CFS8DL5800COCO Detector Alarm

5800CO Carbon Monoxide Detector with Built-in Wireless Transmitter INSTALLATION AND SETUP GUIDE GENERAL INFORMATION The 5800CO is a 3V battery powered wireless Carbon Monoxide (CO) detector intended for use with wireless alarm systems that support 5800 series devices. Refer to control/communicator installation instructions for compatibility. The detector consists of an electrochemical carbon monoxide sensor assembly coupled to a wireless transmitter. The transmitter can send alarm, trouble, tamper, and battery condition messages to the system’s receiver. Refer to the wireless system’s instructions for the maximum number of transmitters that can be supported. NOTICE: This manual should be left with the owner/user of this equipment. IMPORTANT: This detector must be tested and maintained regularly following NFPA 72 requirements. WARNING: This product is intended for use in ordinary indoor locations of dwelling units, including homes, residential buildings, hotels, schools, dormitories, and day care centers. It is not intended for use in industrial factories or commercial parking garages. Detector Description • Listed to UL standard 2075 (pending) • Supervised • Local sounder • Dual LED’s • Test/Hush button • Surface mount to wall or ceiling • Optional drywall anchors included The 5800CO contains a piezoelectric horn which generates the ANSI S3.41 temporal 4 pattern in an alarm condition (see note below Table 1 for temporal 4 pattern). In alarm, a message is also sent to the wireless control panel and the detector’s zone number is displayed at the console. The alarm message is transmitted every 4 seconds until the carbon monoxide condition has cleared and the detector has reset. During an alarm condition, pressing the detector’s test button will silence the piezoelectric horn for 5 minutes. Once the detector has reset, a RESTORE message is transmitted to the control panel and the transmitter’s zone number can be cleared from the panel. The mounting base installation is simplified by the incorporation of features compatible with drywall fasteners or other methods that provide a method for securing the detector in place. During initial power-up, the red and green LEDs will blink together once every 10 seconds up to four times. It takess about 30 seconds for the detector’s CO sensor to stabilize (see Table 1). After power-up has completed and the detector is functioning normally within its listed sensitivity range, the green LED blinks once every 10 seconds. The LED indication must not be used in place of the tests specified under TESTING THE DETECTOR. In a trouble condition, the red LED will blink once every 10 seconds (refer to Table 1). If the detector senses a low battery condition, the red LED blinks once every 45 seconds. Two LEDs and a sounder on the detector provide local visual and audible indication of the detector’s status as listed in Table 1. Table 1: Detector LED Modes Green LED Red LED Sounder Normal (standby) Blinks every 10 seconds Off Off Alarm/Test Off Blinks every 1 second Temporal 4 Pattern † Low Battery Off Blinks every 45 seconds Chirp every 45 sec after LED blinks for 7 days Communication Fail Off Blinks every 5 seconds Off Trouble Off Blinks every 5 seconds One chirp every 45 seconds Detector End-of- Life Off Blinks every 10 seconds Off Power Up Blinks every 10 secs †† (w/red LED) Blinks every 10 secs †† (w/green LED) Off † Temp 4 pattern is repeated pattern of four short beeps followed by a five second pause. When the detector has been in alarm for 30 minutes, the alarm signal will be given once every minute. If ambient conditions return to normal, the detector will self-restore out of alarm and into Normal (standby) mode. †† Red and green LEDs blink a total of four times, once every 10 seconds. Hush feature: If required, the audible alarm can be silenced for 5 minutes by pushing the button marked “Test/Hush”. The red alarm light will continue to flash in temp-4 pattern. If carbon monoxide is still present after the 5 minute hush period, the audible alarm will sound. The hush feature will not operate at levels above 350 ppm (parts per million) carbon monoxide. Trouble feature: When the sensor supervision is in a trouble condition, the detector will send a trouble signal to the panel. Trouble conditions include an open circuit, sensor removal (tamper), and sensor end of life. End of Life Timer feature: When the detector has reached the end of its life, the trouble contact will open. This indicates that the CO sensor inside the detector has passed the end of its life and must be replaced. This detector’s lifespan is approximately six years from the date of manufacture. Refer to Detector Replacement section Low Battery Detection: The 5800CO is powered by a single 3- volt CR123A or DL123A Lithium battery (included). The detector checks for a low battery at least every 65 minutes. If a low battery is detected, the transmitter sends a low battery message to the control panel, which beeps and displays the detector’s zone number. In addition, the red LED of the detector will blink every 45 seconds and the test button will be disabled. This condition will exist for a minimum of 7 days, and then the detector’s horn will “chirp” about every 45 seconds. Pressing the test button during this time will silence the chirps for 12 hours. The battery should be replaced BEFORE the chirps begin. Be sure to replace the battery with a fresh one. – 2 – BATTERY INSTALLATION AND REPLACEMENT To replace the battery: 1. Remove the detector from its mounting base by twisting the detector counterclockwise. Remove the battery, and dispose properly. 2. To ensure proper power-down sequence, wait a minimum of 20 seconds before installing new battery. 3. Install a new 3-volt CR123A Lithium battery in the battery compartment. Follow the polarity diagram inside the compartment. 4. Reinstall the detector onto the mounting base by turning the detector clockwise. 5. Test the detector as described in the TESTI…

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EXHIBIT 2-2 5800CO BLOCK DIAGRAM CFS8DL5800CO / 573F-5800CO

EXHIBIT 8A LABEL LOCATION CFS8DL5800CO / 573F-5800C0 3.0" 2.0"
     

              
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EXHIBIT 1 FUNCTIONAL DESCRIPTION CFS8DL5800CO / 573F-5800CO SECTION 2.1033(b) SECTION 2.1033(b) (2a). For Part 15 a brief description of the circuit functions of the device. The 5800CO is a battery powered CO detector & alarm transmitter and is part of a wireless-alarm system. It is used in conjunction with a receiver (5881) to indicate a possible CO event to the alarm system. The messages are standard alarm messages transmitted at 345Mhz +/-82Khz using on-off keyed AM modulation. The 5800CO sends a regular supervision or check-in message, no more often than once per hour.

EXHIBIT 2-1 CIRCUIT DESCRIPTION CFS8DL5800CO / 573F-5800CO OF THE 5800CO for SECTION 2.1033(b) SECTION 2.1033(b) (2a). For Part 15 a statement describing how the device operates. The SAW resonator YL1 is the FDE for the colpitts oscillator, Q2 etc., Which is switched on by Q1. The oscillators output drives the PA Q3 etc., which is on-off keyed (AM) via the modulator Q4 & Q5 etc., The RF energy is coupled out the ANT via the tuning and coupling of C13, C18, l4,C15 etc. Oscillator Switching and the modulation signal come from the ASIC controller JP1.

EXHIBIT 3-1 TIMING / DUTY CYCLE CALCULATION CFS8DL5800CO /573F-5800CO Section 15.255(b) Section 15.255(b), when the radiated emission limits are expressed in terms of the average value of the emission, and pulsed operation is employed, the measurement field strength shall be determined by averaging over one complete pulse train, including blanking intervals, as long as the pulse train does not exceed 0.1 seconds. The exact method of calculating the average field strength shall be submitted with any application for certification. 5800CO Duty Cycle Calculation Message protocol, timing and duty cycle calculation: The data output is phase-encoded Manchester that has inherent 50% duty cycle and consists of 64 bits per word sent at a nominal data rate of 3.7 kb/s (3.2kb/s min to 4.2kb/s max). Therefore the duty cycle is calculation is as follows: The word format consists of 64 bits, The duration of each bit is 312.5 uSec max. The duty cycle over a 100 mSec measuring period is calculated as follows: Duty cycle = Actual RF transmission ON time / 100 mSec Actual transmission ON time = 64 bits X 50% X 312.5 uSec = 10 mSec Therefore duty cycle = 10 / 100 mSec = .10 = 10%, and peak to average field strength is 20 db. Total on-air time for a supervision transmission is: 64 X 312.5 uSec + (5 X 150 mSec) = 0.77 seconds The group of six transmissions is repeated twice, with the second group delayed from the first by a max time of 2 seconds. The worst case on-air time is 1.54 + 2 = 3.54 seconds Summary: - Duty cycle = 10% On airtime = 3.54 seconds

EXHIBIT 3-2 TIMING DIAGRAM CFS8DL5800CO / 573F-5800CO Section 15.255(b) Section 15.255(b), when the radiated emission limits are expressed in terms of the average value of the emission, and pulsed operation is employed, the measurement field strength shall be determined by averaging over one complete pulse train, including blanking intervals, as long as the pulse train does not exceed 0.1 seconds. The exact method of calculating the average field strength shall be submitted with any application for certification. SEE THE NEXT PAGE

s— 2   2 2 ˜ ™22™— 2— 2 ™2 —™   2— 2— F2g—™2i„ƒEv  2ƒ— 2h — 22™ 2 ™  ™—  FQGHR2E2IFS2u2ƒ2%2PHHR2i„ƒEv  2‚i†2f Tel +358.2.8383.300 Fax +358.2.8651.233 USA: Tel +1.512.531.6400 Fax +1.512.531.6500 FINLAND:FRANCE: Tel +33.1.48.65.34.03 Fax +33.1.48.65.43.69 ONLINE:UK: Tel +44.(0)1438.730700 Fax +44.(0)1438.730751 JAPAN: Tel +81.3.3813.7100 Fax +81.3.3813.8068 CHINA: Tel +8610.8275.5086 Fax +8610.8275.5537 [email protected] www.ets-lindgren.com ETS-Lindgren’s Model 3149 BiConiLog Antenna Features:
Ultra Broadband: 80 MHz -6 GHz
750 W Max Continuous Power Input
Meets CISPR Cross-Polarization Rejection Requirements
On-axis Center Point Polarization
Compact Size
Tough Powder Coat Finish BiConiLog EMC Antennas Model 3149 The Model 3149 BiConiLog is the latest addition to a family of hybrid antennas for EMC measurement from ETS-Lindgren. This antenna has an ultra broadband frequency range, accepts high power input, and is size-efficient for easy transport and use in compact chambers. Rugged construction assures dimensional and electrical stability over extended use. The electrical characteristics of this antenna were modeled using powerful workstations running electromagnetic simulation software. Equally important, experienced RF engineers worked with our manufacturing team to produce a practical and affordable realization of the modeling process. On completion, the antenna was tested and calibrated at our A2LA accredited lab facility. All production units are individually calibrated at this facility. Features Ultra Broadband Combining the best characteristic of biconical and log periodic antennas, BiConiLogs sweep over a wide frequency range-- ideal for automated testing. The Model 3149’s 80 MHz - 6 GHz frequency range is the broadest and highest of all BiConilog antennas, and most commercially available antennas of this type. High Gain The Model 3149 accepts up to 750 W of continuous power input at its lower frequencies of operation. The antenna’s high gain and low VSWR over its operating frequency translates into efficient amplifier use for field generation. Unlike most hybrid biconical and log periodic antennas, the Model 3149 has a relatively low VSWR at its lowest frequency of operation, allowing approximately half the power to be radiated by the antenna. Cross Polarization Antenna performance can be degraded by cross polarization of horizontal and vertical signals. In high frequency log periodics where elements are small and closely spaced, cross polarization can be difficult to avoid. The high frequency section of the Model 3149 was carefully modeled and precision manufactured to avoid this problem. Cross polarization rejection in the Model 3149 exceeds 20 dB, making this antenna one of the few antennas that are compliant for CISPR 16-1 measurements. Polarization on Center Point Axis The Model 3149 was designed with a flexible mounting scheme to accommodate most antenna towers and tripods. The antenna can be securely mounted from the 22 mm diameter rear tube, or with a mount (included) at the center of the lower element boom. TM s— 2   2 2 ˜ ™22™— 2— 2 ™2 —™   2— 2— F2g—™2i„ƒEv  2ƒ— 2h — 22™ 2 ™  ™—  FQGHR2E2IFS2ƒ2%2PHHR2i„ƒEv  2‚i†2f Tel +358.2.8383.300 Fax +358.2.8651.233 USA: Tel +1.512.531.6400 Fax +1.512.531.6500 FINLAND:FRANCE: Tel +33.1.48.65.34.03 Fax +33.1.48.65.43.69 ONLINE:UK: Tel +44.(0)1438.730700 Fax +44.(0)1438.730751 JAPAN: Tel +81.3.3813.7100 Fax +81.3.3813.8068 CHINA: Tel +8610.8275.5086 Fax +8610.8275.5537 [email protected] www.ets-lindgren.com Electrical Specifications MODELFREQUENCYVSWRMAXIMUMIMPEDANCECONNECTORS RANGERATIOCONTINUOUS(NOMINAL) (AVG)POWER 314980 MHz - 6 GHz6.5:1 max*750 W 80 MHz - 150 MHz50 ‡Type N <2:1 typical500 W 150 MHz - 600 MHz 365 W 600 MHz - 1 GHz 200 W 1 GHz - 6 GHz Physical Specifications MODELWIDTHDEPTHHEIGHTWEIGHT 314991.00 cm129.50 cm53.24 cm5 .0 kg 35.83 in50.98 in20.96 in11.0 lb EMC Antennas Model 3149 BiConiLog The rear tube mounting provides on-axis center point rotation of the antenna during polarization and can be mounted to ETS-Lindgren and most other brands of antenna towers. The receiving tube on the antenna tower can be either square or round. The antenna’s center boom mount can be used with ETS-Lindgren antenna masts having an offset cross-boom, and all tripods. Construction An antenna constructed to maximize structural integrity is better able to maintain its electrical properties. The benefits are better measurement repeatability, lower uncertainty values and longer calibration validity. The Model 3149 is constructed to be a rugged antenna that thrives in an environment of constant use. Custom aluminum extrusions are used for the boom material. Dipole elements attach with capped Allen screws for secure attachment, yet allow repair and replacement if necessary. An all-weather impact radome protects the high frequency element section. Tubular bow-tie elements fit to the balun box using positive aligning-- yet easily attached-- compression fittings. The finished antenna receives a tough, durable powder coat finish. Standard Configuration
Antenna Assembly
Rear tube mounting and element boom mounting. Element boom mounting bracket drilled to accept ETS-Lindgren or other tripod mount with 1/4 in x 20 threads.
Individually calibrated at 1 m per SAE ARP 958 at our A2LA accredited lab. 3 m and 10 m per ANSI C63.5 at our A2LA accredited lab. Actual antenna factors and a signed Certificate of Calibration Conformance included with manual Options
Antenna Mast
Antenna Tripod
Support Rod TM * 6.5:1 max is for the bowtie element, better than 2:1 is for the LPDA section s— 2   2 2 ˜ ™22™— 2— 2 ™2 —™   2— 2— F2g—™2i„ƒEv  2ƒ— 2h — 22™ 2 ™  ™—  FQGHR2E2IFS2u2ƒ2%2PHHR2i„ƒEv  2‚i†2f Tel +358.2.8383.300 Fax +358.2.8651.233 US…

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EXHIBIT 5-1 CFS8DL5800CO Report of Measurements. Measurements were made at Honeywells Measurement Facility at 160 Eileen Way , Syosset , NY 11791 , FCC Registration number : 90421. Measurements were made in accordance with the procedures and reporting requirements of ANSI C63.4-2004. The Test Set-Up (C63.4 section 10.1.3) is shown in the attached drawing. The sequence of testing (C63.4 section 10.1.7) for radiated emissions is as follows: A preliminary scan was conducted with the receiver antenna close to the EUT in order to identify the emission characteristics of the EUT (C63.4 section 8.3.1.1). The antenna and EUT were then placed at the proper separation with the EUT positioned on a non-conducting turntable. The EUT was rotated on the turntable to maximize the received signal strength, then the receiver antenna height was varied to further maximize the received reading. Thereafter, the device was again rotated to a peak output position and the antenna height was re-adjusted for maximum received signal. This procedure was re-iterated until there was no further increase in signal level. This procedure was performed with the EUT rotating in three orthogonal planes (C63.4 section 13.1.4.1) to generate a final maximum reading which is recorded on the radiated emissions result sheet. Similar measurements were made on the receiver to ensure compliance as an unintentional radiator. See Exhibit 6 for list of test equipment (C63.4 section 10.1.4). Note, Spectrum Analyzer resolution bandwidths set as follows; (Video Bandwidth set greater than RBW) - For occupied bandwidth measurements, RBW = 100kHz, (This is in accordance with the minimum RBW allowed by C63.4, which requires RBW greater than 5% of the FCC required occupied bandwidth spec of 0.25% of center frequency). - For radiated emissions below 1 GHz, the RBW = 100kHz. Detector function set to peak. - For radiated emissions above 1 GHz, the RBW = 1MHz. Detector function set to peak. OCCUPIED BANDWIDTH is shown on attached plot. RADIATED EMISSIONS are recorded on attached sheet.

HONEYWELL SECURITY & CUSTOM ELECTRONICS 165 EILEEN WA Y SYOSSET, NY 11791EXHIBIT 5-3 FCC ID # CFS8DL5800CO Date : 02/27/2007 Tested by :Azadeh Solhjoo Approved by :K.Addy Test Sample (model) : 5800COLF Test method: ANSI C63.4 - 2004 Test specification: FCC Part 15, Sub-part C Notes: (1) Fo = 345MHz. (2) Detector = Peak (3) Frequency range scanned to 4 GHz. Emissions not reported were more than 20dB below the specified unit. [(Meter reading + Cable/Amp factor + Antenna factor) / 20 )] (4) Conv. Reading = 10 (5) Corr. Reading = Conv. Reading X Duty Cycle (6) Six Highest Emissions Recorded Freq. (MHz) Antenna Polarity (V/H) Meter Reading (dB uV) Cable/Amp Factor (dB) Antenna Factor (dB/m) Conv. Reading (uV/M) Duty Cycle (%) Corr. Reading (uV/M) Limit @ 3M (uV/M) 30 CABLE "A" BICONILOG S/N:00045682 729 345h78.901.314.6054925.110.0%5492.57292 690h53.501.718.875049.710.0%505.0729 1035h37.902.222.281315.610.0%131.6500 1380v33.202.525.971211.810.0%121.2500 1725v32.702.928.751650.010.0%165.0729 2070h37.803.229.813470.910.0%347.1729 2415h42.103.431.306920.510.0%692.0729 2760 h 32.703.5 31.942552.010.0%255.2500 3105h36.003.731.983837.610.0%383.8729 3450h25.003.932.351154.410.0%115.4729 4000 CABLE "A" BICONILOG S/N:00045682

EXHIBIT 5-4 OCCUPIED BANDWIDTH CFS8DL5800C0 / 573F-5800CO 5800CO OCCUPIED BANDWIDTH 577.1 KHz

EXHIBIT 6 TEST EQUIPMENT USED CFS8DL5800CO / 573F-5800CO Section 15.231 and ANSI C63.4 Section 15.231, per C63.4. This is a list of all test equipment used. Test Equipment list 1. Antenna: BICONOLOG S/N: 00045682 Cal. on: 04/24/06 Cal. due: 04/23/07 2. Spectrum Analyzer TEK 2784 S/N: B010165 Cal. on: 10/16/06 Cal. due: 10/15/07

EXHIBIT 5-2 CFS8DL5800CO / 573F-5800CO PICTURES OF THE TEST SETUP SECTION 2.1093 (c) SECTION 2.1093 (c) Photo of the test setup shall be provided. THE UUT: OBLIQUE SENSE VERTICAL OBLIQUE SENSE HORIZONTAL .HORIZONTAL SENSE VERTICAL HORIZONTAL SENSE HORIZONTAL VERTICAL SENSE VERTICAL . VERTICAL SENSE HORIZONTAL THE SITE: THE TEST EQUIPMENT THE TEST TECHNICIAN COMPLETE VIEW OF THE SITE