CFS8DL6150RFT3Security Keypad Transceiver

K4460-1V6 2/06 Rev C ADEMCO 6150RF ADEMCO 6150RFADEMCO 6150RF ADEMCO 6150RF Keypad/Transceiver Keypad/TransceiverKeypad/Transceiver Keypad/Transceiver INSTALLATION AND SETUP GUIDE GENERAL INFORMATION The 6150RF Keypad/Transceiver is a combination unit incorporating a normally-open relay output and the functions of: • 6150 Fixed Addressable Keypad • 5881M RF Receiver • 5800TM Transmitter Module The 6150RF Keypad/Transceiver may be used on any control panel that supports the 6150 Keypad. Wireless Features The 6150RF supports the following: • 5828/5828V wireless keypads. • Up to eight wireless keys locally (programmed directly into 6150RF) without occupying any zones supported by the control panel. • Button-type transmitters (e.g., 5804, 5804BD) for local operation. • A maximum of 16 transmitters programmed into any 5800 Series-supported control panel. • Wireless keys with high-security (e.g., 5804E). • RF jam detection when the receiver is enabled. • Low-battery indications for the local wireless keys. • A nominal range of 200' for the RF transmitters (some transmitters have a shorter range). • Wireless keys for control panels that do not support RF themselves (such as 4110DL). • Sends status signals (Armed, Ready, etc.) to bi-directional units such as 5804BDV and 5828/5828V. U UU U L LL L The 5802, 5802MN, 5802MN2, 5804, 5804BD, 5804BDV, 5804E, 5814, 5816TEMP, 5819, 5819BRS, 5819WHS, 5828/5828V and 5850 transmitters are not intended for UL installations. Programming Features • Auto Enroll mode for programming wireless keys. • Provides a method for deleting a serial number and re-enrolling a new one in its place. • Provides default settings for the wireless key functions. Additional Features • Operates the on-board relay in conjunction with the receiver (e.g., to trip a garage door opener). U UU U L LL L This feature is not intended for UL installations. • Activates relays programmed into the control panel. • Provides an End User mode to enable/disable local wireless keys (e.g., if a user accidentally loses a wireless key). Refer to the 6150RF User Guide for this procedure. INSTALLING THE 6150RF Locate the 6150RF in an area and at a height where it is convenient for user operation. The 6150RF must be at least 10 feet from the control panel to ensure proper operation of the RF receiver. Perform the following steps to install the 6150RF. 1. Push the two case release snaps at the bottom of the keypad with the blade of a medium screwdriver (this will push in the release snap), then pull that side of the case back away. Insert the screwdriver in the side of the keypad (between the front and back case) and gently twist to release the side locking tab. Repeat for the other side. Refer to Figure 1 for location of the case back release snaps and locking tabs. 2. Route the wiring from the control panel through the opening in the case back. (See the control panel’s instructions for proper wire run lengths.) 3. Mount the case back directly to a wall or electrical gang box. 4. Connect the power and data wires from the control panel to the terminals on the 6150RF as indicated in the wiring table adjacent to Figure 2. 5. Connect the wires for the relay output (if used) to the terminals on the 6150RF’s PC board. 6. Reattach the keypad to its case back. No te: Upon power-up or exit of the Program Mode, the 6150RF alternately flashes "Ad" and the 2-digit keypad address and the 2-digit receiver address on the display. Press any key to display the system status. NOTE: TO REMOVE CASE BACK PUSH IN THE TWO MOUNTING SNAPS LOCATED ALONG THE BOTTOM OF THE KEYPAD AND LIFT UP. 6150-006-V0 RETAINING SNAPS ARMED READY LOCKING TA B Figure 1 – Removing the 6150RF Case Back - 2 - WIRING TABLE Keypad Control Panel Wire Color
G Data In Green − − Aux Pwr (GND) Black + + Aux Pwr Red Y Data Out Yellow Note: NO (normally Open) and C (common) are the connections for the relay output + 6150RF-003-V2 NO C Y G Figure 2 - 6150RF Wiring Connections APPLICATION GUIDELINES Use the following guidelines when planning an installation: • Local wireless keys (wireless keys programmed directly into the 6150RF) may be used regardless of whether the RF receiver in the 6150RF is enabled or disabled. • If using bi-directional devices, be sure to enable the transmitter module in the 6150RF. • If transmitters are programmed into the control panel, be sure to enable the receiver. (Make sure you do not exceed the number of receivers supported by the control panel.) • If a local wireless key is programmed to arm/disarm or to trigger a relay on the control panel, a user code must be entered into the 6150RF. This user code must also be programmed into the control panel. • You must set the House ID only if you are using RF keypads and/or bi-directional devices; AND the House ID Source is the 6150RF (Local). 6150RF Application Guide The following guide outlines how to program the wireless keys, RF receiver, and the House ID in the 6150RF for your installation. * Two 6150RFs are needed for this application: one assigned to partition 1 and one assigned to partition 2. ** If using an RF keypad on only one partition, the 6150RF’s partition assignment in panel programming must match the partition. *** If set for Local on a partition control, the 6150RF’s partition assignment must match the one programmed in the BD device. Are you using 6150RF Programming Options System Control Panel RF keys beyond system’s capacity? RF receivers beyon d system’s capacity? RF keypads and/or Bi-directional de vices on mor e than 1 partition? Program Wireless Keys Into Receiver Enable House ID Source*** 4110DL, 4110XM, 4140XMP, VISTA-20HWSE N/A N/A N/A 6150RF OFF Local [0] NO NO N/A System ON [1] System [1] YES NO N/A 6150RF ON [1] System [1] VISTA-10P, VISTA-10SE, VISTA- 15, VISTA-15P, VIA-30PSE YES YES N/A 6150RF OFF [0] Local [0] NO NO NO System ON [1] System [1] YES NO NO 6150RF ON [1] System [1] YES YES NO 6150RF OFF [0] Local [0] NO YES YES* System OFF [0] Local [0] VIST…

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EXHIBIT 4-1 EXTERNAL PHOTOS CFS8DL6150RFT3 / 573F-6150RFT3 TOP PLASTIC: BOTTOM PLASTIC:

EXHIBIT 4-2 INTERNAL PHOTOS CFS8DL6150RFT3 / 573F-6150FT3 PCB IN PLASTIC: TOP OF PCB: BOTTOM OF PCB:

EXHIBIT 5-1 CFS8DL6150RFT3 / 573F-6150RFT3 Report of Measurements . Measurements for the Intentional Radiator,and OBW were made in accordance with the procedures and reporting requirements at: Honeywell's OATS ( FCC No: 152762 & IC No:573F-1 ) which is located at: 2 Corporate Center Drive, Melville, NY 11747. Measurements were made in accordance with the procedure and reporting requirements of ANSI C63.4-2003. The Test Set-Up (C63.4 section 10.1.3) is shown in EXHIBIT 5-2; "Test Setup Photos". 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 ( 3 Meters) with the EUT positioned at 80 cm 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 between one (1) and four (4) Meters to further maximize the received reading. Thereafter, the device was again rotated to a peak output position and the antenna height wa s 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. Note, The Spectrum Analyzer resolution bandwidths set as follows; (Video Bandwidth is always set 3X greater than RBW) For occupied bandwidth measurements, RBW = 30KHz and VBW = 100KHz. 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. TRANSMITTER RADIATED EMISSIONS are recorded in "EXHIBIT 5-3". OCCUPIED BANDWIDTH is recorded in "EXHIBIT 5-4". TEST EQUIPMENT ( per C63.4 section 10.1.4) is recorded in "EXHIBIT 6".

HONEYWELL SECURITY & CUSTOM ELECTRONICSREV J JULY 09 2 Corporate Center Drive Melville, NY 11747EXHIBIT 5-3FCC IDCFS8DL6150RFT3 Date : 05/11/2010 Tested by : G. Barbato Approved by : K. Eskildsen Test Sample (model) : 344.94 MHz 6150RFT3 Test method: ANSI C63.4 - 2004 Test specification: FCC Part 15, Sub-part C and RSS 210 , Issue 7 Notes: (1) Fo = 344.94 MHz. (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 LAST CAL 16 FEB 09 CABLE C LAST CAL 10 JUL 09 BICONILOG S/N:00045682 729 344.94h75.252.315.3544157.015.0%6623.67292 689.88h45.503.220.022729.015.0%409.3729 1034.82h38.134.424.852338.815.0%350.8500 1379.76h18.384.925.93288.715.0%43.3500 1724.70h18.485.526.96352.415.0%52.9729 2069.64h17.466.431.36576.815.0%86.5729 2414.58h13.216.932.15410.215.0%61.5729 2759.52 h 15.727.4 32.37595.015.0%89.2500 3104.46h16.027.932.73680.015.0%102.0729 3449.40h17.809.233.001000.015.0%150.0729 4000 LAST CAL 16 FEB 09 CABLE C LAST CAL 10 JUL 09 BICONILOG S/N:00045682

EXHIBIT 5-4 OCCUPIED BANDWIDTH CFS8DL6150RFT3/ 573F-6150RFT3 OBW = 184.4 KHz

EXHIBIT 5-6 CFS8DL6150RFT3 / 573F-6150RFT3 LINE CONDUCTED EMISSIONS Honeywell Conducted Emissions - 150 kHz - 30 MHz Line 1 100.0K1.0M10.0M100.0M Frequency 0 10.0 20.0 30.0 40.0 50.0 60.0 70.0 80.0 90.0 100.0 Amplitude (dBμV) Equipment ID: Console. C:\Tile4\GREG\6150R FT3.TIL Operator: GREG Console Greg 6150RF T3  quasi-peak average peak QP limit AV limit Honeywell Conducted Emissions - 150 kHz - 30 MHz Neutral 100.0K1.0M10.0M100.0M Frequency 0 10.0 20.0 30.0 40.0 50.0 60.0 70.0 80.0 90.0 100.0 Amplitude (dBμV) Equipment ID: Console. C:\Tile4\GREG\6150RF T3.TIL Operator: GREG Class B AVG Class B QP quasi-peak average peak Honeywell Security Quasi-peak and average Measurements on peaks Equipment ID: 6150RF T3 Operator: GREG C:\Tile4\GREG\6150RF T3.TIL Frequency CISPR B L1 QP margin L1 AVG margin Line 1 L2 QP margin L2 AVG margin Line 2 CISPR B KHz limit QP (dBμV) L2 QP (dBμV) L1 AV pass/fail (dBμV) L2 QP (dBμV) L2 AV pass/fail limit AVG 153.98 65.782 NAN NAN NAN NAN PASS NAN NAN NAN NAN PASS 55.782 169.9 64.965 NAN NAN NAN NAN PASS NAN NAN NAN NAN PASS 54.965 185.82 64.221 NAN NAN NAN NAN PASS NAN NAN NAN NAN 54.221 189.8 64.045 NAN NAN NAN NAN NAN NAN NAN NAN PASS 54.045 201.74 63.539 NAN NAN NAN NAN PASS NAN NAN NAN NAN 53.539 205.72 63.376 NAN NAN NAN NAN NAN NAN NAN NAN PASS 53.376 221.64 62.757 NAN NAN NAN NAN PASS NAN NAN NAN NAN PASS 52.757 237.56 62.181 NAN NAN NAN NAN PASS NAN NAN NAN NAN PASS 52.181 253.48 61.642 NAN NAN NAN NAN PASS NAN NAN NAN NAN PASS 51.642 269.4 61.136 NAN NAN NAN NAN PASS NAN NAN NAN NAN PASS 51.136 285.32 60.66 NAN NAN NAN NAN PASS NAN NAN NAN NAN 50.66 305.22 60.1 NAN NAN NAN NAN NAN NAN NAN NAN PASS 50.1 321.14 59.677 NAN NAN NAN NAN PASS NAN NAN NAN NAN 49.677 337.06 59.275 NAN NAN NAN NAN NAN NAN NAN NAN PASS 49.275

EXHIBIT 6 TEST EQUIPMENT USED CFS8DL6150RFT3 / 573F-6150RFT3 Section 15.231 and ANSI C63.4 This is a list of all test equipment used. Test Equipment list for Honeywell OATS: Equipment Mfg Model Cal Date Cal Due Spectrum Analyzer Rohde & Schwarz FSEA20 10/12/09 10/12/10 Antenna (‘Biconilog’) ETS (EMCO)Lindgren 3149 07/10/09 07/10/10 Transient Limiter HP 11947A 5/12/10 5/12/11 LISN EMCO 3825/2 10/16/09 10/16/10 PLEASE SE E PAGE 2- 6 FOR TEST EQUIPMENT TRACEABILITY If you need any additional information from Honeywell please contact: Greg Barbato RF Engineer (Acting for Ken Eskildsen) Phone (Direct): (516) 577-5863 Email: [email protected] I . : l:,irli r::::t::i.:,44i.,,i .: i:. illlil.,. lssue Date: 1011212009 Performed Bv: GENERAL CALIBRA-NON. INC. 2 MARS COURT MONTVILLE, NJ 07045 Equipmentlnformation ii '" ,:: Job No.: 018675 Manufacturer: R&S Description: SPECTRUM ANALYZER Deoartment: ALARMNET Temp./RH: 22 Ct45% Cal. Interval: 12 MONTHS CalDate:10t12t2009 Calibration Notes Company GENERALCALIBRATION 1031 GENERALCALIBRATION 434 GENERALCALIBRATION 650 GENERALCALIBRATION 774 GENERALCALIBRATION 967 General Calibration, Inc. 2 Mars Court, Boonton, New Jersey 07005 Phone (973) 299-2950 Fax (973) 299-0595 Asset Tag No.: MqdqlNumber: SerialNumber: Inspected By: Job Title: Calibration Result: Cal. Due Date: Certificate #: 15395MR Purchase Order: 5105648 Work Order #: MR309 Gustomer #: 001464 Location of Calibration: HONEYWELL SECURTTY (001464) 2 CORPOMTE CENTER DRIVE MELVILLE, NY 11747 10506 FSEA2O DE23427 MR::I METROLOGIST PASS 10t12t2010 Cal. Duo Date 02t02t2010 09t18t2010 12t08t2009 07 t13t2010 09t15t2010 Condition: Found In Tolerance and Lett In Tolerance Proceduro #GGP: R&S F$EA20 Standards Used To Calibrate Equipment | , ,,,' , ;,-',, r.D. SYNTHESIZED SWEEPER POWER SPLITTER POWER SPLITTER POWER SENSOR FUNCTION GENERATOR The above instrument has been checked and calibrated against the above working standard(s) which are traceable to the NIST. The test limits stated in the report correspond to the published specifications of the equipment, at the points tested. Afso, the collective uncertainties of measurement standards do not exceed 25o/o of lhe tolerance of the characteristics being caliprated, wlere possible. The metrology procedures utilized conform to and satisry the requirements set forth in ANSYNCSL 2540-1-1994,10 cFR part 21, lso 9001-2000, tso 10012-2003. and MtL-srD 4s662A. Approved By. General Calibration, Inc. - Q. A. Manaqer Page +of 1 This cedifcate is not a contrad. We are not responsible for any damages resulting from the use ofthese standards by the customel This cedificate shall not be reproduced, except in tull, without the witen notification ofceneral Calibralion: Inc. fssue Date:05/1212009 General Calibration, Inc. 2 Mars Court, Boonton, New Jersey 07005 Phone (973) 299-2950 Fax (973) 299-0595 Certificate #: 1€09MR Purchase Order: 5105648 Work Order #: MR267 Customer #: 00{4'84 GENEML CALIBMTION. INC. 2 MARS COURT BarCode: 096188 [4anukstu ref; *_hlP__*_ -o,pxnpti-o:t-"-..JRAN$EI-\I.LMIIEB -."._" .""-"*"" * HONEYWELL SECURTTY (1464) 2 CORPORATE CENTER DRIVE MELVILLE, NY 11747 Instrument l.D.: 10131 JilsdeLNumheL* **1J9*74 SerialNumber: 3107A02782 "-Qene,rtmsnL- Inspected By: MR1 MONTVILLE, NJ 07045 Jemp"lB,U- " ?2. *9*L H"- ls Job Title;- . *.."..".-...* -[dE]ROLQ.G|ST"* _. * Calibration Result: PASS Cal.lnterval: 12 MONTHS CalDate: 05t12t2049 Cal. Due Date: 5nznu0 Found In Tolerance and Left ln Tolerance GENFRAKEAUBBATI,9.N *. 5OE**SPESIBUMAIIAIYZF,R 9EN_E"RAI"_C.AHBR/$tON*-*93__8__*_S_|S1\|A"L**qE-NF"BAT_9B" __" *._". __*Q31-11/2010 08/2512009 The above instrument has been checked and calibrated against the above working standard(s) which are traceable to the NIST. The test limits stated in the-report correspond to the published specifications of the equipment, at the points tested. Also, the collective uncertainties of measurement standards do not exceed 25% of the tolerahce of the characteristics being 9?1i!Ft9_d.wlgre possible. The metrology procedures utilized conform to and satisry the requirements set forth in ANSyNCSLZS40-1-1994, 10 CFR part21, tSO 9001-2000, tso 10012-2003, and MtL-srD'45662A. Approved av &ed g w.- General Calibration, Inc. - Q. A. Manager This cerdficate as not a contnct. We are not respon6ible lor any damag* rsult g tom lhe 6e of th€se standards by the dstomet This ertificate shall not be reprcduced, exept in full, without the witten noljf€tion oI General Calibration; Inc. , :,,i lil"''"i,t'': .i':il "'=' f ssue Date:1011612009 Pgff.(lf .iiEvi....,.,.l :,rr,rlr,,-.,,,,.,,,,,.'l,'..,,.,,,,:,ll' GENEML CALIBRATION, INC. 2 MARS COURT MONTVILLE, NJ 07045 Equipment lnformation . ,,:, Job No.: 004345 Manufacturer: EMCO Description: LISN Department: BLDG. 163 Temp./RH: 22 C | 45 % Cal. Interval: 12 MONTHS CalDate: 1011612009 GENERALCALIBRATION 7OO General Calibration, Inc. 2 Mars Court, Boonton, New Jersey 07005 Phone (973)299-2950 Fax (973) 299-0595 Certificate #: 15434MR Purchase Order: 51056€ Work Order #: MR309 Customer #: 001464 -:i ::: ::.ai:::: . a::a::ar:.:, . r' .Gel;;t0trr;,8ffi 05t28t2010 01t16t2010 HONEYWELL SECURtry (001464) 2 CORPORATE CENTER DRIVE MELVILLE, NY 11747 Asset Tag No.: ModelNumber: SerialNumber: Inspected By: Job Title: Calibration Result: Cat, Due Dqte: DIGITAL MULTIMETER 04892 3825t2 1076 MR,1 METROLOGIST PASS 10t16/2010 l ;,1r1;ls , r.t' I ,,li tli , l The above instrument has been checked and calibrated against the above working standard(s) which are traceable to the NIST. The test limits stated in the report correspond to the published specifications of the equipment, at the points tested. Also, the collective uncertainties of measurement standards do not exceed 25% of the tolerance of the characteristics beino calibrated, where possible. The metrology procedures utilized conform to and satisfy the requirements set forth in ANSI/NCSL 2540-1-1994,10 CFR part 21, ISO 9001-2000, tSO 10012-2003, an…

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5.2 AC power line conducted emission test requirements C63.4-2003 NOTE: A RBW OF 9 KHz AND A VBW OF 30 KHz WERE USED. AC powerline conducted emission measurements may be made at a facility that meets the requirements of this clause. This may include a shielded (screened) room or a radiated emission test site. 5.2.1 Reference groundplane The reference groundplane for measuring ac powerline conducted emissions is to consist of a floor earthgrounded conducting surface, which may be the metal floor of a shielded test chamber. The reference groundplane is to be at least 2 m by 2 m in size, and shall extend at least 0.5 m beyond the vertical projection (footprint) of the EUT or EUT arrangement. If the EUT normally does not make electrical contact with a groundplane, the reference groundplane shall be covered by insulating materials up to 12 mm thick. 5.2.2 Vertical conducting plane For measurements of ac powerline conducted emissions on a tabletop device, a vertical conducting plane or screen of at least 2 m by 2 m in size, shall be, if required, located 40 cm to the rear of the EUT. The vertical conducting plane or screen shall be electrically connected to the reference groundplane at intervals not greater than 1 m along its entire length through low impedance connections, e.g., 3 cm-wide metal straps. The metal wall of a screen room will normally satisfy this requirement. A tabletop device may be measured for ac powerline conducted emissions without a vertical conducting plane while maintaining the 80 cm EUT elevation specified in 6.2.1. However, in case of a dispute, ac powerline conducted emission measurements made on a tabletop device with a vertical, conducting plane in place shall take precedence. A vertical, conducting plane is not required for ac powerline conducted emissions measurements on a floorstanding device. A vertical, conducting plane shall not be used for any radiated emission measurements. 5.2.3 LISN installation LISNs may be required for ac powerline conducted emission measurements and may be used for radiated emission measurements. For exceptions, see 5.6. 5.2.3.1 LISN connected to the reference groundplane Where use of a LISN is required (see Clause 7), it shall be placed on and electrically bonded to the top surface of, or immediately beneath, the reference groundplane and bonded to the groundplane. If LISNs are kept on the test site for radiated emission measurements, it is preferred that they be installed under the reference groundplane with the ac power receptacle flush with the reference groundplane. Otherwise, NSA requirements may not be able to be met. The impedance at the receptacle end of any cable connected to the EUT end of the LISN (as contrasted to the impedance at the LISN terminals given in Figure 1), with the measuring instrument port of the LISN terminated in 50 Ω, shall be within +30% and –20% of the nominal LISN impedance shown in Figure 1 over the frequency range of the network to be used. See 4.1.2. If the attenuation (insertion loss) between the EUT receptacle and the measuring instrument port on the LISN is more than 0.5 dB, (see Annex E as an example of a method of measurement) it shall be taken into account when calculating the EUT emission levels. The site reference groundplane is the ground reference for the LISN. Ambient noise may be present on the ac powerlines at some locations and at some frequencies within the frequency range of interest. If the levels are sufficient to cause interference with readings made using an LISN, filtering of the ac power may be required. The filter should be inserted between the ac power supply and the ac input connection to the LISN, preferably as close as possible to the LISN to reduce interference pickup by the leads between the filter and the LISN. Where an isolation transformer is used between the ac power supply and the LISN, care shall be taken to ensure that this transformer’s rating is large enough to not affect the peak current drawn by the EUT (this may require up to ten times the kilovolt-ampere rating of the EUT). If other than air core inductors are used in the LISN, they shall be in a linear permeability range at the peak currents drawn by the EUT.

EXHIBIT 5-2 A PICTURE OF THE TEST SETUP CFS8DL6150RFT3 / 573F-6150RFT3 SECTION 2.1093 (c) SECTION 2.1093 (c) Photo of the test setup shall be provided. HONEYWELL’S OATS MEASUREMENT FACILITY AT: 2 CORPORATE CENTER DRIVE MELVILLE, NY 11747 PICTURES OF THE CFS8DL6150RFT3 / 573F-6150RFT3 UNDER TEST:

PICTURE OF CONDUCTED TEST SETUP WITH LISN