WIESON TECHNOLOGIES CO., LTD.

Similar documents
GPS Active Antenna With GPRS Measurement Report

The CReSIS Anechoic Chamber is located at: The University of Kansas. M2SEC building W 15 th St. Lawrence, KS

A BROADBAND POLARIZATION SELECTABLE FEED FOR COMPACT RANGE APPLICATIONS

Main features. System configurations. I Compact Range SOLUTION FOR

Millimetre Spherical Wave Antenna Pattern Measurements at NPL. Philip Miller May 2009

ETS Lindgren Anechoic Chamber

SPHERICAL NEAR-FIELD SELF-COMPARISON MEASUREMENTS

BROADBAND GAIN STANDARDS FOR WIRELESS MEASUREMENTS

APPLICATIONS OF PORTABLE NEAR-FIELD ANTENNA MEASUREMENT SYSTEMS

A DUAL-PORTED PROBE FOR PLANAR NEAR-FIELD MEASUREMENTS

Semi Anechoic Chamber (SAC)

Contents. EH-H21/12 Page 2 of 38

Fundamentals. Senior Project Manager / AEO Taiwan. Philip Chang

> StarLab. Multi-purpose Antenna Measurement Multi-protocol Antenna Development Linear Array Antenna Measurement OTA Testing

Title: Test on 5.8 GHz Band Outdoor WiFi (802.11b/g) Wireless Base Station

System configurations. Main features. I TScan SOLUTION FOR

Millimeter Spherical µ-lab System from Orbit/FR

Using Frequency Diversity to Improve Measurement Speed Roger Dygert MI Technologies, 1125 Satellite Blvd., Suite 100 Suwanee, GA 30024

ANECHOIC CHAMBER EVALUATION

A CYLINDRICAL NEAR-FIELD VS. SPHERICAL NEAR-FIELD ANTENNA TEST COMPARISON

FCC ID: A3LSLS-BD106Q. Report No.: HCT-RF-1801-FC003. Plot Data for Output Port 2_QPSK 9 khz ~ 150 khz Middle channel 150 khz ~ 30 MHz Low channel

SPHERICAL NEAR-FIELD MEASUREMENTS AT UHF FREQUENCIES WITH COMPLETE UNCERTAINTY ANALYSIS

A COMPOSITE NEAR-FIELD SCANNING ANTENNA RANGE FOR MILLIMETER-WAVE BANDS

4GHz / 6GHz Radiation Measurement System

T- DualScan. StarLab

Test sites for EMC measurements

REFLECTION SUPPRESSION IN LARGE SPHERICAL NEAR-FIELD RANGE

Further Refining and Validation of RF Absorber Approximation Equations for Anechoic Chamber Predictions

Software. Equipment. Add-ons. Accessories. Services

Ave output power ANT 1(dBm) Ave output power ANT 2 (dbm)

REPORT ITU-R BT Radiation pattern characteristics of UHF * television receiving antennas

PERFORMANCE CONSIDERATIONS FOR PULSED ANTENNA MEASUREMENTS

SPECIFICATION. FXP72 Freedom 2.4GHz Series Ground Coupled Antenna. Product Name : FXP72 Freedom 2.4GHz Series Ground Coupled Antenna

The LACE Antenna Test Ranges

2.4 GHz 2.5 GHz FlexPIFA 2 dbi Antenna w/u.fl Cable, 100mm

GAIN COMPARISON MEASUREMENTS IN SPHERICAL NEAR-FIELD SCANNING

Specification of Requirements. Request for tenders for antenna systems for Aalborg University. Side 1

Introduction Antenna Ranges Radiation Patterns Gain Measurements Directivity Measurements Impedance Measurements Polarization Measurements Scale

Absorbers and Anechoic Chamber Measurements

LTE Band 7. Channel

Immunity Test System RIS 3000 / RIS 6000 acc. to IEC/EN

Chapter 5. Array of Star Spirals

ANECHOIC CHAMBER DIAGNOSTIC IMAGING

Spectrian Dual Mode Cellular Power Amplifier Model No.: SCLPA 800 CR FCC ID: I2ONTHX51AA

ECHOSTAR 54.0 BRISBANE VOICE REMOTE 2017 MODEL: URC-2027BC0-R

Application Note. StarMIMO. RX Diversity and MIMO OTA Test Range

MISSION TO MARS - IN SEARCH OF ANTENNA PATTERN CRATERS

COMPUTED ENVELOPE LINEARITY OF SEVERAL FM BROADCAST ANTENNA ARRAYS

Millimeter Wave Measurement System

FCC 47 CFR PART 15 SUBPART C INDUSTRY CANADA RSS-210 ISSUE 8 BLUETOOTH LOW ENERGY CERTIFICATION TEST REPORT FOR. 2.4GHz LE MODULE MODEL NUMBER: RN4020

To «Test_Standards» Test of: Radwin Ltd. Outdoor Subscriber Radio Unit. To: FCC CFR 47 Part 15B; ICES-003 Issue 6: 2016

Principles of Planar Near-Field Antenna Measurements. Stuart Gregson, John McCormick and Clive Parini. The Institution of Engineering and Technology

ALIGNMENT SENSITIVITY AND CORRECTION METHODS FOR MILLIMETER- WAVE SPHERICAL NEAR-FIELD MEASUREMENTS

Antenna Measurement Software Features and Specifications

Medtronic MiniMed TEST REPORT FOR. GST3 Glucose Sensor Transmitter, MMT-7763A. Tested To The Following Standards:

Test specification: Section (e)(1), Radiated emissions below 40 GHz Test procedure: ANSI C63.4, Sections 8.3.2, 13.2, 13.4 Test mode: Compliance

System configurations. Main features I SG 64 SOLUTION FOR

FIELD STRENGTH TEST REPORT. Report Number: M161126

PRACTICAL GAIN MEASUREMENTS

2.4 / 5.5 GHz FlexPIFA 3 dbi Antenna w/u.fl Cable, 100mm

ADVANTAGES AND DISADVANTAGES OF VARIOUS HEMISPHERICAL SCANNING TECHNIQUES

Part No. ETH-MMW-1000 (version 1A) Millimeter Measurement System Frequency Range: 18 GHz 75 GHz

RAYTHEON 23 x 22 50GHZ PULSE SYSTEM

Physically and Electrically Large Antennas for Antenna Pattern Measurements and Radar Cross Section Measurements in the Upper VHF and UHF bands

Transmitarrays, reflectarrays and phase shifters for wireless communication systems. Pablo Padilla de la Torre Universidad de Granada

ANTENNA AND TRANSMISSION LINE

ENGINEERING TEST REPORT #: A LSR JOB #: C-2411

Frequency Range Peak Data Quasi-Peak Data Average Data (khz) (khz) (khz)

US Council of EMC Laboratories [USCEL] Technical Issues having Significant Cost Implications for EMC Laboratory Owners/Operators

TRANSMITTER MODEL: KAS-2030M

A COMPARISON OF METHODS FOR EVALUATING THE TEST ZONE PERFORMANCE OF ANECHOIC CHAMBERS DESIGNED FOR TESTING WIRELESS DEVICES

Multiple Target, Dynamic RF Scene Generator David J. Wayne, Scott T. McBride, John T. McKenna NSI-MI Technologies Suwanee, GA, USA

Antennas & Measurement of its parameters

FCC 15B Test Report. : BTv4.0 Dual Mode USB Dongle. Address : Thompson Ave. / Lenexa, Kansas / / USA

THz Vector Network Analyzer Development & Measurements

FEI TENG WIRELESS TECHNOLOGY CO., LTD. APPROVAL SHEET

The Importance of Polarization Purity Author: Lars J Foged, Scientific Director at MVG (Microwave Vision Group)

RADIOMETRICS Midwest Corporation

TABLE OF CONTENTS 1. GENERAL INFORMATION... 4

EMC TEST REPORT RADISYS CORPORATION. Tel: Fax:

Upgraded Planar Near-Field Test Range For Large Space Flight Reflector Antennas Testing from L to Ku-Band

DESIGN AND SIMULATION OF A C-BAND PYRAMIDAL HORN ANTENNA FOR WATER-LEVEL RADAR SENSORS

FCC PART MEASUREMENT AND TEST REPORT FOR. Guangzhou Walkera Technology CO., LTD

REVERBERATION CHAMBER FOR EMI TESTING

Revision history. Revision Date of issue Test report No. Description KES-RF-14T0042 Initial

Time Domain Far Field Antenna Measurements Without Anechoic Chamber

RFID Antenna Measurement

Numerical Calibration of Standard Gain Horns and OEWG Probes

Over the Air Testing: Important Antenna Parameters, Testing Methodologies and Standards

Estimating Measurement Uncertainties in Compact Range Antenna Measurements

Version TEST REPORT NO. DATE DESCRIPTION. HCTR1208FR49 August 29, 2012 First Approval Report

RADIO TEST REPORT. For MODEL NO FCC ID: C3K1703 IC ID: 3048A Test Report No. R-TR190-FCCIC-UNII-1 Issue Date: 14 September 2015

[Uplink_High] 150 ~ 30

Model: M /800 MHz Mobile Radio

required. The inside enclosure is then covered with a radiowave absorber to reduce reflections. Such an

Gain And Arbitrary Beamwidth Measurement For Identical Test Antennas

MEASUREMENT REPORT FCC Part 15B

Spider Tracks Limited

EXHIBIT 7: MEASUREMENT PROCEDURES Pursuant 47 CFR 2.947

Measurement of RF Emissions from a Caterpillar Inc. MSS3s RF ID Key Fob

Transcription:

WIESON 3D CHAMBER TEST REPORT G121HT632-1 Page 1 of 2

I. Summary: This report to account for the measurement setup and result of the Antenna. The measurement setup includes s-parameter, pattern, and gain measurement. The measured data for Antenna are presented and analysis. II. S-Parameter Measurement: A. Reflection coefficient : (a) Instrument:Network Analyzer. (b) Setup: (1) Calibrate the Network Analyzer by one port calibration using O.S.L. calibration kits. (2) Connect the antenna under test to the Network Analyzer. (3) Measure the S11(reflection coefficient) shown in Fig. 1. (4) Generally, the S11 is less than 1 to ensure the 9% power into antenna and only less than 1% power back to system. Fig.1 Antenna measured in Network Analyzer Page 2 of 2

III. S-Parameter Measurement Result: Antenna Return loss Frequency MHz 24 2 25 5 56 585-14.81 -.74-12.5 -.84-2.43-12.53 Page 3 of 2

Antenna VSWR Frequency MHz 24 2 25 5 56 585 VSWR 1.43 1.37 1.65 1.39 1.2 1.59 Page 4 of 2

IV. The Test Information Anechoic Chamber A. Scope This statement of work defines the requirements of a far-field antenna measurement range, which includes (1) One 325 cm (W) x cm (H) x 64 cm (L) Antenna Measurement Anechoic Chamber, detailed requirements refer section 2.. (2) One Far-field Antenna Measurement System with spinning linear CP measurement capabilities, detailed requirement refer section 3.. (3) One broad-band transmitted antenna, detailed requirements refer section 8.. (4) Three NRL-4433 standard gain antennas, detailed requirements refer section 9.. B. Antenna Measurement Anechoic Chamber Fully anechoic chamber with dimension 325 cm in width, cm in height and 64 cm in length. The quiet zone of this Chamber shall be greater than Page 5 of 2

7 cm @.9 GHz, 5 cm @1.8 GHz, 44 cm @2.4 GHz, 28 cm @5.8 GHz, 16 cm @18 GHz. Contractor should be aware of this anechoic chamber is going to be used for performing far-filed antenna measurement. C. Electrical specifications Frequency Range: 8 MHz to 18 GHz, Quiet zone size: >7 cm @.9 GHz, >5 cm @1.8 GHz, >44 cm @2.4 GHz, >28 cm @5.8 GHz, >16 cm @18 GHz. Quiet zone ripple: < +/-.5 @1.5~2.4 GHz, < +/-.25 @2.4~18GHz Field Probing Frequency Peak-to-Peak Amplitude Taper (Within specified Quiet one Area) Quiet one Size (cm) Compliant.9 GHz <.8 7 es 1.5 GHz <.6 55 es 1.8 GHz <.5 5 es 2. GHz <.4 44 es 4.8 GHz <.3 31 es 5.8 GHz <.3 28 es Page 6 of 2

D. Absorbers We shall design and install proper absorbers on the inner walls of the chamber to guarantee the electrical specifications. However, the absorbers height shall be no less than 24" which enables the space in the chamber to be around 23 cm (W) x 163 cm (H) x 533 cm (L). All the absorber used shall meet NRL-893 fire retardant regulations E. Far-field Antenna Measurement System We shall supply all the hardware and software which are capable of characterizing antenna radiation patterns from 3 KHz to 6 GHz or 18GHz using the existed Agilent 523A PNA-L or Agilent 83ES Vector Network Analyzer. The system shall be able to automatically measure and plot single axis amplitude and phase antenna patterns in either Cartesian or polar formats. F. Far-field measurement software The software consists of the control or data acquisition software and the data plotting software. (1) The data acquisition software shall at least be capable of the following functions: *measuring single frequency per cut - single axis (azimuth); system can automatically switch frequency at the end of a scan. *measuring data in Uni-direction or bi-direction *measuring data at least with azimuth 36 degrees. (+/- 18 degrees or -36 degrees) *real time plot in Cartesian or polar format *screen shows real time angle position Page 7 of 2

*system automatically calculates S/N ratio level based on measured signal fluctuation *function to set positioner zero position *operator can set data taking velocity and data sampling interval *entry to allow positioner offset to any angle (2) The data plotting software shall at least be capable of the following functions: *Editing plot data *plotting data in Cartesian, Polar or delimited ASCII output with header information *plotting data in linear or scales *normalizing data to peak (), standard gain reference (i), or no normalization *overlaying data, (drag and drop capability is preferable) *outputting data to any Windows supported printers G. Broadband Transmitted antenna We shall provide a linear-polarized broadband antenna with the specifications better than those listed hereafter in this article, Frequency: 1-18 GHz, Gain: >12 i @1 GHz, VSWR:<2,:1, Front to Back Ration > 2 H. NRL4433 Standard Gain Horns We shall provide one WR-43, WR-187 one DRH118 standard gain horns which meets the specifications of NRL-4433 report. The operating frequency of WR-43 standard gain horn is from 1.7 to 2.6 GHz, and WR-187 from 3.95 to 5.85 GHz, and DRH-118 from.8 to 18GHz. We shall also provide NRL-4433 theoretical gain curves and tables for the standard gain horns. Page 8 of 2

V. Antenna Measurement Photo Page 9 of 2

VI. Antenna Measurement Result Frequency (GHz) Peak Gain (i) 3D Gain (i) 3D Radiation Efficiency(%) 2.4 2.27-1.44 72 2. 1.82-1.59 69 2.5 1.59-1.87 65 5. 1.69-2.21 6 5.25 2.12-2.7 62 5.35 2.2-1.92 64 5.47 1.44-1.99 63 5.6 2.54-1.78 66 5.725 2.39-2.19 6 5.785 2.82-1.98 63 5.85 3.37-1.86 65 Page 1 of 2

VIII. 3D Radiation Pattern of Antenna 2.4GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Page 11 of 2 Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut)

2.GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page 12 of 2

2.5GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page 13 of 2

5.GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page 14 of 2

5.25GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page of 2

5.35GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 3D Pattern Far-field Pattern @ Phi=9 deg(e-theta Plane-Cut) Plot Peak Gain= 2.7 i; Co-Pol Efficiency: 58.59% @ Freq: 5.35 GHz 18 Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) Far-field Pattern @ Theta=9 deg(e-phi Plane-Cut) Plot Peak Gain= -1.3 i; Co-Pol Efficiency: 58.59% @ Freq: 5.35 GHz pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) 21 Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page 16 of 2

5.47GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page 17 of 2

5.6GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page 18 of 2

5.785GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page 19 of 2

5.85GHz pol 33 3 3 3 6 27-3 -2-1 9 24 12 21 18 3D Pattern Far-field Pattern @Phi= deg. (E-Theta Plane-Cut) pol pol 33 3 33 3 3 3 3 6 3 6 27-3 -2-1 9 27-3 -2-1 9 24 12 24 12 21 21 18 18 Far-field Pattern @Phi=9 deg. (E-Theta Plane-Cut) Far-field Pattern @Theta=9 deg. (E-Phi Plane-Cut) Page 2 of 2