
Text extracted from the exhibit documents filed with the FCC. Open a document above to read the original.
FFAA220066CC Frequency AAgile ® 900 MMHz TTransmitter 336600°° PPaassssiivvee IInnffrraaRReedd MMoottiioonn DDeetteeccttoorr Installation and Operation Manual - 04097A IMPORTANT NOTES •Products, unless specifically noted, are intended for indoor use. •Manually test all products regularly. •These products are designed to be installed and maintained by professional security technicians. OVERVIEW: The FA206C is a wireless, ceiling-mounted 4-element passive infrared intrusion detector providing protec- tion from intruders by pyro-sensor array. Micro-controller PIR signal analysis with special ASIC technolo- gy for PIR pulse processing increases immunity to RFI, vibration, static, lightning, ambient temperature changes and other common causes of false alarms. LOCATING THE DETECTOR: Choose a location most likely to intercept an intruder. Refer to the following recommendations for the best installation location: •Temperature changes: Do not install the detector outdoors or in a place exposed to sudden tem- perature changes, or near equipment such as air conditioners, ventilators, fans, heaters, etc. •Bright light: Avoid bright light, direct or reflected sunlight, automobile headlights or other light sources. •Moving Objects: Objects that may move or vibrate, such as curtains, window blinds or decorative banners can cause false alarms. •Exposure to contaminants: Airborne vapors, mists, steam, or fumes can cause detector malfunction. •Curtains, Glass, Screens: Infrared energy cannot pass through opaque objects or through transparent or semi-trans- parent materials such as glass, paper, or curtains. Barriers of these materials create "blind-spots" in intrusion protec- tion. •Detection Zones: Refer to zone pattern diagrams to determine optimal mounting locations. MOUNTING THE DETECTOR: 1. Remove cover from the detector body by loosening the lock screw about 5mm and turning the cover counterclock- wise. (See Figure 3.) 2. Remove the body from the bracket by turning it counterclockwise. 3. Mount the bracket to the ceiling. Hold the bracket on the ceiling. Mark and drill 4 holes for installation. 4. Attach the detector body. Install the battery and place the detector body so that the arrow is aligned with the dot on the bracket. Turn clockwise until the arrow on the body aligns with the arrow on the bracket. (See Figure 3.) 5. Set Pulse Sensitivity jumper in desired position. (See Figure 1.) 6. Program the transmitter as described below. 7. Attach the cover. Place the four tabs of the cover into the matching notches in the base and turn the cover clock- wise until it fits tightly. MOUNTING HEIGHT The FA206C can be mounted to a maximum height of approximately 18 feet (5.5 meters). At 18', the PIR detection pattern is about twice the diameter of a 10' (3m) installation. As mounting height increases, distance between detection zones also increases toward the perimeter, and the effects of factors such as floor surface temperature and intruder direction and speed are intensified. This can contribute to reducing speed of detection. (See Figures 4-6.) Every installation should include a Walk Test of detection zones, including intrusion paths crossing the edges of the zones. PIR SENSITIVITY The Pulse Count jumper setting provides control for normal or difficult operating environments. Automatic Pulse Count is recommended for reliable operation in environments which may be subject to temperature fluctuations that might cause false alarms. The Single Pulse Count mode is more sensitive to minor temperature variations, and should be used in sites where variant heat sources will not cause alarms (See Figure 1.) PROGRAMMING THE FA206C: 1. Remove the FA206C cover. Remove shunt on Programming Header. 2. Enter programming mode for the receiver unit, using recommended options. 3. Connect the programming cable between the transmitter and the receiver. 4. Press the transmitter reset button. 5. When programming is complete, disconnect the programming cable and replace the shunt and the cover. Note: TThe FFA206C rretains pprogramming ddata iin nnon-vvolatile mmemor y. It does not require re-programming after loss of power. Install a new battery and press the reset button to re-initialize the transmitter and restore programming. , Figure 1 PIR HeightDiameter 8'(2.4m)31' (9.3m) 10'(3m)38' (11.7m) 12'(3.6m)46' (9.34m) 18'(5.5m)70' (21m) Figure 5Figure 4Figure 6 Figure 2 Figure 3 Approximate Effective Detection Diameter* * See "Mounting Height" Programming OOptions: External contacts:N/C (only) EOL:No (only) Internal Contact:No (only) Check-in:60 seconds (recommended) WALK TEST: With the cover on the unit, quickly (less than ½ second) pass a magnet near the Walk Test Reed Switch. This activates a 1-minute walk test mode. Within this period, the Test LED will light every time the PIR senses motion. The unit will not transmit alarm signals during this test period. TRANSMISSION TEST: With the cover on the unit, hold a magnet near the Walk Test Reed Switch for at least 1 second. This activates a 1-minute transmission test mode. Within this period, the unit will transmit alarm and restoral cycles at regular intervals for approximately one minute. The LED will light every time the unit transmits. Note: The LED indicator lights only during 1-minute walk test period, and during transmission test. OPERATION: The FA206C transmitter signals an alarm c ondition when motion is detected by the sensor. Once an alarm condition is signaled, further alarms are suppressed until no motion is sensed for a period of more than 90 seconds. TECHNICAL SPECIFICATIONS: Dimensions:5.2" x 2.25" (131mm x 57mm) Weight:6.52 oz. (185g) Detection Method:4-element PIR Operating Temperature:32°F to 120°F (0°C to 49°C) Humidity:10% to 90% non-condensing Battery:Inovonics BAT604 (3.0V lithium Duracell DL123A) Note: Battery is supervised Typical Battery Life:2 years in location with low to moderate activity* Visible Light Protection:Stable against halogen light 8 fe…
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August 30, 2004 Federal Communications Commission Authorization and Standards Division 7435 Oakland Mills Road Columbia, MD 21046 Subject: Request for Confidentiality for FCC ID# HCQ3B6CR6C Gentlemen: The following reports are marked confidential, and should be maintained in the non- public file. This confidentiality is necessary to protect proprietary information contained within these sections of the application for Certification. 1) Operational Description 2) Schematics 3) Block Diagram Thanks for your help. Sincerely, Donald J. Hume President
FCC ID: HCQ3B6CR6C FA206C External Photos: Topside view. Bottom side view
FCC ID HCQ3B6CR6C IC: 2309A-CR6C This device complies with Part 15 of the FCC rules. Operation is subject to the following two conditions: (1) This device may not cause harmful interference, and (2) this device must accept any interfer- ence received, including interference that may cause undesired operation . FA206C Louisville, CO - www.inovonics.com CONFIDENTIAL DOCUMENT LBL-FCC-FA206C 04059B CONFIDENTIAL DOCUMENTATION The information contained in this document is confidential to and the sole property of Inovonics Corporation. Receipt of this information requires the existence and full acceptance of the terms and conditions of a Non Disclosure Agreement signed by the Inovonics Corporation and the Recipient. This documentation is not to be reproduced or redistributed except as provided in the Non Disclosure Agreement. MATERIAL:.002" THICK CLEAR MYLAR WITH .001" GLOSSY LAMINATION (FOR PROTEC- TION FROM INK SMEARING) AND PERMANENT ADHESIVE APPLIED TO THE BACKSIDE ARTWORK:SUPPLIED BY INOVONICS TEXT: BLACK LABEL SIZE: 1.062" X .1.062" (SHOWN TO 3 TIMES SCALE) WITH .125 RADIUS ON EACH COR- NER AND NO BORDER PACKAGING AND LABEL ORIENTATION:LABELS TO BE SUPPLIED ON TOP SIDE OF ROLL STOCK WITH TEXT READABLE AS VIEWED FROM BOTTOM (SHORT) EDGE OF ROLL Rev. Level DescriptionDate AInitial Release5/18/04 BChange FCC and IC numbers6/22/04 Confidential to InovonicsFA206CRev B FCC ID HCQ3B6CR6C IC: 2309A-CR6C This device complies with Part 15 of the FCC rules. Operation is subject to the following two conditions: (1) This device may not cause harmful interference, and (2) this device must accept any interference received, including interference that may cause undesired operation . FA206C Louisville, CO - www.inovonics.com
FCC ID: HCQ3B6CR6C FA206C Internal photos: PCB Topside PCB bottomside RF Shielding Integrated Antenna
FCC ID: HCQ3B6CR6C FA206C 9. RF Exposure Information: The duty cycle is calculated over a 100 mSec averaging window as specified in the rules. The longest message contains a total of 213 pulses each 20 uSec in duration, for a total transmitter on time of 4.26 mSec with represents a worst-case duty cycle of 4.26%. The duty cycle correction used is the maximum of 10%. Calculation for compliance with MPE requirements (Section 2.1091) using a worst case of 0.02 Watt, unity antenna gain, and the f/300 (mW/cm 2 ) limit for general applications. This device is used in fixed locations and is not carried or worn by the end user. The key factor is duty cycle. Under normal conditions, a 12-packet message is sent a maximum of once every 15 minutes. Worst case, a 12-packet message is sent once per minute or 72 packets in a 6 minute period. Total On time per packet = 4.26 mSec (for maximum packet length) Duty Cycle = (4.26 x 72) mSec/(6x60x1000) mSec = 0.0852% EIRP = (0.02W)(0.000852) = 17.04 microwatt. Using a distance of 20 cm: 17.04 microwatt / (4 pi 20 2 ) = 3.39 nW/cm 2 The Dwell Time is the length of one packet. The worst case dwell time for an extended length packet is 40.1 mSec. The standard packet is about 30 mSec duration. A worst case transmission rate, corresponding to a repeated change of state transmissions would result in a maximum of 12 packets in any 10 second period with each packet on a different frequency. The maximum dwell time is thus the dwell time of an extended packet or 40.1 ms.
EMC EMISSIONS - TEST REPORT (In-Part) Test Report No. BC400278g-1 Issue Date: July 13, 2004 Model / Serial No. FA206C / proto #1 Product Type Intentional Transmitter Client Inovonics Wireless Corp. Manufacturer Inovonics Wireless Corp. License holder Inovonics Wireless Corp. 315 CTC Blvd Address Louisville, CO 80027 Test Criteria Applied FCC CFR47 Part 15.247 Test Result PASS Test Project Number References BC400278-1 Total Pages Including Appendices: 34 Title 47 CFR 15: RADIO FREQUENCY DEVICES Reviewed By : Approved By : INTERNATIONAL APPROVALS LABORATORIES (IAL) reports apply only to the specific samples tested under stated test conditions. It is the manufacturer's responsibility to assure that additional production units of this model are manufactured with identical electrical and mechanical components. IAL have no liability for any deductions, inferences or generalizations drawn by the client or others from IAL issued reports. This report is the confidential property of the client. As a mutual protection to our clients, the public and ourselves, extracts from the test report shall not be reproduced except in full without our written approval of IAL. This report shall not be used by the client to claim product endorsement by NVLAP (No. 200624- 0) or any agency of the US government. International Approval Laboratories and its professional staff hold government and professional organization certifications and are members of IEEE, NVLAP, and VCCI. Project File: BC400278 Page 2 of 34 International Approvals Laboratories, LLC 5541 Central Avenue, Suite 110 Boulder, Colorado 80301 Voice: 303 786 7999 Fax: 303 449 6160 Rev.No 1 D I R E C T O R Y Documentation Page(s) Test report 1 - 34 Directory 2 Test Regulations 3 General Remarks 4-5 Test-setup Photographs 6-10 Appendix A Test Data Sheets and Test Equipment Used 11-26 Appendix B Test Plan/Constructional Data Form 27-29 Appendix C Measurement Protocol/Test Procedures 30-34 STATEMENT OF MEASUREMENT UNCERTAINTY The data and results referenced in this document are true and accurate. The measurement uncertainty for Conducted Emissions in the frequency range of 150kHz – 30MHz is calculated to be ±2.30dB and for Radiated Emissions is calculated to be ±3.60dB in the frequency range of 30MHz – 200MHz and ±3.38dB in the frequency range of 200MHz – 1000MHz. EUT Received Date: 1-June-2004 Testing Start Date: 1-June-2004 Testing End Date: 6-July-2004 Project File: BC400278 Page 3 of 34 International Approvals Laboratories, LLC 5541 Central Avenue, Suite 110 Boulder, Colorado 80301 Voice: 303 786 7999 Fax: 303 449 6160 Rev.No 1 The tests were performed according to following regulations : 1. FCC CFR47 Part 15.205 2. FCC CFR47 Part 15.207 3. FCC CFR47 Part 15.209 4. FCC CFR47 Part 15.247 5. ICES-003 Emission Test Results: Conducted Emissions, Powerline (15.207) - Not Applicable Test Result Minimum limit margin NA dB at NA MHz Maximum limit exceeding dB at MHz Remarks: Battery operated device. Radiated Emissions (15.209) - PASS Test Result Minimum limit margin -13.5 dB at 204.18 MHz Maximum limit exceeding dB at MHz Remarks: Radiated Emissions (15.205)/(15.247)(c) - PASS Test Result Minimum limit margin -0.78 dB at 4564.53 MHz Maximum limit exceeding dB at MHz Remarks: Peak Output Power (15.247) (b)(1) - PASS Test Result Minimum limit margin -31.18 dB at 919.39 MHz Maximum limit exceeding dB at MHz Remarks: Project File: BC400278 Page 4 of 34 International Approvals Laboratories, LLC 5541 Central Avenue, Suite 110 Boulder, Colorado 80301 Voice: 303 786 7999 Fax: 303 449 6160 Rev.No 1 GENERAL REMARKS: The following remarks are to be considered as “where applicable“ and are taken into account while completing any FCC/IC/ETSI radio tests at International Approvals Laboratories, LLC. Testing was performed in 3 different orthogonal axis to determine the worst case emissions from the device. The worst case emissions measurements are shown in this report. FCC CFR47 Part 15.31: Measurement Standards: In any case where the device is powered off a battery, a fresh battery was used during test. In cases where the device is powered off an AC supply, voltage was varied per Part 15.31 to find worst case emissions. FCC CFR47 Part 15.35: Measurement Detector Functions and Bandwidths: FCC Part 15.35 was utilized when performing the measurements within this report. In any case where the device is powered off a battery, a fresh battery was used during test. In cases where the device is powered off an AC supply, voltage was verified per Part 15.31 to find worst case emissions. The actual test distance for the FCC Part 15.209 testing was conducted at 10m for the fact that the device was being tested to EN55022 Class B from 30 MHz to 1000 MHz (meets/exceeds the FCC Part 15.209 & 109B limits) The data is automatically extrapolated back to the FCC 3m limits and measurements are corrected to better show the compliance to FCC requirements and reduce confusion. A correction factor of 10.54dB is used in cases of 30MHz and up for a difference between 10m and 3m measurement distances. All measurements that are lesser than 30MHz where applicable are accompanied with the fall of measurements and calculations to support the interpolation. Modifications required to pass: Test Specification Deviations: Additions to or Exclusions from This test report is in-part, International Approvals Laboratories, LLC was asked to test only the field strength of the fundamental and harmonics as well as the unintentional radiated and conducted emissions when applicable. Project File: BC400278 Page 5 of 34 International Approvals Laboratories, LLC 5541 Central Avenue, Suite 110 Boulder, Colorado 80301 Voice: 303 786 7999 Fax: 303 449 6160 Rev.No 1 Required Information In Accordance to FCC CFR 47 Part 2.1033: Exhibits Including (where applicable): 1. Users Manual 2. Operation Description 3. Block Diagram 4. Report of Measurement 5. External & Internal Photographs 6. Schematic 7. Parts List 8. Tuning Procedur…
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FCC ID: HCQ3B6CR6C FA206C Measurements performed at Inovonics Wireless Corp. lab Equipment used: HP 8594E Spectrum Analyzer—calibration due 5/6/2003 The antenna was removed from the EUT and a direct connection made to the transmitter output. 1. Plot 1 is a spectrum plot showing the carrier frequency separation. Compliance with section 15.247(a)(1) is demonstrated with a test sample configured with firmware allowing two adjacent channels to be captured. 2. Plot 2 demonstrates compliance with 15.247(a)(1)(i) — Number of hopping channels. This is a stored display of many sequential transmissions to show the overall band occupied by the transmitter. 3. Plot 3 shows the 20 dB bandwidth of a single channel to demonstrate compliance with 15.247(a)(1)(i). 4. The duty cycle is calculated over a 100 mSec averaging window as specified in the rules. The longest message contains a total of 213 pulses each 20 uSec in duration, for a total transmitter on time of 4.26 mSec with represents a worst-case duty cycle of 4.26%. The duty cycle correction used is the maximum of 10%. 5. Calculation for compliance with MPE requirements (Section 2.1091) using a worst case of 0.02 Watt, unity antenna gain, and the f/300 (mW/cm 2 ) limit for general applications. This device is used in fixed locations and is not carried or worn by the end user. The key factor is duty cycle. Under normal conditions, a 12-packet message is sent a maximum of once every 15 minutes. Worst case, a 12-packet message is sent once per minute or 72 packets in a 6 minute period. Total On time per packet = 4.26 mSec (for maximum packet length) Duty Cycle = (4.26 x 72) mSec/(6x60x1000) mSec = 0.0852% EIRP = (0.02W)(0.000852) = 17.04 microwatt. Using a distance of 20 cm: 17.04 microwatt / (4 pi 20 2 ) = 3.39 nW/cm 2 6. The Dwell Time is the length of one packet. The worst case dwell time for an extended length packet is 40.1 mSec. The standard packet is about 30 mSec duration. A worst case transmission rate, corresponding to a repeated change of state transmissions would result in a maximum of 12 packets in any 10 second period with each packet on a different frequency. The maximum dwell time is thus the dwell time of an extended packet or 40.1 ms. FCC ID: HCQ3B6CR6C FA206C 11. Test Report The test report containing intentional/unintentional emissions data is attached as “BC400278g-1_FA206C.pdf. International Approvals Laboratories generated this report. Additional data demonstrating compliance with 47CFR15.247 follows. For the following plots, the antenna was replaced by a coaxial connection to an HP8594E spectrum analyzer. Plot 1 is a spectrum plot showing the carrier frequency separation. Compliance with section 15.247(a)(1) is demonstrated with a test sample configured with firmware allowing two adjacent channels to be captured. FCC ID: HCQ3B6CR6C FA206C Plot 2 demonstrates compliance with 15.247(a)(1)(i) — Number of hopping channels. This is a stored display of many sequential transmissions to show the overall band occupied by the transmitter. FCC ID: HCQ3B6CR6C FA206C Plot 3 shows the 20 dB bandwidth of a single channel to demonstrate compliance with 15.247(a)(1)(i).
FCC ID: HCQ3B6CR6C FA206C 12. Test Setup Photos The test setup photos are contained within the test report of the previous section.
315 CTC Blvd · Louisville, Colorado · United States
| # | Rule Parts | Frequency Range | Power Output |
|---|---|---|---|
| 1 | 15C | 906 MHz - 920 MHz | 10.00 mW |

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