Texas Instruments RF/Microwave Antennas 15

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Part RoHS Manufacturer RF or Microwave Device Type Mounting Feature No. of Terminals Package Body Material Screening Level Polarization Maximum Voltage Standing Wave Ratio No. of Elements Omni-Directional Maximum Transmission Power Construction Package Equivalence Code Characteristic Impedance Maximum Operating Temperature Application Gain Wind Rating Minimum Operating Temperature Terminal Finish Bandwidth Front-To-Back Ratio Diameter Additional Features Beamwidth-E JESD-609 Code Minimum Operating Frequency Beamwidth-H Maximum Operating Frequency

RI-ANT-G04E-30

Texas Instruments

ANTENNA-OTHER

RI-ANT-P02A-00

Texas Instruments

ANTENNA-OTHER

RI-ANT-G01E

Texas Instruments

ANTENNA-OTHER

NO

60 Cel

-30 Cel

RI-ANT-P02A

Texas Instruments

ANTENNA-OTHER

NO

70 Cel

-30 Cel

RI-ANT-S02C-30

Texas Instruments

ANTENNA-OTHER

RI-ANT-S02C-00

Texas Instruments

ANTENNA-OTHER

RI-ANT-G02E-30

Texas Instruments

ANTENNA-OTHER

RI-ANT-S01C

Texas Instruments

ANTENNA-OTHER

NO

70 Cel

-30 Cel

RI-ANT-T01A

Texas Instruments

ANTENNA-OTHER

8 W

50 ohm

55 Cel

-25 Cel

RI-ANT-S02C

Texas Instruments

ANTENNA-OTHER

NO

70 Cel

-30 Cel

RI-ANT-G01E-30

Texas Instruments

ANTENNA-OTHER

RI-ANT-P02A-30

Texas Instruments

ANTENNA-OTHER

RI-ANT-G04E

Texas Instruments

ANTENNA-OTHER

NO

60 Cel

-30 Cel

RI-ANT-G02E

Texas Instruments

ANTENNA-OTHER

NO

60 Cel

-30 Cel

RI-ANT-S01C-30

Texas Instruments

ANTENNA-OTHER

RF/Microwave Antennas

RF/Microwave antennas are devices designed to radiate or receive electromagnetic waves in the radio frequency (RF) and microwave frequency range. They are used in a wide range of applications, including wireless communications, radar systems, satellite communications, and broadcast systems.

RF/Microwave antennas are typically made up of conductive elements such as wires, rods, or plates, which are placed in a specific arrangement to produce the desired radiation pattern. The design of the antenna is critical for achieving good performance in terms of gain, directivity, and efficiency.

There are many types of RF/Microwave antennas, each with its own unique characteristics and advantages. Some common types include dipole antennas, patch antennas, helical antennas, and horn antennas. Each type of antenna is suited for specific applications and can be optimized for different frequency ranges.

RF/Microwave antennas are critical components in modern wireless communication systems, and their performance is a key factor in the overall performance of the system. With advances in technology, the design and performance of RF/Microwave antennas continue to improve, allowing for better signal quality and higher data rates in wireless communication systems.