
Text extracted from the exhibit documents filed with the FCC. Open a document above to read the original.
ADEMCO LYNXR-ENSIA Security Systems Installation and Setup Guide AWAY OFF STAY AUX LIGHTSON RECORD LIGHTSOFF STATUS TEST VOLUME CODE NODELAY BYPASS PLAY CHIME FUNCTION DELETE ESCAPE ADD SELECT ARMED READY 4 5 6 7 8 9 0 # 1 2 3 PREK5963-2 (bx) 7/05 Rev. A β2β RECOMMENDATIONS FOR PROPER PROTECTION The Following Recommendations for the Location of Fire and Burglary Detection Devices Help Provide Proper Coverage for the Protected Premises. Recommendations for Smoke and Heat Detectors With regard to the number and placement of smoke/heat detectors, we subscribe to the recommendations contained in the National Fire Protection Association's (NFPA) Standard #72 noted below. β’ Early warning fire detection is best achieved by the installation of fire detection equipment in all rooms and areas of the household as follows: For minimum protection a smoke detector should be installed outside of each separate sleeping area, and on each additional floor of a multi-floor family living unit, including basements. The installation of smoke detectors in kitchens, attics (finished or unfinished), or in garages is not normally recommended. β’ For additional protection the NFPA recommends that you install heat or smoke detectors in the living room, dining room, bedroom(s), kitchen, hallway(s), attic, furnace room, utility and storage rooms, basements and attached garages. In addition, we recommend the following: β’ Install a smoke detector inside every bedroom where a smoker sleeps. β’ Install a smoke detector inside every bedroom where someone sleeps with the door partly or completely closed. Smoke could be blocked by the closed door. Also, an alarm in the hallway outside may not wake up the sleeper if the door is closed. β’ Install a smoke detector inside bedrooms where electrical appliances (such as portable heaters, air conditioners or humidifiers) are used. β’ Install a smoke detector at both ends of a hallway if the hallway is more than 40 feet (12 meters) long. β’ Install smoke detectors in any room where an alarm control is located, or in any room where alarm control connections to an AC source or phone lines are made. If detectors are not so located, a fire within the room could prevent the control from reporting a fire or an intrusion. THIS CONTROL COMPLIES WITH NFPA REQUIREMENTS FOR TEMPORAL PULSE SOUNDING OF FIRE NOTIFICATION APPLIANCES. DINING KITCHEN BEDROOM BEDROOM . Smoke Detectors for Minimum Protection Smoke Detectors for Additional Protection Heat-Activated Detectors BEDROOMBEDROOM BEDROOM BEDROOM LIVING ROOM TV ROOM DINING LIVING ROOM LIVING ROOM BASEMENT BEDROOMBEDROOM BEDROOM CLOSED DOOR GARAGE KTCHN KITCHEN TO BEDROOM 01000-002-V0 Recommendations For Proper Intrusion Protection β’ For proper intrusion coverage, sensors should be located at every possible point of entry to a home or premises. This would include any skylights that may be present, and the upper windows in a multi-level building. β’ In addition, we recommend that radio backup be used in a security system. This will ensure that alarm signals can be sent to the alarm monitoring station in the event that the telephone lines are out of order (alarm signals are normally sent over the phone lines, if connected to an alarm monitoring station). β3β Table of Contents SYSTEM FEATURES ...............................................................................................................................................4 MOUNTING THE CONTROL..................................................................................................................................5 WIRING CONNECTIONS........................................................................................................................................6 AC POWER AND BACKUP BATTERY...................................................................................................................9 INSTALLING WIRELESS ZONES........................................................................................................................11 MECHANICS OF PROGRAMMING .....................................................................................................................14 ZONE RESPONSE TYPE DEFINITIONS ............................................................................................................15 DATA FIELD DESCRIPTIONS .............................................................................................................................17 β»56 ENHANCED ZONE PROGRAMMING MODE .............................................................................................27 β»80 DEVICE PROGRAMMING MENU MODE ...................................................................................................31 β»81 ZONE LIST MENU MODE.............................................................................................................................34 β»83 ENHANCED SEQUENTIAL MODE .............................................................................................................35 β»84 ASSIGN ZONE VOICE DESCRIPTORS .......................................................................................................38 β»85 RECORD CUSTOM VOICE DESCRIPTORS................................................................................................40 VOICE PROMPT PROGRAMMING ......................................................................................................................41 REMOTE PROGRAMMING/CONTROL (DOWNLOADING) .............................................................................45 SYSTEM OPERATION ...........................................................................................................................................47 TESTING THE SYSTEM........................................................................................................................................53 SYSTEM COMMUNICATION ............................................................................................β¦
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Untitled Hi Tim, Yor wrote; I reply: 1) Schematic must include reference designators and values or have an appropriate parts list provided. Please note that current schematic does not contain any reference designators. Please correct. Please see "EXHIBIT 2-3B" 2) FCC desires actual test photographs and not simply a test diagram. Please provide test configuration photographs on the test site if available. Please see "EXHIBIT 5-2B" 3) Please note that AC conducted emissions are required for the TX condition as well. It is uncertain if the data provided covers both TX and RX conditions. Please review. The conducted was done in both RX & TX modes. > 4) Information does not appear to be provided to support compliance to the 5 second 15.231 > requirement. Please provide for each mode (Alarm, Keypad-control signals, confirmation > forwarding signals from remotes) as necessary. All of our equipment is microprocessor or ASIC controled. The Microprocessor or ASIC is programmed so that the 5 second requirement of 15.231 cannot be violated. > 5) Do all signaling types/packets meet the same timing requirements as shown. Please explain. Yes, absolutely. There is only one type of packet. Only the individual bits within the packet change (this represents the different signaling types) > 6) It is uncertain if this device sends a single packet per event (including alarm condition), or transmits > for the duration of the alarm. Please clarify. Our normal message is a sextet (6 Packets) sent only once; blindly, and without supervision. Only Life / Safety messages ( such as a PANIC , or FIRE ) are sent continualy until a restore command or condition is initiated. Regards, Greg Barbato Page 1
American Telecommunications Certification Body Inc. 6731 Whittier Ave, McLean, VA 22101 May 26, 2006 RE: Honeywell FCC ID: CFS8DLLYNXREN-5 (FCC Review) After a review of the submitted information, I have a few comments on the above referenced Application. 1) Test Photographs only support this device laying down. Please note that given this device is wall mounted, positioning should default to typical position which would be upright position. If this was not investigated, further testing/investigation will be required. Please review. (ANSI C63.4 6.1.1, 6.2, etc.) For IC 2) Label does not show that applicant as certified is given on the label. Please review. 3) FYI....In the future, please ensure BW for IC is measured using a VBW > 3 * RBW. Timothy R. Johnson Examining Engineer mailto: [email protected] The items indicated above must be submitted before processing can continue on the above referenced application. Failure to provide the requested information may result in application termination. Correspondence should be considered part of the permanent submission and may be viewed from the Internet after a Grant of Equipment Authorization is issued. Please do not respond to this correspondence using the email reply button. In order for your response to be processed expeditiously, you must submit your documents through the AmericanTCB.com website. Also, please note that partial responses increase processing time and should not be submitted. Any questions about the content of this correspondence should be directed to the sender.
Tim, You wrote; I reply: After a review of the submitted information, I have a few comments on the above referenced Application. > 1) Test Photographs only support this device laying down. Please note > that given this device is wall mounted, positioning should default to > typical position which would be upright position. If this was not > investigated, further testing/investigation will be required. Please > review. (ANSI C63.4 6.1.1, 6.2, etc.) The unit was tested in all orthogonal plains as required by ANSI C63.4 6.1.1, 6.2, etc. , I was not aware that we needed a photo for each plain, I thought just a close-up of the unit during test was sufficient - next time we can supply that. OK? > For IC > 2) Label does not show that applicant as certified is given on the > label. Please review. Label fixed please see "EXHIBIT 8A" > 3) FYI....In the future, please ensure BW for IC is measured using a > VBW > 3 * RBW. Done > Timothy R. Johnson > Examining Engineer Subject: RE: Review of Honeywell International Inc., FCC ID: CFS8DLLYNXREN-5 after recent uploads From: "Barbato, Greg [S&FS]" <[email protected]> To: "Timothy R. Johnson" <[email protected]> Page 1 of 1CFS8DLLYNXREN-5 5/26/2006Printed for "Timothy R. Johnson" <[email protected]>
American Telecommunications Certification Body Inc. 6731 Whittier Ave, McLean, VA 22101 May 26, 2006 RE: Honeywell FCC ID: CFS8DLLYNXREN-5 (FCC Review) After a review of the submitted information, I have a few comments on the above referenced Application. 1) FYI....Per our discussions, please ensure all test results are reported to ANSI C63.4-2003 edition. Timothy R. Johnson Examining Engineer mailto: [email protected] The items indicated above must be submitted before processing can continue on the above referenced application. Failure to provide the requested information may result in application termination. Correspondence should be considered part of the permanent submission and may be viewed from the Internet after a Grant of Equipment Authorization is issued. Please do not respond to this correspondence using the email reply button. In order for your response to be processed expeditiously, you must submit your documents through the AmericanTCB.com website. Also, please note that partial responses increase processing time and should not be submitted. Any questions about the content of this correspondence should be directed to the sender.
EXHIBIT 8 FCC PART 15 LABEL CFS8DLLYNXREN-5 SECTION 2.1033 (c) SECTION 2.1033 (c) and Part 15.21 SECTION 2.1033 (c) Label and label location - A photo showing the identification label clearly (you must be able to see the name and FCC ID number), and the location on the device. In lieu of a photo for this, you may submit a engineerβs drawing. Part 15.21 Statement - for all intentional and unintentional radiators is also printed on the label. MODEL: LYNXR-ENSIA FCC ID: CFS8DLLYNXREN-5 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. IC: 573F-LYNXREN5 MANUFACTURED BY: Honeywell International Inc. NOTE: THIS IS THE IC TELCO LABEL AND IT IS ONLY PLACED ON UNITS GOING TO CANADA
COVER LETTER FOR THE LYNXRE-NSIA To Whom It May Concern: The LYNX Model LYNXR-ENSIA is physically and electrically identical to The LYNXR-EN Certified as: FCC ID: CFS8DLLYNXREN-4 / IC: 573F-LYNXREN4 We are requesting new FCC & IC ID Numbers to go along with the new Model Name: LYNXR-ENSIA. The LYNXR-ENSIA has Special software for the UL-SIA Listing. This is a special UL Listing that guarantees alarm faults meet certain conditions thereby reducing the number of false alarms sent by the system. This system will be sold in addition to the normal LYNXR-EN family for high security (Bank / Jewelry store) installations. Please also note that we are charged for IC Telco Label & therefore it only goes on units going to Canada.
EXHIBIT 1 FCC I.D.: CFS8DLLYNXREN-5 Functional Description. The LYNXR-ENSIA fixed transceiver is part of Honeywell / Ademco's wireless 5800 alarm system. It is used in conjunction with portable transmitters (e.g. 5804) or portable transceivers (e.g. 5804BD). This allows remote control of the alarm system and provides remote indication that a control instruction has been enacted. In addition control events and alarm events initiated at the Lynx keypad are also transmitted to wireless relay and wireless siren type devices. These messages are transmitted at 345Mhz +/-82kHz using on-off keyed AM modulation. The LYNX does not send a regular supervision or check-in message, it sends no other messages except alarm messages, control messages initiated at the Lynx keypad, and messages which are a confirmation of reception of manually initiated control messages which have been received from portable remote control transmitters.
EXHIBIT 2-1 FCC ID: CFS8DLLYNXREN-5 Circuit Description. The LYNXR-ENSIA is the latest version of the LYNXREN. Like the CFS8DLLYNXREN-3, the LYNXR-ENSIA is constructed on a pair of PCBs interconnected via a ribbon cable. The main difference is a change to the battery charger and a interfacing circuit the RF copper and RF circuit are identical, but the PC Board went through a re-layout.The main PCB contains the RF transmitter and receiver circuitry as well as all control, display, keypad and annunciation circuitry. The transmitter is a SAW resonator Colpitts oscillator, Q26, YL5, etc. The transmitter is on-off keyed (AM) modulated by a control signal from the micro controller U18 which turns PA Q30 on or off via Q28/Q29, thus modulating the output signal. The RF output signal is connected to two PCB mounted antennas via FL1 & diodes CR32/CR33. The receiver is a βsuperhetβ with a single intermediate frequency at 10.7MHz. Q31 etc. is the low noise amplifier which is connected to the PCB mounted antennas. Diodes CR32/CR33 under the control of a micro controller are periodically switched to provide system antenna diversity. The IC U22 includes a balanced mixer, & phase locked L.O. (YL1 @ 10.446875 Mhz X 34 = 355.7 Mhz) which converts the incoming signal down from 345MHz to 10.7MHz. This IC also includes the required IF gain and detected output. FL3 is a ceramic IF filter. IC U19 performs baseband filtering and processing and provides a data signal.
EXHIBIT 3-1 CFS8DLLYNXREN-5 Message Protocol, Timing, and Duty Cycle Calculation The data output is phase encoded Manchester which has an inherent 50% duty cycle. The transmitted data rate is 3.7345 KBS +/- 0.5% i.e. each bit is typically 267 uS. in duration. Thus, 267 uS X 8 bits = 2.14 mS per byte and there are 2bytes of Preamble, 4bytes (L0-L3), 2Bytes of CRC, 1Byte for Message Type, 3Bytes for Tokens, and 2Bytes of Crc for a total of 14 bytes This equals 2.14 mS X 14 = 29.9999mS, since Duty Cycle = Actual RF Transmission ON time / 100 mS. 29.9999mS / 2 (inherent Manchester duty cycle) = 15% duty cycle Per 100 mS period.
K10338LF
EXHIBIT 5-1 CFS8DLLYNXREN-5 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 C63.4-2003. The Test Set-Up (C63.4 section 10.1.3) is shown in the attached photograph. 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 = 3 X RBW - 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. - 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 i.e.; 345 MHz X 0.25% = 862,500 KHz X 5% = 43,125 KHz min RBW ). THE TEST SETUP PHOTOS are shown in EXHIBIT 5-2. TX RADIATED EMISSIONS are recorded in EXHIBIT 5-3. TX OCCUPIED BANDWIDTH is shown in EXHIBIT 5-4. RX RADIATED EMISSIONS are recorded in EXHIBIT 5-5. ALL CONDUCTED EMISSIONS are recorded in EXHIBIT 5-6
HONEYWELL SECURITY & CUSTOM ELECTRONICS 165 EILEEN WA Y SYOSSET, NY 11791EXHIBIT 5-3 FCC ID # CFS8DLLYNXREN-5 Date : 4/10/2006 Tested by :Y. Mohammed Approved by :K.Addy Test Sample (model) : LYNXR-ENSIA Test method: ANSI C63.4 - 1992 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"BICONILOG729 345H68.001.214.7815812.515.0%2371.97292 690H35.001.819.10623.715.0%93.6729 1035H29.002.222.70495.515.0%74.3500 1380H28.002.524.96592.915.0%88.9500 1725H30.002.827.551041.115.0%156.2729 2070H33.003.029.521888.015.0%283.2 500 2415H28.003.331.131322.815.0%198.4729 2760 H 28.003.7 31.501445.415.0%216.8729 3105H28.004.131.611532.915.0%229.9729 3450H28.004.432.221702.215.0%255.3729 4000 CABLE "A"BICONILOG
LYNXR-ENSIA OCCUPIED BANDWIDTH (487 KHz)
EXHIBIT 5-5 CFS8DLLYNXREN-5 / 573F-LYNXREN5 Section 15.231 (Periodic operation above 70 MHz.) In addition to the provisions of Section 15.205, the field strength of emissions from intentional radiators operated under this Section shall not exceed the following: Frequency Fundamental Spurious (MHz) (microvolts/meter) (microvolts/meter) 260 - 470 3,750 to 12,500 ** 375 to 1,250 ** NOTE: ** linear interpolations NOTES: (1) The above field strength limits are specified at a distance of 3 meters. The tighter limits apply at the band edges. (2) Intentional radiators operating under the provisions of this Section shall demonstrate compliance with the limits on the field strength of emissions, as shown in the above table, based on the average value of the measured emissions. As an alternative, compliance with the limits in the above table may be based on the use of measurement instrumentation with a CISPR quasi-peak detector. The specific method of measurement employed shall be specified in the application for equipment authorization. If average emission measurements are employed, the provisions in Section 15.35 for averaging pulsed emissions and for limiting peak emissions apply. Further, compliance with the provisions of Section 15.205 shall be demonstrated using the measurement instrumentation specified in that section. (3) The limits on the field strength of the spurious emissions in the above table are based on the fundamental frequency of the intentional radiator. Spurious emissions shall be attenuated to the average (or, alternatively, CISPR quasi-peak) limits shown in this table or to the general limits shown in Section 15.209, whichever limit permits a higher field strength. (4) Fo = 345MHz.LO = 334.3MHz(345-10.7 ) Crystal frequency = 20.89375 (5) Detector = Peak (6) Frequency range scanned to 4 GHz. (Emissions not reported were more than 20dB below the specified limit). [(Meter reading + Cable/Amp factor + Antenna factor) / 20 )] (7) Conv. Reading = 10 (8) Corr. Reading = Conv. Reading X Duty Cycle (9) Date : 4/10/2005 Tested by :Y. Mohammed Approved by : Ken Addy 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) CABLE "A"BICONOLOG 20.89375H24.000.009.1045.2100.0%45.2100 41.78750H24.000.309.2047.3100.0%47.3150 62.68125H24.000.409.4149.0100.0%49.0150 83.57500H24.000.5010.1053.7100.0%53.7150 104.46875H24.000.7110.3656.7100.0%56.7200 125.36250H24.000.7512.4272.2100.0%72.2200 146.25625H24.000.8013.3981.2100.0%81.2200 167.15000H24.00 0.86 13.4482.2100.0%82.2200 188.04375H24.000.9011.5566.5100.0%66.5200 208.93750H24.001.0011.6367.8100.0%67.8200 229.83125H24.001.0511.9771.0100.0%71.0200 250.72500H24.001.1012.0371.9100.0%71.9200 271.61875H24.001.1212.8078.7100.0%78.7200 292.51250H24.001.1313.3283.7100.0%83.7200 313.40625H24.001.1513.6286.8100.0%86.8200 334.30000H24.001.1214.191.4100.0%91.4200 355.19375H24.001.3015.06104.2100.0%104.2200 376.08750H24.001.3515.93115.9100.0%115.9200 396.98125H24.001.4016.33122.0100.0%122.0200 417.87500H24.001.4516.45124.5100.0%124.5200 CABLE "A"BICONOLOG
EXHIBIT 5-6 Conducted Limits CFS8DLLYNXREN-5 / 573F-LYNXREN5 15.207 Conducted Limits. (a)... for an intentional radiator that is designed to be connected to the public utility (AC) power line, the radio frequency voltage that is conducted back onto the AC power line on any frequency or frequencies, within the band 150 kHz to 30 MHz, shall not exceed the limits in the following table, as measured using a 50 ΞΌH/50 ohms line impedance stabilization network (LISN). Compliance with the provisions of this paragraph shall be based on the measurement of the radio frequency voltage between each power line and ground at the power terminal. The lower limit applies at the boundary between the frequency ranges. (c) Measurements to demonstrate compliance with the conducted limits are not required for devices which only employ battery power for operation and which do not operate from the AC power lines or contain provisions for operation while connected to the AC power lines. Devices that include, or make provisions for, the use of battery chargers which permit operating while charging, AC adapters or battery eliminators or that connect to the AC power lines indirectly, obtaining their power through another device which is connected to the AC power lines, shall be tested to demonstrate compliance with the conducted limits. ---------------------Conducted limit (dBΞΌV) ---------------------------- Frequency of emission (MHz) Quasi-peak Average 0.15-0.5................................................. 66 to 56*.......... 56 to 46* 0.5-5........................................................... 56..................... 46 5-30............................................................ 60..................... 50 -------------------------------------------------------------------------------- * Decreases with the logarithm of the frequency.
EXHIBIT 6 TEST EQUIPMENT USED CFS8DLLYNXREN-5 / 573F-LYNXREN5 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: 00029290 Cal. on: 09/12/05 Cal. due: 09/12/06 2. Spectrum Analyzer H. P. 8563E S/N:3246A00232 Cal. on: 08/20/05 Cal. due: 08/20/06 Part 68 1. Spectrum Analyzer Agilent HP8593E Cal. on: 2/16/06 Cal. due: 2/16/07 2. Surge Suppressor Agilent HP11947A Cal. on: 5/02/05 Cal. due: 5/02/06 3. Line Impedance Stabilization Network Com-Power LI-115 Cal. on: 2/13/06 Cal. due: 2/13/07
165 Eileen Way Β· Syosset, New York Β· United States
| # | Rule Parts | Frequency Range | Power Output |
|---|---|---|---|
| 1 | 15.231 | 345 MHz - 345 MHz | - |

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