br />

DSC Area, J/g<br />

50<br />

45<br />

40<br />

35<br />

30<br />

25<br />

20<br />

y = -0.0282x + 42<br />

R 2 = 0.9413<br />

0 25 50 75 100 125 150 175 200<br />

Dose / kGy<br />

Rank Xe<strong>ro</strong>x<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 7


100<br />

40<br />

30<br />

20<br />

10<br />

80<br />

60<br />

40<br />

20<br />

0<br />

Mechanical p<strong>ro</strong>perties vs. TGA/DSC<br />

0<br />

Fbreak, MD / N<br />

May 2011- IAEA TC<br />

RER/8/015<br />

y = -0.8144x + 88.062<br />

R 2 = 0.9653<br />

0 3 6 9 12 15 18 21 24<br />

Fbreak, CD / N<br />

Dose / kGy<br />

y = -0.1876x + 25.683<br />

R 2 = 0.6254<br />

0 3 6 9 12 15 18 21 24<br />

Dose / kGy<br />

50<br />

45<br />

40<br />

35<br />

30<br />

DSC Area, J/g<br />

y = -0.1429x + 45.125<br />

R 2 = 0.8308<br />

0 3 6 9 12 15 18 21 24<br />

Rank Xe<strong>ro</strong>x<br />

Dose / kGy<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 8


Mechanical p<strong>ro</strong>perties vs. TGA/DSC<br />

Lbreak, MD / m<br />

8000<br />

7000<br />

6000<br />

5000<br />

4000<br />

0 3 6 9 12 15<br />

DSC Peak -1 / 100/K<br />

0.17<br />

0.165<br />

0.16<br />

May 2011- IAEA TC<br />

RER/8/015<br />

Dose / kGy<br />

0.155<br />

0 3 6 9 12 15<br />

Dose / kGy<br />

Lbreak, MD/ m<br />

Rank Xe<strong>ro</strong>x Whatman<br />

4000<br />

3500<br />

3000<br />

2500<br />

2000<br />

0.157<br />

0.156<br />

0.155<br />

0.154<br />

0 3 6 9 12 15<br />

Dose / kGy<br />

DSC Peak -1 / 1/°C<br />

0.153<br />

0 3 6 9 12 15<br />

Dose / kGy<br />

(Adamo, 2001: no significant changes below 5 kGy)<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 9


Mechanical p<strong>ro</strong>perties - Summary<br />

May 2011- IAEA TC<br />

RER/8/015<br />

P<strong>ro</strong>perty<br />

Paper<br />

~ % change*<br />

Fbreak & Lbreak ,<br />

MD/CD<br />

Copier paper<br />

Whatman paper<br />

- 10%/ -15%<br />

+5% / +10%<br />

Folding Rank XEROX Copier paper - 40% / -15%<br />

endurance, CEPROHART Copier paper -20%<br />

MD/CD Whatman<br />

-6%<br />

Rank XEROX Copier paper -10%<br />

Tearing resistance CEPROHART Copier paper -20%<br />

Whatman<br />

-6%<br />

Rank XEROX Copier paper<br />

-5%<br />

Burst strength CEPROHART Copier paper<br />

-3%<br />

Whatman<br />

-5%<br />

Puncture<br />

resistance<br />

Rank XEROX Copier paper<br />

CEPROHART Copier paper<br />

Whatman<br />

-5%<br />

-3%<br />

-10%<br />

Cobb60 size test<br />

Hartie copiator XEROX<br />

Hartie Whatman - ICHR<br />

+ 15% / +5%<br />

-7%<br />

* Change f<strong>ro</strong>m nonirradiated for irradiation in the range of 6-13kGy<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 10


Folding / No<br />

60<br />

50<br />

40<br />

30<br />

20<br />

10<br />

0<br />

Bending / No<br />

Folding endurance<br />

XEROX copier paper<br />

0 5 10 15<br />

Dose / kGy<br />

70<br />

60<br />

50<br />

40<br />

30<br />

20<br />

10<br />

0<br />

May 2011- IAEA TC<br />

RER/8/015<br />

MD CD<br />

Folding / No<br />

25<br />

20<br />

15<br />

10<br />

5<br />

0<br />

Whatman paper<br />

MD CD<br />

0 5 10 15<br />

Dose / kGy<br />

XEROX copier paper<br />

BORSR'68<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 11<br />

Folding / No<br />

6<br />

5<br />

4<br />

3<br />

2<br />

1<br />

0<br />

MD CD<br />

0 5 10 15<br />

Dose / kGy<br />

0 20 40 60 80 100 120 140 160 180 200<br />

Dose / kGy<br />

MD CD


Colour<br />

Instrument: Miniscan XE Plus, Hunter Lab.<br />

Geometry: diffuse / 8° (sphere);<br />

specular component included<br />

View diameter: 4 mm<br />

Illuminant / standard observer: D 65 / 10°<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 12


L* [CIELAB units]<br />

98<br />

96<br />

94<br />

92<br />

90<br />

88<br />

86<br />

84<br />

0 20 40 60 80 100<br />

May 2011- IAEA TC<br />

RER/8/015<br />

Dose [kGy]<br />

copier paper (l.q.)<br />

copier paper (l.q.), aged<br />

copier paper (h.q.)<br />

Whatman paper<br />

b* [CELAB units]<br />

a* [CIELAB units]<br />

10<br />

5<br />

0<br />

-5<br />

-10<br />

2<br />

1<br />

0<br />

0 20 40 60 80 100<br />

Dose [kGy]<br />

0 20 40 60 80 100<br />

Dose [kGy]<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 13


457-nm Brightness<br />

110<br />

100<br />

90<br />

80<br />

70<br />

60<br />

50<br />

0 20 40 60 80 100<br />

•No significant changes of lightness, L*, except for aged low quality copier paper<br />

•Red/green value, a*, decreases (less red) with absorbed dose for low and high quality copier paper<br />

•All the samples are less blue / more yellow after irradiation (b* value increases with absorbed dose)<br />

•Total colour difference induced by ageing is higher than that induced by irradiation at 100 kGy<br />

•Both 457-nm Brightness and WI E313 indexes decreased with the absorbed dose; aged samples<br />

show the most important reduction in indexes values<br />

May 2011- IAEA TC<br />

RER/8/015<br />

Dose [kGy]<br />

WI E313<br />

140<br />

120<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

0 20 40 60 80 100<br />

Dose [kGy]<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 14


Trapped free radicals<br />

Instrument: X band ESR<br />

spect<strong>ro</strong>meter Magnettech<br />

MiniScope MS 200<br />

Measurement settings: B0<br />

field 3350 Gauss, Sweep 200<br />

Gauss, Modulation 5 Gauss,<br />

MW attenuation 21 Db<br />

Reference: EN 1787 /<br />

Foodstuffs – Detection of<br />

irradiated food containing<br />

<st<strong>ro</strong>ng>cell</st<strong>ro</strong>ng>ulose by ESR<br />

spect<strong>ro</strong>scopy<br />

May 2011- IAEA TC<br />

RER/8/015<br />

Intensity (a.u.)<br />

140000<br />

120000<br />

100000<br />

80000<br />

60000<br />

40000<br />

20000<br />

Paper Whatman42 5 kGy<br />

after irradiation 3 days 1 w eek 2 w eeks 3 w eeks 4 w eeks<br />

0<br />

329 330 331 332 333 334 335 336 337 338 339<br />

Magnetic field (mT)<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 15


Intensity (a.u.)<br />

4000<br />

3500<br />

3000<br />

2500<br />

2000<br />

1500<br />

1000<br />

500<br />

Trapped free radicals<br />

0<br />

May 2011- IAEA TC<br />

RER/8/015<br />

Intensities after irradiation<br />

Leafy Resinous Printing paper Cotton w ool Whatman 42<br />

0 25 50 75 100<br />

Dose (kGy)<br />

Intensity<br />

4000<br />

3500<br />

3000<br />

2500<br />

2000<br />

1500<br />

1000<br />

500<br />

0<br />

Paper Whatman 42<br />

5 kGy 10 kGy 25 kGy 50 kGy 100 kGy<br />

0 5 10 15 20 25 30<br />

Measurement after irradiation (days)<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 16


Trapped free radicals<br />

May 2011- IAEA TC<br />

RER/8/015<br />

10000<br />

9000<br />

8000<br />

7000<br />

6000<br />

5000<br />

4000<br />

3000<br />

2000<br />

1000<br />

Lbreak,MD m<br />

0<br />

0 5 10 15 20 25<br />

Rank Xe<strong>ro</strong>x<br />

4 months after<br />

irradiation<br />

1 month after<br />

irradiation<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 17


Dose rate effects<br />

May 2011- IAEA TC<br />

RER/8/015<br />

70<br />

60<br />

50<br />

40<br />

30<br />

20<br />

10<br />

0<br />

Bending / No<br />

0 3 6 9 12 15<br />

Dose / kGy<br />

Rank Xe<strong>ro</strong>x<br />

4 months after<br />

irradiation, 21 kGy/h<br />

1 month after<br />

irradiation, 6 kGy/h<br />

1 month after<br />

irradiation, 0.5kGy/h<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 18


FT-IR and FT-Raman<br />

FT-IR spect<strong>ro</strong>meter Vertex 70 class, Bruker<br />

Optics:<br />

-Raman module (RAM II) and p<strong>ro</strong>be<br />

(RAMPROBE)<br />

- P<strong>ro</strong>be for non-contact and non-destructive<br />

FT-IR<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 19


FT-IR and FT-Raman<br />

1000 3000 5000 7000<br />

Transmittance [%]<br />

3500<br />

3357.43<br />

3357.09<br />

E:\Acer\doctorat\sem I 2010\date marian\FTIR-Raman BORSR attachments_2010_09_25\VALI-spect<strong>ro</strong>scopie-20100924\VALI-spect<strong>ro</strong>scopie-201009 12/06/2009<br />

E:\Acer\doctorat\sem I 2010\date marian\FTIR-Raman BORSR attachments_2010_09_25\VALI-spect<strong>ro</strong>scopie-20100924\VALI-spect<strong>ro</strong>scopie-201009 12/06/2009<br />

May 2011- IAEA TC<br />

RER/8/015<br />

3000<br />

2919.30<br />

2904.09<br />

2500<br />

2000<br />

Wavenumber cm-1<br />

Hardwood and softwood pulp<br />

Page 1/1<br />

1639.15<br />

1500<br />

1432.95<br />

1430.92<br />

1058.96<br />

1058.49<br />

1000<br />

875.67<br />

613.72<br />

613.51<br />

500<br />

CF :<br />

1372–1375 cm-1 (C-H)<br />

2900 cm-1 (C-H stretch)<br />

HB :<br />

1429 cm-1 (CH 2 scissoring)<br />

898 cm-1 (H bonded)<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 20


FT-IR and FT-Raman<br />

1000 3000 5000 7000<br />

Transmittance [%]<br />

3500<br />

3357.43<br />

3357.09<br />

E:\Acer\doctorat\sem I 2010\date marian\FTIR-Raman BORSR attachments_2010_09_25\VALI-spect<strong>ro</strong>scopie-20100924\VALI-spect<strong>ro</strong>scopie-201009 12/06/2009<br />

E:\Acer\doctorat\sem I 2010\date marian\FTIR-Raman BORSR attachments_2010_09_25\VALI-spect<strong>ro</strong>scopie-20100924\VALI-spect<strong>ro</strong>scopie-201009 12/06/2009<br />

May 2011- IAEA TC<br />

RER/8/015<br />

3000<br />

2919.30<br />

2904.09<br />

2500<br />

2000<br />

Wavenumber cm-1<br />

Hardwood and softwood pulp<br />

Page 1/1<br />

1639.15<br />

1500<br />

1432.95<br />

1430.92<br />

1058.96<br />

1058.49<br />

1000<br />

875.67<br />

613.72<br />

613.51<br />

500<br />

CF :<br />

1372–1375 cm-1 (C-H)<br />

2900 cm-1 (C-H stretch)<br />

HB :<br />

1429 cm-1 (CH 2 scissoring)<br />

898 cm-1 (H bonded)<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 21


FT-IR and FT-Raman<br />

FT-IR spectra for py<strong>ro</strong>lised (600°C) paper<br />

May 2011- IAEA TC<br />

RER/8/015<br />

CaCO 3 : 1445,51 cm-1,<br />

874,33 cm-1 and 712,82<br />

cm -1<br />

CaSO 4 : 1100-1020 cm -1<br />

H 2 O (adsorbed): 3446-<br />

3467cm-1<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 22


FT-IR and FT-Raman<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 23


FT-IR FT-Raman<br />

0 2 4 6 8 10 12<br />

Absorbance Units<br />

3500<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PAG3 P1 1000scans 0 OR19/10/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PAG3 P3 1000scans 0 OR19/10/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PAG3 P4 1000scans 0 OR19/10/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PAGMIJL P1 1000scans 0 19/10/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PAGMIJL P3 1000scans 0 19/10/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PAGMIJL P4 1000scans 0 19/10/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN PAG3 P1 1000scans-10kGy 0 23/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN PAG3 P3 1000scans-10kGy 0 23/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN PAG3 P4 1000scans-10kGy 0 23/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN PAGmijloc P1 1000scans-10kGy 0 23/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN PAGmijloc P2 1000scans-10kGy 0 23/11/2010<br />

Page 1/1<br />

May 2011- IAEA TC<br />

RER/8/015<br />

3000<br />

2500<br />

2000<br />

Wavenumber cm-1<br />

1500<br />

1000<br />

2 4 6 8 10 12<br />

Raman Intensity<br />

ORIGENES ADAMATI VOL I (XVI century)<br />

3500<br />

3000<br />

2500<br />

2000<br />

1500<br />

Wavenumber cm-1<br />

G:\Acer\arcon\derulare\Etapa<br />

G:\Acer\arcon\derulare\Etapa<br />

3\ARCON<br />

3\ARCON<br />

ETAPA<br />

ETAPA<br />

III<br />

III<br />

SPECTROSCOPIE<br />

SPECTROSCOPIE<br />

20101024\CARTE<br />

20101024\CARTE<br />

VECHE<br />

VECHE<br />

raman\ORIGEN1512<br />

raman\ORIGEN1512<br />

HARTIE<br />

HARTIE<br />

PAG3<br />

PAG3<br />

P1-500SCAN<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 HARTIE PAG3<br />

P3-500SCAN<br />

21/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 HARTIE PAGMIJL<br />

P4-500SCAN<br />

21/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 HARTIE PAGMIJL<br />

P1-500S<br />

21/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 HARTIE PAGMIJL<br />

P3-500S<br />

21/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 PAG3 P1-500SCANS<br />

P3-500S<br />

21/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 PAG3 P3-500SCANS<br />

500m<br />

21/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 PAG3 P4-500SCANS<br />

500m<br />

24/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 PAGMIJL P1-500SCANS<br />

500m<br />

24/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 PAGMIJL P3-500SCANS<br />

50<br />

24/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE raman\ORIGEN1512 PAGMIJL P4-500SCANS<br />

50<br />

24/11/2010<br />

50<br />

24/11/2010<br />

24/11/2010<br />

Page 1/1<br />

PAGE X P1<br />

irradiated/nonirradiated<br />

PAGE X P2<br />

irradiated/nonirradiated<br />

PAGE X P3<br />

irradiated/nonirradiated<br />

PAGE XX P1<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 24<br />

1000<br />

500


FT-IR<br />

0 1 2 3 4 5<br />

Absorbance Units<br />

May 2011- IAEA TC<br />

RER/8/015<br />

3500<br />

3000<br />

2500<br />

2000<br />

Wavenumber cm-1<br />

1500<br />

CEPROHART copy paper<br />

0 kGy<br />

100 kGy<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 25


0 2 4 6 8 10 12 14 16<br />

Absorbance Units<br />

FT-IR<br />

3500<br />

G:\Acer\arcon\derulare\Etapa<br />

G:\Acer\arcon\derulare\Etapa<br />

3\ARCON<br />

3\ARCON<br />

ETAPA<br />

ETAPA<br />

III<br />

III<br />

SPECTROSCOPIE<br />

SPECTROSCOPIE<br />

20101024\CARTE<br />

20101024\CARTE<br />

VECHE<br />

VECHE<br />

ir\ORIGEN1512<br />

ir\ORIGEN1512<br />

PIELE<br />

PIELE<br />

CF1<br />

CF1<br />

1000scans-2<br />

1000scans-10kGy<br />

0<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PIELE CF1 1000scans 0<br />

0<br />

18/10/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PIELE CF2 1000scans-2 0<br />

O<br />

23/11/2010<br />

18/10/2010<br />

G:\Acer\arcon\derulare\Etapa<br />

G:\Acer\arcon\derulare\Etapa<br />

3\ARCON<br />

3\ARCON<br />

ETAPA<br />

ETAPA<br />

III<br />

III<br />

SPECTROSCOPIE<br />

SPECTROSCOPIE<br />

20101024\CARTE<br />

20101024\CARTE<br />

VECHE<br />

VECHE<br />

ir\ORIGEN1512<br />

ir\ORIGEN1512<br />

PIELE<br />

PIELE<br />

CF2<br />

CF3<br />

1000scans-10kGy<br />

1000scans-2 0<br />

0<br />

18/10/2010<br />

23/11/2010<br />

G:\Acer\arcon\derulare\Etapa<br />

G:\Acer\arcon\derulare\Etapa<br />

3\ARCON<br />

3\ARCON<br />

ETAPA<br />

ETAPA<br />

III<br />

III<br />

SPECTROSCOPIE<br />

SPECTROSCOPIE<br />

20101024\CARTE<br />

20101024\CARTE<br />

VECHE<br />

VECHE<br />

ir\ORIGEN1512<br />

ir\ORIGEN1512<br />

PIELE<br />

PIELE<br />

CF3<br />

CS1<br />

1000scans-10kGy<br />

1000scans-2 0<br />

0<br />

18/10/2010<br />

23/11/2010<br />

G:\Acer\arcon\derulare\Etapa<br />

G:\Acer\arcon\derulare\Etapa<br />

3\ARCON<br />

3\ARCON<br />

ETAPA<br />

ETAPA<br />

III<br />

III<br />

SPECTROSCOPIE<br />

SPECTROSCOPIE<br />

20101024\CARTE<br />

20101024\CARTE<br />

VECHE<br />

VECHE<br />

ir\ORIGEN1512<br />

ir\ORIGEN1512<br />

PIELE<br />

PIELE<br />

CS1<br />

CS2<br />

1000scans-10kGy<br />

1000scans-2 0<br />

0<br />

18/10/2010<br />

23/11/2010<br />

G:\Acer\arcon\derulare\Etapa<br />

G:\Acer\arcon\derulare\Etapa<br />

3\ARCON<br />

3\ARCON<br />

ETAPA<br />

ETAPA<br />

III<br />

III<br />

SPECTROSCOPIE<br />

SPECTROSCOPIE<br />

20101024\CARTE<br />

20101024\CARTE<br />

VECHE<br />

VECHE<br />

ir\ORIGEN1512<br />

ir\ORIGEN1512<br />

PIELE<br />

PIELE<br />

CS2<br />

CS3<br />

1000scans-10kGy<br />

1000scans-2 0<br />

0<br />

18/10/2010<br />

23/11/2010<br />

G:\Acer\arcon\derulare\Etapa 3\ARCON ETAPA III SPECTROSCOPIE 20101024\CARTE VECHE ir\ORIGEN1512 PIELE CS3 1000scans-10kGy 0<br />

18/10/2010<br />

23/11/2010<br />

Page 1/1<br />

ORIGENES ADAMATI VOL I (XVI century) – leather cover<br />

May 2011- IAEA TC<br />

RER/8/015<br />

3000<br />

2500<br />

2000<br />

Wavenumber cm-1<br />

1500<br />

1000<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 26


TD-GC-MS & Py-GC-MS<br />

DTU „UNITY” (Markes) → GC 6890N (Agilent) → 5975 inert MSD (Agilent)<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 27


1<br />

4, 5, 6<br />

7<br />

2<br />

3<br />

9, 10, 11<br />

8<br />

TD-GC-MS<br />

13, 14, 15, 16, 17<br />

24, 25<br />

23<br />

27, 29<br />

18<br />

19, 20<br />

21<br />

26<br />

28 30<br />

32, 33<br />

31<br />

35,36<br />

34<br />

37, 38<br />

1.00 1.20 1.40 1.60 1.80 2.00 2.20 2.40 2.60 2.80 3.00 3.20 3.40 3.60 3.80<br />

Retention time (min)<br />

May 2011- IAEA TC<br />

RER/8/015<br />

39 40<br />

41<br />

42<br />

A - Volatile Radiolysis P<strong>ro</strong>ducts qualitative identification<br />

TIC: High quality copier paper irradiated at 100kGy in PET canisters filled with air [1]<br />

45, 46<br />

43, 44 48<br />

50<br />

51, 52<br />

53 55, 56, 57<br />

49 54<br />

60<br />

58<br />

59<br />

6.00 7.00 8.00 9.00 10.00 11.00 12.00 13.00 14.00 15.00 16.00 17.00<br />

GC/MS ch<strong>ro</strong>matogram, dynamic headspace - thermal desorption of air samples f<strong>ro</strong>m irradiated canisters<br />

(A). Identification made by means of calibration standards and retention index calibration combined with<br />

mass spectra matching in NIST 2005 GC/MS library<br />

1: Carbon dioxide; 2: Water; 3: P<strong>ro</strong>pane; 4: Methyl Alcohol; 5: *Acetaldehyde; 6: Butane; 7: *Methyl formate; 8:<br />

Ethanol; 9: Acetone; 10: *Furan; 11: Pentane; 12: *Formic acid; 13: *Formic acid, ethyl ester; 14: Ethyl ether;<br />

15: *2-P<strong>ro</strong>panol, 2-methyl-; 16: *Acetic acid, methyl ester; 17: Methylene Chloride; 18: *1-P<strong>ro</strong>panol; 19:<br />

*Silanol, trimethyl-; 20: *Methac<strong>ro</strong>lein; 21: *Formic acid, 1-methylethyl ester; 22: *2,3-Butanedione; 23:<br />

*Butanal; 24: Hexane; 25: *2-Butanone; 26: *Furan, 2-methyl-; 27: Acetic acid; 28: Ethyl Acetate; 29: *Formic<br />

acid, p<strong>ro</strong>pyl ester; 30: *Furan, tetrahyd<strong>ro</strong>-; 31: *2-Butenal; 32: Benzene; 33: *1-Butanol; 34: *Disiloxane,<br />

hexamethyl-; 35: *2-Pentanone; 36: *1-Heptene; 37: *Pentanal; 38: Heptane; 39: *Silane, trimethylp<strong>ro</strong>poxy-; 40:<br />

*Formic acid, butyl ester; 41: *3-Pentanone, 2-methyl-; 42: Toluene; 43: *Cyclopentanone; 44: *1-Octene; 45:<br />

Octane; 46: *Hexanal; 47: *Silane, butoxytrimethyl-; 48: *Furfural; 49: Xylene; 50: *Trisiloxane, octamethyl-; 51:<br />

Nonane; 52: *Silane, trimethyl(pentyloxy)-; 53: *Heptanal; 54: *Benzaldehyde; 55: Benzene, 1,3,5-trimethyl-;<br />

56: *1-Decene; 57: *2-Octanone; 58: Decane; 59: *Octanal; 60: *Cyclotetrasiloxane, octamethyl-; 61: *D-<br />

Limonene; 62: *2-Octenal, (E)-; 63: *1-Undecene; 64: Undecane; 65: *Nonanal; 66: *unassigned Cyclohexanol<br />

derivative; 67: *1-Dodecene; 68: Dodecane; 69: *Decanal; 70: Tridecane; 71: *Undecanal; 72: *1-<br />

Tetradecene; 73: Tetradecane; 74: *Dibutyl phthalate;<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 28<br />

62<br />

63<br />

64<br />

65<br />

66<br />

68<br />

67<br />

69<br />

70<br />

71<br />

73<br />

72<br />

→ Degradation<br />

markers


TD-GC-MS<br />

The VCs concentration increases with the radiation absorbed dose in a nonlinear<br />

manner. A part of the VCs formed after irradiation can be further found<br />

also after accelerated ageing tests, which may p<strong>ro</strong>pose them as <st<strong>ro</strong>ng>cell</st<strong>ro</strong>ng>ulose<br />

structure degradation markers. In this case their absorbed dose concentration<br />

dependence follows almost a linear trend. Although the concentration level of<br />

the monitored VCs ranges up to some hundreds of ppm at higher doses<br />

than 50 kGy, at usual doses used for archives conservation the order<br />

concentration level ranges up to tens of ppm and further quantitative<br />

measurements can be made to p<strong>ro</strong>ve safe levels of possible toxic VCs. There<br />

is known that large quantities of irradiated paper have a certain smell. VOC<br />

analysis at the doses on interest for the irradiation treatment of paper<br />

documents may not supply reliable results (there are close to the limit of<br />

detection) but the studies at higher doses will eliminate one of the fears about<br />

the toxicity of the treatment. The following studies will focus on ageing tests on<br />

irradiated paper to make further correlations between ageing markers<br />

concentration and the end of life criteria established by color and mechanical<br />

tests.<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 29


Py-GC-MS<br />

Abundance<br />

x 10 6<br />

3,4<br />

3,0<br />

2,6<br />

2,2<br />

1,8<br />

1,4<br />

1,0<br />

0,6<br />

0<br />

May 2011- IAEA TC<br />

RER/8/015<br />

TIC:\data.ms<br />

0,00<br />

5,00 10,00 15,0<br />

0<br />

20,00 25,00 30,0 35,00 40,00 45,00 50,00 55,0060,00<br />

Time<br />

0<br />

(min)<br />

Whatman<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 30


Py-GC-MS<br />

T r (min)<br />

1,28<br />

1,68<br />

1,80<br />

1,89<br />

2,23<br />

2,68<br />

5,80<br />

6,68<br />

6,93<br />

8,57<br />

8,78<br />

9,30<br />

9,84<br />

10,49<br />

12,93<br />

14,41<br />

14,75<br />

15,81<br />

15,86<br />

16,91<br />

19,24<br />

20,20<br />

42,40<br />

43,18<br />

May 2011- IAEA TC<br />

RER/8/015<br />

Formaldehidă<br />

Hid<strong>ro</strong>xi-acetaldehidă<br />

2-metil-furan<br />

Acid acetic<br />

2,5-dimetil-furan<br />

Furfural<br />

2-Furanmetanol<br />

2-p<strong>ro</strong>pil-furan<br />

1-(2-furanil)-etanonă<br />

2(5H)-Furanonă<br />

1,2-Ciclopentandionă<br />

3-metil-2,5-furandionă<br />

5-metil-2-furancarboxaldehidă<br />

3-metil-1,2-ciclopentandionă<br />

Esterul metilic al acidului 3furancarboxilic<br />

Esterul metilic al acidului 3furancarboxilic<br />

Levoglucosenonă<br />

Maltol<br />

Target<br />

1-hid<strong>ro</strong>xi-2-p<strong>ro</strong>panonă<br />

2,3-dihid<strong>ro</strong>-3,5-dihid<strong>ro</strong>xi-6-metil-4H-Piran-<br />

4-onă<br />

1,4:3,6-Dianhid<strong>ro</strong>-à-d-glucopiranoză<br />

5-(hid<strong>ro</strong>ximetil)-2-furancarboxaldehidă<br />

1,6-Anhid<strong>ro</strong>-á-D-glucopiranoză<br />

(levoglucosan)<br />

1,6-Anhid<strong>ro</strong>-à-d-galactofuranoză<br />

Conc. (%)<br />

1<br />

6<br />

1<br />

1<br />

1<br />

0<br />

6<br />

0<br />

1<br />

0<br />

1<br />

1<br />

0<br />

1<br />

1<br />

0<br />

2<br />

13<br />

0<br />

2<br />

6<br />

2<br />

6<br />

Whatman<br />

3<br />

→ Degradation markers<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 31


Mic<strong>ro</strong>biological tests<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 32


Radiation resistance<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 33


Bioburden<br />

Book 1992<br />

Paper<br />

Journal 1968<br />

File cover 1977<br />

Notebook 1981<br />

Form 1983 (1)<br />

Form 1983 (1)<br />

Newsletter 1983<br />

Book 1894 (MzBr)<br />

Book 1952 (INCDPM)<br />

May 2011- IAEA TC<br />

RER/8/015<br />

CFU/g<br />

25<br />

45<br />

235<br />

115<br />

20<br />

60<br />

140<br />

5<br />

650<br />

CFU/A4<br />

94.5<br />

170.1<br />

2961<br />

579.6<br />

100.8<br />

302.4<br />

705.6<br />

31.5<br />

4095<br />

CFU/50xA4<br />

4725<br />

8505<br />

148050<br />

28980<br />

5040<br />

15120<br />

35280<br />

1575<br />

CFU/cm2<br />

(surface<br />

swab test)<br />

0.04<br />

0.04<br />

0.14<br />

0.04<br />

0.12<br />

0.04<br />

0.06<br />

0.04<br />

CFU/A4<br />

(surface<br />

swab test)<br />

25.2<br />

25.2<br />

88.2<br />

25.2<br />

75.6<br />

25.2<br />

37.8<br />

25.2<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 34


Validation techniques<br />

(work in p<strong>ro</strong>gres)<br />

Medical devices sterilization (ISO 11137):<br />

Method 1:<br />

• Average bioburden (3x10 items)<br />

• SAL 10 -2 verification dose (f<strong>ro</strong>m table) → irradiation of 100 samples<br />

• Number of positives f<strong>ro</strong>m 100 sterility tests (according to standard) →<br />

Sterilization dose (f<strong>ro</strong>m table) ≡ SAL 10 -6<br />

Method 2:<br />

• Incremental dose irradiation +sterility test (3x9x20 items)<br />

• Number of positives (according to standard) → SAL 10-2 verification dose<br />

→ irradiation of 100 samples<br />

• Number of positives f<strong>ro</strong>m 100 sterility tests (according to standard) →<br />

Sterilization dose ≡ SAL 10-6<br />

Method 2:<br />

• Average bioburden (3x10 items) < 1000<br />

• SAL 10-1 verification dose (f<strong>ro</strong>m table) → irradiation of 10 samples<br />

Number of positives f<strong>ro</strong>m 10 sterility tests (according to standard) →<br />

25 kGy ≡ SAL 10-6<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 35


Thank you for your attention!<br />

May 2011- IAEA TC<br />

RER/8/015<br />

RTC on Demonstration of Techniques<br />

for Cultural Heritage P<strong>ro</strong>tection 36

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