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Satellite / Parabolic
Amplifiers – All amplifiers are available as single units or in redundant or combined systems-Wikipedia For products in frequencies other than S-Band – C-Band – X-Band – K-Band – Ku-Band – Ka-Band – W-Band – Q-Band – V-Band – DBS-Band – Tri-Band – S-Band – UHF-Band – L-Band – Multi-Band, please refer to our other products pages. Product line includes: HPA – high-frequency solid state amplifiers – Military Satcom – oscillator power-amplifier systems – Millimeter wave klystron technology – Crossed-Field Amplifiers-Wikipedia (CFAs) TWT cathode or grid pulsing. – SSPA- Solid State Power Amplifiers (SSPAs) and Block Upconverters (BUCs) Upconverter – TWTA-Wikipedia Outdoor Indoor Traveling Wave Tube Amplifiers Coupled Cavity TWTs . TWT – Ring-Loop TWT – Pulsed ring-loop traveling wave tube – Pulsed Products – Inductive Output Tubes (IOTs) – Klystrodes – Klystrons-Wikipedia Gyrotrons – CW Oscillators – Pulsed Oscillators – Pulsed Products – TWT cathode or grid pulsing – Millimeter wave uplink amplifiers – Power Couplers – RF Decks – Standalone RF amplifier decks ) can be provided. The RF chain is completely configured to your requirements.
Satellite Amplifier – SSPA – TWTA – BUC – In-line – LNB Amplifier–Wikipedia
Block Upconverters (BUC)–Wikipedia
A block Upconverter (BUC) is used in the transmission (uplink) of satellite signals. It converts a band of frequencies from a lower frequency to a higher frequency. Modern BUCs convert from the L band to Ku band, C band and Ka band. Older BUCs convert from a 70 MHz intermediate frequency (IF) to Ku band or C band.
Terrasat
Terrasat Communications designs and manufactures innovative RF solutions for Satellite Communications systems. Our ground-breaking IBUC – the Intelligent Block Upconverter – brings advanced features and performance to C-band, X-band, Ku-band and Ka-band satellite earth terminals and VSAT’s. Our products offer exceptional value at reasonable cost, thereby allowing our customers to stay ahead of their competitors.
C-Band BUC–Wikipedia
Nearly all C-band communication satellites use the band of frequencies from 3.7 to 4.2 GHz for their downlinks, and the band of frequencies from 5.925 to 6.425 GHz for their uplinks. Note that by using the band from 3.7 to 4.0 GHz, this C-band overlaps somewhat into the IEEE S-band for radars.
Ku-Band–Wikipedia
The Ku band is a portion of the electromagnetic spectrum in the microwave range of frequencies ranging from 11.7 to 12.7GHz. (downlink frequencies) and 14 to 14.5GHz (uplink frequencies) Low or extended Ku band is used from 10.7 to 12.75 GHz (LOF Low 9.750 GHz, LOF High 10.750 GHz)
Ka-Band BUC–Wikipedia
The Ka band (“kay-ay band”) covers the radio frequencies of 26.5–40 GHz, i.e. wavelengths from slightly over one centimeter down to 7.5 millimeters. The Ka band is part of the K band of the microwave band of the electromagnetic spectrum. This symbol refers to “K-above”: in other words, the band directly above the K-band. The 30/20 GHz band is used in communications satellites, uplink in either the 27.5 GHz and 31 GHz bands, and high-resolution, close-range targeting radars aboard military airplanes.
X-Band BUC–Wikipedia
The X band is a segment of the microwave radio region of the electromagnetic spectrum. In some cases, such as in communication engineering, the frequency range of the X band is rather indefinitely set at approximately 7.0 to 11.2 GHz. In radar engineering, the frequency range is specified by the IEEE at 8.0 to 12.0 GHz.
DBS-Band BUC–Wikipedia
This new allocation will have 17.3-17.7 GHz as the downlink broadcast band, and a band at 24.75-25.25 GHz for the “feeder link” Earth-to-space band. The current DBS band, used by DirecTV and EchoStar, is 12.2-12.7 GHz for the downlinks and 17.3-17.8 GHz for the uplinks
Actox
Actox manages the manufacturing, importation, sales, marketing, and integration of satellite telecommunication products originating in Europe, USA, and Asia. Actox also maintains its own manufacturing facilities and service centers and in the USA, Europe, Middle East and Asia.
C-Band BUC–Wikipedia
Nearly all C-band communication satellites use the band of frequencies from 3.7 to 4.2 GHz for their downlinks, and the band of frequencies from 5.925 to 6.425 GHz for their uplinks. Note that by using the band from 3.7 to 4.0 GHz, this C-band overlaps somewhat into the IEEE S-band for radars.
Ku-Band BUC–Wikipedia
The Ku band is a portion of the electromagnetic spectrum in the microwave range of frequencies ranging from 11.7 to 12.7GHz. (downlink frequencies) and 14 to 14.5GHz (uplink frequencies) Low or extended Ku band is used from 10.7 to 12.75 GHz (LOF Low 9.750 GHz, LOF High 10.750 GHz)
Low Ku-Band BUC–Wikipedia
The Ku band is a portion of the electromagnetic spectrum in the microwave range of frequencies ranging from 11.7 to 12.7GHz. (downlink frequencies) and 14 to 14.5GHz (uplink frequencies) Low or extended Ku band is used from 10.7 to 12.75 GHz (LOF Low 9.750 GHz, LOF High 10.750 GHz)
Ka-Band BUC–Wikipedia
The Ka band (“kay-ay band”) covers the radio frequencies of 26.5–40 GHz, i.e. wavelengths from slightly over one centimeter down to 7.5 millimeters. The Ka band is part of the K band of the microwave band of the electromagnetic spectrum. This symbol refers to “K-above”: in other words, the band directly above the K-band. The 30/20 GHz band is used in communications satellites, uplink in either the 27.5 GHz and 31 GHz bands, and high-resolution, close-range targeting radars aboard military airplanes.
X-Band BUC–Wikipedia
The X band is a segment of the microwave radio region of the electromagnetic spectrum. In some cases, such as in communication engineering, the frequency range of the X band is rather indefinitely set at approximately 7.0 to 11.2 GHz. In radar engineering, the frequency range is specified by the IEEE at 8.0 to 12.0 GHz.
DBS-Band BUC–Wikipedia
This new allocation will have 17.3-17.7 GHz as the downlink broadcast band, and a band at 24.75-25.25 GHz for the “feeder link” Earth-to-space band. The current DBS band, used by DirecTV and EchoStar, is 12.2-12.7 GHz for the downlinks and 17.3-17.8 GHz for the uplinks.
Belcom
The Belcom team incorporates innovative design with efficient, high turnover manufacturing processes to provide top-caliber products with impressive lead times.
C-Band BUC–Wikipedia
Nearly all C-band communication satellites use the band of frequencies from 3.7 to 4.2 GHz for their downlinks, and the band of frequencies from 5.925 to 6.425 GHz for their uplinks. Note that by using the band from 3.7 to 4.0 GHz, this C-band overlaps somewhat into the IEEE S-band for radars.
New Japan Radio
The abbreviation LNB stands for Low Noise Block. It is the device on the front of a satellite dish that receives the very low level microwave signal from the satellite, amplifies it, changes the signals to a lower frequency band and sends them down the cable to the indoor receiver.
C-Band BUC–Wikipedia
Nearly all C-band communication satellites use the band of frequencies from 3.7 to 4.2 GHz for their downlinks, and the band of frequencies from 5.925 to 6.425 GHz for their uplinks. Note that by using the band from 3.7 to 4.0 GHz, this C-band overlaps somewhat into the IEEE S-band for radars.
Ku-Band BUC–Wikipedia
The Ku band is a portion of the electromagnetic spectrum in the microwave range of frequencies ranging from 11.7 to 12.7GHz. (downlink frequencies) and 14 to 14.5GHz (uplink frequencies) Low or extended Ku band is used from 10.7 to 12.75 GHz (LOF Low 9.750 GHz, LOF High 10.750 GHz)
Ka-Band BUC–Wikipedia
The Ka band (“kay-ay band”) covers the radio frequencies of 26.5–40 GHz, i.e. wavelengths from slightly over one centimeter down to 7.5 millimeters. The Ka band is part of the K band of the microwave band of the electromagnetic spectrum. This symbol refers to “K-above”: in other words, the band directly above the K-band. The 30/20 GHz band is used in communications satellites, uplink in either the 27.5 GHz and 31 GHz bands, and high-resolution, close-range targeting radars aboard military airplanes.
Norsat
Norsat Phase locked Loop (PLL) Commercial LNBs. Norsat offers a wide range of BUCs, SSPAs, LNBs, LNAs, BDCs, and microwave components that can be customized to meet your specific requirements. Down converter: A device that takes a block of frequency and converts it to a lower frequency. The lower the noise temperature, the better the performance. DRO: (Dielectric Resonator or Dielectrically Stabilized Oscillator) Highly stable oscillator circuit employed by LNBs. Ku-Band Ka-Band C-Band and X-Band–Wikipedia
C-Band BUC–Wikipedia
Nearly all C-band communication satellites use the band of frequencies from 3.7 to 4.2 GHz for their downlinks, and the band of frequencies from 5.925 to 6.425 GHz for their uplinks. Note that by using the band from 3.7 to 4.0 GHz, this C-band overlaps somewhat into the IEEE S-band for radars.
Ku-Band BUC–Wikipedia
The Ku band is a portion of the electromagnetic spectrum in the microwave range of frequencies ranging from 11.7 to 12.7GHz. (downlink frequencies) and 14 to 14.5GHz (uplink frequencies) Low or extended Ku band is used from 10.7 to 12.75 GHz (LOF Low 9.750 GHz, LOF High 10.750 GHz)
Ka-Band BUC–Wikipedia
The Ka band (“kay-ay band”) covers the radio frequencies of 26.5–40 GHz, i.e. wavelengths from slightly over one centimeter down to 7.5 millimeters. The Ka band is part of the K band of the microwave band of the electromagnetic spectrum. This symbol refers to “K-above”: in other words, the band directly above the K-band. The 30/20 GHz band is used in communications satellites, uplink in either the 27.5 GHz and 31 GHz bands, and high-resolution, close-range targeting radars aboard military airplanes.
X-Band BUC–Wikipedia
The X band is a segment of the microwave radio region of the electromagnetic spectrum. In some cases, such as in communication engineering, the frequency range of the X band is rather indefinitely set at approximately 7.0 to 11.2 GHz. In radar engineering, the frequency range is specified by the IEEE at 8.0 to 12.0 GHz.
Agilis–Wikipedia
Throughout our history, the Agilis team has worked on many of the industry’s most advanced gas turbine engines. We’ve helped streamline designs, test performance and ensure reliability for the most sophisticated engine technology in operation today.
C-Band BUC–Wikipedia
Nearly all C-band communication satellites use the band of frequencies from 3.7 to 4.2 GHz for their downlinks, and the band of frequencies from 5.925 to 6.425 GHz for their uplinks. Note that by using the band from 3.7 to 4.0 GHz, this C-band overlaps somewhat into the IEEE S-band for radars.
Ku-Band BUC–Wikipedia
The Ku band is a portion of the electromagnetic spectrum in the microwave range of frequencies ranging from 11.7 to 12.7GHz. (downlink frequencies) and 14 to 14.5GHz (uplink frequencies) Low or extended Ku band is used from 10.7 to 12.75 GHz (LOF Low 9.750 GHz, LOF High 10.750 GHz)
X-Band BUC–Wikipedia
The X band is a segment of the microwave radio region of the electromagnetic spectrum. In some cases, such as in communication engineering, the frequency range of the X band is rather indefinitely set at approximately 7.0 to 11.2 GHz. In radar engineering, the frequency range is specified by the IEEE at 8.0 to 12.0 GHz.
Advantech–Wikipedia
Founded in 1983, Advantech is a leader in providing trusted innovative embedded and automation products and solutions. Advantech offers comprehensive system integration, hardware, software, customer-centric design services, and global logistics support; all backed by industry-leading front and back office e-business solutions.
C-Band SSPB–Wikipedia
Nearly all C-band communication satellites use the band of frequencies from 3.7 to 4.2 GHz for their downlinks, and the band of frequencies from 5.925 to 6.425 GHz for their uplinks. Note that by using the band from 3.7 to 4.0 GHz, this C-band overlaps somewhat into the IEEE S-band for radars.
Ku-Band SSPB–Wikipedia
The Ku band is a portion of the electromagnetic spectrum in the microwave range of frequencies ranging from 11.7 to 12.7GHz. (downlink frequencies) and 14 to 14.5GHz (uplink frequencies) Low or extended Ku band is used from 10.7 to 12.75 GHz (LOF Low 9.750 GHz, LOF High 10.750 GHz)
X-Band SSPB–Wikipedia
The X band is a segment of the microwave radio region of the electromagnetic spectrum. In some cases, such as in communication engineering, the frequency range of the X band is rather indefinitely set at approximately 7.0 to 11.2 GHz. In radar engineering, the frequency range is specified by the IEEE at 8.0 to 12.0 GHz.
Direction Finding Antennas–Wikipedia
Direction Finding (CRDF) Earlier systems used a mechanically rotated antenna (or solenoid) and an operator listening for peaks or nulls in the signal
Teledyne Paradise Datacom–Wikipedia
Teledyne Paradise Datacom, a Teledyne Technologies company, designs, manufactures and sells satellite modems, solid state power amplifiers (SSPA), low noise amplifiers (LNA), block up converters (BUC) and associated redundancy subsystems. We deliver satellite communications products around the world.
C-Band SSPA–Wikipedia
Nearly all C-band communication satellites use the band of frequencies from 3.7 to 4.2 GHz for their downlinks, and the band of frequencies from 5.925 to 6.425 GHz for their uplinks. Note that by using the band from 3.7 to 4.0 GHz, this C-band overlaps somewhat into the IEEE S-band for radars.
SSPA- Solid State Power Amplifiers (SSPAs) and Block Upconverters (BUCs) Ku-Band Indoor – Ku-Band Outdoor – C-Band Indoor – C-Band Outdoor – X-Band Outdoor – Ka-Band Outdoor
Ku-Band SSPA–Wikipedia
The Ku band is a portion of the electromagnetic spectrum in the microwave range of frequencies ranging from 11.7 to 12.7GHz. (downlink frequencies) and 14 to 14.5GHz (uplink frequencies) Low or extended Ku band is used from 10.7 to 12.75 GHz (LOF Low 9.750 GHz, LOF High 10.750 GHz)
Ka-Band SSPA–Wikipedia
The Ka band (“kay-ay band”) covers the radio frequencies of 26.5–40 GHz, i.e. wavelengths from slightly over one centimeter down to 7.5 millimeters. The Ka band is part of the K band of the microwave band of the electromagnetic spectrum. This symbol refers to “K-above”: in other words, the band directly above the K-band. The 30/20 GHz band is used in communications satellites, uplink in either the 27.5 GHz and 31 GHz bands, and high-resolution, close-range targeting radars aboard military airplanes.
X-Band SSPA–Wikipedia
The X band is a segment of the microwave radio region of the electromagnetic spectrum. In some cases, such as in communication engineering, the frequency range of the X band is rather indefinitely set at approximately 7.0 to 11.2 GHz. In radar engineering, the frequency range is specified by the IEEE at 8.0 to 12.0 GHz.
S-Band SSPA–Wikipedia
The S band is part of the microwave band of the electromagnetic spectrum. It is defined by an IEEE standard for radio waves with frequencies that range from 2 to 4 GHz, crossing the conventional boundary between UHF and SHF at 3.0 GHz. The S band is used by weather radar, surface ship radar, and some communications satellites, especially those used by NASA to communicate with the Space Shuttle and the International Space Station. The 10 cm radar short-band ranges roughly from 1.55 to 5.2 GHz.
Redundant Solid State Power Amplifiers (SSPA)–Wikipedia
The amplified outputs of all the symmetric branches are summed up in a passive combing network which routes the resultant high power to the output of the RF SSPA. A compact and highly efficient switching Power Supply Unit (PSU) is built into the solid state power amplifier.
SSPA – Multi-Band – Redundant System
Traveling Wave Tube Amplifiers (TWTA)–Wikipedia
TWTA – Outdoor Traveling Wave Tube Amplifiers (TWTAs) C-Band – Ku-Band – X-Band – DBS-Band – Ka-Band – Q- and V-Band – Multi-Band. Indoor TWTAs C-Band – Ku-Band – DBS-Band – X-Band
TWT – Ring-Loop TWTs – Pulsed ring-loop traveling wave tubes operating in the L-, S-, C- and X-Band frequency ranges. Typical peak power levels offered range from 1 kW to 15 kW, with duty cycle capability up to 6 percent.The unique ring-loop slow-wave structure used in these provides high gain at kilowatt peak RF power levels without oscillation and achieve greater than 30% efficiency. Helix TWTs – C-Band – X-Band – Ku-Band – DBS-Band – Ka-Band – Tri-Band – Instrumentation – Minis – Mini Boosters – Pulsed Products – Instrumentation
Coupled Cavity TWT
A traveling-wave tube (TWT, pronounced “twit”) or traveling-wave tube amplifier (TWTA, pronounced “tweeta”) is a specialized vacuum tube that is used in electronics to amplify radio frequency (RF) signals in the microwave range. The TWT belongs to a category of “linear beam” tubes, such as the klystron, in which the radio wave is amplified by absorbing power from a beam of electrons as it passes down the tube.
TWTA Systems
Xicom is an established software development company with an enviable and proven track-record engaged in providing software development services, technology consulting and IT outsourcing solutions to clients worldwide.
dB Control designs and manufactures reliable high-power TWT Amplifiers (TWTAs), microwave power modules (MPMs), transmitters and power supplies with modulators for radar, electronic countermeasures (ECM), and data link applications.
CPI’s Satcom Division (CPI Satcom) is a worldwide leader in uplink amplifier products and systems for satellite communications. The company has played a pivotal role in the satcom industry since its inception. The first satellite projects, including INTELSAT and CONUS, were supported by CPI, which was then part of Varian Associates, Inc.
OTHER – BUC – TWTA – SSPA
We carry a large range of manufactures: Acorde – Advantech – Agilis – Alga – AnaCom – Aqyr – Atlantic Satellite Corp – AvL Technologies – Ayecka – Belcom – CPI – China Starwin – Cobham – Comtech EF Data – C-Com Satellite Systems – DataPath – Datum Systems – Foxcom – GD Satcom – Idirect – Intellian – Mitec – NJRC – Newtec – Norsat – Novelsat – ORBIT Communication Systems – Sage SatCom – Satellite Systems Corp – Sat-Lite – Skyware Global – Teledyne Paradise Datacom – Terrasat – Xicom. W 68 dB min 10 W 71 dB min 15 W 72.8 dB min 20 W 74 dB min 25 W 75 dB min 30 W 75.8 dB min 40 W 77 dB min 50 W 78 dB min 60 W 79 dB min Attenuator range 30 dB variable in 0.1 dB steps
Klystron (HPA)–Wikipedia
A klystron is a specialized linear-beam vacuum tube, invented in 1937 by American electrical engineers Russell and Sigurd Varian, which is used as an amplifier for high radio frequencies, from UHF up into the microwave range.
Klystron HPAs – klystron power amplifier (KPA) is the overwhelming choice among Direct-to-Home service providers for uplink service, and is also very popular for other broadcasting applications. As the first KPA to utilize multi-stage depressed collector (MSDC) technology C-Band – Ku-Band – DBS-Band – S-Band – KA-Band
Klystron HPAs – klystron power amplifier (KPA) is the overwhelming choice among Direct-to-Home service providers for uplink service, and is also very popular for other broadcasting applications. As the first KPA to utilize multi-stage depressed collector (MSDC) technology Klystron Based – Gunn Based
Klystrons – UHF-Band – L-Band – S-Band – C-Band – X-Band – Ku-Band – DBS-Band – Ka-Band
Gyrotrons – Inductive Output Tubes (IOTs) – Klystrodes – Klystron Based – Gunn Based
millimeter wave klystron technology
Millimeter Wave HPA–Wikipedia
Extremely high frequency (EHF) is the International Telecommunications Union (ITU) designation for the band of radio frequencies in the electromagnetic spectrum from 30 to 300 gigahertz. It lies between the super high frequency band, and the far infrared band which is also referred to as the terahertz gap. Radio waves in this band have wavelengths from ten to one millimeter, giving it the name millimeter band or millimeter wave, sometimes abbreviated MMW or mmW. Millimeter-length electromagnetic waves were first investigated in the 1890s by Indian scientist Jagadish Chandra Bose.
Millimeter Wave HPAs – With the broadest spectrum of millimeter wave uplink amplifiers available in the industry.
Advanced millimeter wave klystrons covering the 30-700 GHz range have made the transition into shorter wavelengths a viable option for radar and communications systems. – millimeter wave family of HPAs – ranging in power from 120 watts to 800 watts – Ka-Band HPAs – Q- and V-Band HPAs millimeter wave klystron technology
Coupled Cavity TWT–Wikipedia
The coupled-cavity TWT overcomes this limit by replacing the helix with a series of coupled cavities arranged axially along the beam. This structure provides a helical waveguide, and hence amplification can occur via velocity modulation. Helical waveguide have very nonlinear dispersion and thus are only narrowband (but wider than klystron). A coupled-cavity TWT can achieve 60 kW output power.
Pulse Compressed–Wikipedia
Pulse compression is a signal processing technique commonly used by radar, sonar and echography to increase the range resolution as well as the signal to noise ratio.
Inductive Output Tubes (IOTs) – Klystrones–Wikipedia
Broadcast: Scientific/Non-broadcast Applications – K2D110w – K275 – Oscillators & Converters – Connectorized Waveguide Options – Heat Sinks Pulsed Products – Millimeter Wave -Transmit/Receive Modules and Subsystem – X-Band Transmit – Receive (T-R) Subsystem – 9.5-10 GHz Transmit – Receive (T-R) Module
Klystrone – SSPA – TWTA – HPAs
Power Couplers–Wikipedia
Power Couplers – Power couplers provide the vacuum and thermal interface between the evacuated superconducting cavity, which is typically kept at 4 K, and the room temperature waveguide components. Power couplers transmit microwaves generated by the high-power microwave source, typically a klystron. Power couplers must be extraordinarily clean and reliable to ensure that they meet the stringent requirements of superconducting accelerators.
Superconducting Cavity – High Power Microwave – Vacuum Thermal
Crossed-Field Amplifier – CFA–Wikipedia
Crossed-Field Amplifiers (CFAs) are broadband, phase-stable microwave amplifiers used in coherent radar chains to efficiently generate very high peak output powers from relatively low input voltages which can be either applied to the cathode or an electrode similar to a TWTs cathode or grid pulsing, and in relatively small, lightweight packages
Anode – Cold Cathode – Water Cooled Anode – Pulsed Anode
IF Line Amplifier–Wikipedia
In-Liine NB amp RF Decks – Standalone RF amplifier decks (i.e., without a power supply) can be provided. The RF chain is completely configured to your requirements. Connector or Wavegide
LNB Amp – LNA Amplifier – IF Power Stack Combiner
Range of products: Pulsed Products – Military Satcom – Ring-Loop – Block Upconverters – Inductive Output Tubes-Wikipedia (IOTs) – Ring-Loop TWTs – Multi Pulsed Products – Minis – Couplers – CW Oscillators – Pulsed Oscillators Coupled Cavity – RF Decks – Power Couplers-Wikipedia – Inductive Output Tubes (IOTs) – Klystrodes – . K2D110w – K27 – millimeter wave – Power Couplers – oscillator power-amplifier systems – redundant or combined systems. – coherent radar chains – cathode or an electrode – multi-stage depressed collector – Millimeter Wave – Gyrotrons-Wikipedia Oscillators-Wikipedia – Klystrons – Coupled Cavity-Wikipedia Fully qualified to MIL-E-5400 environment.
Range of manufactures: Acorde – Advantech – Agilis – Alga – AnaCom – Aqyr – Atlantic Satellite Corp – AvL Technologies – Ayecka – Belcom – CPI – China Starwin – Cobham – Comtech EF Data – C-Com Satellite Systems – DataPath – Datum Systems – Foxcom – GD Satcom – Idirect – Intellian – Mitec – NJRC – Newtec – Norsat – Novelsat – ORBIT Communication Systems – Sage SatCom – Satellite Systems Corp – Sat-Lite – Skyware Global – Teledyne Paradise Datacom – Terrasat – Xicom
Used in mobile and fixed satcom uplink applications. Instrumentation. various ground-based, shipboard and airborne applications Military and commercial radars – Electronic warfare systems – Radar subsystems – Radar retrofit / upgrade programs – Scientific and industrial accelerator applications. Broadcast – Non-broadcast Applications.
