OCQLA-XXWPRXKYMXSecurity Badge Reader

December 12, 2000www.iolan.comPage: 1 Iolan Systems, Inc. 912 ½ E 37 TH ST Austin TX 78705-1808 Tel: (512) 708 10 71 Fax: (512) 708 10 91 CONCEPT SALES SPECIFICATIONS LA-XXW-PRXKY-MX This device complies with part 15 of the FCC Rules. Operation is subject to the fol- lowing two conditions: (1) This device may not cause harmful interference, and (2) this device must accept any interference re- ceived, including interference that may cause undesired operation. The user is warned that any changes or modifications not expressly approved by Iolan Systems, Inc. could void the user’s authority to operate the LA-XXW-PRXKY-Mx Badge reader. LA-XXW-PRXKY- Mx ISI Mifare Reader XXW Wiegand II.docwww.iolan.comPage: 2 1.Contents 1.CONTENTS...................................................................................................................................................2 2.PURPOSE OF THIS DOCUMENT...............................................................................................................3 3.DESCRIPTION OF THE READER..............................................................................................................3 4.DATA AND RELATION WITH TC NETWORK........................................................................................3 5.TECHNICAL DATA.....................................................................................................................................4 6.PARAMETERS OF THE MODULE............................................................................................................5 7.DIMENSIONS OF THE MODULE:.............................................................................................................5 8.CONNECTING..............................................................................................................................................6 9.WIEGAND PROTOCOL..............................................................................................................................6 9.WIEGAND PROTOCOL..............................................................................................................................7 10.CHARACTER COMPOSITION.............................................................................................................7 11.METHOD OF SENDING AND TIMING...............................................................................................8 LA-XXW-PRXKY- Mx ISI Mifare Reader XXW Wiegand II.docwww.iolan.comPage: 3 2.Purpose of this document This document gives a full explanation of the possibilities of the LA-XXW-PROXKEY-MC. This information can be used, for example, in sales documentation. 3.Description of the reader The LA-XXW-PROXKEY-MC is a ‘wallmount-module,’ a reader for MIFARE® tags. The module is designed for identification purposes. It uses a Wiegand data-interface to read a card number, or any other kind of data, and to send it to the connecting unit. There are three indicators: red, green and yellow. The yellow lamp blinks when the card is successfully read. A buzzer is available to give signals as programmed 4.Data and Relation with TC Network The reader can be connected to a network as shown in this scheme: PC MET IOLAN_TC BEHEER NETWORKITEM : LA-WIW-PROXKEY-B SERVER NETWERK MET DATABASE PC MET IOLAN_TC PC-LAN SPANT 3 SPANT 4 LA-TCR-RSOMZ-B SYSTEEM MET MEERDERE MODULEN KANAALNUMMERS DIENEN ALS VOORBEELD EENVOUDIGSTE OPSTELLING RS232-KABEL PC MET IOLAN_TC LA-TCB-2WI-2I-2R K8 LA-TCK-2WI-4I-2Y K9220Vac LA-TCB-PANEL K10 LA-TCX-DISPLAY K11 LA-TCR-RSOMZ-B LA-TCB-8AN SPANT 1 SPANT 2 K12 ANALOGE INPUTSDISPLAY MODULE LA-CHP-8A-8S-H LA-CHP-8A-8S-V LA-CHP-8A-8S-R2X LA-WIW-PROXKEY-B LA-WIW-PROXKEY-B LA-TCK-2WI-4I-2Y & LA-TCI-RSOMZ-A 220Vac LA-WIW-PROXKEY-B LA-WIX-PROXKEY-M LA-CHR-8I-8Y LA-CHR-16I-16Q LA-CHP-8A-8S-G DIGITALE INPUT EN OUTPUT IOLAN GEBOUWAUTOMATISERING PROJECTNAAM ONDERWERP : : STANDAARDISERING IOLAN NETWERK LA-WIW-PROXKEY-BDEEL :NETWERKSYMBOLIEK GET. GEW. GEW. GEW. E.LEMMPROJECTNR. TEKENING NR. 13-10-1997 R086 E003 LA-XXW-PRXKY- Mx ISI Mifare Reader XXW Wiegand II.docwww.iolan.comPage: 4 5.Technical data Input Input • 4.5 to 24 Volt +/- 10%. The power input is included in a 6 pin connector. In cooperation with IOLAN-modules the power is supplied. • 100 - 150 mA. (rest – reading / writing tag) Technical data WI interface • 6 pins connector with: • 2x power supply • 2x lamp switcher • 2x data. Wiegand ‘clock-data’ • Data structure according to ISO 7811/2-1986 TRACK 2 Reading distance • 25mm typical, min 10mm max 35mm met transponder types : MF1- S50, MF1-P60 en MF1-L10 Operating frequency • 13,56 Mhz. Data-transport transmitting speed • 106kBd FCC ID • OCQLA-XXWPRXKYMX Security • Data encrypted, protected against recording and ‘replay-attack’. Possibilities Transponders • Can read from MIFARE® card types 1, 2, and 3. • Reader can hold one key (A or B) and one read location for transponder-identification. • Flexible transponder-code length. Indicators • One LED with options: Red, Green. For logistic matters. E.g.: red: no access; green: access allowed. • Panel can turn LED’s on or off. Mechanical aspects Material housing • Typical W-housing • Black plastic housing, ABS plastic house. • Dimensions (without connectors; HxBxL mm ) 21x71x71mm. See drawing R086EF02. Connection to wall • 2x 3mm opening on 60mm distance. See drawing R086EF02. Cable connectors • Max. diameter 1.5 mm 2 • Connectors 1x6 pins Protection • When connector-protected IP66. Temperature • Stock -10..70 o Celsius; 14..158 Fahrenheit • Operating temp -10..50 o Celsius; 14..122 Fahrenheit Installation Connectors6 Pins or 9 Pins , Ordernumber: EC220004 ! Mounting place • When mounting, outside connector must be protected with lacquer, or the edges must be made watertight. Ordering information TypeLA-XXW-PRXKY-MX Order numberLA140110 LA-XXW-PRXKY- Mx ISI Mifare Reader XXW Wiegand II.docwww.iolan.comPage: 5 6.Parameters of the module There are no switches on the module; howeve…

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Mifare Transmitter 13.56 MHz Badge Signal Processing Circuitry 11 MHz DC Power Printed Circuit Antenna Iolan Badge Reader Block Diagram

EMC Automation 1101 CYPRESS CREEK RD • CEDAR PARK TX 78613 • USA PHONE: (+1) 512-258-9478 • FAX: (+1) 512-258-0740 WWW.EMC-AUTOMATION.COM A TDK Group Company Curtis-Straus LLCNovember 7, 2000 Attn: Jon Curtis 527 Great Road Littleton, MA 01460 FCC ID: OCQLA-XXWPRXKY-Mx Dear Mr. Curtis: My name is Michael E. Hill. I am the Manager-Test Facility for EMC Automation. We recently tested the Iolan Systems Inc. (ISI) LA-XXW-PRXKY-Mx badge reader to CFR47 Part 15. The device is an intentional radiator (13.56MHz), digital device (11MHz). As such, it requires certification with the FCC. We would like your Telecommunications Certifying Body(TCB) to evaluate our submission. This device is similar to the OCQLA-WIWPROXKEYM previously approved by the FCC. It is our opinion this device conforms to the requirements of Part 15. The sample tested met these standards without modification. On behalf of ISI and their representative Gerard Verkaart, EMCA is handling the Form 731 filing for this product. This will be an electronic submittal. The necessary payment has been mailed to Curtis-Straus. ISI requests that the schematic diagram and internal photographs of the device be kept confidential. Any questions regarding this submittal (i.e. missing information), should be forwarded to me. Please feel free to use my email address: [email protected]. The Iolan-supplied documentation are the draft versions. The Iolan part number is shown as being LA-XXW- PROXKEY-MC. This has now changed to be LA-XXW-PRXKY-Mx. Your attention in this matter is appreciated. Sincerely, Michael E. Hill, NCE Manager Test Facility Cc: Gerard Verkaart ISI

External Front of the LA-XXW-PRXKY-Mx External Back of the LA-XXW-PRXKY-Mx

EMC Automation 1101 CYPRESS CREEK RD • CEDAR PARK TX 78613 • USA PHONE: (+1) 512-258-9478 • FAX: (+1) 512-258-0740 WWW.EMC-AUTOMATION.COM A TDK Group Company FORM 731 ATTACHMENT Label FCC ID: OCQLA-XXWPRXKYMx A label will be permanently attached to the product on the top edge. The label will state: FCC ID: OCQLA-XXWPRXKYMx Model No.: LA-XXWPRXKYMx Serial Number: <########> In addition, product literature will also state: This device complies with part 15 of the FCC Rules. Operation is subject to the fol- lowing two conditions: (1) This device may not cause harmful interference, and (2) this device must accept any interference re- ceived, including interference that may cause undesired operation.

EMCA Test Report: ISI0002-00, Rev. 1.0 PURPOSE This test report applies to the Iolan Systems, Inc. (ISI) LA-XXW-PRXKY-Mx badge reader (see Fig. 1). This wall-mount module is designed for identification purposes. Access to a facility or identity established when a badge is held close to the reader. Figure 1 The purpose of this electromagnetic compatibility (EMC) Test Report is to give the FCC information on the radiated emission profile of the badge reader as required for 47 CFR Ch. I (10- 1-97 Edition) Part 15-Radio Frequency Devices, Subpart C-Intentional Radiators and Subpart B- Unintentional Radiators. For sake of brevity, this standard will be referred to as FCC Part 15. The badge reader emits a weak RF field to activate the badge. Obviously, it is a Subpart C device. Since the badge reader contains a microcontroller and is part of a distributed network, it is a computer peripheral and is subject to Subpart B levels also. FCC Part 15 testing is performed using the techniques and practices described in the “American National Standard for Methods of Measurement of Radio Noise Emission from Low-Voltage Electrical and Electronic Equipment in the Range of 9KHz to 40GHZ”, ANSIC63.4-1992. The target emissions levels are set using criterion set in FCC Part 15. The badge reader is powered by a DC voltage via its controller, no conducted emissions testing was necessary. The heart of the device is a MIFARE Micro Module MF CM200 hybrid. Manufacturer’s data sheet is available at: http://www-us.semiconductors.com/identification/mfcm200.stm.html EMCA Test Report: ISI0002-00, Rev. 2.0 EQUIPMENT 2.1 ISI Supplied Equipment All tests described below were carried out on a system comprised of standard production units. The equipment defined below was available solely for the purposes of EMC testing during the test program. DescriptionSerial Number Door Controller Unit, LATCK2WI4I2Y LA150201 Badge Reader, LA-XXW-PRXKY-Mx N/A Mifare BadgesN/A 2.2 EMCA Test Equipment Name and Model Number Serial NumberCalibratedNext Calibration Hewlett-Packard HP8546A Receiver 3520A00237 3448A00238 21 Oct. 199921 Oct. 2000 EMCO Passive Loop 6512 Antenna 10KHz-30MHz 9905-21221 June200021 June 2001 EMCO Biconilog 3142 Antenna 30MHz-1GHz 9803-125115 Aug. 200015 Aug.2001 EMCA Test Report: ISI0002-00, Rev. Transformer/Adapter U.S. 110Vac to European 220Vac N/AN/AN/A 3M Semi-anechoic Chamber and Associated H/W (turntable, antenna mast, etc.) N/AN/AN/A EMCO 2075 Minimast (chamber) 9707-2061N/AN/A EMCO 2090 Multi-Device Controller(chamber) 9704-1231N/AN/A Deisel Mast MA 240 (OATS) 240-503N/AN/A HD 100 Mast Controller(OATS) 100/616N/AN/A Pentium-based PC system N/AN/AN/A EMCA Radiated Emissions S/W Ver. 8.53 N/AN/AN/A 3.0 PROCEDURE and RESULTS 3.1 Equipment Configuration The dates of the testing were September 11 & 12,2000. Testing was done in the semi-anechoic chamber and the 10m Open Area Test Site (OATS). At both sites, EMCA Test Report: ISI0002-00, Rev. the badge reader was placed on a wooden (non-conductive) table, 80cm high. The table was placed on a turntable. The badge reader controller was located on the ground plane beneath the wooden table on the turntable. Testing was performed with/without a badge in close to the badge reader. When a badge was used, it was mounted in a non-conductive holder in close proximity to the badge reader. Testing was performed to determine the exact position and orientation of the badge that maximized emissions. The equipment was arranged in the manner recommended in Fig 9(c) Test Configuration Tabletop Equipment Radiated Emissions of ANSI C63.4-1992. Figure 2 Figure 2 shows the test setup. When actual testing began, the power/data cable was wrapped non-inductively not coiled as seen in the photograph. Note the controller is sitting on the turntable. Figure 3 shows the badge in it’s holder held up the badge reader. EMCA Test Report: ISI0002-00, Rev. Figure 3 3.2 Environment The temperature/humidity in the semianechoic chamber on September 11, 2000 was as follows: Temperature 20°C Humidity30% The temperature/humidity on the OATS on September 12, 2000 was as follows: Temperature25°C Relative Humidity54 3.3 Radiated Emissions 3.3.1 Preliminary Scan It was found that the badge had no discernible affect on the emissions on the emissions levels of the badge reader. The badge is an intentional radiator incorporating a Class A digital device. During testing, the limit line was adjusted. All data was taken at a 3m distance both in the semianechoic chamber and on the OATS. EMCA Test Report: ISI0002-00, Rev. The test was computer driven/monitored. For prescans, the antenna was set at 1m, the turn table was rotated in 90° increments. The antenna was then raised to a height of 2m and the turntable was rotated in 90° increments. This was repeated for 3 and 4m. Initial sweeps were done with the antenna in vertical then horizontal polarity. The maximum peak value for each frequency was stored in computer memory and graphed. All initial scanning was done in the semi-anechoic chamber. During the initial scans, the exact frequencies emitted by the EUT were identified. Initial scans used the Peak Detector. Any frequencies within 10dBuV of the limit line were identified. All radiated emissions measurements above 30MHz, emissions measurements were made with the bilog antenna (EMCO 3142). Scans below 30MHz were made on the OATS. It is understood the FCC does not recognize semi-anechoic data below 30MHz. The first scan covered a frequency range of 30MHz to 1000MHz. This data was taken with the biconilog antenna in both vertical and horizontal polarities. Figure 5 shows the horizontal/vertical peak data. Please note all emissions (measured in peak mode) from 30MHz–1000MHz, are below the Quasi-Peak limit line. Figure 5 3.3.2 Final Scan EMCA Test Report: ISI0002-00, Rev. Final scans were run differently from the prescans. Peaks within 10dBuv of the limit were identified by the test S/W. These are the frequencies to be in…

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EMC Automation 1101 CYPRESS CREEK RD • CEDAR PARK TX 78613 • USA PHONE: (+1) 512-258-9478 • FAX: (+1) 512-258-0740 WWW.EMC-AUTOMATION.COM Supply Voltage is 3.44Vdc TimeFrequencyAmplitude Startup13.56114MHz74.47dBuv 2 min.13.56114MHz74.47dBuv 5 min.13.56114MHz74.47dBuv 10 min.13.56114MHz74.47dBuv Supply Voltage is 30.4Vdc 5. Please confirm that the measuring loop antenna was rotated about its vertical axis during testing to maximize the received signal per ANSI c63.4 8.2.1. The measuring loop antenna was rotated about it’s vertical axis during the test in order to maximize the received signal. 6. Please request the applicant to complete the attached certification agreement. The customer has received/reviewed and signed the Curtis-Straus Certification Agreement. It was sent via email to Curtis-Straus. 7. Please specify the label material. The label will be made of a plastic film and affixed to the product using a permanent adhesive. 8. The users manual does not include the modification warning statement as required by Part 15.21. The customer has updated the users manual per the requirements of CFR47 Part 15.21. The corrected manual was sent to Curtis-Straus on December 13, 2000 electronically. You have given your approval of the corrections. If you have any further questions, do not hesitate to contact me. Best Regards, Michael E. Hill Manager Test Facility EMC Automation 1101 CYPRESS CREEK RD • CEDAR PARK TX 78613 • USA PHONE: (+1) 512-258-9478 • FAX: (+1) 512-258-0740 WWW.EMC-AUTOMATION.COM Primary Freq. Harmonics EMI Horizon- tal EMI Vertical EMI LimitHorizontal Margin Vertical Margin [MHz][uV/m][uV/m][uV/m][uV/m][uV/m] 13.565290.54*10000-4709.46* 27.126.30*100-93.70* 40.6818.0342.27100-81.97-57.73 54.2411.9813.55100-88.02-86.45 67.818.8121.95100-81.18-78.05 81.3610.0519.08100-89.95-80.92 94.9231.4819.05150-118.52-130.95 108.4823.6926.67150-126.31-123.33 122.0432.8135.73150-117.19-114.27 135.615.1222.86150-134.88-127.14 149.1663.9049.32150-86.100-100.68 * Loop antenna has only one polarity. 2. Please clarify in the test report where it states "Testing was performed to determine the exact position and orientation of the badge that maximized emissions" if this determination included manipulation of the cables to maximize the emissions. The cables were arranged to maximize emissions. 3. Please provide data responsive the requirements of 15.31(e). See below. 4. Frequency stability testing was performed for voltage variations of 4.25 to 5.75VDC. The manual states that the device can operate from 4.5 to 24 volts +-10%. Please provide data for frequency stability and amplitude stability (15.31(e)) over the range of 3.44-30.4VDC. TimeFrequencyAmplitude Startup13.56114MHz74.47dBuv 2 min.13.56114MHz74.47dBuv 5 min.13.56114MHz74.47dBuv 10 min.13.56114MHz74.47dBuv EMC Automation 1101 CYPRESS CREEK RD • CEDAR PARK TX 78613 • USA PHONE: (+1) 512-258-9478 • FAX: (+1) 512-258-0740 WWW.EMC-AUTOMATION.COM Clock Freq. Harmonics [MHz] EMI Horizon- tal [uV/m] EMI Vertical [uV/m] EMI Limit [uV/m] Horizon- Tal Margin [uV/m] Vertical Margin [uV/m] 11.05921.27*30-28.73* 22.11920.174*30-29.83* 33.178825.1550.76100-74.85-49.24 44.238416.1154.26100-83.89-45.74 55.29819.3656.88100-80.64-43.12 66.357612.4625.50100-87.54-74.5 77.41729.9013.61100-90.1-86.39 88.476811.4216.50150-138.58-133.5 99.536411.3810.30150-138.62-139.7 110.59616.6518.43150-133.35-131.57 121.65569.0413.26150-140.96-136.74 * Loop antenna has only one polarity. The reason for organizing the tables in this fashion was to put our data in exactly the same format as in 15.209 of CFR47. This involved converting the data from dBuV/m to uV/m. Also below 30MHz, we adjusted for distance. For example, the value measured at 3m for 11.0592MHz was 42.05dBuV. To convert from dBuv to uV, remember: dbuV=20 (uV/1uV) Therefore: (42.05/20) 10 =126.62uV/m But remember the limit for this frequency is determined at a 30m distance. Therefore we have to calculate signal strength at 30m. If it is assumed 3m is 1 unit then 30m is 10 units. Using the inverse- square law, the signal strength is 1/100 the amplitude at 30m as it was at 3m. Hence, the signal strength at 30m is: 1.266uV/m Above 30MHz, there was no inverse square correction necessary for distance. Here’s the transmitter levels and it’s harmonics: EMC Automation 1101 CYPRESS CREEK RD • CEDAR PARK TX 78613 • USA PHONE: (+1) 512-258-9478 • FAX: (+1) 512-258-0740 WWW.EMC-AUTOMATION.COM Barry C. QuinlanDecember 15, 2000 Curtis-Straus LLC 527 Great Road Littleton, MA Subject: FCC ID: OCQLA-XXWPRXKYMX Dear Mr. Quinlan: Here is our response to your request for additional information/clarification made on December 12, 2000 for the Iolan Systems Inc. Badge Reader. Your comments are in italics. 1. We cannot determine compliance from the data presented in the 3.3.3 Harmonics data tables. For example, the text above the table says that "the data was converted to uV/m with the levels and limits raised to a 30m distance for the 30MHz and below frequencies." If we look at the 11.05 MHz reported emission at a level of 42.05uV/m and we assume from the above text that it has been corrected to the value seen at 30m, then we can compare it to the limit in 15.209 of 30uV/m (not 90 as the table says). By this analysis the reported emission level fails. Please explain further what the numbers in the table represent. Which limits are you applying? What factors are you using in each case to normalize the data to specific distances? If these emissions are due to the clock oscillator and the digital device portion of the device, why are you measuring them below 30MHz? An example showing all the calculations performed on a specific line item in the table would be helpful to us in understanding these tables. After review of the section in question, corrections were necessary. I did not convert the data from dbuV/m to uV/m. My only excuse is I finished the report around midnight. EMCA apologizes for the confusion. The limits used are those list…

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Test Setup in Semianechoic Chamber. Cable was re-wrapped non-inductively during the test. (See report for details.) Test Set-up on OATS.