HAC T-Coil Report

FCC ID: OVF-K33BIC04

Test Report

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FCCID_1314369

FCC ID: OVF-K33BIC04 Hearing Aid Compatibility T-Coil FCC 47 CFR section 20.19 Test Report Single Band CDMA Cellular Phone FCC ID: OVF-K33BIC04 Model: K33BIC-04 STATEMENT OF CERTIFICATION The data, data evaluation and equipment configuration represented herein are a true and accurate representation of the measurements of the sample’s HAC T-Coil characteristics as of the dates and at the times of the test under the conditions herein specified. STATEMENT OF COMPLIANCE This product was tested in accordance with the measurement procedures specified in ANSI C63.19-2007 and has been shown to be capable of compliance with the technical requirements of FCC 47 CFR section 20.19. Kyocera Communications, Inc. Test Location: 10300 Campus Point Drive, San Diego CA 92121 USA Thuy To Test performed by: Date of Test: 06/14/10 Regulatory Engineer, Senior Thuy To Report Prepared by: Date of Report: 06/14/10 Regulatory Engineer, Senior C. K. Li Report Reviewed by: Date of Review: 06/14/10 Director of Regulatory Engineering HAC T-Coil Report Page 1 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 TABLE OF CONTENTS 1 Introduction........................................................................................................................................... 3 2 Equipment Under Test (EUT)............................................................................................................... 3 3 Summary of Test Results ..................................................................................................................... 4 4 Test conditions ..................................................................................................................................... 5 4.1 Environmental Conditions ............................................................................................................. 5 4.2 RF characteristics of the test site.................................................................................................. 5 4.3 Ambient Noise of the test site ....................................................................................................... 5 4.4 Test Signal, Frequencies and Output Power ................................................................................ 5 4.4.1 CDMA2000 Test conditions ................................................................................................... 5 4.5 EUT Operating Conditions ............................................................................................................ 6 5 Description of the test equipment......................................................................................................... 6 5.1 Test Equipment Used.................................................................................................................... 6 5.2 HAC T-Coil Measurement System................................................................................................ 7 5.3 Audio Magnetic Probe................................................................................................................... 8 5.4 Audio Magnetic Measuring Instrument (AMMI) ............................................................................ 8 5.5 Audio Magnetic Calibration Coil (AMCC)...................................................................................... 8 6 System Validation & Calibration ........................................................................................................... 9 6.1 Input Channel Calibration.............................................................................................................. 9 6.2 Probe Calibration .......................................................................................................................... 9 6.3 Reference Input Level ................................................................................................................... 10 6.3.1 CMU200 Audio Codec Calibration......................................................................................... 10 6.3.2 AMMI Signal Verification........................................................................................................ 10 7 Test Procedure ..................................................................................................................................... 11 7.1 Test Positions................................................................................................................................ 12 7.2 Audio Signals ................................................................................................................................ 12 7.3 Scan Procedures........................................................................................................................... 13 7.3.1 Signal Strength and SNR....................................................................................................... 13 7.3.2 Frequency Response............................................................................................................. 13 8 Measurement Uncertainty .................................................................................................................... 14 9 T-Coil Requirements and Category...................................................................................................... 15 9.1 RF Emissions ................................................................................................................................ 15 9.2 Axial Field Intensity ....................................................................................................................... 15 9.3 Signal Quality ................................................................................................................................ 15 9.4 Frequency Response .................................................................................................................... 16 10 T-Coil Test Results ............................................................................................................................... 17 10.1 Field Strength and Signal Quality.................................................................................................. 17 10.2 Frequency Response .................................................................................................................... 18 11 Appendix A1: Probe Calibration Certification ....................................................................................... 19 12 Appendix A2: AMCC Calibration Certification ...................................................................................... 20 13 Appendix B1: Ambient Noise Plots, 1900 MHz .................................................................................... 21 14 Appendix C: System Calibration Results ............................................................................................. 22 15 Appendix D: ABM and SNR Test Results/Plots ................................................................................... 22 16 Appendix E: Photo Test Setup ............................................................................................................. 22 HAC T-Coil Report Page 2 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 1 Introduction This test report describes the Hearing Aid Compatibility (HAC) measurement of a wireless portable device manufactured by Kyocera Wireless Corp. (KWC). These measurements were performed for compliance with the rules and regulations of the U.S. Federal Communications Commission (FCC). The testing was performed in accordance with ANSI C63.19-2007. This report covers test and data on: RF Emissions ANSI C63.19 Clause 4 X T-Coil ANSI C63.19 Clause 6 2 Equipment Under Test (EUT) Product: Single Band CDMA Cellular Phone FCC ID: OVF-K33BIC04 Model Number: K33BIC-04 EUT Serial Number: F0000037984760 [ ] Identical Prototype Type: [ X ] Pre-Production [ ] Production Device Category: Portable RF Exposure Environment: General Population / Uncontrolled T-Coil Location: Same as speaker location Antenna: Internal Antenna Detachable Antenna: No External Input: Audio/Digital Data Quantity: Quantity production is planned Modes: 1900 CDMA Multiple Access Scheme: CDMA TX Frequency (MHz): 1850 - 1910 Rated RF Conducted Output Power (dBm): 23.0 HAC T-Coil Report Page 3 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 3 Summary of Test Results ANSI C63.19 (2007) Section 6 T-coil Mode Test Test Results T-Rating Verdict Min. Axial Field Strength, dB A/m 2.66 4 Pass CDMA Min. Radial Field Strength, dB A/m -6.52 4 Pass 1900 Min. Signal Quality (ABM1/ABM2), dB 43.55 4 Pass Frequency Response @ Axial position Pass Overall T-Rating : T4 M-Rating* : M4 HAC Category Rating : M4, T4 * M-rating obtained from HAC RF report. HAC T-Coil Report Page 4 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 4 Test conditions 4.1 Environmental Conditions All tests were performed under the following environmental conditions: Ambient Temperature: 23 ± 2 Degrees C Relative Humidity (RH): 0% <RH < 80% Atmospheric Pressure: 101.3kPa + 10 to –5 kPa 4.2 RF characteristics of the test site All HAC measurements were performed inside a shielded room that provide isolation from external EM fields, with the RF ambient at least 20 dB below the intended measurement limits. 4.3 Ambient Noise of the test site The test site’s ambient magnetic level were determined and found to be at least 10dB below the measurement data ABM2, unless a very low level of ABM2. Measurement of the ambient level was performed for each probe orientation and results are shown in Appendix B. 4.4 Test Signal, Frequencies and Output Power During tests, the EUT was put in in-call mode and controlled by a CDMA simulator to generate the required signal and power. 4.4.1 CDMA2000 Test conditions The device supports CDMA2000 in 1X (Phase I, Protocol revision 6) mode only. CDMA2000 1X includes TIA/EIA-95B as a subset and was approved for publishing in July 1999. It provides voice and data capabilities within a standard 1.25 MHz CDMA channel. This RF bandwidth is identical to the legacy IS-95 B system standard. Maximum average conducted powers were measured to ensure worst case power configuration was tested. CONDUCTED POWER (dBm) CONFIGURATION CDMA 1900 (Full Rate) Ch25 Ch600 Ch1175 SO2 RC1 23.05 23.07 23.25 RC3 23.10 23.18 23.24 SO3 RC1 23.02 23.01 23.08 RC3 23.12 23.26 23.30 SO17 RC2 23.09 23.15 23.06 RC54 23.12 23.11 23.16 SO55 RC1 23.08 23.12 23.26 RC3 23.10 23.25 23.27 TDSO RC3 (+F-SCH) 23.00 23.17 23.09 SO32 RC3 (+SCH) 23.08 23.24 23.14 Table 4.4.1 Conducted RF output power measured vs RC’s HAC T-Coil Report Page 5 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 The following configuration was chosen: Protocol: 6 (IS-2000) Radio Configuration: 3 Power Control: All Up Bits Service Option: 3 Vocoder: 8K Enhanced (low) Data Rate: Full The measurement system measures power drift during HAC testing by comparing field strength in the same location at the beginning and at the end of measurement. These records were used to monitor stability of power output during tests. Conducted RF power measurements were also performed before and after each HAC measurements to confirm the output power. 4.5 EUT Operating Conditions The EUT was tested with the follow configurations and conditions, if applicable: X Fully charged standard battery as supplied with the handset Open and Closed configurations, at ear use position Both retracted and extended antenna positions X LCD Contrast High Simultaneous transmission with Bluetooth transmitter ON 2 X Volume setting at maximum X Microphone muted Note 1: This phone has only one configuration for ear usage 2: This phone does not support Bluetooth 5 Description of the test equipment 5.1 Test Equipment Used Below is a list of the calibrated equipment used for the measurements: Description Manufacturer Model Serial Cal Due Number Number Date Power Meter Giga-tronics 8541C 1831306 07/16/10 Radio Communication Tester Rohde & Schwarz CMU200 101328 03/29/11 Data Acquisition Speag DAE4 602 06/17/10 Audio Band Magnetic Probe Speag AM1DV2 1045 09/22/10 Audio Band Magnetic Measuring Instrument Speag AMMI 1035 N/A Helmholtz Coil Speag AMCC 1001 N/A Test Arch Speag HAC 1015 N/A The calibration certificates of Probe and Helmholtz Coil are attached in Appendix A. HAC T-Coil Report Page 6 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 5.2 HAC T-Coil Measurement System The measurements were performed with Dasy4 automated near-field scanning system comprised of high precision robot, robot controller, computer, Magnetic probe, probe alignment sensor, non- conductive phone positioner, Test Arch and software extension. Figure 5.2 shows the setup and cabling. The overall expanded uncertainty (K=2) of the measurement system is ±12.3%. The measurement uncertainty budget is given in section 8. Figure 5.2a T-Coil setup with Helmholtz Coil Figure 5.2b Setup Cabling HAC T-Coil Report Page 7 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 5.3 Audio Magnetic Probe Model: AM1D Application: Active single sensor probe for both axial and radial measurement scans Construction: Fully RF shielded Rounded tip of 6 mm diameter incorporating a pickup coil with its center offset 3mm from the tip and the sides Compatible with DAE, with adapted probe cup Frequency ± 0.5dB of ideal differentiator from 100 Hz to 10 kHz Response: Linearity: < 0.1 dB from 5 dB below limitation to 16 dB above noise level Dynamic Range: Max 21 dB A/m @ 1 kHz, Noise level typ. –70 dB A/m @ 1kHz, ABM2 typ. –60 dB A/m Sensitivity: Typ. -24 dBV / A./m @ 1kHz at probe output RF Shielding: Immunity to AM (1 kHz, 80%) modulation RF signal 5.4 Audio Magnetic Measuring Instrument (AMMI) Model: AMMI Application: AMMI is a desktop 19-inch unit containing a sampling unit, a waveform generator for test and calibration signals and a USB interface. Connection: Front connectors Audio Out - audio signal to the base station simulator Coil Out - test and calibration signal to the AMCC Coil In - monitor signal from the AMCC BNO connector Probe In - probe signal 5.5 Audio Magnetic Calibration Coil (AMCC) Model: AMCC Application: The Audio Magnetic Calibration coil is a Helmholtz Coil designed according to ANSI C63.19-2006 section D.9, for calibration of the AM1D probe. The two horizontal coils generate a homogeneous magnetic field in the z direction. The DC input resistance is adjusted to approximately 50 Ohm by a series resistor, and a shunt resistor of 10 Ohm allows monitoring the current with a scale of 1:10. Connection: Coil In Coil Monitor HAC T-Coil Report Page 8 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 6 System Validation & Calibration At the beginning of the HAC T-coil measurement, a 3-phase calibration was performed per Speag instruction to ensure accurate measurement of the voltages and ABM field. Reference input level was also validated and calibrated per C63.19. 6.1 Input Channel Calibration Phase 1: The AMMI audio output was switched off, and a 200 mV_pp symmetric rectangular signal of 1 kHz was generated and internally connected directly to both channels of the sampling unit (coil in, probe in). Phase 2: The AMMI audio output was off, and a 20 mV_pp symmetric 100 Hz signal was internally connected. The signals during phases 1 and 2 were available at the output on the rear panel of the AMMI. The output must however not be loaded in order not to influence the calibration. After the first two phases, the two input channels were both calibrated for absolute measurements of voltages. The resulting factors were displayed above the multimeter window. After phases 1 and 2, the input channels were calibrated to measure exact voltages. 6.2 Probe Calibration Phase 3: a multisine signal covering each third-octave band from 50 Hz to 5 kHz was generated and applied to both audio outputs. The probe was positioned in the center of the AMCC (user point “coil center”) and aligned in the z-direction, the field orientation of the AMCC. The Coil In channel was measuring the voltage over the AMCC internal shunt, which was proportional to the magnetic field in the AMCC. At the same time, the probe in channel samples the amplified signal picked up by the probe coil. The ratio of the two voltages – in each third-octave filter – leads to the calibration factor of the probe over the frequency band of interest for the spectral representation. The calibration result is shown in Appendix C. The internal calibration factors of the coil and probe channel are listed. The graphics represent the values (applying the calibration factors from the previous steps) for the probe and coil channel in dB V for each third-octave filter from 100 Hz to 5 kHz. The single values are interconnected with a blue line for the probe and a green line for the coil channel. The probe sensitivity in V / (A/m) at 1 kHz is calculated from the values in the chart. -20 dBV in the coil channel corresponds approx. to 1 A/m. Calibration Factors Measured Value Probe Sensitivity, V/(A/m) 0.0658 Probe calibration factor, V 1.1328 Coil calibration factor, V 2.3277 HAC T-Coil Report Page 9 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 6.3 Reference Input Level ANSI C63.19 requires the use of reference input level of –18dBm0 that correlate to a normal speech input level for CDMA air interface. In order to create the correct level the CMU200 audio codec and the AMMI output were calibrated. 6.3.1 CMU200 Audio Codec Calibration To determine the correct input level, the Encoder/Decorder of the CMU200 base station simulator was calibrated for measured full-scale input voltage level. The CMU200 0dBm0 input reference was determined utilizing the build-in functions of “Decoder Cal” and “Encoder Cal”. CMU200 S/N Modulation Ref. I/P Level Target Level 101328 CDMA -18dBm0 -20.35 6.3.2 AMMI Signal Verification Verification of AMMI output level was performed before the compliance measurement. The measured results are showed in Table 6.3b Date Signal Measured AMMI Target Reference Delta Output Input (dBm0) (dBm0) (dB) 1KHz -20.5 -20.35 -0.15 6/10/2010 300-3000 Hz -20.49 -20.35 -0.14 Table 6.3b Measured Output Level HAC T-Coil Report Page 10 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 7 Test Procedure The device was positioned and setup according to ANSI C63.19-2007. Figure 7.0 shows the T-Coil Signal measurement flowchart: • Confirm calibration of Test Equipment • Configure and validate test setup • Establish WD reference level • Find measurement locations Position and orient probe Measure desired audio band signal strength Measure undesired audio band signal strength • Calculate signal strength • Calculate signal quality • Measure frequency response (axial) All 3 locations measured? No Yes Intensity and response compliant ? No Yes Determine and record signal quality category Done Figure 7.0 T-Coil measurement flowchart HAC T-Coil Report Page 11 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 7.1 Test Positions The device was placed on a non-conductive phone positioner under the Test Arch. The acoustic output of the EUT was aligned with the center point of the area formed by the dielectric wire and the middle bar of the arch’s top frame. Please refer to Appendix E for the test setup photos. 7.2 Audio Signals During tests signal was fed to the EUT via communication Test set. Proper gain setting was used in software to ensure correct signal level fed to communication test set speech input. The following audio signals were pre-defined by DASY4 and used for calibration and measurements: 48k_voice_1kHz_1 s (duration 1 s): This signal is voice like and has been processed to have a narrow bandwidth mainly within the 1 kHz third-octave band and an even shorter duration of 1 second for faster measurement. This signal passes through a large variety of codecs and permits a direct amplitude and signal quality measurement (S/N) without considerable bandwidth compensation. Its spectrum is shown in a practical measurement in Figure 7.2a. Figure 7.2a 49k_voice_1kHz_1s signal spectrum Multisine signal 50 Hz – 5 kHz (duration 10 s): Signal with carrier centered in each third-octave band, as used during the calibration. Suited for frequency response measurements. Peak to RMS ratio: 11.1 dB. 48k_voice_300-3000 (duration 2 s): The signal is voice like and has been processed to have a duration of 2 seconds for fast measurement. At the same time, it has a flat spectrum across all third- octave band filters between 300 Hz to 3 kHz and is vanishing at the beginning and end in order to allow longer measurement sequences without transients. It has bandwidth sufficient for frequency response measurements. The spectrum is shown in a practical measurement in fig. 7.2b. The measurement window length of this signal must be set to a multiple of 2 s in order to integrate over the full voice sample. Peak to RMS ratio: 21.6 dB. HAC T-Coil Report Page 12 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 Figure 7.2b Boardband signal spectrum 7.3 Scan Procedures 7.3.1 Signal Strength and SNR a) A 50mm x 50mm (10mm step) coarse axial scan was performed to search for the “optimal points” and spatial distribution of ABM1. b) Base on the coarse scan results, a 16mm x 16mm (4mm step) fine scan in axial, a 24mmx16mm (4mm step) fine scan in radial_L, and a 16mmx24mm (4mm step) fine scan in radial-T coil orientation were performed for both ABM1and ABM2. 7.3.2 Frequency Response Base on the coarse axial scan results, a point axial scan was performed. HAC T-Coil Report Page 13 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 8 Measurement Uncertainty Table 8.1 shows the uncertainty budget for HAC Audio Band Magnetic Field (AMB) assessment according to ANSI C63.19-2006. The budget is valid for the DASY4 system and represents a worst- case analysis. For specific tests and configurations, the uncertainty could be smaller. Uncertainty Description Uncert. Prob. Div. Ci Ci Stand. Stand. Value Dist. (ABM1) (ABM2) Uncert Uncert (± %) (ABM1) (ABM2) (±%) (±%) PROBE SENSITIVITY Reference level 3.0 N 1.0 1 1 3.0 3.0 AMCC geometry 0.4 R 1.7 1 1 0.2 0.2 AMCC current 0.6 R 1.7 1 1 0.4 0.4 Probe positioning during calibration 0.1 R 1.7 1 1 0.1 0.1 Noise contribution 0.7 R 1.7 0.0143 1 0 0.4 Frequency slope 5.9 R 1.7 1 1 0.3 3.5 PROBE SYSTEM Repeatability / Drift 1.0 R 1.7 1 1 0.6 0.6 Linearity / Dynamic range 0.6 R 1.7 1 1 0.4 0.4 Acoustic noise 1.0 R 1.7 0.1 1 0.1 0.6 Probe angle 2.3 R 1.7 1 1 1.4 1.4 Spectral processing 0.9 R 1.7 1 1 0.5 0.5 Integration time 0.6 N 1.0 1 5 0.6 3.0 Field distribution 0.2 R 1.7 1 1 0.1 0.1 TEST SIGNAL Reference signal spectral response 0.6 R 1.7 0 1 0 0.4 POSITIONING Probe positioning 1.9 R 1.7 1 1 1.1 1.1 Phantom thickness 0.9 R 1.7 1 1 0.5 0.5 DUT positioning 1.9 R 1.7 1 1 1.1 1.1 EXTERNAL CONTRIBUTIONS RF interference 0 R 1.7 1 1 0 0 Test signal variation 2.0 R 1.7 1 1 1.2 1.2 COMBINED UNCERTAINTY Combined Standard Uncertainty (ABM): 4.1 6.1 Extended Standard Uncertainty (k=2) [%]: 8.1 12.3 N: Normal R: Rectangular Table 8.1 Worst-Case uncertainty budget for HAC ABM assessment HAC T-Coil Report Page 14 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 9 T-Coil Requirements and Category 9.1 RF Emissions EUT has to fulfill RF emission requirements at the axial measurement location. 9.2 Axial Field Intensity Table 9.2 shows the minimum limits for ABM1 field intensity: Component ABN1 Magnetic Field Condition dB(A/m) Axial (z) ≥-18 1 kHz, in 1/3 octave band filter Radial (x, y) ≥-18 Table 9.2 ABM1 Intensity Requirements 9.3 Signal Quality Table 9.3 provides the signal quality requirement for the intended T-Coil signal from a Wireless Device. The worst Signal Quality of the axial and radial components of the magnetic field was used to determined the T-Coil category. Category Signal Quality (Signal+Noise to Noise) [dB] T1 0 to 10 T2 10 to 20 T3 20 to 30 T4 > 30 AWF=0 Table 9.3 T-coil Signal Quality Categories HAC T-Coil Report Page 15 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 9.4 Frequency Response The frequency response of the axial component must follow the frequency curve specified in ANSI C63.19-2007 section 7.3.2, over the frequency range 300-3000 Hz (Figure 9.4). M a gne tic Fie ld Re sponse (300Hz to 3kHz) for de vice s w ith a fie ld £15dB (A/m ) a t 1 kHz 20.00 -4 dB/Oc t. dB relative to value at 1kHz 10.00 +2 dB +2 dB 0.00 -6 dB/Oc t. -10.00 +6 dB/Oct. low er lim it upper lim it -20.00 100.00 1000.00 10000.00 Frequency (Hz) Figure 9.4a Magnetic Field Response (300Hz to 3kHz) for devices with a field ≤15dB (A/m) at 1 kHz Magnetic Fieldy Response (300Hz to 3kHz) for devices with a field that > -10dB (A/m) at 1 kHz 20.00 dB relative to value at 1kHz -4 dB/Oct. +2 dB 10.00 -2 dB 0.00 -7 dB/Oct. -10.00 6 dB/Oct. lower limit -12 dB/Oct. upper limit -20.00 100.00 1000.00 10000.00 Frequency (Hz) Figure 9.4b Magnetic Field Response (300Hz to 3kHz) for devices with a field that > -15dB (A/m) at 1 kHz HAC T-Coil Report Page 16 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 10 T-Coil Test Results 10.1 Field Strength and Signal Quality ANSI C63.19 (2007) Section 6 T-coil Field Strength and Signal Quality Mode Ch Probe Ambient ABM1 ABM2 Signal T-Rating Position Noise Quality (dB A/m) (dB A/m) (dB A/m) (dB) Axial (z) -55.68 2.66 -48.19 50.85 4 25 Radial_L (x) -58.66 -4.46 -48.01 43.55 4 Radial_T (y) -59.01 -5.72 -52.95 47.23 4 Axial (z) -55.68 4.29 -46.97 51.26 4 CDMA 600 Radial_L (x) -58.66 -1.48 -45.96 44.48 4 1900 Radial_T (y) -59.01 -4.97 -52.65 47.68 4 Axial (z) -55.68 3.59 -47.63 51.22 4 1175 Radial_L (x) -58.66 -3.63 -47.03 43.40 4 Radial_T (y) -59.01 -6.52 -54.31 47.79 4 Note: • Signal Quality = ABM1/ABM2 • Bold Number = worst case in each category • Data plots are showed in Appendix D HAC T-Coil Report Page 17 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 10.2 Frequency Response ANSI C63.19 (2007) Section 6 T-coil Frequency Response Mode Probe Position Signal Type Result CDMA-1900 Axial Voice Pass Figure 10.2 show the worst case frequency response of the axial component of the magnetic field. Figure 10.2a CDMA 1900 Channel 600 Frequency Response HAC T-Coil Report Page 18 of 22 Model: K33BIC-04, S1310

ZPP K4OCERG Calibration Laboratory of w¥ 7 Schweizerischer Kallbrierdienst Schmid & Partner Service suisse d‘étalonnage Engineering AG Servizio svizzero di taratura Zeughausstrasse 43, 8004 Zurich, Switzerland Swiss Calibration Service Accredited by the Swiss Accreditation Service (SAS) Accreditation No.: SCS 108 The Swiss Accreditation Service is one of the signatories to the EA Multilateral Agreement for the recugnltlnn of calibration certifu:atas Client Kyut:era USA ‘CertificateNo:AM1DV2—1045_Sepo9 CALIBRATION CERTIFICATE Object Calibration procedure(s) :QA GAL-24 v2\ ‘Calibration, proceclure furAM1Dmagnetlc flflld pmhesand TMEFSm the audio range . Calibration date: Septernber.zé,--flfl'fla Condition of the calibrated item In TDIEfElnEE : This calibration certificate documents the traceability to national standards, which realize the physical units of measurements (S!). The measurements and the uncertainties with confidence probability are given on the following pages and are part of the certificate. All calibrations have been conducted in the closed laboratory facility: environment temperature (22 + 3)°C and humidity <70% Calibration Equipment used (MATE critical for calibration) Primary Standards ID # Cal Date (Certificate NMo.) Scheduled Calibration Keithley Multimeter Type 2001 SN: 0810278 30—Sep—08 (No: 7670) Sep—O9 Reference Probe AM1OV2 SN: 1008 12—Jan—09 (No. AM1D—1008_Jan0og) Jan—10 DAE4 SN: 781 20—Feb—089 (No,. DAE4—781_Febh09) Feb—10 Secondary Standards iD # Check Date (in house) | Scheduled Check AMCC 1050 30—Jul—09 (in house check Jul—09) | Jul—10 Name Function S|gnalure Calibrated by: ~Fin Bomhalt.. ‘R&D Director Approved by: Katia Pokovic‘ | . f Lfihnfatbfi?flir?_fitpr j Issued: September 24, 2000 This calibration certificate shall not be reproduced except in full without written approval of the laboratory.

ZP} K4OCERa Schmid & Partner Engineering AG s e a Zeughausstrasse 43, 8004 Zurich, Switzerland Phone +41 1 245 9700, Fax +41 1 245 9779 . info@speag.com, http:/{www.speag.com Certificate of conformity Item Magnetic AMCC Series 1 Manufacturer / Origin Schmid & Description of the item The Audio Magnetic Calibration coil (AMCC) is a Helmholtz Coil designed according to standard [1], section D.9 for calibration of the AM1D probe. Two horizontal coils are positioned above a non—metallic base plate and generate a homogeneous magnetic field in the z direction (normal to it). Configuration The AMCC consists of two parallel coils of 20 turns with radius 143 mm connected in parallel in a distance of 143 mm. With this design, a current of 10 mA produces a field of 1 A/m. The DC input resistance at the input BNC socket is adjusted by a series resistor to a DC resistance of approximately 50 Ohm. The voltage required to produce a field of 1 A/m is consequently approx. 500 mV. To current through the coil is monitored via a shunt resistor of 10 Ohm +/— 1%. The voltage is available on a BNO socket with 100 mV corresponding to 1 A/m. Handling of the item The coil shall be positioned in a non—metallic environment to avoid distortion of the magnetic field. Tests Test Requirement Details Units tested Number of turns N = 20 per colil Resistance measurment all Orientation of parallel coils with same direction of Magnetic field variation in all coils windings f the AMCC axis Coil radius r= 143 mm mechanical dimension First article Coil distance d = 143 mm mechanical dimension First article distance between coil centers Input resistance 51.7 +/— 2 Ohm DC resistance at BNC all input connector Shunt resistance R =10.0 Ohm +/—1 % DC resistance at BNO all output connector Shunt sensitivity He = 1 Aim per 100 mV Field measurement First article according to formula compared with Narda Hc = (U /R) * N / r / (1.2541.5) ELT400 + BN2300/80.10 Standards [1] ANSIPC6E3.19—2006 Draft 3.12 Conformity Based on the tests above, we certify that this item is in compliance with the requirements of [1]. Date 22.5.2006 & 2e a Stamp / Signature Schmé sy@nginseringAG _ Zeu aspe 43, $ arich pypbcaacls Phong +411 Z45@¥r0thfuak TA V into®spaag.com, http://www.speasg.com . n «oo n n nz on sAz NE D M W OCTPY N2 P W L V

FCC ID: OVF-K33BIC04 13 Appendix B1: Ambient Noise Plots, 1900 MHz Ambient Noise Spectrum Plot Axial (z) Ambient Noise Spectrum Plot Radial Longitudinal (x) Ambient Noise Spectrum Plot Radial Transversal (y) HAC T-Coil Report Page 21 of 22 Model: K33BIC-04, S1310

FCC ID: OVF-K33BIC04 14 Appendix C: System Calibration Results 15 Appendix D: ABM and SNR Test Results/Plots (See attachment) 16 Appendix E: Photo Test Setup (see attachment) HAC T-Coil Report Page 22 of 22 Model: K33BIC-04, S1310


Document Created: 2010-06-22 15:06:19
Document Modified: 2010-06-22 15:06:19
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