A3L5TH731NMicrowave Oven

Frequence vs Load Variation Test 120V(200ml) Rabel RBW 1 MHz VBW 1 MHz SWT 5 ms TRG A IN1 1AV Unit dB Ì V RF Att 30 dB Ref Lvl 120 dB Ì V Ref Lvl 120 dB Ì V Start 2.3 GHzStop 2.6 GHz30 MHz/ P0 TDF 1MAX 20 30 40 50 60 70 80 90 100 110 120 1 2 3 Marker 1 [T1] 91.01 dB Ì V 2.45751503 GHz 1 [T1] 91.01 dB Ì V 2.45751503 GHz 2 [T1] 69.54 dB Ì V 2.44188377 GHz 3 [T1] 76.43 dB Ì V 2.48336673 GHz F1 F2 D1 91.01 dB Ì V D2 71.01 dB Ì V Date: 24.DEC.2004 09:47:22

SLV-D2LEDESLV-D2LED1ESLV-D2LED1U 11 A10 B 9C 12 COL 8D7E6F5G KSR1005 TR05 DSP1 CSQ3946 11G22G33G44G 100nF 4.7KR01 C06C03100nF100nFC05 +5V KRA226-ATTR08 1nF C11 SMW250-04V_WHTCN02 3214 BZ01 CBE2220BA 100nFC07 D041N4148M R024.7K C0422uF KSR1005 TR06 KRA226-ATTR09 2K +12V +5V R132KR142KR12 R08 47K 1N4148MD05 2K D031N4148M 1N4148M D10 R03 R16 2K D14 1N4148M 20pF C09 OJ01 TR01KSR1005 +5V 2KR15 ZNR110D471 TR02 KSR1005 PTC1 OJ02 +12V 270M TR07KRA226-AT FUSE1 FH-51H D07 1N4148M IC03 7033P D11 1N4148M 1N4148MD02 R0510K +5V +5V XTL18MHz C124.7uF KRA226-AT TR04 TR10KRA226-AT +5V C134.7nF 1N4148M D06 +5V +12V +5V RY02 DU1PU-1P TR03 KSR1005 D09 1N4148M C0247uF C10 1nF R042K 1N4148M D08 12516HS-14CN03 R10 47K 47K R09 LVT1SLV-D2LEDU FTR-F3AA012E RY01 R11 +12V 47K D151T4 1T4 D16 IC02 78L05 +5V C011000uF 2724252628 845123 11121314151617 182022 7 6 9 2119 23 R07 TMP86C807N-LED1IC01 10 20pF 1K C08 1N4148M D12 1N4148M D13 351 D011T4 CN01SMW250-05AV_RED KEY-7 KEY-5 KEY-3 KEY-1 RESET INT INT R062K MAIN BZ DOOR KEY-2 RESET D-SW AC1 KEY-8 KEY-2 KEY-4 KEY-6 KEY-1 POWER POWER-1DOOR LAMP BZ KEY-8 KEY-7 KEY-6 KEY-5 KEY-4 KEY-3 D-SW AC1 LAMP MAIN D-SW POWER POWER-1 V A R I S T O R L . V . T R A N S L A M P M A I N R E L A Y POW ER RELAY (SECONDARY INTERLOCK) PRIMARY S/W MGT CVT TC O F A N M O T O R D/MOTOR MO NITOR SWIT CH H.V.DIOD E H. V. TRANSFORMER H. V. CAPACITOR 120V 0V F FA MAGNETRO N POWE R COR D AC 120V/60Hz BLK BLK OR G ORGORG GR N BLU BLU BLK BLK GN D WHT WHT RE D RE D YE L YE L YE L COM NC 120 V 125 V 25 W 21 V 0V NO FM DM L ASSY PCB BOARD DOOR SENSING S/W CONDITION DOOR IS OPENED PCB PATTER N WARNING NOTE: CIRCUIT SHOWN WITH DOOR IS OPENED POSITION. NOTE: FOR SERVICE REPLACEMENT USE 16 GA 105°C THERMOPLASTIC COVERED WIRE EXCEPT FOR HIGH VOLTAGE LEADS OR AS NOTED ON SPECIAL LEADS. POWER MUST BE DISCONNECTED BEFO RE SERVICING THIS APPLIANC 1 2 0 V 1 5 A

JOB Number : LBE042280 Page 1 of 16 EMC TEST REPORT According to FCC CFR47 Part 18 Subpart C JOB Number : LBE042280 1. This test reports does not constitute an endorsement by NIST/NVLAP or U.S Government. 2. This test report is to certify that the tested device properly complies with the requirements of FCC Rules and Regulations Part 18 CFR47 Subpart C Intentional Radiators. All tests necessary to show compliance to the requirements were and these results met the specifications requirement. 1. Applicant Name :SAMSUNG ELECTRONICS CO., LTD. 416 Maetan-3 Dong, Yeongtong-Gu, Suwon-Si, Gyeonggi-Do, Korea, 443-742 2. Identification of tested device 2.1 FCC ID :A3L5TH731N 2.2 Device Name :MICROWAVE OVEN 2.3 Trade Name :Maytag 2.4 Model Number :UMC1071AAW Variant Model : 2.5 RF Output Power : 700W ( by IEC 705 method ) 3. Test Procedure and Items 3.1 FCC/OST MP-5 : 1986 4. Issued Date :Dec 28, 2004 Tested by: Jay Yong, PARK / Test Engineer Reviewed by: No Cheon, PARK / Manager of EMC Lab. Authorised by: Kyu Baek, CHUNG / Chief of EMC Lab. This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing laboratory. This laboratory is registered by the NIST/NVLAP, U.S.A. The test reported herein have been performed in accordance with its terms of registration. NVLAP LAB CODE 200623-0 JOB Number : LBE042280 Page 2 of 16 TABLE OF CONTENTS 1. Product Description 2. Test Facility 3. Accreditation and Listing 4. Radio Noise Emission Measurement Procedures/Results 4.1 Radiation Hazard Measurement 4.2 Input Power Measurement 4.3 RF Output Power Measurement 4.4 Operation Frequency Measurement 4.4.1 Frequency Measurement 4.5 Conducted Emission Measurement 4.5.1 Conducted Emission Measurement Procedure 4.5.2 Conducted Emission Measurement Configuration 4.5.3 Conducted Emission Measurement Data(0.15~30MHz) 4.6 Radiated Emission Measurement 4.6.1 Radiated Emission Measurement Procedure 4.6.2 Radiated Emission Measurement Configuration 4.6.3 Radiated Emission Measurement Data(30 - 1000MHz) 4.6.4 Radiated Emission Measurement Data(1 - 25GHz) 5. Measurement Equipment List This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing laboratory. JOB Number : LBE042280 Page 3 of 16 1. Product Description The equipment under test is a microwave oven sold for consumer use. Model : UMC1071AAW is a700 W microwave oven with digital controls. Installation Type: Over-the-range Clock Frequency : 8.0MHz < Magnetron > Model : OM-75S manufactured by Samsung Electronic Co., Ltd. 2. Test Facility The Semi-anechoic chamber and Conducted measurement facilities used to collect the radiated data are located at 416 Maetan 3 Dong, Yeongtong-Gu, Suwon-Si, Kyungki-Do, Korea. The sites are constructed in conformance with the requirements of ANSI C63.4 and CISPR Publication 22. 3. Accreditation and Listing The test facilities used to perform radiated and conducted emissions tests are accrediated by National Voluntary Laboratory Accreditation Program for the specific of accreditation under Lab Code: 200623-0 to perform Electromagnetic Interference tests according to FCC PART 15 and CISPR 22 requirements. No part of this report may be used to claim or imply product endorsement by NVLAP or any agency of the US Government. This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing laboratory. JOB Number : LBE042280 Page 4 of 16 4. Radio Noise Emission Measurement Procedures/Results 4.1 Radiation Hazard Measurement A 700-ml water load was placed in the center of the oven. The power setting was set to maximum power. While the oven was operating, the Microwave Survey Meter probe was moved slowly around the door seams to check for leakage. The results of this test are as follows. ProbeMaximum LeakageLimit Location[mW/Cm2][mW/Cm2] 10.101.0 50.051.0 60.051.0 All others0.071.0 This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing laboratory. 123 4 56 789 JOB Number : LBE042280 Page 5 of 16 4.2 Input Power Measurement Input power and current were measured using a Power Analyzer. A 700ml water load was placed in the center of the oven and the oven set to maximum power. A 700 ml water load was chosen for its compatibility. Manufacturers to determine their input ratings commonly use this procedure. Fig. 2 Test Setup for Input power The results of this test are as follows. InputInputMeasuredEUT Spec. VoltageCurrentInput powerInput power [Vac][amps][watts][watts] 1208.69891050 Based on the measured input power, the EUT was found to be operating within the intended specifications. This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing laboratory. JOB Number : LBE042280 Page 6 of 16 4.3 RF Output Power Measurement The Caloric Method was used to determine maximum output power. The initial temperature of a 1000-ml water load was measured. The water load was placed in the center of the oven. The oven was operated at maximum output power for 120 seconds. Then the temperature of the water re-measured. Fig.3 Test Setup for RF output power QuantityStartingFinalElapsedRF Power of waterTemperature TemperatureTime [ml][centigrade][centigrade][seconds][watts] 10001023.3120464.1 10001023.7120478.0 10001023.2120460.6 467.5 Power = (4.187 Joules/Cal) x (Volume in ml) x (Temp. Rise) Time in seconds The measured output was found to be ABOVE 500Watts. Therefore, in accordance with section 18.305 of Subpart C, the measured out-of-band emissions were compared to the 25xSQRT(power/500)[uV/m] @ 300M limit. This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing laboratory. Average RF Power of 3 Trials JOB Number : LBE042280 Page 7 of 16 4.4 Operation Frequency Measurement Fig. 4 Operating Frequency Measurements Configuration This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing l…

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JOB Number : LBE042280 Page 5 of 16 4.2 Input Power Measurement Input power and current were measured using a Power Analyzer. A 700ml water load was placed in the center of the oven and the oven set to maximum power. A 700 ml water load was chosen for its compatibility. Manufacturers to determine their input ratings commonly use this procedure. Fig. 2 Test Setup for Input power The results of this test are as follows. InputInputMeasuredEUT Spec. VoltageCurrentInput powerInput power [Vac][amps][watts][watts] 1208.69891050 Based on the measured input power, the EUT was found to be operating within the intended specifications. This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing laboratory. JOB Number : LBE042280 Page 6 of 16 4.3 RF Output Power Measurement The Caloric Method was used to determine maximum output power. The initial temperature of a 1000-ml water load was measured. The water load was placed in the center of the oven. The oven was operated at maximum output power for 120 seconds. Then the temperature of the water re-measured. Fig.3 Test Setup for RF output power QuantityStartingFinalElapsedRF Power of waterTemperature TemperatureTime [ml][centigrade][centigrade][seconds][watts] 10001023.3120464.1 10001023.7120478.0 10001023.2120460.6 467.5 Power = (4.187 Joules/Cal) x (Volume in ml) x (Temp. Rise) Time in seconds The measured output was found to be ABOVE 500Watts. Therefore, in accordance with section 18.305 of Subpart C, the measured out-of-band emissions were compared to the 25xSQRT(power/500)[uV/m] @ 300M limit. This reports shall not be reproduced except in full, without the written approval of SEC EMC Testing laboratory. Average RF Power of 3 Trials