PERRY JOHNSON LABORATORY ACCREDITATION, INC. Certificate of Accreditation Perry Johnson Laboratory Accreditation, Inc. has assessed the Laboratory of: CONMED LABMET S. de R.L. de C.V. (Hereinafter called the Organization) and hereby declares that Organization 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 (as outlined by the joint ISO-ILAC-IAF Communiqué dated January 2009): Mechanical, Mass, Force and Weighing Devices, Electrical and Dimensional Calibration (As detailed in the supplement) Accreditation claims for such testing and/or calibration services shall only be made from addresses referenced within this certificate. This Accreditation is granted subject to the system rules governing the Accreditation referred to above, and the Organization hereby covenants with the Accreditation body s duty to observe and comply with the said rules. For PJLA: Initial Accreditation Date: Issue Date: Expiration Date: August 29, 2010 May 17, 2017 June 30, 2019 Tracy Szerszen President/Operations Manager Perry Johnson Laboratory Accreditation, Inc. (PJLA) 755 W. Big Beaver, Suite 1325 Troy, Michigan 48084 Accreditation No.: Certificate No.: 67032 L17-206 The validity of this certificate is maintained through ongoing assessments based on a continuous accreditation cycle. The validity of this certificate should be confirmed through the PJLA website: www.pjlabs.com Page 1 of 5
Mechanical Testers HRC O Testers HRB O Testers HRA O Testers HR15N O Testers HR30N O Testers HR15T O Testers HR30T O Brinnell Hardness Testers HBW 10/3 000 O Brinnell Hardness Testers HBW 10/500 O Vickers Hardness Testers HV >1 O Vickers Hardness Testers HV < 0.5 O 20 HRC to 39 HRC 0.39 HRC ISO 6508-2 40 HRC to 59 HRC 0.33 HRC 60 HRC to 70 HRC 0.32 HRC 40 HRB to 59 HRB 1.01 HRB 60 HRB to 80 HRB 0.65 HRB 81 HRB to 100 HRB 0.26 HRB 20 HRA to 40 HRA 0.28 HRA 41 HRA to 75 HRA 0.31 HRA 76 HRA to 88 HRA 0.31 HRA 70 HR15N to 77 HR15N 0.22 HR15N 78 HR15N to 88 HR15N 0.22 HR15N 89 HR15N to 91 HR15N 0.21 HR15N 42 HR30N to 54 HR30N 0.41 HR30N 55 HR30N to 73 HR30N 0.2 HR30N 74 HR30N to 80 HR30N 0.23 HR30N 73 HR15T to 80 HR15T 0.81 HR15T 81 HR15T to 87 HR15T 0.81 HR15T 88 HR15T to 93 HR15T 0.81 HR15T 43 HR30T to 56 HR30T 0.53 HR30T 57 HR30T to 69 HR30T 0.2 HR30T 70 HR30T to 82 HR30T 0.2 HR30T 92.5 HBW to 650 HBW 3.3 HBW ISO 6506-2 92.5 HBW to 125 HBW 1.2 HBW 100 HV to 240 HV 0.5 % of reading ISO 6507-2 240 HV to 600 HV 0.5 % of reading > 600 HV 0.5 % of reading 100 HV to 240 HV 0.5 % of reading 240 HV to 600 HV 0.5 % of reading > 600 HV 0.5 % of reading Issue: 05/2017 This supplement is in conjunction with certificate #L17-206 Page 2 of 5
Mechanical Knoop Hardness Testers HK O Direct Verification of Durometer Hardness Tester Types: A, B, C, D, DO, O, OO) F Extension at Zero reading Indentor Diameter Indentor Tip Diameter Indentor Tip Radius Indentor Tip Angle 100 HK to 240 HK 0.75 % of reading ISO 4545-2 240 HK to 600 HK 0.75 % of reading > 600 HK 0.75 % of reading 2.46 mm to 2.54 mm 0.09 ASTMD-2240 Optical Comparator Electronic Balance Verification of the Durometer spring Types A, B, E & O Types C, D, & DO F 0.55 N to 8.05 N 4.445 N to 44.45 N 0.6 N 1.4 N Mass, Force and Weighing Devices Scales O Mass-Weight and Weight Set M2 F DEVICE SIZE AS 50 g to 500 g 0.001 5 g Weights Set E2 (Res.= 0.001 g) 500 g to 5 000 g 0.15 g (Res.= 0.1 g) 5 000 g to 20 000 g 1.4 g (Res.= 1 g) 20 000 g to 50 000 g 7.2 g Weights Set M2 (Res.= 5 g) 50 kg to 100 kg 29 g (Res.= 5 g) 100 kg to 1 000 kg 150 g (Res.= 100 g) 1 000 kg to 2 000 kg (Res.= 200 g) 290 g 1 kg 40 mg Weights Set F2 Issue: 05/2017 This supplement is in conjunction with certificate #L17-206 Page 3 of 5
Mass, Force and Weighing Devices DEVICE SIZE AS Mass-Weight and 2 kg 80 mg Weights Set F2 Weight Set M2 F 5 kg 260 mg 10 kg 510 mg 20 kg 820 mg Electrical Equipment to Measure DC Voltage FO Equipment used with Thermocouple Type K FO Equipment used with Thermocouple Type J FO Equipment used with RTD type Pt100 FO Equipment used with RTD type Pt100 FO Equipment to Measure Resistance FO Equipment to Measure DC Current FO -25 mvdc to 150 mvdc 0.034 mvdc Multifunction 1 VDC to 12 VDC 0.003 8 VDC -270 C to 1 000 C 0.31 C -210 C to 1 200 C 0.3 C -200 C to 200 C 0.17 C Calibrator BEAMEX Oy AB MC2-MF 200 C to 600 C 0.26 C Multifunction 600 C to 850 C 0.36 C calibrator BEAMEX Oy AB MC2-MF 1 Ω to 250 Ω 0.02 % of reading + 3.5 mω 250 Ω to 2 650 Ω 0.02 % of reading + 3.5 mω 2 650 Ω to 4 000 Ω 0.02 % of reading + 13.5 mω 0.005 A to 25 ma 0.02 % of reading + 1.5 µa Dimensional Vernier Dial and Digital Calipers F 1 mm to 750 mm (24.32 + 2.21 x 10-2 L) μm Linear Set Block Gages Issue: 05/2017 This supplement is in conjunction with certificate #L17-206 Page 4 of 5
Dimensional Micrometers F 1 mm to 600 mm (2.66 + 3.32 x 10-3 L) μm Linear Set Block Gages Metal Rules F 1 mm to 750 mm (45.794 + 0.263 8L) μm Dial and Digital Indicators F 1 mm to 60 mm (11.556 + 0.001 8L) μm Linear Set Block Gages Dial Gage Tester (Res.= 0.01 mm) Test Indicators F 1 mm to 5 mm (0.734 + 0.089 1L) μm Linear Set Block Gages Dial Gage Tester (Res.= 0.001 mm) 1. The CMC (Calibration and Measurement Capability) stated for calibrations included on this scope of accreditation represents the smallest measurement uncertainty attainable by the laboratory when performing a more or less routine calibration of a nearly ideal device under nearly ideal conditions. It is typically expressed at a confidence level of 95 % using a coverage factor k (usually equal to 2). The actual measurement uncertainty associated with a specific calibration performed by the laboratory will typically be larger than the CMC for the same calibration since capability and performance of the device being calibrated and the conditions related to the calibration may reasonably be expected to deviate from ideal to some degree. 2. The laboratories range of calibration capability for all disciplines for which they are accredited is the interval from the smallest calibrated standard to the largest calibrated standard used in performing the calibration. The low end of this range must be an attainable value for which the laboratory has or has access to the standard referenced. Verification of an indicated value of zero in the absence of a standard is common practice in the procedure for many calibrations but by its definition it does not constitute calibration of zero capacity. 3. The presence of a superscript F means that the laboratory performs calibration of the indicated parameter at its fixed location. Example: Outside Micrometer F would mean that the laboratory performs this calibration at its fixed location. 4. The presence of a superscript O means that the laboratory performs calibration of the indicated parameter onsite at customer locations. Example: Outside Micrometer O would mean that the laboratory performs this calibration onsite at the customer s location. 5. The presence of a superscript FO means that the laboratory performs calibration of the indicated parameter both at its fixed location and onsite at customer locations. Example: Outside Micrometer FO would mean that the laboratory performs this calibration at its fixed location and onsite at customer locations. 6. Measurement uncertainties obtained for calibrations performed at customer sites can be expected to be larger than the measurement uncertainties obtained at the laboratories fixed location for similar calibrations. This is due to the effects of transportation of the standards and equipment and upon environmental conditions at the customer site which are typically not controlled as closely as at the laboratories fixed location. 7. The term L represents length in inches or millimeters as appropriate to the uncertainty statement. Issue: 05/2017 This supplement is in conjunction with certificate #L17-206 Page 5 of 5