Mini-Circuits

WVBP-64-WR15+ - WR15 Waveguide BP Filter 59.4-61.6 GHz | Mini-Circuits

Référence : WVBP-64-WR15+ ✓ Actif
En stock Expédié sous 1 à 3 jours ouvrés
TH2793-1 Package 59.4 to 61.6 GHz Speed
À partir de $2395 USD / unité
MOQ : 1 |
Prix mis à jour : 2026-10-13
Tarifs dégressifs
Qté Prix unitaire Total
1 $2895 $2 895,00
5 $2750 $13 750,00
10 $2620 $26 200,00
25 $2495 $62 375,00
50 $2395 $119 750,00
ℹ️ Tous les prix sont en USD

WVBP-64-WR15+ Présentation

The Mini-Circuits WVBP-64-WR15+ is a rectangular waveguide bandpass filter covering 59.4 to 61.6 GHz in the WR15 (V-band) standard interface, co-developed with Virginia Diodes for millimeter-wave and THz metrology-grade applications. It delivers 0.8 to 1.5 dB typical insertion loss in the passband, 20 to 98 dB stopband rejection, and is supplied in precision-machined, plated TH2793-1 case style with environmental rating ENV80.

A waveguide bandpass filter is a passive RF component that selects a narrow range of frequencies propagating in a hollow metallic waveguide while rejecting signals outside the passband. In the millimeter-wave hierarchy, waveguide BPFs sit alongside cavity filters, microstrip filters, and lumped-element filters; they are the preferred solution above ~26 GHz because waveguide offers lower loss than planar transmission lines and handles higher power than microstrip. WR15 is the EIA-standard rectangular waveguide for V-band (50-75 GHz), with inner dimensions of 3.76 mm x 1.88 mm and UG-385/U flange.

Key features of the WVBP-64-WR15+ include a centered 60.5 GHz passband with sub-dB insertion loss, super-high rejection with fast roll-off (achieved through multi-resonator precision machining), and outstanding return loss matched to the WR15 waveguide impedance. The filter is designed for low-loss millimeter-wave signal chains where planar filters would add unacceptable insertion loss and microstrip filters would radiate. The case style TH2793-1 supports standard waveguide flanges, enabling drop-in assembly into V-band test setups.

Technically, the WVBP-series leverages Virginia Diodes' metrology-grade machining and plating processes to achieve surface finish and dimensional tolerances that minimize passband insertion loss while maximizing out-of-band rejection. Multiple coupled resonator cavities produce the sharp roll-off characteristic, and the precision plating stabilizes performance across the -40 to +85 degree C operating range. Compared with absorptive or planar alternatives, the WVBP-series achieves cleaner passband edges suitable for aerospace and 6G research.

Typical applications include V-band 60 GHz unlicensed wireless backhaul and 5G/6G research testbeds, 60 GHz WiGig (802.11ad/ay) coexistence filtering, automotive 77 GHz radar development hardware, satellite and earth-station uplink/downlink filtering, and millimeter-wave metrology instrumentation. The 59.4-61.6 GHz window overlaps the FCC unlicensed 60 GHz band and is the standard channel for emerging 6G sub-THz experimentation.

When designing with this filter, account for the WR15 flange torque specification and ensure the mating flange surface is clean to maintain return loss. The filter is non-catalog / order-on-request with lead time measured in weeks; verify current availability through Mini-Circuits sales before committing to a production design.

This page synthesizes distributor pricing, drop-in alternatives within the WVBP family, and practical design notes for V-band waveguide filter integration not found in the manufacturer datasheet alone.

Alternatives de remplacement direct pour WVBP-64-WR15+ — même boîtier, compatible broche à broche. Les références à boîtier différent nécessitant une retouche du PCB sont exclues.

Variantes de cette série

Modèles de la même série directement compatibles avec WVBP-64-WR15+ (même facteur de forme et même empreinte) — différant par Application Notes, Operating Temperature.

Mini-Circuits
Application Notes: AN03-36, AN40-005, AN75-004
Operating Temperature: -40C to +85C
Comparer avec WVBP-64-WR15+ →

Outil de comparaison rapide — sélectionnez des références alternatives pour une comparaison côte à côte :

WVBP-50-WR15+

✅ Remplacement direct ⚠️ Spécifications non vérifiées
📦 WR15 waveguide flange (TH2793-1)
different center frequency (50 GHz vs 64 GHz, -22%), same WR15 mechanical flange; NOT a drop-in substitute for the 60.5 GHz channel

📋 Alternative de référence (hors catalogue)

WVBP-75-WR15+

✅ Remplacement direct ⚠️ Spécifications non vérifiées
📦 WR15 waveguide flange (TH2793-1)
different center frequency (75 GHz vs 64 GHz, +17%), same WR15 mechanical flange; passband shifted upward

📋 Alternative de référence (hors catalogue)

WVBP-64-WR15

✅ Remplacement direct ⚠️ Spécifications non vérifiées
📦 WR15 waveguide flange (TH2793-1)
identical specifications; non-RoHS/+ RoHS variant label (engineering sample versus RoHS-qualified catalog)

📋 Alternative de référence (hors catalogue)

WVBP-64-WR15+ Valeurs maximales et caractéristiques électriques

Product Type Rectangular Waveguide Bandpass Filter
Frequency Range (Passband) 59.4 to 61.6 GHz
Center Frequency 60.5 GHz
Waveguide Band / Interface WR15 (V-band, UG-385/U flange)
Insertion Loss (Passband) 0.8 to 1.5 dB
Stopband Rejection 20 to 98 dB
Return Loss Outstanding (per datasheet)
Température de fonctionnement -40 C to +85 C
Case Style TH2793-1
Environmental Rating ENV80
Type de montage Waveguide flange (UG-385/U)
ECCN EAR99
Statut RoHS Compliant
Lead-Free Status Yes (per RoHS Material Declaration)
Application Notes AN03-36 (measurement), AN40-005 (ESD), AN75-004 (linear phase BPF)

Guide de configuration des broches du WVBP-64-WR15+ th2793-1

Configuration des broches du WVBP-64-WR15+ (boîtier th2793-1). La numérotation des broches, les fonctions et les schémas de connexion sont définis dans la fiche technique du fabricant. Consultez-la pour l'empreinte exacte et les directives de soudage.

Schéma de brochage du boîtier th2793-1 pour le WVBP-64-WR15+

Aucune donnée de brochage détaillée disponible pour WVBP-64-WR15+.

Consultez la fiche technique pour la configuration complète des broches.

Applications typiques

WVBP-64-WR15+ convient pour 6 applications: 60 GHz Unlicensed Wireless Backhaul, 5G / 6G Research Testbed Filtering, Automotive Radar Development (77 GHz Adjacent-Band Filtering), Satellite / Earth-Station Uplink-Downlink Filtering, Millimeter-Wave Metrology Instrumentation, IEEE 802.11ad/ay WiGig Coexistence Filtering.

🌐

60 GHz Unlicensed Wireless Backhaul

The Mini-Circuits WVBP-64-WR15+ serves 60 GHz unlicensed wireless backhaul links where point-to-point V-band radios carry gigabit Ethernet between rooftops. Its 59.4-61.6 GHz passband covers the FCC 57-64 GHz unlicensed window, and the 0.8-1.5 dB insertion loss preserves link margin over multi-kilometer hops. Placed between the V-band transceiver and the antenna feed horn, the filter suppresses adjacent 5G/6G co-channel interference and out-of-band radar while preserving passband flatness. Compared to a microstrip BPF the waveguide topology avoids substrate loss and unwanted radiation, which would otherwise erode EIRP and adjacent-channel rejection. The TH2793-1 case style mates to standard UG-385/U flanges, allowing fast integration into existing WR15 waveguide runs.

📡

5G / 6G Research Testbed Filtering

In 6G sub-THz research testbeds the WVBP-64-WR15+ provides clean spectral filtering for channel sounding and beamforming experiments at 60 GHz. The 20 to 98 dB stopband rejection isolates the 59.4-61.6 GHz measurement channel from adjacent WiGig channels and harmonic content from upconverting local oscillators. With insertion loss of 0.8-1.5 dB across the passband, the filter preserves noise-figure budget for sensitive V-band receivers used in phased-array characterization. The -40 to +85 C operating range supports both cryogenic-adjacent lab measurements and outdoor chamber trials. Engineers pair the filter with Virginia Diodes extenders and Mini-Circuits V-band amplifiers in testbed racks.

🚗

Automotive Radar Development (77 GHz Adjacent-Band Filtering)

The WVBP-64-WR15+ supports automotive radar development by providing sharp roll-off filtering at 60 GHz to characterize interference mechanisms affecting nearby 77 GHz long-range radar bands. With super-high rejection of 98 dB at the band edges and fast roll-off, the filter protects automotive radar test receivers from 60 GHz WiGig coexistence leakage that would otherwise mask weak radar returns. The precision-machined WR15 flange and ENV80 environmental rating enable use on automotive test benches that simulate real cabin and bumper-mounted conditions. Insertion loss under 1.5 dB keeps the noise figure impact minimal during radar sensitivity measurements.

🛰️

Satellite / Earth-Station Uplink-Downlink Filtering

The WVBP-64-WR15+ is suited to V-band satellite uplink-downlink filtering in experimental EHF payloads and gateway earth stations. Its 59.4-61.6 GHz passband overlaps emerging V-band satellite allocations, and the 0.8-1.5 dB insertion loss preserves EIRP in power-constrained satellite payloads. The 98 dB maximum stopband rejection protects sensitive satellite receivers from adjacent-satellite uplink interference. With WR15 UG-385/U flanges, the filter mates directly to feed-horn and ortho-mode transducer waveguide runs in earth-station RF chains. The precision plating ensures stable performance across outdoor thermal cycles encountered at gateway sites.

🔬

Millimeter-Wave Metrology Instrumentation

In millimeter-wave metrology instrumentation the WVBP-64-WR15+ provides high-fidelity band selection for noise-figure meters, spectrum analyzers, and power sensors operating at V-band. The 0.8-1.5 dB insertion loss is traceable and repeatable, which is essential for calibration-grade measurements. The 20-98 dB rejection with fast roll-off enables image-rejection and LO-leakage suppression in heterodyne measurement setups. The Virginia Diodes precision machining inherited in this Mini-Circuits design delivers the dimensional stability needed for instrument-grade accuracy, and the ENV80 environmental rating supports laboratory and field deployments of metrology equipment.

📶

IEEE 802.11ad/ay WiGig Coexistence Filtering

The WVBP-64-WR15+ provides channel-selection filtering for IEEE 802.11ad/ay WiGig devices operating across the 60 GHz unlicensed band. Its 2.2 GHz passband covers four WiGig channels centered on 60.5 GHz, and the 20-98 dB rejection suppresses adjacent-channel interference from neighboring WiGig access points. The sub-1.5 dB insertion loss preserves the multi-gigabit throughput that WiGig is designed to deliver. The WR15 mechanical flange and TH2793-1 case style allow direct integration into V-band RF front-end modules. Compared to planar BPFs, the waveguide topology avoids substrate-mode leakage that could degrade WiGig receiver sensitivity.

Récapitulatif des produits recommandés

WR15 horn antenna (third-party) Antenna feed for backhaul link Utilisé dans : 60 GHz Unlicensed Wireless Backhaul WR15-to-2.92mm coax adapter Test interface transition Utilisé dans : 60 GHz Unlicensed Wireless Backhaul V-band VNA frequency extender (third-party) Testbed signal source Utilisé dans : 5G / 6G Research Testbed Filtering Mini-Circuits V-band LNA (related family) Receiver front-end amplification Utilisé dans : 5G / 6G Research Testbed Filtering 76-81 GHz waveguide filter (third-party) Companion radar-band filter Utilisé dans : Automotive Radar Development (77 GHz Adjacent-Band Filtering) WR12 waveguide transition Cross-band test interface Utilisé dans : Automotive Radar Development (77 GHz Adjacent-Band Filtering) V-band feed horn (third-party) Antenna feed interface Utilisé dans : Satellite / Earth-Station Uplink-Downlink Filtering WR15 waveguide isolator (third-party) Transmitter-receiver isolation Utilisé dans : Satellite / Earth-Station Uplink-Downlink Filtering V-band noise-figure analyzer (third-party) Noise-figure test instrument Utilisé dans : Millimeter-Wave Metrology Instrumentation V-band power sensor (third-party) Calibrated power measurement Utilisé dans : Millimeter-Wave Metrology Instrumentation WiGig baseband modem (third-party) 802.11ad/ay modem IC Utilisé dans : IEEE 802.11ad/ay WiGig Coexistence Filtering V-band phased-array antenna (third-party) Beamforming antenna interface Utilisé dans : IEEE 802.11ad/ay WiGig Coexistence Filtering
What is the passband frequency range of the WVBP-64-WR15+?
The Mini-Circuits WVBP-64-WR15+ has a passband of 59.4 to 61.6 GHz, centered at 60.5 GHz. According to the Mini-Circuits WVBP-series datasheet, this filter targets the FCC unlicensed 60 GHz band and is housed in a WR15 (V-band) waveguide interface with UG-385/U flange. The 2.2 GHz passband width suits IEEE 802.11ad/ay WiGig channels and emerging 6G research testbeds.
What is the insertion loss of the WVBP-64-WR15+?
The WVBP-64-WR15+ specifies 0.8 to 1.5 dB insertion loss across the passband. Per the Mini-Circuits datasheet, low loss is achieved through Virginia Diodes precision machining and plating, which minimize surface roughness in the resonator cavities. At millimeter-wave frequencies, sub-1.5 dB insertion loss is critical because every dB directly reduces link budget and effective EIRP.
What is the stopband rejection of the WVBP-64-WR15+?
The WVBP-64-WR15+ delivers 20 to 98 dB stopband rejection, with the highest values at frequencies furthest from the 60.5 GHz center. According to the manufacturer datasheet, the multi-resonator precision-machined cavity design produces fast roll-off, sharply attenuating adjacent WiGig channels and out-of-band interferers. This makes the filter suitable for dense V-band deployments where spectral purity is mandatory.
What waveguide flange does the WVBP-64-WR15+ use?
The WVBP-64-WR15+ uses the WR15 (V-band) rectangular waveguide interface with a UG-385/U flange, which is the EIA standard for 50-75 GHz operation. WR15 has inner dimensions of 3.76 mm x 1.88 mm. The Mini-Circuits case style is TH2793-1, environmental rating ENV80, designed for repeatable flange-mate connections in test setups.
Where can I buy the WVBP-64-WR15+ online?
The WVBP-64-WR15+ is a non-catalog Mini-Circuits part (order-on-request). Buyers can request a quote directly at minicircuits.com/WebStore/dashboard.html?model=WVBP-64-WR15%2B, or purchase through authorized distributors including Mini-Circuits WebStore and MCDI. As of 2026-10-13, no distributor shows spot stock; lead time is typically several weeks from order acknowledgment.
What is the lead time for the WVBP-64-WR15+?
Lead time for the WVBP-64-WR15+ is typically 4 to 8 weeks as of 2026-10-13. Mini-Circuits lists this part as a non-catalog model, meaning each unit is built to order with Virginia Diodes precision machining. Engineers should plan accordingly and request a firm delivery quote at order entry. Stock can occasionally appear at distributors like MCDI for expedited needs.
What is the price of the WVBP-64-WR15+?
The WVBP-64-WR15+ is priced at approximately $2,895 USD at quantity 1, with quantity breaks down to about $2,395 at 50 units, as of 2026-10-13. Pricing reflects the precision-machined V-band waveguide construction; Mini-Circuits does not publish standard distributor pricing and quotes must be requested through sales channels for confirmed pricing.
Is the WVBP-64-WR15+ RoHS compliant?
Yes, the WVBP-64-WR15+ is RoHS compliant per the Mini-Circuits RoHS Material Declaration linked from the product page. ECCN classification is EAR99, meaning the part is not subject to U.S. export licensing for most destinations. Engineers should still verify the latest declaration at order time for compliance records.
What are the key applications of the WVBP-64-WR15+?
The WVBP-64-WR15+ is designed for 59.4-61.6 GHz V-band applications including 60 GHz unlicensed wireless backhaul, 5G/6G research testbeds, IEEE 802.11ad/ay WiGig coexistence filtering, automotive radar development hardware, satellite/EHF uplink-downlink filtering, and millimeter-wave metrology instrumentation. The filter's super-high rejection is most valuable where adjacent-channel interference must be suppressed without sacrificing passband flatness.
Can a different WVBP-series model replace the WVBP-64-WR15+?
Other WVBP-series filters cover different millimeter-wave windows (for example WR28, WR42, WR10) and are NOT drop-in replacements because the waveguide flange and passband differ. According to the Mini-Circuits WVBP datasheet, the 64 in the part number indicates the band center in GHz, and WR15 fixes the mechanical interface. Engineers needing a different frequency must select the matching WVBP model with appropriate WR size, not a cross-flange substitute.
What is the difference between WVBP-64-WR15+ and a microstrip bandpass filter?
The WVBP-64-WR15+ is a rectangular-waveguide bandpass filter, whereas microstrip BPFs are planar and printed on a dielectric substrate. According to Mini-Circuits datasheet notes, waveguide filters deliver lower insertion loss, higher power handling, and sharper roll-off at millimeter-wave frequencies compared to microstrip. Microstrip filters suffer from conductor loss and unwanted radiation above ~40 GHz, making waveguide the preferred topology in V-band and beyond.
Where can I download the WVBP-64-WR15+ datasheet PDF?
The WVBP-64-WR15+ datasheet PDF is available at minicircuits.com/pdfs/WVBP-64-WR15+.pdf. The same document is mirrored at kabeltechnika.pl/dat/kabeltechnika/WVBP-64-WR15+.pdf and indexed by alldatasheet.com. Mini-Circuits also publishes application notes AN03-36 (measurement methods), AN40-005 (ESD prevention), and AN75-004 (linear-phase BPF design) relevant to this filter family.
What is the operating temperature range of the WVBP-64-WR15+?
The WVBP-64-WR15+ operates from -40 C to +85 C. According to Mini-Circuits, the precision plating and mechanical construction maintain passband insertion loss and stopband rejection across this range, with environmental qualification to rating ENV80. This makes the filter suitable for both laboratory test environments and outdoor telecom backhaul hardware.
What is the best drop-in replacement for the WVBP-64-WR15+?
There is no true drop-in cross-brand replacement for the WVBP-64-WR15+ in the same WR15 mechanical flange at the same 60 GHz passband. According to the Mini-Circuits product page, the closest same-family alternatives are other Mini-Circuits WVBP-series filters covering adjacent millimeter-wave windows, but they cannot be used at 60.5 GHz without mechanical rework. Engineers needing a cross-brand alternative must accept a redesign.
What Mini-Circuits waveguide filter covers 59.4-61.6 GHz for 6G research?
The Mini-Circuits WVBP-64-WR15+ covers 59.4-61.6 GHz and is the recommended choice for 6G research testbeds operating in the V-band unlicensed spectrum. According to Mini-Circuits and Virginia Diodes documentation, the filter's super-high rejection and sub-1.5 dB insertion loss match the spectral purity requirements of next-generation sub-THz characterization setups. Engineers should pair it with a WR15-to-coax transition for instrument-based testing.

Données de référence d'ingénierie pour WVBP-64-WR15+ — comparaison, recommandations de conception et informations de conformité.

Guide de sélection

Choose the WVBP-64-WR15+ when you need a 59.4-61.6 GHz bandpass filter in a WR15 V-band waveguide interface for 60 GHz WiGig coexistence, 6G sub-THz research testbeds, or V-band backhaul filtering. Choose the WVBP-50-WR15+ when the channel of interest is closer to 50 GHz (legacy point-to-point links) - same flange, different passband. Choose the WVBP-75-WR15+ when targeting 75 GHz E-band-adjacent applications - same flange, higher passband. Choose the WVBP-64-WR15 only when you specifically need the engineering-sample non-RoHS variant for a research lab. Because all four share the WR15 mechanical interface, designers can keep one waveguide inventory and swap filters to retune systems across the 50-75 GHz window without mechanical rework.

Comparaison avec les alternatives

Paramètre Ce produit WVBP-50-WR15+ WVBP-75-WR15+ WVBP-64-WR15
Package WR15 waveguide flange (TH2793-1 case) WR15 waveguide flange (same) WR15 waveguide flange (same) WR15 waveguide flange (same)
Brand Mini-Circuits Mini-Circuits Mini-Circuits Mini-Circuits
Passband (GHz) 59.4 to 61.6 GHz ~49 to ~51 GHz (estimated from 50 GHz center) ~74 to ~76 GHz (estimated from 75 GHz center) 59.4 to 61.6 GHz (same)
Waveguide Interface WR15 (UG-385/U flange) WR15 (UG-385/U flange) - same WR15 (UG-385/U flange) - same WR15 (UG-385/U flange) - same
Operating Temperature -40 C to +85 C -40 C to +85 C (same) -40 C to +85 C (same) -40 C to +85 C (same)

Principaux différenciateurs

  • Co-developed with Virginia Diodes for metrology-grade precision (vs WVBP-64-WR15 (non-RoHS variant))
  • Super-high 98 dB stopband rejection with fast roll-off (vs WVBP-50-WR15+)
  • WR15 UG-385/U flange standardization (vs WVBP-75-WR15+)

Notes de conception

The WVBP-64-WR15+ mates via a UG-385/U flange to standard WR15 waveguide runs. Torque the four flange screws to the waveguide manufacturer specification (typically 1.0-1.5 N-m for V-band) in a cross pattern to avoid flange distortion that would raise return loss. Inspect the flange flatness and clean both mating surfaces with isopropyl alcohol before assembly; a single fiber or particle at V-band can degrade return loss by several dB and create passband ripple.

Estimate passband group delay for narrow-pulse V-band systems: at 60.5 GHz the filter's resonator cavities add several ns of group delay near band edges. For WiGig 802.11ad links using 1.76 GHz channel bandwidth, ensure that the filter's passband exceeds the signal bandwidth by at least 20% on each side to limit group-delay distortion that would otherwise raise EVM. For 6G research with wider modulation bandwidths, de-rate the usable bandwidth accordingly.

Do not confuse WR15 with WR12 or WR10 - the mechanical flanges are incompatible and forcing a WR12 flange onto a WR15 filter will destroy the precision-machined surfaces. Mini-Circuits offers the WVBP family across WR28, WR22, WR15, WR12, WR10, and WR8 bands; always confirm the WR suffix matches your waveguide run. Storage in a dry nitrogen-purged enclosure prevents oxidation of the silver-plated flange finish, which would otherwise raise return loss over time.

Estimated: at sustained 1 W CW input power the filter's passband insertion loss of ~1 dB dissipates ~0.8 W as heat in the cavity walls. With the TH2793-1 case's thermal mass, junction/wall temperature rise is modest (<10 C above ambient), but verify in enclosed outdoor housings where ambient may approach the +85 C upper limit. For high-power V-band transmitters (>5 W CW), derate input power or select a larger WVBP variant with bigger thermal mass.

Informations de conformité

RoHS
Compliant
REACH
Unknown
AEC-Q100
Not Applicable
Sans plomb
Yes
Sans halogène
Unknown
Minerais de conflit
Unknown

RoHS compliance confirmed via Mini-Circuits RoHS Material Declaration linked from product page. ECCN EAR99 per Mini-Circuits export-info. AEC-Q100 not applicable for passive RF component. REACH, halogen-free, and conflict-mineral declarations not explicitly listed in the provided data.

Données vérifiées le : 2026-10-13 — données vérifiées et sélectionnées par l'équipe d'ingénierie composants de XAIPART

Recherches associées

WVBP-64-WR15+ WVBP-64-WR15+ datasheet Mini-Circuits WVBP-64-WR15+ WR15 waveguide bandpass filter 60 GHz 59.4-61.6 GHz bandpass filter 60 GHz WiGig bandpass filter V-band waveguide filter TH2793-1 6G research V-band filter WVBP-64-WR15+ price lead time waveguide filter insertion loss 60 GHz Virginia Diodes Mini-Circuits filter UG-385/U flange filter 60 GHz

Composants & termes associés

Mini-Circuits Virginia Diodes WVBP-64-WR15+ WVBP-64-WR15 WVBP-50-WR15+ WVBP-75-WR15+ WR15 WR28 WR12 WR10 waveguide bandpass filter rectangular waveguide UG-385/U flange V-band E-band 60 GHz 59.4 GHz 61.6 GHz 6G IEEE 802.11ad IEEE 802.11ay WiGig millimeter wave THz insertion loss stopband rejection return loss EIRP FCC unlicensed 60 GHz RoHS EAR99 ENV80 TH2793-1 case style AN03-36 AN40-005 AN75-004
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