Coaxial Cables (RF)

Image Part Number Description / PDF Quantity Rfq
PT17418SMFKRA-C

PT17418SMFKRA-C

Laird - Antennas

CABLE ASSY 174 SMA MALE SMB

0

PT1955NN

PT1955NN

Laird - Antennas

CABLE ASSY A195 NM NM

0

PT19515NSM

PT19515NSM

Laird - Antennas

CABLE ASSY A195 NM SMA MALE

0

PT8X0.5PN

PT8X0.5PN

Laird - Antennas

CBL ASSY 8X UHFM NM

0

PTD25NT

PTD25NT

Laird - Antennas

CBL ASSY 25' TEFLEX NM-TNCM

0

PT16410

PT16410

Laird - Antennas

CABLE ASSY A195 RTNF SMAMR CMP

0

PTD10NN

PTD10NN

Laird - Antennas

CBL ASSY 10' TEFLEX NM NM

0

PTF18PSPS

PTF18PSPS

Laird - Antennas

CBL ASSY TFX UHFM UHFM

0

PT174MMCXRASMFBH2

PT174MMCXRASMFBH2

Laird - Antennas

CABLE ASSY 174 MMCXRA SMA FEMBH

0

PT8X35NSNFS

PT8X35NSNFS

Laird - Antennas

CBL ASSY PIGTAIL 35' SLDR NM-NF

0

PT400100NPS

PT400100NPS

Laird - Antennas

CBL ASSY PIGTAIL 100'NM PL259SDR

0

CASNF12BRBNF

CASNF12BRBNF

Laird - Antennas

CABLE ASSY 12" N FEM-RP BNC FEM

0

PT40050NM

PT40050NM

Laird - Antennas

CBL ASSY PIGTAIL 50' NM MUHFM

0

PT8U6PB

PT8U6PB

Laird - Antennas

CBL ASSY PIGTAIL 6' UHFM BNCM

0

PT81.5PB

PT81.5PB

Laird - Antennas

CBL ASSY 58A UHFM BNCM

0

CARTNM240PRTNF

CARTNM240PRTNF

Laird - Antennas

CABLE ASSY 240" RP TNC MALE-FEM

0

PT20025TSTS

PT20025TSTS

Laird - Antennas

CABLE ASSY L200 TNCM TNCM

0

PT81.25TTF

PT81.25TTF

Laird - Antennas

CBL ASSY 58A TNCM TNCF

0

PT4006NSTS

PT4006NSTS

Laird - Antennas

CBL ASSY PIGTAIL 6' NM TNCM

0

PT8X100NB

PT8X100NB

Laird - Antennas

CBL ASSY 8X NM BNCM

0

Coaxial Cables (RF)

1. Overview

RF coaxial cables are cylindrical transmission lines consisting of concentric conductors separated by dielectric materials. They enable efficient transfer of high-frequency electrical signals (typically 1 MHz to 110 GHz) with minimal interference, making them critical components in telecommunications, broadcasting, aerospace, and test equipment. Their shielded structure ensures signal integrity in noisy environments.

2. Main Types and Functional Classification

TypeKey FeaturesApplications
Rigid Coaxial CableMetallic outer conductor, fixed geometryTest labs, high-power transmitters
Semi-Rigid CableFormable but non-flexing, excellent shieldingMicrowave systems, aerospace
Flexible Coaxial CableBraided shield, bendableGeneral-purpose communication systems
Low-Loss Foam DielectricPE/PTFE dielectric, reduced attenuation5G infrastructure, satellite links

3. Structure and Composition

Typical construction includes:
  1. Center Conductor: Solid/stranded copper/aluminum for signal transmission
  2. Dielectric Insulator: Polyethylene (PE) or PTFE foam maintaining uniform impedance
  3. Shielding Layer: Braided copper/aluminum with 85-95% coverage (single/double layers)
  4. Outer Jacket: PVC/PE for mechanical/environmental protection
Critical dimensions determine characteristic impedance (commonly 50 for data/75 for video).

4. Key Technical Parameters

ParameterDescriptionImportance
Characteristic ImpedanceMatched load resistance (50/75 )Minimizes signal reflection
Attenuation (dB/100m)Signal loss per unit lengthDetermines transmission distance
Frequency RangeOperational bandwidth (e.g., 0-18GHz)Limits application scope
VSWRVoltage Standing Wave RatioMeasures impedance matching quality
Power HandlingMax RF power capacityPrevents dielectric breakdown

5. Application Fields

  • Telecommunications: 5G base stations, fiber-wireless systems
  • Broadcasting: TV antenna feeds, studio equipment
  • Aerospace: Radar systems, avionics
  • Test & Measurement: Oscilloscope probes, signal analyzers
  • Industrial IoT: Wireless sensor networks

6. Leading Manufacturers

ManufacturerKey Products
Amphenol CorporationSUCOFLEX 104, 106 series
TE ConnectivityRadiation-resistant RG-58
HUBER+SUHNERRF flexible cables (SST series)
CommScopeHeliax FSJ1-50A
Southwest Microwave832 Series semi-rigid

7. Selection Guidelines

Key considerations:
  • Match impedance to system requirements
  • Verify frequency/attenuation specifications
  • Environmental factors (temperature, UV resistance)
  • Mechanical requirements (flexure life, bending radius)
  • Connector compatibility (SMA, N-Type, etc.)
Example: 5G massive MIMO deployment requires low-PIM (Passive Intermodulation) cables with <0.1dB/100m loss at 3.5GHz.

8. Industry Trends

  • High-Frequency Demand: Development of 110GHz+ cables for 6G research
  • Weight Reduction: Composite materials in aerospace applications
  • Green Manufacturing: Halogen-free jacket materials adoption
  • Smart Cables: Embedded sensors for condition monitoring
  • Standardization: 5G NR band-specific cable specifications
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