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FCC ID: EJMNPDPEMC2

Test Report

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FCCID_68916

Measurement/Technical Report Intel Corporation Intel Emergency Management Card FCC ID: EJMNPDPEMC2 April 22, 1998 This report concerns (check one): Original Grant _X Class II Change, Equipment Type: Class B Computing Device / LAN Adapter Deferred grant requested per 47 CFR 0.457 (d)(1)(ii)? yes no__X If yes, defer until: N/A date intel Corporation agrees to notify the Commission by: N/A date of the intended date of announcement of the product so that the grant can be issued on that date. Transition Rules Request per 15.37; yes no__X If no, assumed Part 15, Subpart B for unintentional radiators — new 47 CFR [10—1—92) provision. Report prepared by: Northwest EMC, Inc. 120 South Elliott Road, Suite 300 Newberg, OR 97132 (503) 537—0728 fax: (503) 537—0735 Report No. INTE1760

FCC ID: EJMNPDPEMC2 Table of Contents Section Description Page 1.0 General Information 3 111 Product Description 3 1.2 Related Submittals/Grants 4 1.3 Tested System Details 4 1.4 Test Methodology 6 1.5 Test Facility 6 2.0 Product Labeling 2.1 Figure 2.1: FCC ID Label 7 2.2 Figure 2.2; Location of Label on EUT 8 3.0 System Test Configuration 9 3.1 Justification 9 3.2 EUT Exercise Software 9 3.3 Special Accessories 9 3.4 Equipment Modifications 9 3.5 Configuration of Tested System 9 Figure 3.1 Configuration of Tested System 10 4.0 Block Diagram of EUT 11 4.1 Biock Diagram Description 12 5.0 Conducted and Radiated Measurement Photographs 15 6.0 Conducted Emissions Data 18 7.0 Radiated Emissions Data 23 7.2 Field Strength Calculations 25 7.3 Measurement Bandwidths 25 8.0 Measurement Equipment 26 Appendix | Measurement Procedures 27 9.0 Photos of Tested EUT 28 Northwest EMC, Inc. Report No. INTE1760 Page — 2

FCC ID: EJMNPDPEMC2 1.0 General Information 1.1 Product Description M@NUfACHUF@®U BY ... ... .. 22020200 ce enc ennennvnvrvnnvarerenererrerenenenennnnevevereerenreereerenerenenrenee Intel Corporation AUUP@SS.......20..0.00eneececeeneeecnccnmmereeeenerernneness 5200 NE Elam Young Parkway Hillsboro, OR 97124 TeSt R@QU@St@U By: ........ ... .cc e mnrnereerereerverrer enc eerereervrerer ce venreneeeernenerernnrenercerrees Richard Abel Model .... ...Intel Emergency Management Card FCC D) ns ce n en enennervnvverrenerrenenennnnn en eevrerenener nc nvrenereveere n ver en enc nenenencenveenenee EJMNPDPEMC2 SB@FIAL NUMB@T(S)..... 2020200000000 0e en en en en nevevevvererereererenenenevnenv e vevvererereererenererenenveeve INBS81600005 DAt@ Of T@St ........2.0.c0c0c0 cce enc ee en en nenevnnnnnvnva en en en neneverenvnaver en necennnevevemecncnvcee April 22, 1998 JOD NUMBB .. 2.20000000000 0e eeeee en eernmerrerereveeeererencvevennnnmverrererenereneenanenevrerenevereererereeenearnncnereerence INTE1760 The Equipment Under Test (EUT) is the Intel Corporation Emergency Management Card, FCC ID EJMNPDEMC2. The EUT is a PCI add in card that monitors the host server‘s vital signs such as voltages, temperatures, etc. It has the ability to communicate this information to remote services by Ethernet, or serial link. Additionally, console redirection will allow remote diagnostics and fault recovery. The EUT operates in a network at 10 MegaBits—per—Second (MBpS). Hardware Description: * Clocks/Oscillators Frequencies: 20 MHz, 50 MHz. * Ports: Serial, RJ—45, IPM Northwest EMC, Inc. Report No. INTE1760 Page — 3

FCC ID: EJMNPDPEMC2 ints Description and Serial No. C2 Intel Corporation Emergency Management Card, Serial No. INBS81600005. IBM Model 33G5430, Serial No. 23—G51151. NMB Model RT101+, Serial No. 80530392. /JMA NEC Model JC—1532VMA—2, Serial No. 3262102NA. Gateway Model G6—266, Serial No. 0008529499. Hewlett Packard Model C2121A, Serial No. US39I25029 Hewlett Packard, Model C2114A, Serial No. MY41IDOZ7 Epson LX—300 Model P850A, Serial No. 1YLY172977. Micron Model SCOLBUCMIC23A, Serial No. 200087007. Compaq Presario 1510, Serial No. 603BD02HB614. 215 Digital Model RT101, Serial No. 71341074. Northwest EMC, Inc. Report No. INTE1760 Page — 4

FCC ID: EJMNPDPEMC2 Cables: Item Description Parallel Printer Cable 2 meters in length. Shielded with braid over foil and no ferrite beads. Connected from the host PC paralle! port to the parallel printer. Network Cable 20 meters in length. Not shielded and no ferrite beads. Plastic RJ—45 connectors. Connected from the EUT Data Port to the Remote PC. Serial Printer Cable (2) 1.5 meters in length. Shielded with no ferrite beads. Connected from the COM1 port of the host PC to the serial printer. Video Cable 1.1 meters in length. Shielded, with a metal backshell and one molded ferrite bead at the PC end of the cable. Permanently attached to the monitor and connected to the VGA port of the host PC. Mouse Cable 1.8 meters in length. Metal connector backshells. Permanently attached to the mouse and connected to a 9—pin to PS/2 adapter that is connected to the PC mouse port (supplied with the mouse). Keyboard Cable 1.4 meters in length (Coiled), with a metal connector backshell. Permanently attached to the keyboard and connected to the PS/2 keyboard port of the EUT. Serial Printer DC Cable (2) 1.9 meters in length. No shielding and no ferrite beads. Permanently attached to the serial printer AC adapter and connected to the serial printer. Serial Printer AC Cable (2) 1.9 meters in length. No shielding and no ferrite beads. Permanently attached to the serial printer AC adapter and connected to the AC Mains. Parallel Printer DC Cable 1.8 meters in length. No shielding and no ferrite beads. Permanently attached to the parallel printer AC adapter and connected to the parallel printer. Paralle! Printer AC Cable 1.8 meters in length. No shielding and no ferrite beads. Permanently attached to the paraliel printer AC adapter and connected to the AC Mains. Monitor AC Cable 1.9 meters in length. No shielding and no ferrite beads. Connected from AC input of the monitor to the AC mains. EUT Power 1.9 meters in length. No shielding and no ferrite beads. Connected form AC input of the EUT to the AC mains. IPM Cable 1.0 meters in length. No shielding with a ferrite bead attached. Connected from the EUT to the IPM. Northwest EMC, Inc. Report No. INTE1760 Page — 5

FCC ID: EJMNPDPEMC2 1.4 Test Methodology Both conducted and radiated testing was performed according to the procedures in ANSI C63.4 (1992). Radiated testing was performed at an antenna to EUT distance of 10 meters. Please reference Appendix I for further detail on Test Methodology. 1.5 Test Facility The Open Area Test Site and conducted measurement facility used to collect the radiated and conducted data is located at Northwest EMC, Inc. 120 South Elliott Road, Suite 300 Newberg, OR 97132 (503) 537—0728 Fax: 537—0735 The Open Area Test Site, and conducted measurement facility is located in Newberg, OR, at the address shown above. These sites have been fully described in reports filed with the FCC (Federal Communications Commission), and accepted by the FCC in letters maintained in our files. Northwest EMC, Inc. is recognized under the United States Department of Commerce, National Institute of Standards and Technology, National Voluntary Laboratory Accreditation Program (NVLAP) for satisfactory compliance with criteria established in Title 15, Part 285 Code of Federal Regulations. These criteria encompass the requirements of ISO/IEC Guide 25 and the relevant requirements of ISO 9002 (ANSIV/ASQC Q92—1987) as suppliers of calibration or test results. NVLAP Lab Code: 200059—0. Northwest EMC, Inc. has been assessed and accredited by NEMKO (Norwegian testing and certification body) for European emissions and immunity testing. As a result of NEMKO‘s laboratory assessment, they will accept test results from Northwest EMC, Inc. for product certification {Authorization No. ELA 119). Northwest EMC, Inc. Report No. INTE1760 Page — 6

FCC ID: EJMNPDPEMC2 2.0 Product Labeling Figure 2.1 FCC ID Label FCC ID: EJMNPDPEMC2 The FCC ID shown above is silk—screened on to the printed circuit board of the EUT {see next page). The Compliance Statement, as described in 47 CFR 15.19(a)(3), is in the Users Manual. Northwest EMC, Inc. Report No. INTE1760 Page — 7

FCC ID: EJMNPDPEMC2 Figure 2.2 Location of Label on EUT BACK OF EUT FCC ID EJMNPDPEMC2 Northwest EMC, Inc. Report No. INTE1760 Page — 8

FCC ID: EJMNPDPEMC2 3.0 System Test Configuration 3.1 Justification The EUT was configured in a test mode to simulate typical use. Cables were attached to each of the available /O Ports. Where applicable, peripherals were attached to the I/O Cables. The mode of operation utilized for testing was selected in order to best simulate typical EUT use. The EUT was connected to a remote server via an ethernet connection. The server utilized software that would continuously ping the EUT. This provided full functionality of the ethernet and digital components of the EUT. 3.2 EUT Exercise Software The EUT was transmitting data using PING.EXE software, operating under the DOS 6.2 operating software. This allowed the EUT to continuously transmit and receive data packets to the remote PC. This software was used since it would simulate full functionality of the ethernet and digital components of the EUT. 3.3 Special Accessories No special accessories will be sold with the EUT. 3.4 Equipment Modifications No EMI suppression devices were added or modified. The EUT was tested as delivered by the applicant. 3.5 Configuration of Tested System The EUT was placed in an Option Slot of the host PC. A full system configuration was used as per ANSI C63.4 (section 11.2) consisting of a Personal Computer, keyboard, mouse, monitor, modem, and 2 printers. A remote PC with a LAN adapter installed was placed in a remote location, to provide a system for the EUT to communicate with. The test software which exercised the EUT was run off of the hard disk inside the PC. Northwest EMC, Inc. Report No. INTE1760 Page — 9

FCC ID: EJMNPDPEMC2 Figure 3.1: Configuration of Tested System Monitor I 7 Remote System Keyboard Network Cable Monitor ——» r—_‘ IPM I t -I + Parallet Serial Serial Printer Printer Printer EUT Base f l 1 Syste! l Keyboard PS/2 Mouse Northwest EMC, Inc. Report No. INTE1760 Page — 10

FCC ID: EJMNPDPEMC2 4.0 Block Diagram of EUT RS232 Optional Debug f Serial (mezzanlne) Port1/ y T\ 7 ~oy~ / i : 386EX DRAM FLASH Serial Ports Ethernet _ 1ObaseT Processor j @4 crene (2 or 4 MB) ;_ Mezzanine Interface Ethernet \ / c ns / x#‘ i \ r 1 | < : ‘Vf'i/’—'> a — \ /7 ~ 77 iL ‘ IC D remer _ Server . fifnae' rol Host/SMM PCMCIA MODEM or ) n Phone Management ‘| Interface Registers Interface Combo Card ~—~ tLine Instrumentation ClOCk C {optional) N “/X 4 ' ————/ ) _ _/ 1 SMC / L CC |i ym n t & j Optional ( i | Powerand | On—Board ‘ Charge |, _ |c 1¥ External power Battery Control Oqw o 2 Feature PCI Connector Northwest EMC, Inc. Report No. INTE1760 Page — 11

FCC ID: EJMNPDPEMC2 4.1 Block Diagram Description Refer to figure 4.0 for the block diagram. uProcessor (386EX) The main processor for the Server Monitor Module is a 25 MHz intel 386EX embedded processor. This processor accesses the DRAM (including shared memory), FLASH memory, NIC, PCMCIA port, Microcontroller, and the PCI bus. Clocking The 386EX will be clocked by an output of the SMC. The SMC takes a 50 MHz oscillator output as an input and can either pass the 50 MHz directly to the 386EX or divide it by 3,9, or 27 to allow for lower power operation. The 386EX divides its clock by two internally so that the resulting operating frequencies are 25, 8.33, 2.77, or 0.926 MHz. System DRAM System DRAM will be added to the card using 2 MB, 16 bit wide parts (1M X 16) placed in from one to three locations. This allows either 2 MB, 4 MB, or 6 MB depending on how the board is stuffed. DRAM address multiplexing, RAS, and CAS control, and refresh will be done by the SMC. Flash Memory Flash Memory will consist of a single 28FO16SA or 28FO32SA device. This will allow 2MB or 4MB of nonvolatile code and data storage. This memory is available to the 386EX and is also available to the host through a 32KB memory window and a 4KB Expansion ROM window managed by the SMC. Serial Ports Two serial ports are available on the 386EX. One of these ports (PORTO) will not be used for serial communications. The other port (PORT1) will be routed through a voltage level shif IC then to a connector. This port may be used directly or tied to an external modem. e There is an °C port available to the 386EX. This port is implemented using a Philips PCF8584 and an analog multiplexer. Chip select is from CS6 on the 386EX and multiplexer control is done through the microcontroller. The interrupt into the 386EX for this part is shared by the microcontroller and the mezzanine connector. For more information on programming the PCF8584 please refer to the data sheet. Ethernet Interface To provide network connectivity to SMM2, a 10BASE—T Ethernet interface has been built onto the board. This interface uses an Intel 82595FX Ethernet Controller. An RJ—45 connector will be provided to interface to a twisted pair cable. Two indicator LEDs are provided at the I/O bracket to indicate Link (Green) and Activity (Yellow). These LEDs are built into the RJ45 connector. Northwest EMC, Inc. Report No. INTE1760 Page — 12

FCC ID: EJMNPDPEMC2 4.1 Block Diagram Description con‘t PCI Interface and Host SMM2 Registers (SMC) This card is designed to be placed on a PCI bus. The logic for this interface, as well as most of the other glue logic needed by the board is designed into a custom ASIC referred to as SMC. Additionally, there are other registers used by the software and hardware that are inside the SMC. Feature Connector to Host For compatibility with previous Server Monitor Module implementations, a Feature Connector is available. The signals available on the Feature Connector are: I°C interface e Keyboard lock e System Management Interrupt e Power Supply Off e Host Line Power OK e Nonmaskable Interrupt e Host Auxiliary Voltage e Baseboard Reset e Secure Mode e Chassis Open Indicator o Microcontroller The microcontroller is a PIC14000 made by Microchip Technology, Inc.. it performs the following functions in the SMM2: Analog/Digital Conversion on eleven instrumentation channels that measure system voltages and temperatures and battery charge/discharge current. Battery Charge Control. Intelligently manages battery charging to maximize battery life and control current draw from the host. Power System Control. Switches the SMM2 to battery powerif other power supplies fail, disconnects the host interfaces (including PCI) if host power fails, shuts down power to all of the SMM2 exceptitself upon command (to conserve battery power), and disconnects batteries from the circuit, including itself, if battery voltage drops too low (to prevent over—discharge) or if the board is removed from the host system (to prevent shorting if the board is placed on a conductive surface). System Power—up and Reset. Can power up and reset the SMM2 if host power returns, if a ring—indicate is signaled by a modem, or at a preset time. Can also reset the SMM2 upon command. I°C Interface. Allows the 386EX to send and receive messages to/from the host using the I°C bus. Real Time Clock. Manages an interface to a real time clock chip. Can supply accurate tome to the SMM2 upon command. Also uses the RTC for system wake—up at a preset time. External UPS Control. Controls a signal to a connector that can be used to turn an external UPS or power switch on or off at a preset time. Northwest EMC, Inc. Report No. INTE1760 Page — 13

FCC ID: EJMNPDPEMC2 4.1 Block Diagram Description con‘t rC As a manufacturing option, the SMM2 can have one of two 1°C controliers. One is built into the Microcontrolier, the other is a Phillips PFC8584. If the Phillips part is installed, the Microcontroller I°C is still present but is only used to access the Real Time Clock. Whichever controlier is used is connected to two I°C connectors (J9 and J6) via a multiplexer. Only one may be used at a time. Selection of which one is active is done by issuing a command to the microcontroller. Battery Charge Control If the optional six—cell (7.2V nominal) NiMH (Nicke! Metal Hydride) battery is attached to the board, the microcontroller will mange the charging of this battery. Power Control The Server Monitor Module may be required to operate even when thereis no power available on the PCI bus. To accomplish this, power can be derived from several different sources. These included the PCI bus, external power through a power jack, and a backup battery. The circuitry will intelligently switch between these sources as needed. Battery Disconnect Relay To avoid the possibility of parts being live when the board is removed from the server, the microcontroller can tell when the board has been removed and disconnect the lines from the battery to the board. Sensing of the PCI bus is accomplished through the RD4/AN4 input on the microcontroller. IPM ({Intelligent Power Monitor) support On host systems that do not support the Feature Connector (Section 0 and Section ERROR! Reference source not found.) a signal has been provided to control an external power switch. This signal must be valid at all times and must survive resets and power downs. To accomplish this , the signal is taken from the square wave output of the Real Time Clock. This signal may be programmed as an I/O pin and can be set to either high or fow. It is an open drain signal and is used to turn on a pnp transistor which drives +5V (currentlimited to about 50mA) to the connector pin. The 386EX can issue a command to the microcontroller to cause the signal to be asserted or deasserted at a particular time. SMC Interface A two wire interface connects the microcontraller to the SMC. The microcontroller and the 386EX communicate through this medium. Northwest EMC, Inc. Report No. INTE1760 Page — 14

FCC ID: EJMNPDPEMC2 6.0 Conducted Emissions Data 6.1 The initial step in collecting conducted data is a spectrum analyzer, peak scan of the entire measurement range. All signals with less than 2 dB margin are then measured using a quasi—peak detector. Complete graphs and data sheets may be referenced on the following pages. Minimum margins are listed below: CISPR 22 Class B Specification Limits PC Power Frequency (MHz) Measured Level (dBuV) Limit (dBuV) Margin (dB)* Lead 0.313 41.9 49.9 8.0 High 0.311 41.8 49.9 8.1 High 0.310 41.7 50.0 8.3 High 0.413 38.3 47.6 9.3 High 0.308 37.9 Alb s 3.° 9.7 High Frequency (MHz) Measured Level (dBuV) Limit (dBuV) Margin (dB)* Lead 0.311 41.9 50.0 8.1 Low 0.315 41.2 49.8 8.6 Low 0.314 41.2 49.9 8.7 Low 0.316 40.4 49.8 9.4 Low 0.309 40.6 50.0 94 Low All readings listed above are Peak, using an IF Bandwidth of 9 kHz, a video filter was not used. Judgment: Passed, minimum margin of 8.0 dB. Fujitsu Power Supply Frequency (MHz) Measured Level (dBuV) Limit (dBuV) Margin (dB)* Lead 0.202 46.2 53.5 7.3 High 0.204 46.1 53.5 7.4 High 0.199 44.7 53.7 9.0 High 0.208 44.1 53.3 9.2 High 0.196 42.8 53.8 11.0 High Frequency (MHz) Measured Level (dBuV) Limit (dBuV) Margin (dB)* Lead 0.203 45.7 53.5 7.8 Low 0.202 45.4 53.5 8.1 Low 0.204 45.0 53.4 84 Low 0.206 44.7 53.4 8.7 Low 0.314 38.8 49.9 111 Low All readings listed above are Peak, using an IF Bandwidth of 9 kHz, a video filter was not used. Judgment: Passed, minimum margin of 7.3 dB. Test Personnel: __—— Tester Signature: ’éjé" /%/ Date: April 22, 1998 Typed/Printed Name: Dean Ghizzone Northwest EMC, Inc. Report No. INTE1760 Page — 18

FCC ID: EJMNPDPEMC2 Northwest EMC, Inc. Ver 5 40, Jan 1997 Equipment Tested:Bonzai Serial Number: 2 Manufacturer: Intet Gorp. Job Number: INTE1760 Date/Time: 04—22—1998. 14:46:23 Tested By: Donald Facteau, EC Comments: Board Installed w/power connector, all cable, shortened IPM Run #13, added ferrite on IPM, Fujitsu Power 120V 60Hz mains CISPR 22 Class B Conducted Limit (Average) High Line Peskdate Frequency Meter Power Correction Adjusted Spec Compared Reading Line Factor Level Limit To Limit (MHz) (dBuV) (dB/m} {dBuV) (dBuV) (dB) 0 202 262 High 20.0 462 535 7.3 9204 26 1 High 20.0 46.1 53.4 7.3 0 199 247 High 20.0 44.7 537 90 0208 241 High 20 0 44.1 533 92 0196 228 High 20.0 42.8 538 —11.0 0315 18 5 High 20.0 38.5 49.8 113 0314 185 High 20.0 38.5 49.9 11.4 0312 18.5 High 20.0 38.5 49.9 114 0310 17.2 High 20 0 372 50.0 —12 8 0 309 166 High 20 0 36.6 50 0 134 0194 20.2 High 20 0 40.2 539 137 0271 166 High 20.0 36.6 511 145 0.151 214 High 20.0 414 55.9 145 4968 10.9 High 20 4 31.3 46.0 14.7 0 307 15.2 High 20.0 35.2 50.1 14.9 0320 14.8 High 20.0 34.8 49.7 149 3.051 10.5 High 20.3 30.8 46.0 152 4.146 105 High 20 3 30.8 46.0 4152 4559 10.3 High 20. 4 30.7 46.0 153 3115 103 High 20.3 30.6 46.0 154 Northwest EMC, Inc. Report No. INTE1760 Page — 19

FCC ID: EJMNPDPEMC2 Northwest EMC, Inc. Ver 5 4e, Jan 1997 Equipment Tested:Bonzai Serial Number: 2 Manufacturer: Intel Corp. Job Number: INTE1760 Date/Tim 04—221998 14:50 Tested By: Donald Facteau, EC Comments: Board Installed w/power connector, all cable, shortened IPM Run #14, added ferrite on IPM, Fujitsu Power 120V 60Hz mains CISPR 22 Class B Conducted Limit (Average) Low Line Peskdate Frequency Meter Power Correction Adjusted Spec Compared Reading Line Factor Level Limit To Limit (MHz) (dBuV) (dB/m) (dBuV) (dBuV) (dB) 0203 25.7 Low 20 0 45.7 535 78 0.202 254 Low 20.0 45.4 53.5 —8.1 0204 25.0 Low 20.0 45.0 534 —8.4 0 206 24.7 Low 20.0 44.7 534 —8.7 0314 188 Low 20.0 38.8 49.9 111 0.196 22.3 Low 20 0 42.3 538 115 0313 184 Low 20.0 38. 4 49.9 11.5 0311 18 4 Low 20.0 38.4 49.9 41.5 0311 183 Low 20.0 38.3 49.9 411.6 0318 17.7 Low 200 37.7 49 8 424 0.309 168 Low 20.0 368 50.0 132 2025 11.9 Low 20 2 32.1 46.0 139 3051 118 Low 20 3 321 46.0 139 2570 118 Low 20 2 32.0 46.0 14.0 0.307 16.0 Low 20.0 36.0 50.1 4141 0 476 123 Low 20.0 32.3 46 4 —14.1 2506 114 Low 20 2 316 46.0 144 2983 113 Low 20 3 316 46.0 144 0.150 21.5 Low 20.0 41.5 55.0 145 0.475 118 Low 20.0 318 46 4 146 bAfeecar Northwest EMC, Inc. Report No. INTE1760 Page — 20

FCC ID: EJMNPDPEMC2 Northwest EMC, Inc. Ver 5 40. Jan 1997 Equipment Tested:Bonzai Serial Number: 2 Manufacturer: Intel Corp. Job Number: INTE1760 Date/Time: 04—22—1998 15;17:24 Tested By: Donald Facteau, EC Comments: Board Installed w/power connector, all cable, shortened IPM Run #19, added ferrite on IPM, PC Power 120V 60Hz mains CISPR 22 Class B Conducted Limit (Average) High Line Peskdata 100 MHz Frequency Meter Power Correction Adjusted Spec Compared Reading Line Factor Level Limit To Limit (MHz) (dBuV) (dB/m) (dBuV) (dBuV) (dB) 0313 219 High 20 0 41.9 49.9 —£.0 0311 21.8 High 20.0 41.8 49.9 —8.1 0310 21.7 High 20 0 41.7 50 0 —8.3 0413 183 High 20.0 38 3 47 6 93 0412 17.9 High 20.0 37.9 47.6 $.7 0.308 20.3 High 20.0 40.3 50.0 7 0415 17.8 High 20.0 37.8 47.5 —$.7 0.416 17.6 High 20.0 37.6 475 99 0418 17.0 High 20 0 37.0 47.5 105 0410 163 High 20 0 36.3 47.6 11.3 0408 14 6 High 20 0 34.6 47 7 4131 0407 132 High 20.0 33.2 47.7 145 0323 15 0 High 20.0 35.0 49.6 4146 0.250 16.3 High 20.0 36.3 51.8 4155 0.253 15.9 High 20 0 35.9 51.7 158 0.302 14.1 High 20.0 34.1 502 —16.1 0.405 114 High 20.0 31.4 47 8 16.4 0326 132 High 20 0 332 496 164 0423 10 7 High 20.0 30.7 47 4 167 0403 111 i High 20 0 311 47.8 167 oldRetcac Northwest EMC, Inc. Report No. INTE1760 Page — 21

FCC ID: EJMNPDPEMC2 Northwest EMC, Inc. ver 5 do, on 1987 Equipment Tested:Bonzai Serial Number: 2 Manufacturer: Intel Corp. Job Number: INTEA760 Date/Time: 04—22—1998 15:19:21 Tested By: Donald Facteau, EC Comments: Board Installed w/power connector, all cable, shortened IPM Run #20, added ferrite on IPM, PC Power 120V 60Hz mains CISPR 22 Class B Conducted Limit (Average) Low Line Peskdete —Peak verage 100 KHz Frequency Meter Power Correction Adjusted Spec Compared Reading Line Factor Level Limit To Limit (MHz) (dBu¥) (dB/m) (dBuy) (dBuV) (dB) C311 21.9 Low 20.0 41.9 49.9 —8.0 0.315 212 Low 20.0 41.2 49.8 —8.6 0314 212 Low 20.0 41.2 49.9 —8.7 0.309 20. 6 Low 20 0 40 6 50.0 94 0316 20 4 Low 20 0 40 4 498 94 0319 185 Low 20 0 385 49 7 11.2 0305 18.1 Low 20.0 38.1 50.1 12.0 0303 167 Low 20.0 36.7 50.2 135 0 322 15.5 Low 20.0 355 49.7 142 0325 148 Low 20.0 34.8 49.6 148 0410 126 Low 20.0 32.6 47. 6 150 0416 124 Low 200 324 475 41511 0412 11.9 Low 20 0 319 47.6 4157 0412 11.9 Low 20.0 31.9 47.6 157 0324 137 Low 20 0 33.7 496 159 0251 158 Low 20.0 35.8 51.7 159 0.418 11.2 Low 20.0 312 475 16.3 0255 152 Low 20.0 352 51.6 16.4 0 255 152 Low 20.0 35 2 51.6 164 0.409 10.7 Low 20 0 30.7 47.7 —17 0 FelhReAonc Northwest EMC, Inc. Report No. INTE1760 Page — 22

FCC ID: EJMNPDPEMC2 7.0 Radiated Emissions Data 7.1 The following data lists the six most significant emission frequencies, total (corrected) levels, and specification margins. Correction factors, antenna height, table azimuth, etc., are contained in the data sheets immediately following. Explanation of the correction factors is given in paragraph 7.2 of this report. Complete graphs and data sheets may be referenced on the following pages. Minimum margins are listed below: CISPR 22 Class B Specification Limits 100Mbits Frequency Total Level Limit (MHz) Detection (dBuV/m) (dBuV/m) Margin (dB)* Polarization 66.651 aP 27.1 30.0 2.9 Vertical 66.651 aP 26.8 30.0 3.2 Horizontal 199.954 PK 26.5 30.0 3.5 Horizontal 50.000 PK 26.5 30.0 3.5 Vertical 68.865 oP 26.2 30.0 3.8 Vertical 666.516 aP 33.0 37.0 4.0 Horizontal Judgment: Passed, minimum margin of 2.9 dB. Test Personnel: i. Tester Signature: 'él/d"" %/ _ Date: April 22, 1998 Typed/Printed Name: Dean Ghizzone Northwest EMC, Inc. Report No. INTE1760 Page — 23

FCC ID: EJMNPDPEMC2 Northwest EMC, Inc. Version 52. Jan 1998 EUT Name: Bonzai Horizontal= X Serial Number: 2 Verticat =0 Manufacturer: intel Corp. Job Number: INTE1760 Test Date: 04—22—1998 Tested By: Donald Facteau, EC Test Distance: 10 meters. Comments: Board installed w/power connector, all cable, shortened IPM Run #13, added ferrite on IPM CISPR 22 Class B (10 meter limit) Class B Frequency Meter Detector Antenna Antenna Preamp Cable Adjusted Spec Table Antenna Compared Reading Factor Horizontal Gain Loss Level Limit Azimuth Height (To Limit) (MH2) (dBuy) (dB/m) Vertical (dB) (dB) (dBu¥im) (dBuV/im) (degree) (meters) (dB) 599,999 41.8 oP 192 VLPA 320 5.3 343 37.0 225.0 1.0 27 66.651 48.9 aP 88 vBIC 324 18 271 30.0 150.0 4.0 29 66.651 486 oP 88 HBic 324 18 268 300 270 0 40 32 199.954 41.0 PK 14.7 HBIC 320 28 265 30.0 270.0 36 35 50.000 47 2 PK 10.1 veic 324 16 265 30 0 $0.0 10 35 60.855 48.0 CP 8.7 vBic 323 18 26 2 30.0 180.0 1.0 38 666516 38.3 OP 210 HLPA 320 5.7 330 37.0 150.0 1.0 —4.0 199.955 399 PK 14.7 valc 320 28 25 4 30.0 315.0 21 4.6 68 862 48 2 or 87 HBIC 32.3 1.8 244 30 0 180 0 40 56 599909 381 OP 19.2 HLPA 32.0 53 30 6 37.0 180.0 1.0 64 600 001 37.7 PK 19.2 VLPA 32.0 53 30.2 37.0 225.0 1.0 68 50.000 44.0 CP 10.1 HBIC 325 16 232 30.0 180.0 4.0 —68 666 516 34 2 oP 21.0 VLPA 32.0 5.7 28 9 37.0 180.0 10 811 73781 437 OP 85 VBIC 323 18 21.7 30.0 90.0 1.0 83 56 042 428 aP 93 VBc 32.4 16 21.3 30.0 1800 1.0 87 70 428 42.0 CP 86 vBic 323 1.8 20 1 30.0 9.0 10 —8.9 56 002 38.7 PK 9.3 HBIC 324 16 172 30 0 0.0 35 128 73781 365 oP 85 HBIC 32.3 18 16.5 30.0 0.0 40 135 70. 428 381 OP 86 HBIC 32.3 18 162 30.0 00 4.0 138 Temperature 7OF $5% Humidity [Pfestcax Northwest EMC, Inc. Report No. INTE1760 Page — 24

FCC ID:EJMNPDPEMC2 7.2 Field Strength Calculations The field strength is calculated by adding the Antenna Factor and Cable Factor, and subtracting the Amplifier Gain (if any) from the measured level. The basic equation with a sample calculation is as follows: FS =RA+AF + CF — AG where : FS = Field Strength RA = Measured Level AF = Antenna Factor CF = Cable Attenuation Factor AG = Amplifier Gain Assume a receiver reading of 52.5 dBuV is obtained. The Antenna Factor of 7.4 and a Cable Factor of 1.1 is added. The Amplifier Gain of 29 dB is subtracted, giving a field strength of 32 dBuV/meter. FS = §2.5 + 7.4 + 1.1 — 29 = 32 dBuV/imeter Level in uV/m = Common Antilogarithm [(32 dBuV/m)/20] = 39.8 uV/m 7.3 Measurement Bandwidths Peak Data 150 KHZ — 30 MHZ .........ccommmemereesmnrerrererercrerrenmmmrerrens nmeerererereennerereneererceneeenencnnmeceenenee 10 kHz 30 MHz — 1000 MHz... ... 100 kHz 1000 MHz — 2000 MHz..... ..... 1000 kHz Quasi—peak Data 150 KHZ ~ 30 MHZ . . . . . coeue e emecne ere ern emnerer n enecece vaven c ces 9 kHz. 30 MHz — 1000 MHz...... .. 120 kHz All radiated measurements are quasi—peak unless otherwise stated. A video filter was not used. All conducted measurements are peak unless otherwise stated. A video filter was not used. Northwest EMC, Inc. Report No.INTE1760 Page — 25

FCC ID:EJMNPDPEMC2 8.0 Measurement Equipment Instrument Model Serial No. Freq Range Last Cal Cal Due Spectrum Analyzer HP 8567A 2718A00358 10 kHz — 1.5 GHz 04/21/98 04/21/99 Quasi Peak Adapter HP 85650A 2811401175 10 kHz — 1000 MHz 02/20/98 02/20/99 LISN EMCO 3825/2 9206—1974 10 kHz — 50 MHz 09/19/97 09/19/98 LISN Solar 9252—50—24—BNC 971602 10 kHz — 50 MHz 04/09/98 04/09/99 Log Periodic Antenna EMCO 3146 9006—2809 200 MHz — 1000 MHz 01/31/98 01/31/99 Bicon Antenna ARA BCD—235/B 1042 30 MHz — 200 MHz 01/31/98 01/31799 Pre—Amplifier AR LN1000AM3 21913 100 kHz — 1300 MHz 10/03/97 10/03/98 Northwest EMC, Inc. Report No.INTE1760 Page — 26

FCC ID:EJMNPDPEMC2 Appendix !: Measurement Procedures Each frequency was measured in both the horizontal and vertical antenna polarization‘s. The EUT position was maximized for each frequency, for both the horizontal and vertical antenna polarization‘s, using a remotely controlled turntable. The antenna height was varied from 1 — 4 meters at each frequency, for both the horizontal and vertical positions to maximize the emission level. The cable and peripheral positions were manipulated to ensure maximum levels at each frequency for both horizontal and vertical antenna polarization‘s. Measurements 30 MHz — 1000 MHz are made at an antenna to EUT distance of 10 meters. Measurements 1000 MHz — 2000 MHz are made at an antenna to EUT distance of 3 meters. Northwest EMC, Inc. Report No.INTE1760 Page — 27


Document Created: 2001-05-14 13:17:23
Document Modified: 2001-05-14 13:17:23
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