CW21669-3Model 1669-3, Rule Part 90.203(j)(3)

Exhibit L: User Manual FCC ID: CW21669-3 Test Box. The Test Box allows the user to test Remote and Controller batteries under load as well as test Remote Arm/Fire functions, and test Remote receivers. The Test Box also serves as the programming interface between a computer and a RFD Unit. Figure 9-1 Test Box. TEST BOX DESCRIPTIONS. Antenna / Battery Charger Connector: The Test Box has an Antenna/Battery Charger connector like the Remotes and Controller. Installing an antenna from the system onto the antenna connector turns on the Test Box. The Test Box has an internal battery pack that must be recharged using the system battery charger. Probe: The Test Box has a probe that plugs into the Remote or Controller under test. The Test box communicates to the Unit under test through the probe and by using a radio transmitter that is internal to the Test Box. The two leads coming off the probe are for connecting to the Remote binding posts. The firing voltage of the Remote will be measured through these connections. Serial Connection: A serial cable connects the Test Box to a computer serial port operating at 1200 baud. The serial cable must be connected to a computer when the Test Box is being used to program Controller and Remote Units. The serial cable may also be used when the Test Box is in the test mode. While in the test mode, the Test Box transmits the information displayed on the Test Box screen out the serial cable. A terminal program such as Hyper Terminal may be set up to capture this information to a file. The file can then be saved and printed. TEST BOX OPERATION. Test Box Messages When the Test Box is turned on, the following message is displayed. The “166x Series” part of the message identifies the system types that the Test Box is designed to operate with. “12/19/01” is the date of the Test Box firmware. “Ver 1.4” is the version of the Test Box firmware. Plugging the Test Box probe into the Test Box Antenna Connector puts the Test Box into a self-test mode. In this mode, the Test Box loads its own internal battery and then displays the loaded battery voltage along with the low battery threshold point. 166x Series Test Box 12/19/01 Ver 1.4 Battery Test - Standby This message displays while the Test Box loads down the battery of the unit connected to the probe. This is done to get a more meaningful measurement of the battery status. The Test Box will automatically step to the next message. This message shows the battery voltage for the unit connected to the probe while the Test Box loads that battery. The Low Battery for the Unit is also displayed. The Test Box will automatically step to the next message. This message will be displayed until the probe is removed from the unit being tested. Remote Messages When the Test Box detects that a Remote Unit is connected to the probe, the following message will be displayed. The data displayed will be the actual configuration data from the unit connected to the probe. The Test Box will automatically step to the next message. This message shows the Serial Number, Unit Type, Date of Manufacture, and Firmware Version of the unit connected to the probe. Frequency 154.570 Mhz Address 65324 Unit 2 S/N 12345 Type 82 DOM 08/14/2000 Ver 1.0 Loaded Battery 7.84 Low Battery = 7.00 Testing Completed The Test Box will automatically step to the next message. The Test Box will arm and fire a Remote Unit connected to the probe. The two leads from the probe must be connected to the Remote binding posts for the arm voltage to be measured. The “015” is the amount of time remaining in the Arm / Fire test. This number will count down to “000”. The Remote will then be fired. The Test Box will automatically step to the next message. This message show the actual armed voltage measured, and the minimum armed voltage level that is normal. The Test Box will automatically step to the next message. This message displays while the Test Box loads down the battery of the unit connected to the probe. This is done to get a more meaningful measurement of the battery status. The Test Box will automatically step to the next message. Remote Arm/Fire Test 015 Armed Voltage 27.16 Pass Level = 26.00 Battery Test - Standby This message shows the battery voltage for the unit connected to the probe while the Test Box loads that battery. The Low Battery for the Unit is also displayed. The Test Box will automatically step to the next message. This message will be displayed until the probe is removed from the Unit being tested. Controller Messages Connect the Test Box probe to the Controller Unit antenna connector. Hold down the ‘3’ button on the Controller Unit while pressing the ‘ON’ button. This puts the Controller in the Program/Test mode. When the Test Box detects that a Controller is connected to the probe, the following message will be displayed. The data displayed will be the actual configuration data from the unit connected to the probe. The Test Box will automatically step to the next message. Loaded Battery 7.84 Low Battery = 7.00 Testing Completed Address 65324 Unit 0 Frequency 154.570 Mhz This message shows the Serial Number, Unit Type, Date of Manufacture, and Firmware Version of the unit connected to the probe. The Test Box will automatically step to the next message. This message displays while the Test Box loads down the battery of the Unit connected to the probe. This is done to get a more meaningful measurement of the battery status. The Test Box will automatically step to the next message. This message shows the battery voltage for the unit connected to the probe while the Test Box loads that battery. The Low Battery for the Unit is also displayed. The Test Box will automatically step to the next message. This message will be displayed until the probe is removed from the unit being tested. To run the tests again, disconnect and then reconnect the probe to a unit to be tested. S/N 12345 Type 81 DOM 08/14/2000 Ver 1.0 Battery Test - Standby Loaded Battery 12.26 Low Ba…

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Exhibit P: Cover Letter FCC ID: CW21669-3 Northwest EMC TCB Compliance Opinion Revision 01/31/02 ROTH0001 Information about the Client Company Name: Rothenbuhler Engineering Company, Inc. Address: PO Box 708, 2191 Rhodes Road City, State, Zip: Sedro Woolley, WA, 98284-0708 Test Requested By: Herb Hainey Job Number: ROTH0001 Equipment Under Test (EUT) EUT Model Number or Product Name: Remote Control Blasting Machine FCC ID: CW21669-3 Opinion Transient Frequency Behavior Specification Requirements Method Requirements Description Comments/Deviations FCC CFR 2.1055 FCC CFR 90.213 Transient Frequency Behavior Opinion: The Equipment meets the intent specified by the requirements listed above. Discussion: The manufacturer has attested that no modifications were made to the frequency determining circuitry of the radio module used in this family of products. The FCC previously approved this radio module. Engineering data was submitted by Herb Hainey, P.E, to support that this product has not changed and is still in compliance. The final compliance decision was based upon the fact that the FCC has already accepted the data. The engineering data is on file and available upon request. Reference: Test data from previously submitted product FCC ID: CW21668-1 has been included in Exhibit O. Northwest EMC TCB Compliance Opinion Revision 01/31/02 ROTH0001 Frequency Stability vs. Temperature Specification Requirements Method Requirements Description Comments/Deviations FCC CFR 2.1055 90.213 Frequency Stability Opinion: The Equipment meets the intent specified by the requirements listed above. Discussion: The manufacturer has attested that no modifications were made to the frequency determining circuitry of the radio module used in this family of products. The FCC previously approved this radio module. Engineering data was submitted by Herb Hainey, P.E, to support that this product has not changed and is still in compliance. The final compliance decision was based upon the fact that the FCC has already accepted the data. The engineering data is on file and available upon request. Reference: Test data from previously submitted product FCC ID: CW21668-1 has been included in Exhibit N. Frequency Stability vs. Input Power Specification Requirements Method Requirements Description Comments/Deviations 90.214 90.214 Frequency Stability Opinion: The Equipment meets the intent specified by the requirements listed above. Discussion: The manufacturer has attested that no modifications were made to the frequency determining circuitry of the radio module used in this family of products. The FCC previously approved this radio module. Engineering data was submitted by Herb Hainey, P.E, to support that this product has not changed and is still in compliance. The final compliance decision was based upon the fact that the FCC has already accepted the data. The engineering data is on file and available upon request. Reference: Test data from previously submitted product FCC ID: CW21668-1 has been included in Exhibit O. Northwest EMC TCB Compliance Opinion Revision 01/31/02 ROTH0001 Operational Description Clarification Opinion: The Equipment meets the intent specified by the requirements listed above. Discussion: The operational description included as Exhibit M of the application, describes the RF module as having transmitter output power of .1 to 5 W. The manufacturer has attested that the output power of the RF module is set at the factory according to the information received in the following e-mail communication. Reference: Exhibit M. From: "Herb Hainey" <[email protected]> To: "Dave Tolman" <[email protected]> Subject: Re: CW21669-3 Application Date: Tue, 22 Jan 2002 15:43:00 -0600 X-Mailer: Microsoft Outlook Express 4.72.3110.1 Please allow me a point of clarification. The radio modules we purchase for the 1669-3 and other low power applications such as CW21668-2 is a slightly modified version of the standard 5A204B-NB transceiver module. We have the factory 1) Remove final transistor Q6 and its heat sink 2) Install a 120pf capacitor between the input and output of the former transistor 3) Adjust the output power to 100mW with a supply voltage of 7.2 volts. The manual and schematics for the 5A204B are supplied to us from the manufacturer for a standard module. We do not have a manual or schematic that shows the output transistor removed. Herb Hainey (360) 856-0836 FCC ID: CW21669-3 Exhibit A Technical Report Exhibit B External Photos Exhibit C Internal Photos Exhibit D FCC ID Label and Location Exhibit E Occupied Bandwidth Exhibit F Schematics Exhibit G Output Power Exhibit H Spurious Radiated Emissions Exhibit I Spurious RF Conducted Emissions Exhibit J Test Setup Photos Exhibit K Tune-up Procedure Exhibit L User Manual Exhibit M Operational Description Exhibit N Frequency Stability Exhibit O Transient Frequency Response Exhibit P Cover Letter

Exhibit B: External Photos FCC ID: CW21669-3 External Photos

Exhibit D: FCC ID Label & Location FCC ID: CW21669-3 FCC ID Label/Location

Exhibit C: Internal Photos FCC ID: CW21669-3 Internal Photos

Exhibit M: Operational Description FCC ID: CW21669-3 5A204B-NB VHF Transceiver Module Technical Manual - Version RE2 January 10,2000 This device complies with Part 15 of the FCC regulations. Operation is subject to the condition that this device does not cause harmful interference. Changes or modifications to this device that are not expressly approved by Rothenbuhler Engineering are prohibited and could void the user’s warranty and possibly his authority to operate this product. TABLE OF CONTENTS 1. PRODUCT OVERVIEW 3 2. THEORY OF OPERATION AND CIRCUIT DESCRIPTION 3 2.1.SYNTHESIZER3 2.2.R EFERENCE OSCILLATOR3 2.3.A NTENNA INPUT3 2.4.R ECEIVER3 2.5.T RANSMITTER3 3. RADIO I/O CONNECTIONS 3 4. ALIGNMENT 4 4.1.TEST SETUP4 4.2.T RANSMITTER4 4.3.FCC N OTICE4 1. Product Overview This manual covers the 5A204-NB VHF transceiver module. The module is a synthesized 0.1 to 5 watt transceiver, covering the frequency band of 150-174MHz. It is designed for data communication systems. 2. Theory of Operation and Circuit Description 2.1. Synthesizer In transmit mode, Q12, D6 and L24 form a voltage controlled oscillator. In receive mode, Q7, D7 and L26 form a voltage controlled oscillator. The output of the VCO is buffered by Q11, and fed into the input of a programmable divider/phase comparator, U3. U3 divides the RF from the VCO down to either 10KHz or 12.4KHz, and compares this divided down signal to a reference. The reference is derived by dividing down a 14.4MHz crystal reference oscillator. A separate modem board programs U3 with the appropriate data for each radio frequency. 2.2. Reference oscillator Y4 along with Q8 and associated circuitry form a high- stability 14.4MHz reference oscillator. D5 provides DC modulation capability. D4, RT2 and RT1 form a temperature compensation circuit, adjusting the voltage on D4 as the temperature varies. 2.3. Antenna Input The RF I/O is via the ANT1 connection. This is an OSX female connector. L3, L2, C6, C7, and C8 form a 174MHz low-pass filter. In receive mode, RF from the low-pass filter passes through L1 and into the receiver front end. In the transmit mode, the 7.5V is applied to L10, which biases on D2 and D3. When these diodes conduct, D1 passes the transmit signal out to the low-pass filter on the antenna. D3 shorts the transmit to ground at the receivers input, protecting the receiver’s LNA from damage. 2.4. Receiver In the receive mode, RF from the antenna enters the receiver’s front-end filter, comprised of L4, L5 and associated components. Q1 amplifies the RF 20dB. L6, L7, and L8 along with their associated components form a band-pass filter, tuned to the receiver’s frequency of operation. Q2 mixes the receiver’s RF from Q1 with a local oscillator signal from the PLL. The output of Q2 is tuned to 21.4MHz. Y1 and Y2 form a 4 pole crystal filter, provided the receiver with its selectivity. Q3 amplifies the 21.4MHz IF signal. The 21.4MHz signal is down-converted to 455kHz, and demodulated by U1. The RX output is an FM detected analog signal. 2.5. Transmitter The transmit modulation is applied to the VCO and to the reference crystal, providing flat FM modulation response from DC to 5kHz. The VCO’s output is amplified by Q11, Q10, Q4, Q5, and Q6, to a level of up to 5 watts of RF. The maximum power output is dependent upon the voltage applied to the B+ signal (pin 2 of the I/O connector) and power adjustment resistor R105. 3. Radio I/O Connections The interface to a radio transceiver circuit board is through a 14 pin single in-line connector. Table 1 lists the function of each pin. Pin #Function 1System ground 2B+ (usually 7.5V DC from the modem PCB) 3 +7.5V transmit, ±5%. 4 +5.0V receive, 0V transmit, ±5%.,. 5 +5.0V regulated input, ±5% 6Transmit modulation. 2.5V DC RX, 2.5V DC with 1.25V p-p (2.0 Khz deviation) data during transmit. 7Synthesizer lock detect. 8PLL enable signal. Latch enable signal for serial interface to PLL. 9PLL data signal. Data to PLL chip via three wire interface, pins 8,9, and 10. 10PLL clock signal. 11No connect 12RSSI output from radio. 13Receiver discriminator output from radio. 14No connect Table 1 4. Alignment This test procedure assumes that the transceiver module is part of a wireless modem and will be tested with a properly configured modem board. 4.1. Test Setup With both the modem PCB and the transceiver PCB must be removed from the enclosure to align them. Connect the two boards together with a ribbon cable, providing access to the adjustments on the transceiver board. Connect a 12.5V DC source to the DC input of the modem board (5 watt systems) or 7.2V DC (0.1 – 2.0 watt systems). Connect a service monitor to the RF I/O of the radio. 4.2. Transmitter Program the modem so that it is on the correct operating frequency or in the middle of the operating range. Refer to the proper technical manual for programming information. With the service monitor in the receive mode, key the transmitter. Adjust L25 (red) so that there is 4.0V DC on C97 (TP3). Adjust C91 to set the carrier on the center of the channel. At room temperature (20 deg C) the RF carrier should be set to 300 to 400 Hz above the desired channel frequency. Adjust C58, C60, C65 and C67 for maximum power output. Adjust the modem’s transmit deviation pot on the modem PCB for 2kHz deviation With the service monitor set to generate FM, modulate a carrier with a 1kHz tone and 2kHz deviation. Set the RF level to 1mV. Connect the SINAD meter to J1 pin 13. Program the modem so that the unit is on the correct operating frequency or in the middle of the operating frequency range. Adjust the RX VCO using L26 (Orange) so that there is 4.0V at C97 (TP3). Adjust L11 for a reading of 2.5VDC at pin 13 of J1. Adjust L4, L5, L6,L7,and L8 for best SINAD. Lower the RF generator’s source as the SINAD falls below 20dB, and readjust the inductors until the specified sensitivity is met. Typically, 12dB SINAD will be obtained around 0.7uV. 4.3. FCC Notice It is the responsibility of the u…

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Exhibit K: Tune-up Procedure FCC ID: CW21669-3 4.2. Transmitter Program the modem so that it is on the correct operating frequency or in the middle of the operating range. Refer to the proper technical manual for programming information. With the service monitor in the receive mode, key the transmitter. Adjust L25 (red) so that there is 4.0V DC on C97 (TP3). Adjust C91 to set the carrier on the center of the channel. At room temperature (20 deg C) the RF carrier should be set to 300 to 400 Hz above the desired channel frequency. Adjust C58, C60, C65 and C67 for maximum power output. Adjust the modem’s transmit deviation pot on the modem PCB for 2kHz deviation With the service monitor set to generate FM, modulate a carrier with a 1kHz tone and 2kHz deviation. Set the RF level to 1mV. Connect the SINAD meter to J1 pin 13. Program the modem so that the unit is on the correct operating frequency or in the middle of the operating frequency range. Adjust the RX VCO using L26 (Orange) so that there is 4.0V at C97 (TP3). Adjust L11 for a reading of 2.5VDC at pin 13 of J1. Adjust L4, L5, L6,L7,and L8 for best SINAD. Lower the RF generator’s source as the SINAD falls below 20dB, and readjust the inductors until the specified sensitivity is met. Typically, 12dB SINAD will be obtained around 0.7uV. .

Exhibit F: Schematics FCC ID: CW21669-3 1 1 2 2 3 3 4 4 5 5 6 6 7 7 8 8 AA BB CC DD B C6 C7 C8 C66 C10 C11 C13 C14 33 56 56 22 47 15 18 10 150-174 Power Adjust 218-230 15 24 24 L15639 39 20 L4,5,7,8REDGreen 18 C19157 L6-3B 27 R31.5k3.3K R46.8K4.7k R51K2.2K C16108 C30,21.751.0 C181012 C2033220 C19715 L125627 C4910NP L143322 C531018 C598NP L168Jumper L1810T3T L1910T8T C562210 C674030 C654020 240-260 D1D2 18 33 27 1010 39 12 12 15 33 RED 18 -2B(Unsh.)-2B(Unsh.) 6.8K 1K 1.5k 6 .75 5 18 18 22 NP 22 22 8 Jumper 3T 6T 22 30 10 Notes: 1. Resistors in ohms, capacitors in pF, inductors in nH unlss noted otherwise. 2. Values shown are for A band (136-150MHz). Other bands per chart. 3. When L16 must be jumpered, jumper to be 20AWG, directly to C60 pad. 4. -NB ( 12.5kHz spacing narrow band) option values shown in { }. 5. Levels shown are measured with high-Z meter assuming 50 ohm load. RX levels are with -40dBm RF input. 6. Y1 and Y2 are matched pairs and must be maintained as sets. {21M7B}{21M7B} [>350mV p-p at 21.4MHz w/-40dBm input] [>-23dBm] [+34dBm][+23dBm] [+8dBm] [+13dBm] [+0dBm] { 4 } { 12 } { 330 } {SFG455G}{SFG455G} D3 SONIK TECHNOLOGIES CORPORATION C 12Thursday, November 19, 1998 5A204D C:\PCBS\204D\SCH\5A204D.DSN SizeDocument NumberRev Date:Sheet of +5V +5VRX +5VRX +5VRX +7.5VTX B+ +7.5VTX +5VRX +5V +7.5VTX B+ +7V B+ B+ U1 MC3371 CRYS.OSC. 1 MIX.IN 16 CRYS.OSC. 2 MIS.OUT 3 VCC 4 LIM.IN 5 DEC. 6 DEC. 7 QUADCL. 8 GND 15 MUTE 14 MET.DRV. 13 SQU.IN 12 FILT.OUT 11 FILT.IN 10 REC.AUD. 9 C1 220 C2 220 C3 220 C4 220 C5 10uF 16V C6 39 C7 56 C8 75 C9 .01uF R1 150 L1 56 L2 10T L3 10T C10 68 C11 15 L4 YEL 1 2 C12 1.5 L5 YEL 1 2 C13 22 C14 15 R2 2.2K R3 1.5K R4 6.8K C15 1000 R5 1K L6 ORG C16 22 R6 270 C17 .01uF Q1 571 C18 15 L7 YEL 1 2 L8 YEL 1 2 C19 10 R7 39K R8 10K C20 220 C21 1 C22 .022uF C23 47pF C24 1000 Q2 BF990A C25 1000 R9 390 C26 9pF Y1 21M15B 13 2 C27 3 Y2 21M15B 13 2 R10 1k Q3 H10 C28 .022uF TP1 R11 470K R12 4.7K C29 1000 C30 1 TP2 C31 NP R13 100 Y3 20.945 C32 68 R14 39K C3347 C34 .1uF C35.1uF C36.01uF R15 1K C37 2200 C38 2200 C39 2200 C40 2200 C41 2200 C42 2200 ANT1 ANTENNA L10 680 C43 2200 D2 9401 D3 9401 C44 2200 C46.1uF C47 10uF 16V + R16 33K L12 56 L14 33nH C48 1000 R17 390 Q4 MMBR941 C49 15 C50 .01uF C51 1000 Q5 8372 C53 18 L16 8.2nH C54 1000 C55 .01uF L18 10T R18 220 R19 220 Q6 RF260 L19 10T C56 22 R20 22 R21 22 R22 3k C58 20 C59 8 C60 30 C61 10uF 16V C62 2200 C64 2200 C65 30 C66 10 C67 30 C68 2200 J1 I/O 1 2 3 4 5 6 7 8 9 10 11 12 13 14 R74 27 C122 1000 R75 220 Z1 SFG455D 123 Z2 SFG455D 123 R100 NP U20 LP2951 OUT 1 SENSE 2 SO 3 GND 4 ER 5 NC 6 NC 7 IN 8 R79 47k R80 10k C128 NP Q16 7002 R81 100k D1 BAV99 1 3 L13 NP FB1 0S0 1 2 Q18 BSP31 23 1 4 R104 2.2 R101 100 R102 22 R105 1k Q17 7002 R103 1k D9 BAV99 13 C63 1uF A C57 1uF A L111055Z 13 6 7 L9 1uH 1 267 RX_LO TXOUT RX_OUT SYN_CLK SYN_DATA SYN_EN TX_IN RX_OUT RSSI RSSI TXOUT TX_A A A B B C C D D E E 44 33 22 11 RXVCO TXVCO Modulation Balance B C119 C133 C118 C114 C85 C132 C116 C77 10 68 12 8 22 27 10 12 150-174218-230 NP 15 10 C781812 18 15 L25BRNRED 8 8 C801510 C811812 10 L26REDORG 812 C1301215 C892268 C881218 L22,L23REDGRN C110 C1171.5 C1111012 0V=TX 5V=RX DD2 3 15 9 8 9 8 18 15 9 7 8 BRN BRN 6 4 22 3 ORG .5 10 L2122022033 5A204 D3 VHF Transceiver PCA C 22Thursday, November 19, 1998 Sonik Technologies Corp. Title SizeDocument NumberRev Date:Sheet of TX_IN SYN_EN SYN_CLK SYN_DATA RX_LO RX/TX RX/TX TX_A +5V B+ +5VCO +5V +7V +7V +5VCO +5VCO +5VCO RT1 100 B=2930 t R25 10k D4 2103 C71 15 R30 7.5k R31 680 R32 680 R33 10 C73 .1uF R34 33K R35 10 C74 .1uF C75 3900 NPO C76 1000 NPO R36 27K R37 27K C77 12 C78 18 R38 680 R39 27K C79 1000 C80 15 C81 18 R40 1K R41 22K Q7 571 R42 27K R43 22K C82 NP R44 10K R45 27K R46 680 C83 1000 C84 NP L20 220 C85 22pF C86 1000 C87 2200 R47 3.9K R48 120 R49 3.9K L21 220 L22 GRN C88 18 R50 2.2K C89 27 C90 1 L23 GRN R51 2.2K R52 10 R53 10k C93 680pF R54 10K R55 10K C94 680P Q8 H10 C95 330 C96 150 R56 5.1K R57 10K R58 47k C99 1000 C100 N.P. R59 1M C101 100pF Y4 14.4 R60 5.6k C102 2200 R61 10 C103 2.2 10V + R63 10 R64 100 R65 68 R66 NP C104 10 C105 1000 C106 68pF C107 1000 C108 2200 C109 2200 C110 12 C111 10 Q9 941 Q10 941 Q11 941 C112 .01uF C113 2.2uF 10V + C114 10 Q12 571 Q13 3904 C115 12 R67 22K R68 22K Q14 3904 Q15 3904 C116 10 L25 RED C117 1 C118 12 L26 ORG C119 12 R69 10K D8 2103 R71 220k R72 10k U2 LP2982 1 1 2 2 3 3 4 4 5 5 U3 145190 REF OUT 1 LD 2 *R 3 *V 4 VPD 5 PD OUT 6 GND 7 RX 8 TEST 1 9 FIN 10 REF IN 20 DATA 19 CLK 18 ENB 17 OUTPUT A 16 OUTPUT B 15 VDD 14 TEST 2 13 VCC 12 FIN 11 TP3 TestPoint C91 10pF D5 2109 L29 3.3uH R77 10k C72 .1uF R62 NP R73 NP D7 MMBV609 1 3 D6 MMBV609 1 3 C130 18 R27 3.3k RT2 2252 b=3890 t C150 1uF A C120 1000 C131 4 R82 100k C98 .47uF A C97 .047uF A C133 27 R83 10k 1 2 C132 27 CX134 .01uF

Exhibit A: Technical Report FCC ID: CW21669-3 Measurement/Technical Report General Information Applicant: Rothenbuhler Engineering Company, Inc. Address: PO Box 708, 2191 Rhodes Road City, State, Zip Sedro Woolley, WA 98284-0708 Test Requested By: Herb Hainey Model: Test Box Model 1669-3 FCC ID: CW21669-3 First Date of Test: January 7, 2002 Last Date of Test: January 8, 2002 Receipt Date of Samples: January 7, 2002 Job Number ROTH0001 Scope Regulatory Authority Federal Communications Commission Approval Type Original Grant Equipment Type Licensed, Non-Broadcast Station Transmitter Rule Part 90.217(b) Rule Exemptions 90.203(j)(3) because it is less than 500mW. 90.210(d) because the output power does not exceed 120 mW Related Submittals or Grants None Report Information Prepared By Vicki Albertson, Technical Report and Documentation Manager Northwest EMC, Inc. Signature Issued By Northwest EMC, Inc. 22975 NW Evergreen Parkway, Suite 400 Hillsboro, Oregon 97124 Ph. (503) 844-4066 Fax (503) 844-3826 Report Number ROTH0001 Date Issued January 20, 2002 EUT Information Frequency Range 150 – 174 MHz Antenna Conducted Output Power 100 mW nominal – fixed at factory Modulation FSK. Data only, no voice Channel Bandwidth 12.5 kHz Data Rate(s) 1200 baud Antenna(s) Dipole Supply Power Battery operated only Test Facility The OATS and conducted measurement facility used to collect the radiated and conducted data is located at Northwest EMC, Inc. 14128 339 th Avenue SE Sultan, WA 57049 (503) 844-4066 Fax: 844-3826 This site has been fully described in a report filed with the FCC (Federal Communications Commission), and accepted by the FCC in a letter maintained in our files. Laboratory Accreditation Northwest EMC, Inc. is recognized under the United States Department of Commerce, National Institute of Standards and Technology, National Voluntary Laboratory Accreditation Program (NVLAP) for satisfactory compliance with criteria established in Title 15, Part 285 Code of Federal Regulations. These criteria encompass the requirements of ISO/IEC Guide 25 and the relevant requirements of ISO 9002 (ANSI/ASQC Q92-1987) as suppliers of calibration or test results. NVLAP Lab Code: 200059-0. FCC ID: CW21669-3 Exhibit A Technical Report Exhibit B External Photos Exhibit C Internal Photos Exhibit D FCC ID Label and Location Exhibit E Occupied Bandwidth Exhibit F Schematics Exhibit G Output Power Exhibit H Spurious Radiated Emissions Exhibit I Spurious RF Conducted Emissions Exhibit J Test Setup Photos Exhibit K Tune-up Procedure Exhibit L User Manual Exhibit M Operational Description Exhibit N Frequency Stability Exhibit O Transient Frequency Response

Exhibit E: Occupied Bandwidth FCC ID: CW21669-3 Northwest EMC Occupied Bandwidth Revision 7/23/01 ROTH0001 Justification The individuals and/or the organization requesting the test provided the modes, configurations and settings available to evaluate. While scanning the radiated emissions, all of the EUT parameters listed below were investigated. This includes, but may not be limited to, antennas, tuned transmit frequency ranges, operating modes, and data rates. Channels in Specified Operating Band Investigated: Low Channel - 152.87 MHz Mid Channel - 161 MHz High Channel - 170 MHz Operating Modes Investigated: Modulated with Random Data Data Rates Investigated: Not Done 1200 baud (only data rate available) Output Power Investigated: +20 dBm (not user adjustable) Power Input Settings Investigated: Battery operated. Cannot be operated while connected to AC mains or any other power source. Frequency range Investigated Start Frequency 152.87 MHz Stop Frequency 170 MHz Software\Firmware Applied During Test Exercise software 1669-3 Firmware Version 1.4 Description The system was tested using standard operating production software to exercise the functions of the device during the testing. Equipment Modifications No EMI suppression devices were added or modified. The EUT was tested as delivered. Northwest EMC Occupied Bandwidth Revision 7/23/01 ROTH0001 EUT and Peripherals Description Manufacturer Model/Part Number Serial Number Test Box Rothenbuhler Engineering 1669-3 111 Cables Cable Type Shield Length (m)Ferrite Connection 1 Connection 2 Serial No 1.8 No Test Box Unterminated Test Probe No 0.5 No Test Box Antenna Terminal PA = Cable is permanently attached to the device. Shielding and/or presence of ferrite may be unknown. Measurement Equipment Description Manufacturer Model Identifier Last Cal Interval Spectrum Analyzer Tektronix 2784 AAO 03/08/2001 12 mo Power Meter Hewlett Packard E4418A SPA 04/09/2001 12 mo Power Sensor Hewlett-Packard 8481H SPB 07/10/2000 24 mo Test Description Requirement: Per 47 CFR 90.217(b) and 2.1049, the Occupied Bandwidth was measured at the RF output terminals with analyzer plots made for each modulation type. The emission mask is any emission appearing on a frequency 25 kHz or more removed from the assigned frequency must be attenuated at least 30 dB below the unmodulated carrier. Configuration: A 20 dB external attenuator was used. The attenuator and coaxial cable loss were compensated in the spectrum analyzer. A 300Hz resolution bandwidth with no video filtering and a peak detector were used. The RBW was sufficiently narrow to plot the actually bandwidth of the signal and not the filter response curve of the spectrum analyzer. The emission mask defined by 90.217(b) is shown on each plot. The 0dB reference for the mask is the measured output power of the unmodulated carrier at that frequency. Northwest EMC Occupied Bandwidth Revision 7/23/01 ROTH0001 Test Setup Completed by: ______________________________________ Xmitter Spectrum Analyzer RF Out RF In 20 dB external attenuato PC Short, low-loss coaxial cable NORTHWEST2 EMC Rev BETA 01/30/01 EUT: Test Box Model 1669-3Work Order: ROTH0001 Serial Number: 111Date: 01/07/02 Customer: Rothenbuhler EngineeringTemperature: 73 F Attendees: Herb HaineyTested by: Greg KiemelHumidity: 38% RH Customer Ref. No.: N/APower: N/AJob Site: SU03 TEST SPECIFICATIONS Specification: 47 CFR 2.1049 & 90.217(b)Year: Most CurrentMethod: TIA/EIA-603Year: 1993 SAMPLE CALCULATIONS COMMENTS EUT OPERATING MODES DEVIATIONS FROM TEST STANDARD REQUIREMENTS RESULTSAMPLITUDE Pass SIGNATURE Tested By: DESCRIPTION OF TEST EMISSIONS DATA SHEET Occupied Bandwidth at Low Channel - Mask for 12.5 kHz Channel BW None 1200 baud, random data. Max and only data rate. The power of any emission must be attenuated below the specified emission mask. The 0 dB reference for the emission mask is the measured output power of 20.14 dBm Necessary Bandwidth Calculations are based on worst case alternating 10101010 data. () ()() () ()()() ()() () () Hz KHzHz DMBWcydioFrequenecessaryRaBandWidthN HzMeHighestTonModulation KHzDncyadioFrequeDeviationR…

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