O2SNURIT8000AINURIT 8000

LIPMAN USA, INC. Instruction Guide Series NURIT 8000 User Manual INSTRUCTION GUIDE SERIES NURIT 8000 User Manual  Lipman USA Inc. 50 Gordon Drive Syosset, New York, USA 11719 Phone 516.484.9898 • Fax 516.484.9057 WARNING Changes or modifications to this unit not expressly approved by the party responsible for compliance could void the user's authority to operate the equipment. FCC compliance statement This equipment has been tested to be found to comply with the limits for class A digital device, pursuant to Part 15 of the FCC Rules. Operation is subject to the following 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. Class A limits are designed to provide reasonable protection against harmful interference in a residential installation. This equipment generates uses and can radiate radio frequency energy and, if not installed and used in accordance with the instructions, may cause interference to radio communications. However, there is no guarantee that interference will not occur in a particular installation. If this equipment does cause harmful interference to radio or television reception, which can be determined by turning the equipment off and on, the user is encouraged to try to correct the interference by one or more of the following measures: • Reorient or relocate the receiving antenna. • Increase the separation between the equipment and the receiver. • Connect the equipment into an outlet on a circuit different from that to which the receiver is connected. • Consult your dealer or an experienced technician for help. FCC requirements The Federal Communications Commission (FCC) has established rules permitting this device to be directly connected to the telephone network. Standardized jacks are used for these connections. This equipment should not be used on party or coin lines. If this devise is malfunctioning, it may be causing harm to the telephone network; this devise should be disconnected until the source of the problem can be determined and until repair has been made. If this is not done, the telephone company may temporarily disconnect service. The telephone company may make changes in its technical operations and procedures; if such changes affect the compatibility or use of this devise, the telephone company is required to give adequate notice of the changes. You will be advised to file a complaint with the FCC. If the telephone company requests information on what equipment is connected to their lines, inform them of: One.The telephone number this unit is connected to Two.The ringer equivalence number: 0.3B iiii Three.The USOC jack required: RJ-11C Four.The FCC Registration number: 3D7ISR-25066-DT-E The Ringer Equivalence Number (REN) is used to determine how many devices can be connected to your telephone line. In most areas, the sum of the RENs of all devices on any one line should not exceed five (5). If too many devices are attached, they may not ring properly. For a product that has the potential to be used in a body worn configuration and has not been certified with a specific accessory device(s): "For body worn operation, this device has been tested and meets FCC RF exposure guidelines when used with an accessory that contains no metal and that positions the device a minimum of 2.5cm from the body. Use of other accessories may not ensure compliance with FCC RF exposure guidelines." 11 Chapter 1 CHAPTER 1 OPERATION OPERATIONAL OVERVIEW This chapter explains the various instructions required in operating the NURIT 8000 POS/EDC Terminal. The terminal keyboard allows for selecting specific transaction types, entering of data, and performing various functions. In this manual, transactions, operations, and specific functions available with the NURIT 8000 is explained. Setting Time and Date If the time and date need to be adjusted in the NURIT 8000, it can be changed manually. Please refer to page 39 for the correct procedure. Performing a Sale To perform a credit card sale: 1. At the CREDIT.....SALE, ACCOUNT ? prompt, swipe the credit card, or manually key in the account number and expiration date. 2. The terminal will prompt to enter in the amount (DO NOT PRESS THE DECIMAL POINT). 3. The terminal will then dial, process, give an approval code, and print a receipt that reads SALE on top. Credit Return A refund to a customer’s credit card account can be done if the original sale is from a different batch (if the sale and refund are in the same batch refer to page 3 - Voids ), otherwise, a refund is done as follows: 1. At CREDIT.....SALE, ACCOUNT? press the <ÈÈ> or <ÍÍ> keys repeatedly until the terminal reads: CREDIT......RETURN, ACCOUNT ? 2. Swipe the card, or key in the account number manually. 3. Key in the amount to be refunded, and press <ENTER>. 4. Terminal will then prompt you to enter an authorization number. Key in the six digit approval code on the original sale receipt, and press <ENTER>. 5. The terminal will print a receipt that reads RETURN on top. Verify This function is used to ensure that a customer has adequate funds on their credit card (THIS DOES NOT CHARGE THE CUSTOMER’S ACCOUNT). 1. At CREDIT.....SALE, ACCOUNT? press the <ÈÈ> or <ÍÍ> keys repeatedly until the terminal reads: CREDIT...VERIFY, ACCOUNT ? 2. Swipe the credit card, or key in the account number and expiration date manually. 3. Type in the amount to be verified, and press <ENTER>. 4. The terminal will dial and process the transaction. 5. A receipt will print, and read VERIFIED on top. NOTE: The authorization number given during the verification can be used for a Forced Sale. There is no need to call for a second authorization. Forced Transaction When voice authorization has been obtained on a customer’s credit card, a Forced Sale should be done to process the transaction. 1. At CREDIT.....SALE, ACCOUNT? press the <ÈÈ> or <ÍÍ> keys repeatedly until the term…

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NOTICE This device complies with Part 15 of FCC Rules. Operation is subject to the following two conditions: (1) this device may cause harmful interference, and (2) this device must accept any interference received, including interference that may cause undesired operation. Lip NURIT 8000 Lipman USA, Incorporated FCC ID: O2SNURIT8000AI COMPLIES WITH FCC RULES PARTS 15 INPUT VOLTAGE: 8.4V/1A MAX. USE RECOMMENDED LIPMAN CHARGER ONLY Assembled in Israel NOTICE This device complies with Part 15 of FCC Rules. Operation is subject to the following two conditions: (1) this device may cause harmful interference, and (2) this device must accept any interference received, including interference that may cause undesired operation. Lip NURIT 8000 Lipman USA, Incorporated FCC ID: O2SNURIT8000AI COMPLIES WITH FCC RULES PARTS 15 INPUT VOLTAGE: 8.4V/1A MAX. USE RECOMMENDED LIPMAN CHARGER ONLY Assembled in Israel This sticker will be semi concealed and placed under the battery pack (on the terminal and not on the battery pack itself) This sticker will appear gray with blue print and indented 7/8”H X 2”W Dimensions: 1”H X 2”W

  
  
 
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Preface: The purpose of this document is to give technical information of the Hand-Held POS Terminal: "NURIT- 8000" for FCC regulation. The description is based on the attached block diagram and schematics of the terminal. General: The Nurit-8000 is built out of the following components: ??A specially designed Smart Li-ion battery pack. ??Main or CPU board. ??Connectors Adapter board. ??Back lit Keyboard. ??Specially designed graphic display with touch panel. ??An OEM RIM-802 radio. ??A specially designed flexible built in antenna. ??An easy-load fast thermal printer. Smart Battery Pack: The battery pack is built out of two series connected Li-ion batteries which are connected via a specially designed protection circuit based on the protection IC S-8232A. The protection circuit includes a charge/discharge monitor device based on the BQ2019. Protection is achieved upon overcharge, overdischarge, overheat and short circuit conditions. Operation battery pack voltage can be 6.5V to 8.4V. CPU Board: The CPU board includes the following circuits: MAIN power supply: The main power supply produces +3.3V also called VCC. It is used for the logic circuits also used to drive the display contast power supply. The power supply consists of the TC120333 step down PWM controller in a configuration of a buck (step-down) regulator running in a frequency of 200KHz-300KHz. The 3.3V power supply includes a soft start mechanism and a built in FET. The drain of the FET is tied to a Schottky diode and the energy storage inductor. The output of the inductor is tied to the voltage sense input of the PWM controller. The inductor is also tied to an output filter capacitor and a protection zener diode, then to the powered circuitry. Regulation of 3.3V is accomplished by variation of the duty- cycle of the switching FET upon sensing the feedback voltage. PRINTER POWER: The printer mechanism is powered directly from the battery pack. However it is controlled by a high power MOSFET switch. ASIC core power supply: The core of the ASIC is the ARM7-TDMI which is powered by a linear LDO power supply. This voltage is +2.5V also called VCC_CORE. LOW-BAT detection circuit: The CPU board includes a power-loss detection circuit in order to detect low voltage battery and battery removal during operation. When the input DC voltage goes below 6V, it is detected by a comperator circuit and signals the CPU by one of the interrupt signals that a power loss occurred. Then, the last status of the terminal is saved. Upon power-up the CPU is being signal for power recovery and the last status is restored. ASIC and System processor: The main system processor is a ARM7-TDMI with a 32 bit core, 16-bit data bus and 24- bit address bus. The processor runs with a system clock of 20MHz which is produced by an external crystal. The processor has an internal PLL that’s multiply the clock by 4 to 80 MHz. The system ASIC has a built-in oscillator, which produces, with an external 20Mhz crystal, the system clock. The ASIC is also controlling the CPU bus timing. The ASIC also includes part of the decoding logic of the system. It produces controlling signals to the printer mechanism and to the graphic display contrast drive circuit. The ASIC has a built-in 3 UARTs. The ASIC also includes system-reset circuit and the On/Off switch debounce circuit. :System Memory The unit includes 1Mbyte program flash memory which can be upgraded to 2Mbytes. The unit includes static RAM from 128Kbytes up to 2Mbytes with hardware write protected feature for sections of the memory. The RAM is backed up with an on-board 2.4V 40mAh NiMH battery. System Real Time Clock (RTC): The System RTC is part of the system ASIC. The ASIC is drived by an external 32KHz oscillator circuit. The RTC is powered by the VCC_CORE and backed-up with the same on board NiMh of the RAM. The battery is charged when the unit is turned on. :Printer The printer mechanism is Seiko LTPA-245 - a line thermal printer mechanism, with a resolution of 384 dots/line, and with a maximum speed of 12.5 character/second (at 7.2V). It also features Out of paper detection and Head temperature detection. The Head temperature is evaluated using a A2D circuit, controlled by the ASIC signals. The printer head and motor is fed with a 7.2V(VP signal), from the printer power-supply switch. The printer motor control interface is built with BA6845FS current controlled bidirectional motor driver (also fed from a 7.2V), and built on LM393A retriggerable monostable multivibrator. The motor operation mode is determined by 2 phase state signals, which is driven by the System ASIC. The printer clock and data are serially interfaced. The serial clock for the printer is a 4MHz clock, which is derived from the CPU clock. Each time Data byte is loaded into a shifter device and then is serially shifted to the printer, synchronized with the printer serial clock. After all data is loaded into the thermal head shift register, the head is activated by the DST ( data strobe ) signals ,each of them for one of the six printing area of the head. In order to protect the head from overheat due to software problem, there is a hardware watch-dog mechanism which forced every 8mSec the DST signals into logic “low” state. ):Optional(s interface ’and SAM) 0SAM(Smart card There are 2 optional accessible SAM’s : SAM1 and SAM2. The control interface is built with NCN6000D smart card interface IC. Each SAM and Smart Card on the CPU board uses a +5V(SAM_VCC) voltage, which is regulated from the its own smart card interface IC. The signals for the SAM’s are given from the external data bus. The clock for the SAM’s is 4MHz clock. The signals used are: input data with data enable, output data, reset, clock with clock enable, and card detect. Output signals from the SAM’s and the smart-card are multiplexed to the system ASIC. The clock for the smart card is asynchronous 4MHz clock, or alternatively synchronous clock. It has Card Insertion detection and it us…

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iiii Three.The USOC jack required: RJ-11C Four.The FCC Registration number: 3D7ISR-25066-DT-E The Ringer Equivalence Number (REN) is used to determine how many devices can be connected to your telephone line. In most areas, the sum of the RENs of all devices on any one line should not exceed five (5). If too many devices are attached, they may not ring properly. For a product that has the potential to be used in a body worn configuration and has not been certified with a specific accessory device(s): "For body worn operation, this device has been tested and meets FCC RF exposure guidelines when used with an accessory that contains no metal and that positions the device a minimum of 2.5cm from the body. Use of other accessories may not ensure compliance with FCC RF exposure guidelines."

Point of Sale Device Model No.: NURIT 8000 Tested For Lipman USA, Inc. 50 Gordon Dr. Syosset, NY USA, 11791 In Accordance With SAR (Specific Absorption Rate) Requirements using guidelines established in IEEE C95.1-1991, FCC OET Bulletin 65 (Supplement C), Industry Canada RSS-102(Issue 1) and ACA Radiocommunications (Electromagnetic Radiation – Human Exposure) Amendment Standard 2000 (No. 1) UltraTech's File No.: LIP-013-SAR This Test report is Issued under the Authority of Tri M. Luu, Professional Engineer, Vice President of Engineering UltraTech Group of Labs Date: March 21, 2002 Report Prepared by: JaeWook Choi Tested by: JaeWook Choi Issued Date: March 21, 2002 Test Dates: March 8, 2002 The results in this Test Report apply only to the sample(s) tested, which has been randomly selected. UltraTech 3000 Bristol Circle, Oakville, Ontario, Canada, L6H 6G4 Telephone (905) 829-1570 Facsimile (905) 829-8050 Website: www.ultratech-labs.com Email: [email protected] SPECIFIC ABSORPTION RATE (SAR) Page 1 IEEE C95.1-1991, FCC OET Bulletin 65 (Supplement C), Industry Canada RSS-102(Issue 1) and ACA Radiocommunications (Electromagnetic Radiation – Human Exposure) Amendment Standard 2000 (No. 1) Point of Sale Device, Model No.: NURIT 8000 FCC ID: O2SNURIT8000AI TABLE OF CONTENTS EXHIBIT 1. INTRODUCTION.............................................................................................................................................3 1.1. SCOPE.........................................................................................................................................................................3 1.2. REFERENCES............................................................................................................................................................3 EXHIBIT 2. PERFORMANCE ASSESSMENT..................................................................................................................4 2.1. CLIENT AND MANUFACTURER INFORMATION.............................................................................................. 4 2.2. DEVICE UNDER TEST (DUT) DESCRIPTION.......................................................................................................4 2.3. LIST OF DUT’S ACCESSORIES:.............................................................................................................................5 2.4. SPECIAL CHANGES ON THE DUT’S HARDWARE/SOFTWARE FOR TESTING PURPOSES.......................5 2.5. ANCILLARY EQUIPMENT......................................................................................................................................5 2.6. GENERAL TEST CONFIGURATIONS....................................................................................................................5 2.6.1. Equipment Configuration....................................................................................................................................5 2.6.2. Exercising Equipment..........................................................................................................................................5 2.7. SPECIFIC OPERATING CONDITIONS...............................................................................................................................5 2.8. BLOCK DIAGRAM OF TEST SETUP......................................................................................................................6 EXHIBIT 3. SUMMARY OF TEST RESULTS...................................................................................................................7 3.1. LOCATION OF TESTS..............................................................................................................................................7 3.2. APPLICABILITY & SUMMARY OF SAR RESULTS.............................................................................................7 EXHIBIT 4. MEASUREMENTS, EXAMINATIONS & TEST DATA.............................................................................8 4.1. TEST SETUP..............................................................................................................................................................8 4.2. PHOTOGRAPH OF EUT WITH ALL ACCESORIES.............................................................................................................9 4.3. PHOTOGRAPHS OF EUT POSITION (BODY WORN POSITION).............................................................................13 4.4. MAXIMUM FIELD LOCATION (BODY)............................................................................................................................19 4.5. PEAK SPATIAL-AVERAGE SAR MEASURED...................................................................................................................20 4.6. SAR MEASUREMENT DATA.......................................................................................................................................20 4.6.1. Body-worn configuration Results......................................................................................................................20 EXHIBIT 5. SAR SYSTEM CONFIGURATION & TEST METHODOLOGY.............................................................21 5.1. MEASUREMENT SYSTEM SPECIFICATIONS..................................................................................................................21 5.2. TEST PROCEDURES.....................................................................................................................................................21 5.3. PHANTOM...................................................................................................................................................................21 5.4. SIMULATED TISSUE.....................................................................................................................................................22 5.4.1. Preparation................................................…

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UltraTech 3000 Bristol Circle, Oakville, Ontario, Canada, L6H 6G4 Tel.: (905) 829-1570 Fax.: (905) 829-8050 Website: www.ultratech-labs.com Email: [email protected], Email: [email protected] Federal Communication Commission Attention: Ms. Diane Poole Re: FCC ID O2SNURIT8000AI Applicant: Lipman USA, Inc Correspondence Reference Number: 22844 731 Confirmation Number: EA733320 Dear Ms. Poole, Please find the answer to your questions as follows: <Answer 1> The measured power data for before and after each test can be found on the test information pages, in terms of probe output [mV], as indicated in the picture below. The probe output is directly proportional to power density or SAR. The measurements were performed at the same reference position, which is (0, 0) coordinate in the area plot, before and after each test and the power drift during the measurement was presented in percentage. For this case, the EUT must be configured to connect with AC power adapter all the time in order to put it into test mode, the power drifts were found to be less than 2% through all the SAR measurements. The scan time for SAR measurement is dependent on the size of area to be scanned, the resolution of scan and the type of phantom. For 10 × 10 area size, 10mm/5mm resolution for the area/zoom scan and flat phantom, the scan time can be estimated approximately 10 ~ 12 minutes. <Answer A2> The probe calibration has performed for the major frequencies whose dielectric parameters are explicitly listed in IEEE 1528 standard for the specific tissue simulating liquid. "The calibration parameters derived are rigorously valid only at that frequency and for those particular tissue parameters. However, due to the short electrical length of the dipole sensors the calibration factors are usually frequency 'Insensitive'. They change very slowly with the RF signal frequency." The conversion factors, for the specific probe used in the SAR evaluation, from thermal transfer calibration at 450MHz, 835MHz and 915MHz for muscle tissue, are 0.8898, 0.9664 and 0.9765 respectively. By linear interpolation, we could determine that the conversion factor at 835MHz could be applied to SAR evaluation at 815MHz with very negligible influence due to this frequency variance. The conversion factor sensitivity to the 2.45% (815MHz to 835MHz) frequency change was found to be approximately 0.5%. Refer to “SARCalibration.doc” and “SARValidation.doc” for probe conversion factor in detail. <Answer A3> At 835MHz, the sensitivity of SAR(1g) to the percentage change from that proposed in IEEE 1528 for the dielectric constant and the conductivity, are -0.57 % and +0.59 % each. Thus the influence of SAR due to parameter error was found to be less than 1.0 %. (Refer to “SARSensitivity.pdf”.) We were tracking down the tissue parameters statistically for time change and these information found were listed in the report. The tissue was initially mixed and calibrated using the slotted coaxial waveguide as listed in page 2, Exhibit 8. Tissue Calibration (55.43(+0.4%)/0.97(0.0%)), on Jan 9 2002 A Dielectric constant of 54.9(-0.5%) and a conductivity of 0.96(-1.0%) were measured for the same tissue prior to the thermal transfer calibration which was performed at 835MHz on Jan 31 2002. A HP 85070C dielectric probe kit was used to verify tissue parameters a second time prior to using the same tissue for SAR evaluation and a dielectric constant of 55.43(+0.4%) and a conductivity of 0.965(-0.5%) were measured as shown on page 1, Exhibit 8. Tissue Calibration and test reports, on Mar 08 2002.

System Calibration The SAR measurement system has two main components: a) the probe, which is connected to the inputs of b) the instrumentation amplifier whose outputs are connected through the transmission line to c) the computer. The system is calibrated as one unit not as individual components. If any components is modified or replaced, the system must be re-calibrated. The system calibration is performed by two steps: 1) determination of free space E-field from amplified probe outputs in a test RF field, and 2) correlation of the measured free space E-field and the measured E-field in the medium to temperature rise in a dielectric medium. Determine E-Field from Amplified Probe Outputs Note: Equipment must be regularly calibrated. • RF Signal Generator - frequency range to at least 2 GHz, • RF Amplifier - if needed to generate the required power density in the test cell, • Test Cell - TEM (Crawford) cell, waveguide, or other device capable of maintaining a uniform field, • RF Power Meter - capable of measuring at least 5 Watts (current calibration is mandatory!) if possible traceable to the National Institute of Standards and Technology (NIST). • E-Field Probe (under Calibration) • Probe Support Fixture • Instrumentation Amplifier • Transmission Line • Computer Program with the Automated Calibration System Program Method Due to impedance variations in the diodes and the transmission line, and slight differences in gain between the channels of the instrumentation amplifier, a normalization method was designed. The calibration method actually used is to determine the factors necessary adjust each channel of the system so its indicated output can then be equated to the RF field. These factors are referred to as “Amplifier Settings”. DC Amplifier DC Amplifier DC Amplifier RF SourceCalibration CellRF Power Meter Probe To Computer < Free Space Calibration Setup for Amplifier Setting > Measurement Free Space Calibration of E-field probes can be performed using a TEM cell manufactured by IFI (Instrumentation for Industry, Farmingdale, NY 11735) with operating frequency at or below 1 GHz. • Connect the equipment as shown above; • Adjust the RF generator output so that the power density inside the TEM cell is 1 mW/cm 2 . (For the IFI model CC-110 cell, the correct power level is 271 mW); • Mount the probe of the system to calibrate in the support fixture. Insert the probe through the aperture of the TEM cell. The probe handle should be at the geometric center of the aperture, i.e. midway between the septum and the upper surface, and orthogonal to the side of the cell. The sensing portion of the probe should be located at a point halfway across the depth of the cell (volumetric center). • Once the prescribed position is obtained, it must be maintained during the rest of the measurement. The only movement of the probe allowed is rotation on its axis to position the dipole in the plane of the E-field and, for channel 3 only, parallel to the vertical uniform field (max./min. output). • Verify that the RF power level remains constant throughout the measurement. While the probe is being rotated through 360 degrees, software indicators will show the maximum measured on each channel. Thus, the amplifier settings for each channel are as follows: i i i DCV FactorSensor AS i θ 2 max cos _ × − = Where: As i : Amplifier Setting for channel i Sensor_Factor : an arbitrary value 10.8 [mV/(mW/cm 2) ] Vmax i : Maximum voltage recorded for channel i by rotation about the probe axis with the probe in a TEM cell DC i : DC offset of channel i (the voltage out of the transmission line with the instrumentation amplifier on and RF power off, recorded at the beginning of the probe calibration) θ i : Angles between the probe axis and the dipole sensor axis of channel i (θ 1 = θ 2 = 45° , θ 3 = 0° for I-beam probe, and θ 1 = θ 2 = θ 3 = 90° – 54.7° = 35.3° for triangular probe when the probe axis is assumed to be perpendicular to the plane of the septum inside TEM cell) SAR from Temperature Measurement and Correlation to E-Field Probe Measurement A RF transparent thermistor based temperature probe and a isotropic E-field probe are placed side-by-side in a planar phantom while both are exposed to RF energy from a half wave dipole antenna located below the phantom The E-field probe and amplifiers were previously calibrated. First, the location of the maximum E-field close to the phantom’s bottom is determined as a function of pow…

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