CERTIFICATE OF ACCREDITATION ISO/IEC 17025:2005 ANSI/NCSL Z (R2002)

Transcription

1 CERTIFICATE OF ACCREDITATION ANSI-ASQ National Accreditation Board 500 Montgomery Street, Suite 625, Alexandria, VA 22314, This is to certify that McCune s Instrument, Inc. 108 North Lee Street Spokane, WA has been assessed by ANAB and meets the requirements of international standard ISO/IEC 17025:2005 and national standard ANSI/NCSL Z (R2002) while demonstrating technical competence in the field of CALIBRATION Refer to the accompanying Scope of Accreditation for information regarding the types of calibrations to which this accreditation applies. AC-2048 Certificate Number Certificate Valid: 02/08/ /12/2019 Version No. 005 Issued: 02/08/2018 This laboratory is accredited in accordance with the recognized International Standard ISO/IEC 17025:2005. This accreditation demonstrates technical competence for a defined scope and the operation of a laboratory quality management system (refer to joint ISO-ILAC-IAF Communiqué dated April 2017).

2 SCOPE OF ACCREDITATION TO ISO/IEC 17025:2005 AND ANSI/NCSL Z (R2002) McCune s Instrument, Inc. 108 North Lee Street Spokane, WA Mike McCune Phone: CALIBRATION Valid to: May 12, 2019 Certificate Number: AC-2048 Electrical DC/Low Frequency Thermocouple mv Simulation 1 Type B (600 to 800) C (800 to 1 000) C (1 000 to 1 550) C (1 550 to 1 820) C Type C (0 to 150) C (150 to 650) C (650 to 1 000) C (1 000 to 1 800) C (1 800 to 2 316) C Type E (-250 to -100) C (-100 to -25) C (-25 to 350) C (350 to 650) C (650 to 1 000) C Type J (-210 to -100) C (-100 to -30) C (-30 to 150) C (150 to 760) C (760 to 1 200) C 0.44 C 0.34 C 0.3 C 0.33 C 0.3 C 0.26 C 0.31 C 0.5 C 0.84 C 0.5 C 0.16 C 0.14 C 0.16 C 0.21 C 0.27 C 0.16 C 0.14 C 0.17 C 0.23 C Page 1 of 12

3 Thermocouple mv Simulation 1 DC Voltage Type K (-200 to -100) C (-100 to -25) C (-25 to 120) C (120 to 1 000) C (1 000 to 1 372) Type L (-200 to -100) C (-100 to 800) C (800 to 900) C Type N (-200 to -100) C (-100 to -25) C (-25 to 120) C (120 to 410) C (410 to 1 300) C Type R (0 to 250) C (250 to 400) C (400 to 1 000) C (1 000 to 1 767) C Type S (0 to 250) C (250 to 1 000) C (1 000 to 1 400) C (1 400 to 1 767) C Type T (-250 to -150) C (-150 to 0) C (0 to 120) C (120 to 400) C (0 to ) mv (0.33 to ) V (3.3 to ) V (33 to ) V (100 to 1 000) V 0.33 C 0.18 C 0.16 C 0.26 C 0.4 C 0.37 C 0.26 C 0.17 C 0.4 C 0.22 C 0.19 C 0.18 C 0.27 C 0.57 C 0.35 C 0.33 C 0.4 C 0.47 C 0.36 C 0.37 C 0.46 C 0.63 C 0.24 C 0.16 C 0.14 C 20 µv/v + 1 µv 11 µv/v + 2 µv 12 µv/v + 20 µv 18 µv/v µv 18 µv/v + 1.5mV Page 2 of 12

4 DC Voltage DC Voltage Up to 100 mv 100 mv to 1 V (1 to 10) V (10 to 100) V (100 to 1 000) V Up to 20 kv (20 to 70) kv (1 to ) mv (10 to 45) Hz 45 Hz to 10 khz (10 to 20) khz (20 to 50) khz (50 to 100) khz (100 to 500) khz (33 to ) mv (10 to 45) Hz 45 Hz to 10 khz (10 to 20) khz (20 to 50) khz (50 to 100) khz (100 to 500) khz 0.33 to V (10 to 45) Hz 45 Hz to 10 khz (10 to 20) khz (20 to 50) khz (50 to 100) khz (100 to 500) khz (3.3 to ) V (10 to 45) Hz 45 Hz to 10 khz (10 to 20) khz (20 to 50) khz (50 to 100) khz 7.2 µv/v µv 3.2 µv/v µv 3.1 µv/v + 2 µv 6.1 µv/v + 40 µv 6.1 µv/v mv 0.26 % of reading + 2V 0.55 % of reading 800 µv/v + 6 µv 150 µv/v + 6 µv 200 µv/v + 6 µv 0.1% of reading + 6 µv 0.35% of reading + 12 µv 0.8% of reading + 50 µv 300 µv/v + 8 µv 145 µv/v + 8 µv 160 µv/v + 8 µv 350 µv/v + 8 µv 800 µv/v + 32 µv 0.2% of reading + 70 µv 300 µv/v + 50 µv 150 µv/v + 60 µv 190 µv/v + 60 µv 300 µv/v + 50 µv 700 µv/v µv 0.24% of reading µv 300 µv/v µv 150 µv/v µv 240 µv/v + 600µv 350 µv/v µv 900 µv/v mv High Voltage Meter Page 3 of 12

5 (33 to ) V (1 to 10) khz (10 to 20) khz (20 to 50) khz (50 to 100) khz (330 to 1 020) V Up 200mV (10 to 40) Hz (40 to 100) Hz 100 Hz to 2 khz (2 to 10) khz (30 to 100) khz 200 mv to 2 V (10 to 40) Hz (40 to 100) Hz 100 Hz to 2 khz (2 to 10) khz (30 to 100) khz (100 to 300) khz 300 khz to 1 MHz (2 to 20) V (10 to 40) Hz (40 to 100) Hz 100 Hz to 2 khz (2 to 10) khz (30 to 100) khz (100 to 300) khz 300 khz to 1 MHz 190 µv/v + 2 mv 200 µv/v + 6 mv 250 µv/v + 6 mv 300 µv/v + 6 mv 0.2% of reading + 50 mv 300 µv/v + 10 mv 250 µv/v + 10 mv 300 µv/v + 10 mv 124 µv/v + 14 µv 104 µv/v + 4 µv 104 µv/v + 4 µv 112 µv/v + 4 µv 304 µv/v + 4 µv 706 µv/v + 4 µv 109 µv/v + 20 µv 91 µv/v + 20 µv 63 µv/v + 20 µv 85 µv/v + 20 µv 202 µv/v + 40 µv 515 µv/v µv 0.3 % of reading + 2 mv 1 % of reading + 20 mv 104 µv/v mv 85 µv/v mv 63 µv/v mv 82 µv/v mv 201 µv/v mv 506 µv/v + 2 mv 0.3 % of reading + 20 mv 1 % of reading mv Page 4 of 12

6 DC Current DC Current Generate 20A 1 DC Current DC Current DC Current AC Current (20 to 200) V (10 to 40) Hz (40 to 100) Hz 100 Hz to 2 khz (2 to 10) khz (30 to 100) khz (200 to 1 000) V (10 to 40) Hz (40 to 1) khz (30 to 100) khz (1 to 20) kv Up to 450 Hz (20 to 50) kv Up to 450 Hz (0 to ) µa (0 to 3.299) ma (0 to ) ma (0 to ) ma (0 to 1.099) A (1.1 to ) A (0 to ) A (11 to 20.5) A (20 to 150) A (150 to 550) A (550 to 1 000) A Up to 10mA (10 to 100) ma (0.1 to 1) A 105 µv/v + 2 mv 87 µv/v + 2 mv 64 µv/v + 2 mv 83 µv/v + 2 mv 202 µv/v + 4 mv 501 µv/v + 20 mv 105 µv/v + 10 mv 86 µv/v + 10 mv 284 µv/v + 20 mv 539 µv/v mv 0.7 % of reading + 16V 1.4 % of reading 150 µa/a µa 100 µ/a/a µa 100 µa/a µa 100 µa/a µa 200 µa/a + 40 µa 380 µa/a + 40 µa 500 µa/a µa 0.1% of reading µa 0.26 % of reading + 16 ma 0.26 % of reading + 56 ma 0.27 % of reading + 63 ma 26 μa/a + 40 na 50 μa /A + 1 µa 150 μa /A + 20 µa (2 to 20) A 0.11 ma/a ma (29 to ) μa (10 to 20) Hz (20 to 45) Hz 0.2 % of reading µa 0.15 % of reading µa 0.125% of reading µa 0.3 % of reading µa 0.8 % of reading µa 1.6 % of reading µa Vitrek High Voltage Meter and Coil Current Shunt Page 5 of 12

7 AC Current (0.33 to 3.299) ma (10 to 20) Hz (20 to 45) Hz (3.3 to ) ma (10 to 20) Hz (20 to 45) Hz (33 to ) ma (10 to 20) Hz (20 to 45) Hz (0.3 to ) A (10 to 45) Hz (1.1 to 2.999) A (10 to 45) Hz (3 to ) A (45 to 100) Hz (0.1 to 1) khz (11 to 20.5) A (45 to 100) Hz 100 Hz to 1 khz 0.2 % of reading µa % of reading µa 0.1 % of reading µa 0.2 % of reading µa 0.5 % of reading µa 1% of reading µa 0.18 % of reading + 2 µa 0.09 % of reading + 2 µa 0.04 % of reading + 2 µa 0.08 % of reading + 2 µa 0.2 % of reading + 3 µa 0.4 % of reading + 4 µa 0.18 % of reading + 20 µa 0.09 % of reading + 20 µa 0.04 % of reading + 20 µa 0.1 % of reading + 50 µa 0.2 % of reading µa 0.4 % of reading µa 0.18 % of reading ma 0.05 % of reading ma 0.6 % of reading + 1 ma 2.5 % of reading + 5 ma 0.18 % of reading ma 0.06 % of reading ma 0.6 % of reading + 1 ma 2.5 % of reading + 5 ma 0.06 % of reading + 2 ma 0.1 % of reading + 2 ma 3 % of reading + 2 ma 0.12 % of reading + 5 ma 0.15 % of reading + 5 ma 3 % of reading + 5 ma Page 6 of 12

8 AC Current AC Current Resistance (20 to 150) A (45 to 65) Hz (65 to 440) Hz (150 to 1 000) A (45 to 65) Hz (65 to 440) Hz Up to 100µA 10Hz to 5kHz (0.1 to 1) ma 10Hz to 5kHz (1 to 10) ma 10Hz to 5kHz (10 to 100) ma 10Hz to 5kHz (0.1 to 1) A 10Hz to 5kHz (2 to 20) A 10 Hz to 2 khz (0 to 11) Ω (11 to 33) Ω (33 to 110) Ω (110 to 330) Ω (330 to 1 100) Ω (1.1 to 3.3) kω (3.3 to 11) kω (11 to 33) kω (33 to 110) kω (110 to 330) kω (330 to 1 100) kω (1.1 to 3.3) MΩ (3.3 to 11) MΩ (11 to 33) MΩ (33 to 110) MΩ (110 to 330) MΩ (330 to 1 100) MΩ 0.31 % of reading + 10 ma 0.85 % of reading + 57 ma 0.31 % of reading ma 1.27 % of reading ma 212 µa/a µa 204 µa/a µa 204 µa/a + 2 µa 203 µa/a + 20 µa 503 µa/a +40 µa 0.04 % of reading ma 40 μω/ω Ω 30 μω/ω Ω 28 μω/ω Ω 28 μω/ω Ω 28 μω/ω Ω 28 μω/ω Ω 28 μω/ω Ω 28 μω/ω Ω 28 μω/ω Ω 32 μω/ω + 2 Ω 32 μω/ω + 2 Ω 60 μω/ω + 30 Ω 130 μω/ω + 50 Ω 250 μω/ω kω 500 μω/ω + 3 kω 3 mω/ω kω 15 mω/ω kω and Coil Current Shunt Page 7 of 12

9 Resistance Resistance Simulation of RTDs 1 Up to 10 Ω (10 to 100) Ω (100 to 1) kω (1 to 10) kω (10 to 100) kω 100 kω to 1 MΩ (1 to 10) MΩ (10 to 100) MΩ 100 MΩ to 1 GΩ Pt 385, 100 Ω (-200 to 0) C (0 to 100) C (100 to 300) C (300 to 400) C 400 to 630) C (630 to 800) C Pt 3926, 100 Ω (-200 to 0) C (0 to 100) C (100 to 300) C (300 to 400) C (400 to 630) C Pt 3916, 100 Ω (-200 to -190) C (-190 to -80) C (-80 to 0) C (0 to 100) C (100 to 260) C (260 to 300) C (300 to 400) C (400 to 600) C (600 to 630) C Pt 385, 200 Ω (-200 to 100) C (100 to 260) C (260 to 300) C (300 to 400) C (400 to 600) C (600 to 630) C 13 µω/ω + 20 µω 9 µω/ω + 60 µω 7 µω/ω mω 7 µω/ω + 6 mω 8 µω/ω + 60 mω 12 µω/ω Ω 24 µω/ω + 80 Ω 205 µω/ω kω 0.2 % of reading kω 0.05 C 0.07 C 0.09 C 0.1 C 0.12 C 0.23 C 0.05 C 0.07 C 0.09 C 0.1 C 0.12 C 0.25 C 0.04 C 0.05 C 0.06 C 0.07 C 0.08 C 0.09 C 0.1 C 0.23 C 0.04 C 0.05 C 0.12 C 0.13 C 0.14 C 0.16 C Page 8 of 12

10 Resistance Simulation of RTDs 1 Capacitance Oscilloscopes 1 Vertical Gain 50Ω Load 1MΩ Load Pt 385, 500 Ω (-200 to -80) C (-80 to 100) C (100 to 260) C (260 to 400) C (400 to 600) C (600 to 630) C Pt 385, 1000 Ω (-200 to 0) C (0 to 100) C (100 to 260) C (260 to 300) C (300 to 600) C (600 to 630) C PtNi 385, 120 Ω (-80 to 100) C (100 to 260) C Cu 427, 10 Ω (-100 to 260) C (0.19 to 3.299) nf (3.3 to ) nf (11 to ) nf (110 to ) nf 330 nf to µf (1.1 to 3.299) µf (3.3 to ) µf (11 to ) µf (33 to ) µf (110 to ) µf 330 nf to mf (1.1 to 3.299) mf (3.3 to ) mf (11 to ) mf (33 to 110) mf 1 mv to 6.6 V 1 mv to 130 V 0.04 C 0.05 C 0.06 C 0.08 C 0.09 C 0.11 C 0.03 C 0.04 C 0.05 C 0.06 C 0.07 C 0.23 C 0.08 C 0.14 C 0.3 C 0.5 % of reading nf 0.25 % of reading nf 0.25 % of reading nf 0.25 % of reading nf 0.25 % of reading + 1 nf 0.25 % of reading + 3 nf 0.25 % of reading + 10 nf 0.4 % of reading + 30 nf 0.45 % of reading nf 0.45 % of reading nf 0.45 % of reading + 1 µf 0.45 % of reading + 3 µf 0.45 % of reading + 10 µf 0.75 % of reading + 30 µf 1.1 % of reading µf 0.25 % of reading + 40 µv 0.1 % of reading + 40 µv Page 9 of 12

11 Oscilloscopes 1 Bandwidth Oscilloscopes 1 Bandwidth Oscilloscopes 1 Time Base 5 mv to 5.5 V 50 khz Reference (50 khz to 100 MHz) (100 to 300) MHz (300 to 600) MHz 5 mv to 3.5 V 2% of reading + 40 μv 3.5 % of reading μv 4 % of reading μv 6 % of reading μv 600 MHz to 1.1 GHz 7 % of reading mv 50 ms to 5 s ( t) ms/s 20 ms to 2 ns 2.5 µs Dimensional 2 Calipers (0 to 24) in ( L) μin Gage Blocks Micrometers (0 to 24) in (43 + 6L) μin Gage Blocks Plug Gages (0 to 1) in 55 μin Laser Micrometer Height Gages (0 to 24) in ( L) μin Gage Blocks Angle Blocks (0 to 18) in ( L) μin Indicators Surface Plates Overall Flatness (0 to 0.4) in (0 to 4) in 13 μin + 0.6R ( L) μin Square Comparator Gage Blocks To 161 indl (29 + DL) μin Electronic Level System Mechanical 2 Pressure (0 to 30) psi (10 to ) psi 0.048% of reading psi 0.008% of reading + 0.3R Pressure Calibrator Vacuum (0 to 30) inhg 0.25% of reading psi Pressure Calibrator Page 10 of 12

12 Mechanical 2 Torque Torque Scales 1 (4 to 50) lbf in (30 to 400) lbf in (80 to 1 000) lbf in (20 to 250) lbf ft (60 to 600) lbf ft (4 to 50) lbf in (30 to 400) lbf in (400 to 1 000) lbf in (50 to 250) lbf ft (250 to 600) lbf ft (0 to 300) g (0 to 5 000) g (0 to 50) lb (50 to 100) lb (100 to 500) lb (500 to 1 250) lb 0.3 % of reading 0.4 % of reading 0.36 % of reading 0.7 % of reading 0.43 % of reading 0.04 % of reading 0.05 % of reading 0.03 % of reading 0.02 % of reading 0.02 % of reading 0.18 mg + 0.6R 0.002% of reading +.6R 260 mg + 0.6R 0.01% of reading + 0.6R 0.05% of reading + 0.6R 0.05% of reading + 0.6R Torque Calibrator Torque Arm and Masses Class 1 Masses Class F Masses Thermodynamic Humidity Measure (0 to 90) %RH (90 to 100) %RH 1.3 %RH 1.9 %RH Thermometers and Indicators (-5 to 125) C 0.08 C Vaisala Humidity and Temperature Meter Comparison to PRT using bath (CMC) is expressed in terms of the measurement parameter, measurement range, expanded uncertainty of Measurement and remarks. The expanded uncertainty of measurement is expressed as the standard uncertainty of the measurement multiplied by a coverage factor of 2 (k=2), corresponding to a confidence level of approximately 95%. Notes: 1. On-site calibration service is available for this parameter, since on-site conditions are typically more variable than those in the laboratory, larger measurement uncertainties are expected on-site than what is reported on the accredited scope 2. The use of (L) for length measurement in inches, the use of DL = diagonal length, the use of (t) refers to time in seconds, the use of (R) refers to resolution of the unit under test. 3. Uncertainties for Electromagnetic DC/Low Frequency do not include contributions from a best existing unit under test and as such, reported uncertainties will always be larger than those expressed on the scope of accreditation. 4. This scope is formatted as part of a single document including Certificate of Accreditation No. AC-2048 Page 11 of 12

13 Page 12 of 12