Reliability test report for SR15-9/125-ACL (SM Fiber with high temperature resistant acrylate coating)

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Reliability test report for SR15-9/125-ACL (SM Fiber with high temperature resistant acrylate coating) This document describes the reliability test results on Fujikura s SR15-9/125-ACL. 1. Product specification Operating Wavelength 1550 nm Mode Field Diameter 9.8±0.7 mm at 1550nm Core concentricity error 0.7 mm Cladding diameter 125.0±1.0 mm Cladding non-circularity 1 % Coating diameter 245±10 mm Attenuation 0.25 db/km at 1550 nm Fiber cutoff wavelength 1.3 mm Maximum operating temperature 200 o C Proof level 1 % ( 100 kpsi) 2. Test items and results The following tests are performed to confirm the quality of SR15-9/125-ACL. 2-1. Environmental tests at high temperature 1. Attenuation changing (200 o C, 150 o C) 2. Coating diameter changing (200 o C, 150 o C) 3. Thermo Gravimetry and Differential thermal analysis (30 o C up to 400 o C) 2-2. Mechanical tests at high temperature 1. Tensile strength on short-length fiber (200 o C, 150 o C) 2. Dynamic fatigue value (nd) (200 o C, 150 o C) The following sheets contain the purposes, procedures and results of the tests. 1 / 7

2-1-1 Attenuation changing (200 o C, 150 o C ) This test is performed to evaluate the stability of attenuation of SR15-9/125-ACL by using a loss measurement system. Method ; Backscattering technique (ITU-T G650) Specimen ; 1000 m length fiber to each condition. Apparatus ; Optical time domain refract meter Wavelength ; 1310 nm or 1550 nm Test condition ; 200 o C 7days, 150 o C 30days/100days Table1. Attenuation variation at operating wavelength 1310nm. Condition Duration Attenuation variation (db/km, @1310 nm) Attenuation 200 o C 7 days changing 150 o C 30 days/100days 0.01 Table2. Attenuation variation at operating wavelength 1550nm. Condition Duration Attenuation variation (db/km, @1550 nm) Attenuation 200 o C 7 days changing 150 o C 30 days/100days 0.01 Attenuation [db/km] 0.36 0.34 0.32 0.3 0.28 0.26 0.24 0.22 0.2 0.18 0.16 Attenuation change in 200 o C 1550nm 1310nm 0 1 2 3 4 5 6 7 Days Fig. 1 Attenuation change in 200 o C Attenuation[dB/km] 0.36 0.34 0.32 0.3 0.28 0.26 0.24 0.22 0.2 0.18 0.16 Attenuation change in 150 o C 1550nm 1310nm 0 20 40 60 80 100 Days Fig. 2 Attenuation change in 150 o C Table 1, 2 and Fig.1, 2 shows the results of attenuation variation. We obtained not more than 0.01dB/km variation at both 1310 nm and 1550 nm. 2 / 7

2-1-2 Coating resin diameter changing (200 o C, 150 o C ) This test is performed to evaluate the coating resin stability of SR15-9/125-ACL. Specimen ; 0.1 m length fiber to each condition. ; Diameter of 125 mm clad and 240 mm coating Test condition ; 200 o C 7days, 150 o C 30days Table3. Coating resin decrement. Coating resin diameter changing Condition Duration Coating resin decrement (mm) 200 o C 7 days 25 150 o C 30 days 10 245 Coating diameter changing Coating diameter (micron) 240 235 230 225 220 215 210 205 200 oc 150 oc 200 0 5 10 15 20 25 30 35 Duration(days) Fig. 3. Coating resin diameter changing. Table 3 and Fig.3 shows the results of coating resin decrement. We obtained only 25 mm coating resin decrement and it shows good coating stability. 3 / 7

2-1-3 Thermo Gravimetry and Differential thermal analysis This test is performed to evaluate the coating resin stability of SR15-9/125-ACL. Thermo Gravimetry(TG) A technique in which the mass of the sample is monitored against time or temperature while the temperature of the sample, in a specified atmosphere, is programmed. Differential thermal analysis(dta) A technique in which the difference in temperature between the sample and a reference material is monitored against time or temperature while the temperature of the sample, in a specified atmosphere, is programmed. Specimen Test condition ; Coating resin of SR15-9/125-ACL. ; 30 o C up to 400 o C, 2 o C /min, at air TG[%] 100 98 96 94 92 90 88 86 84 82 80 TG/DTA 30 TG DTA 25 20 5 0 0 100 200 300 400 Temperature[ o C] 15 10 DTA[μV] Fig. 4. TG/DTA. Fig.4 shows the coating resin is stable until around 250 o C. In the condition under 200 o C, we use the fiber without problem. 4 / 7

2-2-1 Tensile strength on short length fiber This test is performed in accordance with IEC and GR-20 to evaluate the tensile strength of unaged/aged fibers. Method ; Tensile strength of optical fibers (IEC60793-1-B2) Specimen ; 0.5 m length of fiber per test Strain rate ; 10 %/min. Number of test ; 10 times Aging condition ; Aging conditions are listed below. Condition Duration Origin 23 +/- 5 o C NA High temperature aging 200 o C 7 days 150 o C 30 days/100days Criteria Unaged fiber : Not less than 3.8 GPa at F(50) value. (GR20 recommended) Aged fiber :Not less than 3.03 GPa at F(50) value. (GR20 recommended) Table4. Tensile strength. Condition Duration F(50) value(gpa) Origin 23+/- 5 o C, NA 5.1 High temperature aging 200 o C 7 days 5.3 150 o C 30 days / 100days 5.1 / 5.2 ln(ln(1/(1-f))) F:Accumulated failure ratio 1.50 Origin 1.00 200 oc 7days 0.50 150 oc 30days 0.00 150 oc 100days -0.50-1.00-1.50-2.00-2.50-3.00 1.00 10.00 Failure stress (GPa) Fig. 5. Weibull distribution of tensile strength. Weibull plot parameter of tensile strength is shown in Table 4. The origin has 5.1GPa, on the other hand, the aged (150 o C, 100days) has 5.2 GPa. It is found that the fiber has a good tensile strength. 5 / 7

2-2-2 Dynamic fatigue value (nd) This test is performed in accordance with IEC and GR-20 to get the dynamic stress corrosion susceptibility parameter of unaged/aged fibers. Method Specimen Strain rate ; Dynamic fatigue by axial tension (IEC60793-B7A) ; 0.5 m length of fiber per test ; 100 %/min., 10 %/min., 1 %/min., 0.1 %/min. Number of test ; 10 times Criteria The dynamic stress corrosion susceptibility parameters, nd, should be 18. (GR20 recommended) Table5. Dynamic fatigue value(nd). Condition Duration n d Origin 23+/- 5 o C, NA 20 High temperature aging 200 o C 7 days 20 150 o C 30 days / 100days 20 / 21 1.5 Origin ln(ln(1/(1-f))) F:Accumulated failure ratio 1.0 0.5 0.0-0.5-1.0-1.5-2.0-2.5 960MPa/s 97MPa/s 8MPa/s 1MPa/s -3.0-3.5 0 1000 2000 3000 4000 5000 6000 Failure stress (MPa) Fig. 6. Weibull distribution (origin, n d =20). The origin has 20, on the other hand, the aged (150 o C, 100days) has 21. It is found that our fiber's n d is upper GR20 recommended one, even if the fiber is aged. 6 / 7

3. Conclusion We developed single-mode fiber with high temperature resistance coating. It was confirmed that this fiber has small attenuation variation ( 0.01dB/km) in 150 o C or 200 o C and good coating stability. The tensile strength is 5.1GPa (aged) and dynamic fatigue value (n d ) is 20(aged). It will be applied to a harsh environment like Oil & Gas industry. 7 / 7