HFC, DOCSIS Maintenance and Service Meter: Oneexpert CATV

Total Page:16

File Type:pdf, Size:1020Kb

HFC, DOCSIS Maintenance and Service Meter: Oneexpert CATV VIAVI Solutions Data Sheet VIAVI OneExpert CATV A full-featured handheld for technicians at any skill level OneExpertTM CATV helps field technicians fix problems right— the first time. A technician-friendly interface and OneCheck™ automated tests ease complex tasks with a simple dashboard that shows clear pass/fail results. And its future-proof modularity ensures years of use supporting CATV networks. Comprehensive Tools Increase Productivity Benefits We built expertise into OneExpert so that technicians at y Simplifies and speeds testing and any skill level can quickly optimize performance. With a troubleshooting modular platform that adapts easily to rapidly changing y Improves compliance and audit performance technologies, OneExpert CATV is: y Reduces rework y Simple — Auto channel identification eliminates y Turns any technician into an expert channel plan build, maintenance, and deployment Features overhead and enables automated testing without the y Real-time channel identification eliminates the potential for channel plan related test failures need for channel plans and plan-related errors y Fast — OneCheck uses powerful processing and y 32x8 DOCSIS® 3.0, DOCSIS 3.1, WiFi, 1 Gigabit exceptional speed to make more complete testing Ethernet capable, and TrueSpeed™ option practical: a tech can run a comprehensive test, y Field-exchangeable DOCSIS/RF module including MER and BER on all channels, in about y A unique dual-diplexer design supports a minute transition to extended return band y WiFi 2.4/5 GHz, wireless personal area network, y Powerful — More intelligent, powerful algorithms and StrataSync™ enabled running in the background while testing enables the y Simultaneous ingress and downstream testing meter to point out any problems and suggest next y Optional fiber scope and power meter troubleshooting steps y Optional ISDB-T Module Applications y Troubleshooting QAM carriers/home networks y Verifying WiFi in 2.4 GHz and 5 GHz networks Now with y Testing Gigabit DOCSIS services y Installing PON/RFoG including inspection, DOCSIS 3.1 power levels, and RF performance y Optional QAM video MPEG analysis for RPD activation y Optional home leakage testing y Network maintenance with forward and reverse sweep Specifications Frequency Range Upstream Analysis — Port 2 Automatically Ingress 0.5 – 204 MHz Switching Upstream Downstream spectrum Diplexer scan 4-42 MHz and 54-1,004 MHz and Sensitivity −45 dBmV 42/85 4-85 MHz 108-1,218 MHz RBW 300 kHz 4-42 MHz and 54-1,004 MHz and Min −55 dBmV 42/204 MHz 4-204 MHz 258-1,218 MHz detectable level 4-65 MHz and 83-1,218 MHz and 65/204 upstream 4-204 MHz 258 MHz-1,218 MHz Dynamic ONX-630 – 60dB; ONX-620 – 50dB ±10 ppm typical Accuracy range @25°C Max total 55 dBmV, 4 – 10 MHz; 60 dBmV, 10 to Downstream Analysis — Port 1 integrated 204 MHz AutoChannel Auto detection of channel parameters power plan builder (analog/digital, symbols, QAM) Accuracy ±2 dB typical at 25°C Max input TM 60 dBmV total integrated power Sampling rate Hyper Spectrum FFT gapless power technology - no missed samples, spans Operation on Operate with up to 90 V AC/DC on 0.5 -110 MHz, 110 to 160 MHz, and 160 powered tap input port to 204 MHz Power Notify of AC/DC power presence on Return loss >9.5 dB detection/ port 2 above 2 Volts Operation on Operate with up to 90 V AC/DC on notification powered tap input port Return loss >9 dB Power Notify of AC/DC power presence on detection/ port 2 notification above 2 Volts Upstream Signal Generator Number From 1 to 8 of signals generated simultaneously Signal types signals either all CW or all modulated Modulation QPSK, 16 QAM, and 64 QAM supported Symbol rates 5.12, 2.56, 1.28, 0.64, 0.32, and 0.16 supported Msym/s 2 VIAVI OneExpert™ CATV Data Sheet Specifications Continued Analog Channel Measurement Hum Specification Video and audio levels (dual) Hum frequency 25 Hz to 1000 Hz Standards NTSC , PAL, SECAM range Min −50 dBmV (single channel) Minimum MER 33 dB detectable Accuracy up to +/- 0.8% signal 5% hum Level accuracy ±1.5 dB from −20 dBmV to +50 dBmV From 5 to 10% +/- 1.0% typical at 25°C; ±2.0 dB, −10°C to OFDM Signal Performance Metrics +50°C OFDM Channels 24 - 192 MHz wide - up to 3 RBW 300 kHz active OFDM channels Carrier to Noise Level — max, min, relative to a 6 MHz carrier per Channel types NTSC , PAL, SECAM, non-scrambled average, standard CableLabs© Range 30 to 51 dB deviation (NTSC, 4 MHz measurement MER — max, 12 to 50 dB bandwidth) min, average, Required 0 to +40 dBmV with 77 analog standard deviation, input level channels present, maximum ±15 dB tilt percentile 50 to 1,000 MHz MER channel band max, min, avg across entire OFDM Accuracy ±2.0 dB within specified measurement graph carrier range Noise max ≤ 600 MHz Echo dBc Downstream Digital Channel Analysis ICFR in-carrier frequency response (dB) Calibrated -20 dBmV to +50 dBmV Spectrum/IUC spectrum display, including carrier power levels and ingress under carrier Level accuracy ±1.5 dB from -20 dBmV to +50 dBmV OFDM Profile Analysis typical at 25°C; ±2.0 dB, -10°C to Profiles A, B, C, D, NCP, and PLC +50°C (more profiles as implemented) Modulation(s) 64, 128, and 256 QAM, OFDM Lock status, codeword errors Annex A: 5.057 to 6.952 MSPS (corrected and uncorrected) Annex B: 5.057 for 64 QAM and 5.361 MSPS for 256 DOCSIS Testing QAM Supports DOCSIS 3.1 bonding up to 32 SC-QAM + 2 Annex C: 5.274 MSPS for 64 QAM and 5.361 MSPS for OFDM downstream channels, 8 SC-QAM + 2 OFDMA 256 QAM upstream channels Regional DVB-C Compliant with CableLabs® specifications for DOCSIS demods 3.1 Full span MER Compliant with CableLabs® specifications for DOCSIS Ingress under carrier — full span ingress noise trace 3.0 (32x8 bonding) Group delay and in-channel frequency response (ICFR) Digital quality index (DQI) over time Errored/severely errored seconds Level, measured symbol rate, carrier frequency, modulation, interleaver depth 3 VIAVI OneExpert™ CATV Data Sheet Specifications Continued Displayed DOCSIS Results MER Top level Number of bonded channels, min Specified range1 21 to 40 dB, 64 QAM; 28 to 40 dB, receive level, max BER (pre-FEC), (with input level 256 QAM; 16 to 44 dB OFDM min and max MER, max transmit -5 to +20 dBmV) level, max ICFR (in-channel Max displayable 50 dB frequency response) range Details Downstream SC-QAM (over time Resolution 0.1 dB charts: level, MER, BER, DQI), Accuracy ±2 dB typical at 25°C Upstream (charts: transmit over Minimum lock level −15 dBmV time, upstream ICFR, upstream BER — Down to 1E-9 (pre and post FEC) EQ taps ChannelCheck Service tests Registration, Throughput, Ping/ and DOCSISCheck Traceroute, Packet Quality; cable mode modem pass-through BER — OneCheck Down to 1E-8 (pre and post FEC) OFDM OFDM selected in scan, number mode default; 1E-9 user selectable of subcarriers, PLC lock status, Interleaver depth 128, 8 max frequency, level, and MER, CWE (corr, uncorr); OFDM channel(s) - Display/Interface/Usability Level variation (max, min, avg), High-brightness 5 inch diagonal MER variation (max, min, avg), color LCD (800 x ICFR, profile analysis (locked, CWE 480) corr, CWE uncorr) Touch screen Capacitive Downstream Hard key navigation capable Frequency range 54/85/108/258 to 1,000/1,218 MHz Boot time Approximately 20 sec (dependent on currently active Environmental diplexer frequency) For indoor/outdoor IP 54 light rain (0.5 in/hr; 1.27 cm/ Upstream use hr) Frequency range 5 to 204 MHz (dependent Pollution 2° on currently active diplexer Drop 1 m (3.3 ft) onto concrete frequency) Temp range Operating −10 to 50°C OFDMA channels ≥2, per DOCSIS specification (14 to 122°F) Transmit level +61 to +48 dBmV depending on Storage −20 to 60°C range (max) modulation format and number temp (-4 to 140°F) of bonded carriers, per DOCSIS Humidity 10 – 90% RH non-condensing specification RF immunity 8.5 V/m (for CATV measurements) SC-QAM channels up to 8 per DOCSIS specification Maximum altitude 4000 m (13,123 ft) 1MER range declines as input levels decrease. Expected MER range at MIN LOCK level of –15 dBmV. 4 VIAVI OneExpert™ CATV Data Sheet Specifications Continued Input/Outputs Weight RF (2) F connectors replaceable ONX-620 & ONX- 5.95 lb (2.7 kg) Port 1 Downstream 54/85/108/258 MHz 630 depending on diplexer Protective case and 0.95 lb Port 2 Upstream 4 – 204 MHz and TDR shoulder strap USB host (2) WiFi Ethernet (2) RJ45 10/100/1000T Test interface 802.11 a/b/g/n (2.4/5 GHz) Power Polarized Tests WiFi scan; WiFi access point (2.4 Remote Access/Connectivity GHz only) VNC accessible via IP address Scan results SSID (secure set identification); HTTPS file access via IP address Channel; Security setting; Power Mobile application via wireless personal area network level; MAC address Battery Scan modes AP list (access point); Channel graph; Field replaceable 96 W/hr 10.4 V, 10-cell LiIon Time graph Typical battery life 6 – 8 hr continuous, 15 – 20 hr Access point (IPX, Configure OneExpert CATV as typical usage TSX models only) WiFi access point (Ethernet to Battery charge 4 Hrs (90%) 6 - 8 Hrs 100% (AC WiFi bridge) time charger) StrataSync Reporting Capability Session based (job/work order) file saving of results gathered at TAP, GB, and CPE Measurement screen capture save and recall StrataSync Core Asset and data management StrataSync Plus Optional extended data management (6 years) Warranty Mainframe and 3-yr warranty (See http://www.
Recommended publications
  • Catv Cabling System
    NYULMC AMBULATORY CARE CENTER – FIT-OUT PHASE 1 Perkins & Will Architects PC 222 E 41st ST, NYC Project: 032698.000 Issued for GMP March 15, 2017 SECTION 27 41 33 CATV CABLING PART 1 - GENERAL 1.1 SYSTEM DESCRIPTION A. Furnish and install a complete and fully operational Television Signal Distribution System capable of delivering up to 158 video channels (6 MHz NTSC Channels containing NTSC, ATSC and QAM modulated programs) and IP Video over an installed Category 6A unshielded twisted pair cable system. The System shall utilize a cable plant comprised of a TIA/EIA 568 compliant horizontal distribution cable system and a coaxial and/or single mode fiber backbone system. The System shall employ Active Automatic Gain Control Electronics to adjust the video signal levels to each TV and shall be capable of supporting up to 14,000 connected devices. The System shall support bi-directional RF transmission for backbone interconnections. Include amplifiers, power supplies, cables, outlets, attenuators, hubs, baluns, adaptors, transceivers, and other parts necessary for the reception and distribution of the local CATV signals. Back-feed existing campus system. (CAT 5e is acceptable to 117 channels) B. Distribute cable channels to TV outlets to permit simple connection of EIA standard Analog/Digital television receivers. C. Deliver at outlets monochrome and NTSC color television signals without introducing noticeable effect on picture and color fidelity or sound. Signal levels and performance shall meet or exceed the minimums specified in Part 76 of the FCC Rules and Regulations D. Provide reception quality at each outlet equal to or better than that received in the area with individual antennas.
    [Show full text]
  • Compact UWB Slotted Monopole Antenna with Diplexer for Simultaneous Microwave Energy Harvesting and Data Communication Applications
    Progress In Electromagnetics Research C, Vol. 109, 169–186, 2021 Compact UWB Slotted Monopole Antenna with Diplexer for Simultaneous Microwave Energy Harvesting and Data Communication Applications Geriki Polaiah*, Krishnamoorthy Kandasamy, and Muralidhar Kulkarni Abstract—This paper proposes a new integration of compact ultra-wideband (UWB) slotted monopole antenna with a diplexer and rectifier for simultaneous energy harvesting and data communication applications. The antenna is composed of four symmetrical circularly slotted patches, a feed line, and a ground plane. A slotline open loop resonator based diplexer is implemented to separate the required signal from the antenna without extra matching circuit. A microwave rectifier based on the voltage doubler topology is designed for RF energy harvesting. The prototypes of the proposed antenna, diplexer, and rectifier are fabricated, measured, and compared with the simulation results. The measurement results show that the fractional impedance bandwidth of proposed UWB antenna reaches 149.7% (2.1 GHz–14.6 GHz); the diplexer minimum insertion losses (|S21|, |S31|) are 1.37 dB and 1.42 dB at passband frequencies; the output isolation (|S23|) is better than 30 dB from 1 GHz to 5 GHz; and the peak RF-DC conversion efficiency of the rectifier is 32.8% at an input power of −5dBm. The overall performance of the antenna with a diplexer and rectifier is also studied, and it is found that the proposed new configuration is suitable for simultaneous microwave energy harvesting and data communication applications. 1. INTRODUCTION Simultaneous wireless power transmission and communication is a promising technology that is intended to transmit power in free-space without wires and also provides data communication.
    [Show full text]
  • Multi-Coupled Resonator Microwave Diplexer with High Isolation
    Proceedings of the 46th European Microwave Conference Multi-Coupled Resonator Microwave Diplexer with High Isolation Augustine O. Nwajana, Kenneth S. K. Yeo Department of Electrical and Electronic Engineering University of East London London, UK [email protected] Abstract—A microwave diplexer achieved by coupling a dual- and dual-band filter (DBF) design [7], engineers can achieve band bandpass filter onto two single-bands (transmit, Tx and diplexers purely based on existing formulations rather than receive, Rx) bandpass filters is presented. This design eliminates developing complex optimisation algorithm to achieve the the need for employing external junctions in diplexer design, as same function. Also, since the resultant diplexer in this paper is opposed to the conventional design approach which requires formed by coupling a section of the BPF resonators, onto a th separate junctions for energy distribution. A 10-pole (10 order) section of the DBF resonators, a reduced sized diplexer is diplexer has been successfully designed, simulated, fabricated achieved. This is because the energy distributing resonators and measured. The diplexer is composed of 2 poles from the dual- (that is, the two DBF resonators), contribute one resonant pole band filter, 4 poles from the Tx bandpass filter, and the to the diplexer Tx channel and one resonant pole to the diplexer remaining 4 poles from the Rx bandpass filter. The design was implemented using asynchronously tuned microstrip square Rx channel. Therefore, the large size issue with the open-loop resonators. The simulation and measurement results conventional diplexer design can be avoided, as external show that an isolation of 50 dB is achieved between the diplexer junctions (or external/common resonator) are not required.
    [Show full text]
  • Model-Based Vector-Fitting Method for Circuit Model Extraction of Coupled-Resonator Diplexers Ping Zhao, Student Member, IEEE, and Ke-Li Wu, Fellow, IEEE
    IEEE TRANSACTIONS ON MICROWAVE THEORY AND TECHNIQUES, VOL. 64, NO. 6, JUNE 2016 1787 Model-Based Vector-Fitting Method for Circuit Model Extraction of Coupled-Resonator Diplexers Ping Zhao, Student Member, IEEE, and Ke-Li Wu, Fellow, IEEE Abstract— In this paper, a novel rational function approxi- In mass production of such microwave devices, the physical mation method, namely, model-based vector fitting (MVF), is realization is highly sensitive to the dimensional tolerance of proposed for accurate extraction of the characteristic functions the resonators as well as the coupling elements. Therefore, of a coupled-resonator diplexer with a resonant type of junction from noise-contaminated measurement data. MVF inherits all the manual tuning is necessary in the production process to meet merits of the vector-fitting (VF) method and can also stipulate the stringent system specifications. Traditionally, the tuning the order of the numerator of the model. Thus, MVF is suitable is accomplished by skilled technologists through consecutive for the high-order diplexer system identification problem against manual adjustments based on their years of accumulated measurement noise. With the extracted characteristic functions, experience. Tuning a coupled-resonator device with a complex a three-port transversal coupling matrix of a diplexer can be synthesized. A matrix orthogonal transformation strategy is also coupling topology is a demanding, time-consuming, and costly proposed to transform the obtained transversal matrix to a target process. A computer-aided tuning (CAT) tool that can identify coupling matrix configuration, whose entries have one-to-one those unsatisfying coupling values and deterministically guide relationship with the physical tuning elements.
    [Show full text]
  • Mantchingpost
    ANALYSIS AND SYNTHESIS OF MILLIMETRIC E-PLANE DIPLEXERS IN RECTANGULAR WAVEGUIDE -Antonio Morini, Tullio Rozzi Dipartimento di Elettronica e Automatica, Universitk di Ancona ABSTRACI A novel E-plane diplexer is proposed and discussed. Its feature is the matching section of the three-port junction, obtained by means of an E-plane septum, realized on the same mask as the branching filters and placed in the cavity of an abrupt E- plane junction. The latter is designed-in such-a way that, when combine d with two,reasbnably 7good filters, separately designed and suitably positioned, the resulting diplexer gives good performances without further optimization. This design technique, based on the properties of the scattering parameters of a reciprocal lossless three-portjunction, is , as such, of general validity and easily extended to other structures. INTRQD_UCTION The more expensive part of an E-plane circuit in rectangular waveguide for millimetric application is its housing. In fact, its fabrication requires high precision milling machines and it is difficult to: reduce tolerances below 10 t for each half housing. Therefore, it becomes important to simplify as much as possible the housing geometry, even increasing the complexity of the mask. For this reason, we study an E-plane diplexer based on an abrupt three-portjunction, in lieu of a tapered junction, Dittlof and Andt- (1-2), Vahldieck and Varailhon- de la Filolie(3), requiring more expensive mechanical construction. The junction is tuned by a single inductive post, built on the same mask as the E-plane filters and placed between the junction and the bifurcation, as shown in fig.1, Morini et al.
    [Show full text]
  • (12) United States Patent (10) Patent No.: US 7,593,639 B2 Farmer Et Al
    US007593639B2 (12) United States Patent (10) Patent No.: US 7,593,639 B2 Farmer et al. (45) Date of Patent: Sep. 22, 2009 (54) METHOD AND SYSTEM FOR PROVIDINGA 4.495,545 A 1/1985 Dufresne et al. RETURN PATH FOR SIGNALS GENERATED 4,500,990 A 2f1985 Akashi BY LEGACY TERMINALS IN AN OPTICAL (Continued) NETWORK (75) FOREIGN PATENT DOCUMENTS Inventors: James O. Farmer, Lilburn, GA (US); John J. Kenny, Suwanee, GA (US); CA 2107922 A1 4, 1995 Patrick W. Quinn, Lafayette, CA (US); (Continued) Deven J. Anthony, Tampa, FL (US) OTHER PUBLICATIONS (73) Assignee: Enablence USA FTTX Networks Inc., Title: Spectral Grids for WDM Applications: CWDM Wavelength Alpharetta, GA (US) Grid, Publ: International Telecommunications Union, pp. i-iii and 1-4, Date: Dec. 1, 2003. (*) Notice: Subject to any disclaimer, the term of this patent is extended or adjusted under 35 (Continued) U.S.C. 154(b) by 0 days. Primary Examiner Agustin Bello (74) Attorney, Agent, or Firm—Sentry Law Group; Steven P. (21) Appl. No.: 11/654,392 Wigmore (65) Prior Publication Data A return path system includes inserting RF packets between US 2007/0223928A1 Sep. 27, 2007 regular upstream data packets, where the data packets are generated by communication devices such as a computer or Related U.S. Application Data internet telephone. The RF packets can be derived from ana log RF signals that are produced by legacy video service (63) Continuation of application No. 10,041,299, filed on terminals. In this way, the present invention can provide an Jan. 8, 2002, now Pat.
    [Show full text]
  • Digital Audio for NTSC Television
    Digital Audio for NTSC Television Craig C. Todd Dolby Laboratories San Francisco 0. Abstract A previously proposed method of adding a digital similarities between B-PAL and M-NTSC indicated carrier to the NTSC broadcast channel was found to that the Scandinavian test results would apply in the be marginally compatible with adjacent channel U.S. Our original 1987 proposal was: operation. The technique also has some problems unique to broadcasters. Digital transmission A. QPSK carrier with alpha=0.7 filtering. techniques are reviewed, and a new set of digital transmission parameters are developed which are B. Carrier frequency 4.85 MHz above video thought to be optimum for digital sound with NTSC carrier. television. C. Carrier level -20 dB with respect to peak vision carrier level. I. Introduction Compatibility testing of that system has been It is very feasible to compatibly add digital audio to performed, and some television sets have been found the NTSC television signal as carried on cable on which the data carrier causes detectable television systems. Besides the marketing advantage interference to the upper adjacent video channel in a which can accompany the use of anything "digital", clean laboratory setting. It should be noted that with there are some real advantages to digital these problem sets, the FM aural carrier also caused broadcasting, especially where the transmission path noticeable interference to the upper adjacent picture. is imperfect. Digital transmission is inherently The interference from data occurs into luminance, robust. While the coding of high quality audio into and manifests itself as additive noise between digital form theoretically entails a loss of quality, approximately 1 MHz and 1.4 MHz.
    [Show full text]
  • Tvtransmitter 2/O.2 Kw Band Lll with Modulation at a Fixed Lf :T
    SIEMENS TVTransmitter 2/O.2 kW Band lll with modulation at a fixed lF :t Contents V l. Design ll. Features lll. Construction lV. Principles of Operation V. Electrical Data Vl. Scope ol Delivery rt v lssued by Bereich Bauelemente, Vertrieb, Balanstraße 73.8000 München 80 Terms of de lverv and riahts to chanse desisn reserved. l. Design fhe 2/O.2 kW VHF Band lll television transmitter consists Transmitter preamplifier stages up to an output power ot vof separate amplifier chains for the picture and sound approx. 1O W fitted with silicon transistors. signals with a combining network at the output. The pic- ture and sound pre stage with associated power supply Modulation at f ixed lF. is located in one cabinet together with the 2/0.2 kW out- For TV transmission in accordance with CCIR Recom- put stage with power supply and the diplexer in a second mendalions (625 lines, channel bandwidth 7 MHz). cabinet, the combining unit. lt is possible to house in picture this cabinet also some monitoring equipment. As Also available for FCC or OIRT standards. monitor, oscilloscope, switch point selector, sound de- modulator, Nyquist demodulator, but note this equipment Completely color-compatible for NTSC, PAL or SECAM is not part of the transmitter. standards. The standard version is designed for operation in accord- ance with the CCIR Recommendations (625 lines, T MHz channel bandwldth). lf required the transmitter can also be supplied to the FCC standard (525 lines, 6 MHz channel bandwidth), or OIRT standard (625 lines, S MHz channel lll. Construction For is fully bandwidth).
    [Show full text]
  • General Disclaimer One Or More of the Following Statements May Affect
    General Disclaimer One or more of the Following Statements may affect this Document This document has been reproduced from the best copy furnished by the organizational source. It is being released in the interest of making available as much information as possible. This document may contain data, which exceeds the sheet parameters. It was furnished in this condition by the organizational source and is the best copy available. This document may contain tone-on-tone or color graphs, charts and/or pictures, which have been reproduced in black and white. This document is paginated as submitted by the original source. Portions of this document are not fully legible due to the historical nature of some of the material. However, it is the best reproduction available from the original submission. Produced by the NASA Center for Aerospace Information (CASI) I GENII-ANNUAL STATUS REPORT (bA;,A — CL— 'a7 39 o4 ) ULStAULH 16 81LL1llLTEb 084 -34E57 IF 2ECbh4,U8S SV 51du L1Ud1 Status UUNULt, lid3 - Jul. 1984 (GeoLg1d inst. jL .) e5 hL AOl/ p t AU 1 CSCL dON U"C13f G3/J2 e4O24 RLSEARCH IN MILLIMETER WAVE TECHNIQUES NASA GRANT NO. 14SG-5012 GT/EES PROJECT NO. A-1642 R. E. Forsythe Project Di rector /Pr inc;pal Investigatcr L. R. Dod Project Monitor for NASA/GSFC ^I Report Period 15 July 1983 — 15 July 1984 wo L ^ ^ August 1984 GEORGIA INSTITUTE OF TECHNOLOGY ► A Unit of the University System of Georgia Engineering Experiment Station Atlanta, Georgia 30332 984 U ar a- v ,. w C 11 u J Semiannual Status Report o.
    [Show full text]
  • Rf Components
    RF COMPONENTS/ SYSTEMS PRODUCT CATALOG 2019 (Front Cover Photo) Unitized Constant Impedance Four channel UHF Adjacent Channel Constant Combiner & Patch Panel Impedance Combiner/Mask Filter System Installed at 10,200ft AMSL 2 JAMPRO ANTENNAS, INC.– Your Partner for DTV-DVB-T & HD Radio Solutions- the oldest, most experienced broadcast antenna company in North America with over 50 years of experience providing “Complete Turnkey Broadcast Systems.” ABOUT JAMPRO Jampro Antennas Inc., established in 1954 to answer the need for high quality broadcast systems with a cost effective solution. Jampro is a leading supplier of antennas, combiners & filters, towers and RF components for every application in the broadcast industry. Reputed for innovation and customization, Jampro builds each system to the specifications of each individual broadcaster. From the first system delivered to those installed today, Jampro is committed to consistent performance and quality founded on solid engineering. Today over 25,000 broadcasters worldwide benefit from the quality and performance provided by Jampro systems. CONTINUING THE TRADITION Engineering and manufacturing broadband multi channel systems for UHF/VHF/FM since 1967 and delivered more than 200 systems in the last 5 years. Delivered and installed the highest power broadband UHF systems including antennas, combiners, transmission line, and towers in Asia. One system rated for 320kW and three others operate at 240kW, 260kW, and 280kW. Major supplier for common transmission infrastructure projects in India. Supplying more than 75% of equipment for phase 1 and the largest number of sites for phase 2. True pioneer in the development and introduction of “Circular Polarization to TV.” Delivering 1st circularly polarized TV Antenna in the world and 1st 5MW circularly polarized UHF system.
    [Show full text]
  • Radio and Tv Broadcast Antennas
    BROADCAST ANTENNAS RADIO AND TV Summary 1 Front Cover 2 Summary 3 Introduction 4 Channels & Frequencies 5 Circular Polarization Tuned MY-Heliax FM Radio MY-Ciclone MY-Syren 6 Circular Polarization Broadband MY-TetraQ MY-TetraQ2 MY-TetraQ3 7 Circular Polarization High Power Panel MY-4DC 8 Vertical Polarization Dipole MY- Yinx- FM MY-FMPL MY-FMPL2 9 Vertical Polarization MY-GM MY-GM2Y MY-GM3Y 10 Vertical Polarization High Power Panel MY-BII Panel 11 Radio FM Splitters 12 Radio FM Filters 13 Radio FM Combiners 14 MY-1130 DAB MY-1150 MY-1180/90 15 MY-1140 MY-1170 MY-1160 16 DAB Splitters 17 DAB Filters 18 DAB Combiners 19 MY-BI Panel TV B I 20 MY-BIII 2D Panel TV BIII MY-BIII 4D Panel 21 2D BIII D Panel BIII yagi 22 Splitters BIII Filters BIII 23 Combiners BIII 24 MY-BIV/V 4 D Panel CI UHF BIV/V TV MY-BIV/V 4 D Panel 25 MY-YINX-N UHF 26 Splitters UHF 27 Filters UHF 28 Combiner UHF 29 MY-DVB Panel DVB 30 Splitters DVB 31 Filters DVB 32 Combiner DVB 33 Accessories Rigid Line Accesories Adapters Coaxial Connectors Directional Couplers 34 Address 2 Summary MOYANO is since 1960 the pioneer Company in the Spanish Radio Frequencies technology, basing its development in the design and construction of Antennas, Power devices and Telecommunication Towers. MOYANO is today the company that offers to their clients the best solutions in technology and Infrastructure for Broadcast Networks. The technological development based in the applied engineering facility is fully supported by a production group as well as installtion and maintenance division.
    [Show full text]
  • Frequency Diplexer Network for Wireless Parallel Data Transmission
    Frequency diplexer network for wireless parallel data transmission and ultrawideband systems utilizing manifold technique Imran Mohsin, Magnus Karlsson and Shaofang Gong The self-archived postprint version of this journal article is available at Linköping University Institutional Repository (DiVA): http://urn.kb.se/resolve?urn=urn:nbn:se:liu:diva-109116 N.B.: When citing this work, cite the original publication. Mohsin, I., Karlsson, M., Gong, S., (2014), Frequency diplexer network for wireless parallel data transmission and ultrawideband systems utilizing manifold technique, Microwave and optical technology letters (Print), 56(8), 1869-1871. https://doi.org/10.1002/mop.28464 Original publication available at: https://doi.org/10.1002/mop.28464 Copyright: Wiley (12 months) http://eu.wiley.com/WileyCDA/ Frequency Diplexer Network for Wireless Parallel Data Transmission and Ultra-wideband Systems Utilizing Manifold Technique Imran Mohsin, Magnus Karlsson, and Shaofang Gong. Linkoping University, Department of Science and Technology, SE-60174 Norrköping, Sweden E-mail: [email protected] Abstract— A frequency diplexer network for ultra-wideband transmission. One of the additional challenges dealt with in radios focused on wireless parallel data transmission is this paper is the minimization of the frequency diplexer. presented. It has a combination of two band pass filters utilizing manifold multiplexing technique. In the frequency band 6-9 II. OVERVIEW OF THE SYSTEM GHz, two flat sub-bands at center frequencies 6.7 and 8.3 GHz have been achieved with respect to forward transmission, input Figure 1 depicts the architecture of the FDM technique reflection and group delay. A maximum group delay variation of utilizing a receiver and transmitter for wireless parallel data 0.6 ns was measured in the sub-bands.
    [Show full text]