Ultrasonic Receivers, Transmitters

Image Part Number Description / PDF Quantity Rfq
MB7569-221

MB7569-221

MaxBotix Inc.

ULTRASONIC SENSOR SCXL-MAXSONAR

0

MB7354-100

MB7354-100

MaxBotix Inc.

ULTRASONIC SENSOR HRXL-MAXSONAR

3

SEN-08502

SEN-08502

SparkFun

ULTRASONIC SENSOR MLV-MAXSONAR

0

MB7544-830

MB7544-830

MaxBotix Inc.

ULTRASONIC SENSOR SCXL-MAXSONAR

0

981

981

Adafruit

ULTRASONIC SENSOR MLV-MAXSONAR

0

MB7139-220

MB7139-220

MaxBotix Inc.

ULTRASONIC SENSOR XL-TRASHSONAR

0

MB7584-101

MB7584-101

MaxBotix Inc.

ULTRASONIC SENSOR SCXL-MAXSONAR

0

MB7489-711

MB7489-711

MaxBotix Inc.

ULTRASONIC SENSR 4-20HR-MAXSONAR

0

MB7480-231

MB7480-231

MaxBotix Inc.

ULTRASONIC SENSR 4-20HR-MAXSONAR

0

MB7040-100

MB7040-100

MaxBotix Inc.

ULTRASONIC SENSOR I2CXL-MAXSONAR

17

CUSP-T80-18-2400-TH

CUSP-T80-18-2400-TH

CUI Devices

TRANSMITTER, 80 DEGREE BEAM ANGL

470

MB7384-120

MB7384-120

MaxBotix Inc.

ULTRASONIC SENSOR HRXL-MAXSONAR

0

MB7389-621

MB7389-621

MaxBotix Inc.

ULTRASONIC SENSOR HRXL-MAXSONAR

0

MB7564-820

MB7564-820

MaxBotix Inc.

ULTRASONIC SENSOR SCXL-MAXSONAR

0

MB7589-710

MB7589-710

MaxBotix Inc.

ULTRASONIC SENSOR SCXL-MAXSONAR

0

CUSA-R80-15-2500-TH

CUSA-R80-15-2500-TH

CUI Devices

RECEIVER, 80 DEGREE BEAM ANGLE,

988

MB7574-130

MB7574-130

MaxBotix Inc.

ULTRASONIC SENSOR SCXL-MAXSONAR

0

MB7334-820

MB7334-820

MaxBotix Inc.

ULTRASONIC SENSOR HRXL-MAXSONAR

0

MB7583-100

MB7583-100

MaxBotix Inc.

ULTRASONIC SENSOR SCXL-MAXSONAR

0

SEN0310

SEN0310

DFRobot

URM12 ULTRASONIC SENSOR(1500CM &

0

Ultrasonic Receivers, Transmitters

1. Overview

Ultrasonic receivers and transmitters are electroacoustic devices that convert electrical signals into ultrasonic waves (transmitters) and vice versa (receivers). Operating above 20 kHz, these devices leverage piezoelectric, capacitive, or magnetic principles to enable non-contact measurement, imaging, and communication. Their importance spans industries including medical diagnostics, industrial automation, automotive safety systems, and smart home devices.

2. Main Types and Functional Classification

Type Functional Characteristics Application Examples
Piezoelectric Transducers High sensitivity, wide frequency range (40kHz-5MHz), temperature limitations Medical ultrasound imaging, industrial level sensors
Capacitive Micromachined Ultrasound Transducers (CMUT) Wide bandwidth, low-voltage operation, silicon integration Portable diagnostic devices, IoT proximity sensors
Magnetostrictive Transducers High power output, robust design, lower frequency range Underwater sonar systems, industrial cleaning equipment

3. Structure and Components

Typical construction includes:

  • Piezoelectric ceramic element (PZT or PVDF polymer)
  • Protective housing with acoustic matching layer
  • Electrical terminals with impedance matching circuitry
  • Damping material to reduce ringing
  • Environmental sealing (IP67-rated enclosures)

4. Key Technical Specifications

Parameter Description Importance
Operating Frequency 20kHz-10MHz range Determines penetration depth and resolution
Electromechanical Coupling Coefficient 0.5-0.8 typical range Measures energy conversion efficiency
Beam Angle 10 -120 variable Defines detection coverage area
Temperature Stability -40 C to +120 C Ensures consistent performance across environments

5. Application Fields

Major applications include:

  • Medical: Diagnostic ultrasound systems, Doppler blood flow measurement
  • Industrial: Non-destructive testing (NDT), fluid level monitoring
  • Automotive: Park assist sensors, blind spot detection
  • Consumer: Smart faucet sensors, robotic vacuum navigation

6. Leading Manufacturers and Products

Manufacturer Product Example Key Features
TE Connectivity 898-40000-01 120dB dynamic range, 40kHz center frequency
Murata Manufacturing MA40H1S-R Compact 16mm diameter, 200Vpp operation
Panasonic WM-U2JEF-K01 Weather-resistant design, 5m detection range

7. Selection Guidelines

Key considerations:

  • Match frequency to application requirements (e.g., 40kHz for obstacle detection)
  • Assess environmental conditions (temperature, humidity, vibration)
  • Evaluate beam pattern requirements for coverage
  • Verify electrical compatibility (impedance, voltage ratings)
  • Consider package size and mounting options

8. Industry Trends

Future developments include:

  • Micromachined piezoelectric elements for miniaturization
  • Integration with AI for adaptive beamforming
  • Multi-frequency transducers for combined imaging modes
  • Increased adoption in autonomous vehicle LiDAR systems
  • Energy-harvesting ultrasonic sensors

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