Next-Gen Q/V Band SatCom Systems

High-Performance Q/V-Band SatCom Hardware and System Solutions

Mi-Wave delivers high-performance millimeter-wave solutions for next-generation SatCom infrastructure, feeder links, and emerging satellite networks. From precision RF components to integrated Q/V-band subsystems, we support engineers developing wideband satellite communications and advanced testing platforms with reliable, production-ready hardware.

Precision Millimeter-Wave Engineering

Mi-Wave designs Q/V-band hardware using proven materials, waveguide integration, and high-frequency manufacturing techniques to meet demanding satellite communications performance requirements.

High-Performance RF Components

From low-noise LNAs and wideband frequency converters to transmit assemblies and front-end modules, Mi-Wave delivers production-ready Q/V-band components for advanced SatCom architectures.

SatCom Systems and Custom Integration

Mi-Wave supports complete Q/V-band subsystems for feeder links, gateway infrastructure, payload validation, and satellite communications testing, with engineering support from prototype through deployment.

Key Frequency Coverage (Q/V-Band SatCom)

Mi-Wave supports the most common frequency allocations used in Q/V-band satellite feeder link and gateway communications, with custom coverage available for program-specific architectures.

  • Q-Band Downlink Hardware: 37.5 – 42.5 GHz

  • V-Band Uplink Hardware: 47.5 – 54.0 GHz

  • Wideband SatCom Channel Support: Multi-GHz instantaneous bandwidth options

  • Custom Frequency Plans: Tailored RF/IF/LO designs for satellite network requirements

  • Waveguide Interfaces: WR-series Q/V-band waveguide integration (model dependent)

These bands provide significantly more available spectrum than Ku- or Ka-band systems, enabling higher throughput satellite communications and scalable gateway expansion.

Satellite Communications RF Performance Highlights

Mi-Wave Q/V-band components are designed for high-throughput satellite communications, where link margin, sensitivity, and linearity directly impact system performance.

  • Low Noise Figure Receiver Chains (Q-band LNAs): Optimized for satellite downlink sensitivity

  • High Linearity Uplink Hardware (V-band Transmit Assemblies): Supports wideband modulation and multi-carrier operation

  • Stable Conversion Gain (Up/Down Converters): Precision frequency translation for feeder link architectures

  • Gain Flatness Across Wideband Coverage: Engineered for consistent SatCom channel performance

  • High Spectral Purity and Spurious Control: Designed for regulatory and system compliance

  • Thermal and Environmental Stability: Reliable operation across demanding satellite infrastructure deployments

Mi-Wave solutions are built to support both operational SatCom systems and controlled lab characterization environments.

Frequency Conversion and Feeder Link Architectures

Q/V-band satellite networks often require precise frequency translation stages to support feeder link uplinks, downlinks, and gateway backhaul.

Mi-Wave provides Q/V-band frequency converter hardware including:

  • Upconverters for V-band uplink transmission chains

  • Downconverters for Q-band downlink receive architectures

  • Wideband IF and LO planning for satellite gateway integration

  • Low phase noise conversion suitable for high-order modulation

These converter systems are critical building blocks for satellite ground segment expansion, gateway hubs, and next-generation NGSO feeder link deployments.

Phase Noise, Spurs, and Signal Integrity for SatCom

Satellite communications at millimeter-wave frequencies require strict control of spectral performance.

Mi-Wave Q/V-band systems are engineered for:

  • Low Phase Noise Architectures: Suitable for wideband satellite modulation schemes

  • Reduced Spurious Content: Clean spectral performance across tuning ranges

  • Image and Harmonic Suppression: Minimizing unwanted conversion products

  • Multi-Carrier Linearity: Supporting broadband SatCom network operation

  • High Signal Fidelity: Preserving link quality in feeder link and gateway environments

System Integration, Monitoring, and Control

Mi-Wave hardware supports integration into complex SatCom architectures, including gateway infrastructure, satellite terminals, testbeds, and payload validation platforms.

Available integration features include:

  • Remote Frequency and Gain Configuration for converter and subsystem architectures

  • Digital Control Interfaces for repeatable SatCom system tuning

  • Subsystem-Level Assemblies including integrated Q/V-band front ends

  • Waveguide and Coax Packaging Options for flexible deployment

  • Ruggedized and Rack-Mount Enclosures for commercial and defense installations

Mi-Wave supports programs from prototype development through full-scale manufacturing.

RF, Microwave, and SatCom Calculators

These WordPress-safe calculators support RF and microwave system planning for SatCom, Q/V-band links, 5G/mmWave, radar, and test and measurement. Use them for link budget, EIRP, cascaded noise figure, IF/LO/RF frequency planning, and rain fade margin. Results are idealized for fast engineering estimates.

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Link Budget Calculator (Rx Power + Link Margin)

Estimates received power and link margin using EIRP, free-space path loss (FSPL), receiver antenna gain, and system losses. Useful for SatCom uplink/downlink, point-to-point microwave, and mmWave links.

Used for FSPL.
Slant range or path length.
Transmit EIRP at the antenna.
Receive antenna gain.
Pointing, polarization, radome, cable, etc.
Receiver sensitivity threshold.
FSPL
—
Free-space path loss (dB)
Received Power
—
Estimated Pr (dBm)
Link Margin
—
Pr minus required (dB)
Enter values above, then click Calculate.
EIRP Calculator (Power + Gain − Loss)

Computes EIRP from transmit power, antenna gain, and losses. Outputs in dBW and dBm. Helps with SatCom spectral planning, regulatory paperwork, and quick transmitter comparisons.

Power at amplifier output or before feed losses.
Dish or antenna gain.
Waveguide, cable, OMT, radome, pointing, etc.
EIRP (dBm)
—
Pt + Gt − Lt
EIRP (dBW)
—
dBW = dBm − 30
Power (Watts)
—
Equivalent isotropic power
Enter values above, then click Calculate.
Cascaded Noise Figure Calculator (Friis)

Calculates overall noise figure and overall gain for a cascaded chain (LNA, filters, converters, IF amps). Uses the Friis formula, which heavily weights the first stage. Great for receiver front end design.

LNA gain is often Stage 1.
Noise figure of Stage 1.
Use negative for insertion loss.
For a passive loss L(dB), NF ≈ L(dB).
Converter or IF amp gain.
Noise figure of Stage 3.
Total Gain
—
Sum of gains (dB)
Cascaded NF
—
Friis noise figure (dB)
Noise Factor
—
Linear F
Enter values above, then click Calculate.
IF / LO / RF Planner (Injection + Image)

Plans ideal mixer relationships for upconversion and downconversion. Solve for the missing frequency and compute the image frequency. Useful for frequency plans and multi-band system design.

Choose direction of conversion.
Affects RF equation and image.
Switch units without retyping.
Enter two fields, leave one blank.
Local oscillator frequency.
RF input or RF output.
Calculated IF
—
IF = |RF − LO|
Calculated RF
—
RF = LO ± IF
Image Frequency
—
Opposite side of LO
Enter two values and leave one blank, then click Calculate.
Rain Fade Calculator (Simple Fade + Margin)

Quick estimate of rain attenuation using a simplified model: Fade (dB) = Specific Attenuation (dB/km) × Effective Path Length (km). This is a practical planning tool for Ka-band, Q-band, and V-band SatCom links.

Enter from your rain model/region or ITU-R output.
Slant-path through rain region.
Margin before rain occurs.
Estimated Rain Fade
—
dB
Remaining Margin
—
Margin minus fade (dB)
Link Status
—
Simple go/no-go
Enter values above, then click Calculate.

Q/V-Band SatCom Products FAQ

These quick answers cover Q-band and V-band SatCom products including upconverters, downconverters, up/downconverters, wideband synthesizers/LO sources, and supporting concepts such as phase noise, frequency stability, image rejection, LO leakage, and SatCom terminal performance targets.

Quick Answers

What is Q-band and V-band in satellite communications?

In SatCom, Q-band and V-band refer to millimeter-wave frequency ranges used for high-capacity links. Q/V-band systems are used for gateway-to-satellite and feeder links where higher bandwidth and spectrum availability can support higher throughput, especially in modern HTS and next-generation satellite networks.

What does a Q/V-band upconverter do in a SatCom uplink?

A Q/V-band upconverter translates a lower-frequency input (often IF or L-band, depending on architecture) to a higher Q-band or V-band RF frequency for transmission. In gateway uplinks, the upconverter is commonly followed by a high power amplifier before the antenna.

What does a Q/V-band downconverter do in a SatCom downlink?

A Q/V-band downconverter converts a high-frequency received signal down to a lower IF or L-band output that is easier to filter, amplify, digitize, and demodulate. In weak-signal receive chains, downconverters are often paired with an LNA to preserve receiver sensitivity and system G/T.

Why are phase noise and frequency stability so important for Q/V-band SatCom?

At millimeter-wave frequencies, phase noise and frequency stability directly impact EVM, carrier recovery, adjacent-channel interference, and overall link margin. Lower phase noise and stable references help maintain spectral purity and support high-order modulation used in high-throughput SatCom.

When should you use an external 10 MHz reference in a Q/V-band system?

Use an external 10 MHz reference when you need improved long-term accuracy or synchronization across multiple devices (for example, multi-channel gateways, redundant chains, phased arrays, or coherent test setups). Locking to a shared reference improves frequency alignment and repeatability.

More Technical Questions

What is a feeder link and why does Q/V-band matter for it?
A feeder link is the high-capacity connection between a satellite and a gateway. Q/V-band can provide additional spectrum for feeder links, helping increase throughput and reduce congestion in more crowded bands. Feeder link architectures often prioritize spectral purity, stability, and linearity to support dense carriers and high-order modulation.
What is LO leakage and why does it matter in Q/V-band converters?
LO leakage is unwanted LO energy that appears at RF or IF ports. Low LO leakage reduces spurious emissions, minimizes self-mixing effects, and improves coexistence in dense gateway environments where spectral masks and interference constraints are strict.
What is image frequency and why is image rejection critical at Q/V-band?
An image frequency is an undesired RF frequency that converts to the same IF as the desired signal during mixing. High image rejection helps maintain receiver sensitivity, reduce interference, and improve spectral purity. This is especially important when gateways operate in crowded allocations or with multiple carriers.
What is conversion gain and how is it used in SatCom chains?
Conversion gain is the net gain or loss through the frequency translation path. Proper gain planning helps keep the chain within linear operating regions, avoids compression, and ensures the correct drive level into downstream components such as IF amplifiers, ADCs, mixers, or high power amplifiers.
What does “frequency inversion” mean in a downconverter?
Frequency inversion means the IF output spectrum is reversed relative to the RF input after mixing. Whether inversion occurs depends on high-side vs low-side LO injection. In SatCom systems, this affects channel mapping and must be accounted for in modem configuration and IF planning.
What IF frequencies are common for Q/V-band SatCom equipment?
Common IF choices include L-band IF ranges such as 950–2150 MHz and other system-specific IF plans. The best IF depends on modem interfaces, channel plans, filtering strategy, and whether the architecture uses single or multiple conversion stages.
What is instantaneous bandwidth and why does it matter for SatCom?
Instantaneous bandwidth is the frequency span a converter can process at a single tuning setting without retuning. Wider instantaneous bandwidth supports multi-carrier operation, higher symbol rates, and flexible channelization in gateway applications.
How do phase noise and spurs show up in a spectrum analyzer?
Phase noise appears as a noise skirt around the carrier, while spurs appear as discrete unwanted tones. Both can improve or degrade the ability to meet spectral masks and can impact adjacent channel performance and demodulation quality. Low phase noise and low spurious content are key for clean Q/V-band SatCom links.
What interfaces are common for controlling Q/V-band converters and synthesizers?
Many systems support remote control via Ethernet (sometimes with a GUI), along with other control options depending on platform. Remote control enables repeatable configuration, automated test workflows, and easier integration into gateway monitoring and control systems.
Where are Q/V-band SatCom converters and LO sources typically used?
Typical deployments include gateway stations, teleports, payload test setups, feeder-link development labs, and advanced research platforms supporting high-throughput satellite networks. They are also used in system validation, channel confirmation, and frequency planning for Q/V-band architectures.

Satellite System Architecture

Satellite Communications (SatCom)

The use of orbiting satellites to transmit and receive RF signals for data, voice, video, and sensing applications. Modern SatCom systems rely heavily on microwave and millimeter-wave technologies, particularly Ka-, Q-, and V-band, to support high data rates and global coverage.

Ground Segment

The terrestrial portion of a SatCom network, including gateway stations, teleports, network operation centers (NOCs), antennas, LNAs, power amplifiers, frequency converters, and synthesizers. Ground segment performance directly impacts link reliability and throughput.

Space Segment

The satellite payload and onboard RF subsystems, including transponders, frequency converters, local oscillators, and amplifiers used to relay signals between Earth and space.

User Terminal

A fixed, transportable, or mobile station that communicates directly with a satellite. User terminals rely on low noise receivers, compact power amplifiers, and frequency converters to maintain link quality.

Frequency Bands Used in SatCom

Ku-Band

Typically 12–18 GHz, widely used for broadcast, VSAT, and legacy SatCom services.

Ka-Band

Typically 26–40 GHz, supporting high-throughput satellites (HTS) and broadband services with wider available bandwidth.

Q-Band

Typically 33–50 GHz, increasingly used for feeder links and gateway-to-satellite connections where large bandwidths are required.

V-Band

Typically 40–75 GHz, used in next-generation SatCom feeder links and experimental ultra-high-capacity satellite systems.

Feeder Link Bands

Higher frequency links (Ka/Q/V) used between satellites and gateways to offload high-capacity traffic to terrestrial networks.

RF Front-End Components for SatCom

Low Noise Amplifier (LNA)

An RF amplifier placed at the receiver front end to amplify extremely weak satellite signals with minimal added noise. LNAs are critical in SatCom because path loss and atmospheric attenuation significantly reduce signal levels.

Noise Temperature

A representation of receiver noise performance expressed in Kelvin (K). Closely related to noise figure, noise temperature is commonly used in SatCom link budgets.

RF Power Amplifier

An amplifier that boosts RF signals to power levels suitable for transmission to a satellite. In SatCom uplinks, power amplifiers must balance output power, linearity, efficiency, and thermal management.

High Power Amplifier (HPA)

A power amplifier designed for uplink transmission, often operating near saturation. HPAs are used in gateways, teleports, and uplink earth stations.

Frequency Conversion in SatCom Systems

Upconverter

Converts IF or L-band signals to high-frequency RF bands (Ka/Q/V) for satellite uplink transmission.

Downconverter

Converts high-frequency satellite downlink signals to IF for demodulation and processing.

Block Upconverter (BUC)

An integrated unit combining an upconverter and power amplifier, commonly mounted near the antenna feed to minimize waveguide loss.

Low Noise Block Downconverter (LNB)

An integrated unit combining an LNA and downconverter, widely used in SatCom receive systems.

Local Oscillators & Frequency Sources

Frequency Synthesizer

A tunable RF signal source used for carrier generation, local oscillator distribution, and system testing. Synthesizers are essential for precise frequency planning in SatCom networks.

Phase-Locked Loop (PLL)

A control system that locks an oscillator to a stable reference, ensuring accurate and stable frequency generation.

External 10 MHz Reference

A highly stable frequency reference used to synchronize multiple gateways, converters, and synthesizers in large SatCom networks.

Phase Coherence

The ability to maintain consistent phase relationships between multiple RF channels, critical for beamforming and phased array SatCom antennas.

Signal Quality & Modulation Metrics

Phase Noise

Random short-term fluctuations in signal phase that degrade modulation accuracy. Low phase noise is essential for high-order QAM modulation used in modern SatCom.

EVM (Error Vector Magnitude)

A measure of modulation quality. Poor EVM results in reduced data rates and higher bit error rates.

BER (Bit Error Rate)

The rate at which errors occur in transmitted data. BER is directly influenced by noise figure, phase noise, and amplifier linearity.

Spectral Mask

Regulatory limits defining how much RF energy may appear outside the assigned channel. Power amplifiers and converters must meet these masks.

Atmospheric & Propagation Effects

Free Space Path Loss (FSPL)

Signal attenuation due to distance traveled between satellite and Earth.

Rain Fade

Signal attenuation caused by rainfall, especially severe at Ka-, Q-, and V-band frequencies.

Atmospheric Absorption

Loss caused by oxygen and water vapor absorption, particularly significant in V-band SatCom systems.

Fade Margin

Additional link budget margin designed to compensate for atmospheric and environmental losses.

Advanced SatCom Architectures

High-Throughput Satellite (HTS)

Satellites designed to deliver significantly higher data rates using spot beams, frequency reuse, and higher frequency bands.

Spot Beam

A focused satellite beam covering a specific geographic area, improving frequency reuse and capacity.

Beamforming

The use of multiple antennas and controlled phase relationships to electronically steer and shape beams.

Phased Array Antenna

An antenna system using multiple radiating elements with phase-controlled signals, increasingly common in modern SatCom terminals.

Test, Measurement & Gateway Operations

Gateway Earth Station

A high-capacity SatCom hub connecting satellite networks to terrestrial infrastructure.

Carrier-to-Noise Ratio (C/N)

A measure of signal quality at the receiver.

Link Budget

A comprehensive calculation of gains and losses from transmitter to receiver.

RF Test & Measurement

Laboratory and field testing of SatCom components using signal generators, synthesizers, spectrum analyzers, LNAs, and power amplifiers.

System Reliability & Deployment

Redundancy

Use of backup RF chains or components to ensure continuous operation in mission-critical SatCom systems.

Outdoor Unit (ODU)

RF equipment mounted outdoors near the antenna to minimize signal loss.

Thermal Management

Techniques used to dissipate heat from high-power RF components in gateways and uplink systems.

High Power Amplifiers (SatCom)

High-power RF and millimeter-wave amplifiers for satellite uplink transmit chains, gateway stations, and payload testing across Ku-, Ka-, Q-, and V-band frequencies.

Sample applications:
• Satellite uplink transmit chains
• Ground station gateways
• High-throughput SatCom payload testing

MIWV P/N DescriptionLow Frequency (GHz)High Frequency (GHz)Gain (dB)Output Power P1dB (dBm)Output Power Psat (dBm)Input/Output PortDC BiasLINK
955B-35/48/30/27/383HQ-band Power Amplifier3548302527WR-22 waveguide, UG-383/U Flange+8V
955B-35/48/30/27/383HQ-band Power Amplifier3548302527WR-22 Waveguide wiith UG-383/U Flange+8V
View
955B-37/48.2/30/27/1.85mmFHQ-band Power Amplifier3748.230271.85mm Female Coaxial Connector+6V
955B-43/46/30/33/2.4mmFHQ-band Power Amplifier434630332.4mm Female Coaxial Connector+8V
View
955B-50/25/27/2.4mmFHQ-band Power Amplifier49.550.52527302.4mm Female Coaxial Connector+6V
955B-50/40/44/383HQ-band Power Amplifier49.550.5404447WR-22 Waveguide with UG-383/U Flanges+28V
955BF-30/20/383HQ-band Power Amplifier33503020WR-22 waveguide, UG-383/U Flange+8V
955V-50/25/20/2.4mmFV-band Power Amplifier49.550.52520232.4mm Female Coaxial Connector+6V
955V-50/68/35/18/385V-band Power Amplifier50683518WR-15 waveguide, UG-385/U Flange+6V
View
955V-50/70/28/15/385V-band Power Amplifier50702815WR-15 waveguide, UG-385/U Flange+6V
955V-55/65/30/24/385V-band Power Amplifier5565302224WR-15 waveguide, UG-385/U Flange+6V
955V-57/68/25/26/385V-band Power Amplifier57682526WR-15 waveguide, UG-385/U Flange+6V
955V-57/70/25/30/385HV-band Power Amplifier577025 30WR-15 waveguide, UG-385/U Flange+8V
955V-60/25/31.5/385HV-band Power Amplifier59612531.5WR-15 waveguide, UG-385/U Flange+6V
View
955VF-25/25/385HV-band Power Amplifier50752525WR-15 waveguide, UG-385/U Flange+6V
View
955VF-35/15/385V-band Power Amplifier50753515WR-15 waveguide, UG-385/U Flange+6V
955VF-40/385V-Band Power Amplifier507540912WR-15 waveguide, UG-385/U Flange+6V
View

Low Noise Amplifiers (SatCom)

Low-noise amplifiers optimized for satellite downlink receive chains, ground terminals, and payload front-end receivers where low noise figure and stable gain are critical.

Sample applications:
• Satellite downlink receivers
• Ground terminal front ends
• Payload receive chains

MIWV P/NDescriptionLow Frequency (GHz)High Frequency (GHz)Gain (dB)Noise Figure (dB)Output Power Psat (dBm)Output Power P1dB (dBm)Input/Output PortDC BiasLINK
955BF-15/8/383Q-band Low Noise Amplifier335010-155.58WR-22 Waveguide with UG-383/U Flanges+8-12V
955BF-20/10/383Q-band Low Noise Amplifier3350205.510WR-22 Waveguide with UG-383/U Flanges+8V
955BF-30/10/383Q-band Low Noise Amplifier3350305.510WR-22 Waveguide with UG-383/U Flanges+8V
955BF-40/10/383Q-band Low Noise Amplifier335040610WR-22 Waveguide with UG-383/U Flanges+8V
955V-50/68/35/18/385V-Band Low Noise Amplfier50683518WR-15 Waveguide, UG-385/U Flange+6V
View
955VF-35/15/385V-Band Low Noise Amplfier50753518WR-15 Waveguide, UG-385/U Flange+6V
View
955VF-35/13/1.85mmFV-Band Low Noise Amplfier5075355131.85mm Female Coaxial Connector
+6V
955VF-20/15/385V-Band Low Noise Amplfier507520515WR-15 Waveguide, UG-385/U Flange+6V
955VF-30/10/385V-Band Low Noise Amplfier507530510WR-15 Waveguide, UG-385/U Flange+6V
View
955VF-40/385V-Band Low Noise Amplfier50754059WR-15 Waveguide, UG-385/U Flange+6-+8V
View

Frequency Converters (SatCom)

RF upconverters and downconverters for SatCom systems supporting IF-to-RF translation, LO planning, and wideband signal processing in satellite payloads and ground infrastructure.

Sample applications:
• Upconverter and downconverter chains
• Payload frequency translation
• Ground system IF/RF integration

Model NumberBandDescriptionFrequency (GHz)Converter Type# of ChannelsPackagingUser
Preferences		LINK
970B-38.25/383SQDownconverter38.0-38.5Synthesized | Block1,2,3,4Commercial Rack EnvironmentalBandwidth
Internal/External Ref
Digital Attenuation
AGC
View
980B-43.25/383SQUpconverter42.0-43.5Synthesized | Block1,2,3,4Commercial Rack EnvironmentalBandwidth
Internal/External Ref
Digital Attenuation
AGC
View
970V-62.5/385VDownconverter70-65Synthesized | Block1,2,3,4Commercial Rack EnvironmentalBandwidth
Internal/External Ref
Digital Attenuation
AGC
View

RF Upconverters and Downconverters for Q/V-Band SatCom

RF Upconversion Functionality (Q/V-Band)

Mi-Wave RF upconverters and downconverters are designed to support next-generation Q-band and V-band satellite communication systems, enabling precise frequency translation between intermediate frequency (IF), L-band, and high-frequency RF stages used in modern SatCom payloads and ground infrastructure.

In Q/V-band transmit architectures, an upconverter translates a lower-frequency IF or L-band input signal to a high-frequency RF output suitable for millimeter-wave satellite uplinks. The converted signal is typically followed by a Q-band or V-band RF power amplifier, raising the signal to the required transmit level for gateway stations or payload testing.

When paired with external power amplification, Mi-Wave upconverter platforms provide a flexible alternative to fixed-frequency solutions, offering frequency agility, fine tuning resolution, and synthesized local oscillator control to support evolving SatCom frequency plans and channelization requirements.

Key performance characteristics of Mi-Wave Q/V-band RF upconverters and downconverters include:

  • Wide frequency translation coverage for Q-band and V-band SatCom

  • Stable conversion gain with low variation across operating bands

  • Low phase noise for high spectral purity and modulation integrity

  • Fine tuning resolution and frequency repeatability

  • Digital gain control and remote operation for system integration

Typical Q/V-Band SatCom Applications

Mi-Wave RF upconverters and downconverters are commonly used in:

  • Q-band and V-band satellite uplink transmit chains

  • High-throughput SatCom gateway stations

  • Payload and ground segment frequency translation

  • Satellite modem and RF front-end integration

  • Advanced SatCom payload development and testing

  • mmWave RF and SatCom test and measurement systems

  • Frequency-agile SatCom research and system characterization

Their wide frequency coverage and programmable control make them particularly valuable in next-generation satellite systems where dynamic frequency planning, wide bandwidths, and high spectral efficiency are required.

System Integration and Configuration

Mi-Wave RF frequency conversion platforms are designed for system-level integration in SatCom environments, supporting remote configuration, monitoring, and control of frequency and gain. Available configuration options include:

  • Multi-channel architectures

  • Independent digital gain control per channel

  • High IF input power handling

  • Multiple IF and RF input/output paths

  • Commercial rack-mount or ruggedized packaging

These capabilities allow Mi-Wave upconverters and downconverters to be deployed in commercial, defense, airborne, and controlled-environment SatCom installations.

Role in Q/V-Band RF Signal Conversion Systems

Within a SatCom RF signal chain, the upconverter or downconverter serves as a critical frequency translation stage, ensuring signals are delivered to downstream amplification, filtering, and transmission stages with the required frequency accuracy, stability, and spectral cleanliness.

By maintaining tight control over conversion performance, gain, and spurious response, Mi-Wave RF frequency converters support reliable operation in high-capacity Q/V-band satellite communication systems where link integrity and regulatory compliance are essential.

Build Your Q/V-Band RF Upconverter and Downconverter Solutions

With more than 35 years of experience in microwave and millimeter-wave RF engineering, Mi-Wave supports the design, prototyping, manufacturing, and integration of RF upconverters, downconverters, transceivers, and SatCom RF sub-assemblies.

Our team works closely with customers to support application-specific configurations, frequency planning, and system-level integration for Q-band and V-band satellite systems. From early-stage concept development through production-ready hardware, Mi-Wave provides engineering support across the full lifecycle of advanced SatCom RF systems.

Contact Mi-Wave to discuss Q/V-band RF upconverters, downconverters, transceivers, and integrated frequency conversion solutions for next-generation satellite communications.