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3535-4D
Rps-sonic
3535-4D
Ultrasonic transducers are piezoelectric ceramics that resonate at ultrasonic frequencies and convert electrical signals into mechanical vibrations by the piezoelectric effect of the material. When the transducer is used as a transmitter, the electrical oscillating signal sent from the excitation source will cause a change in the electric or magnetic field in the electrical energy storage element of the transducer, which changes the mechanical vibration system of the transducer through some effort. A driving force is generated to cause it to vibrate, thereby propelling themedium in contact with the mechanical vibration system of the transducer to vibrate and radiate sound waves into the medium.
Transducer requirements will depend on the application. Many requirements will conflict with one another and will be given different priorities. Hence, no single set of guidelines can encompass all requirements — i.e., there are many different ways to achieve the same objectives.
Analytically, transducer performance can only be predicted in a general way. This is because the properties of piezoelectric ceramics are often highly dependent on the operating conditions including temperature, electrical field strength, static compressive prestress, dynamic stress, number of load cycles, and time. These operating conditions can interact with each other and the effects of these conditions are often nonlinear. Also, many properties of piezoelectric ceramics are orthotropic and can vary among the individual ceramics and also between ceramic lots. Further, the interactions at the various component interfaces (e.g., at threads) may be difficult to characterize and the coefficient of convective heat transfer for air cooling may only be approximately estimated. Hence, much of the design process involves experimental testing.
The transducer converts high-frequency electrical energy into high-frequency mechanical vibrations. And it contains several piezoelectric ceramic discs sandwiched under pressure between two metal blocks. Between each disc is a thin metal plate, which forms the electrode. When a sinusoidal electrical signal is fed to the transducer via the electrodes, the discs expand and contract, producing axial vibrations.
Ultrasonic transducer is the core device that converts electrical energy into mechanical energy (ultrasonic), the piezoelectric ceramic chip adopts imported parts, and can give a strong and stable output. It is made from American aluminum alloy and titanium alloy. The frequency is 15 KHZ ~ 28 KHZ.
Item No. | Capacitance (pf) | Power (W) | Resistance range (Ω) | Transducer shape | Material of booster | ||
Yellow | Grey | Black | |||||
3035-4D | 6600-7400 | / | 9200-10200 | 800 | <35 | Inverted horn | Steel |
3035-4Z | 5500-6200 | / | / | 700 | <40 | Type column | Steel |
5500-6200 | / | / | 500 | Type column | Steel | ||
3535-4D | 6600-7400 | / | 9000-10000 | 800 | Inverted horn | ||
High efficiency: high mechanical quality factors and high efficiency of electroacoustic conversion at resonant frequency points.
Large amplitude: the structure of the computer optimized design, the ratio of vibration and speed is high, and the amplitude of the front cover plate is large.
Big power: under the action of the pre-stressed screw, the energy of the piezoelectric ceramic is exerted to the maximum extent.
Good heat resistance: small resonant impedance, small calorific value, wide range of use temperature. High reliability and long life.
▏Warranty one year for transducer.
▏You can cantact us for technical inquiry any time.
▏We supply OEM service for oversea customer, also will keep Confidentiality for our customers.
▏Shipment by FED-EX/DHL
Ultrasonic transducers are piezoelectric ceramics that resonate at ultrasonic frequencies and convert electrical signals into mechanical vibrations by the piezoelectric effect of the material. When the transducer is used as a transmitter, the electrical oscillating signal sent from the excitation source will cause a change in the electric or magnetic field in the electrical energy storage element of the transducer, which changes the mechanical vibration system of the transducer through some effort. A driving force is generated to cause it to vibrate, thereby propelling themedium in contact with the mechanical vibration system of the transducer to vibrate and radiate sound waves into the medium.
Transducer requirements will depend on the application. Many requirements will conflict with one another and will be given different priorities. Hence, no single set of guidelines can encompass all requirements — i.e., there are many different ways to achieve the same objectives.
Analytically, transducer performance can only be predicted in a general way. This is because the properties of piezoelectric ceramics are often highly dependent on the operating conditions including temperature, electrical field strength, static compressive prestress, dynamic stress, number of load cycles, and time. These operating conditions can interact with each other and the effects of these conditions are often nonlinear. Also, many properties of piezoelectric ceramics are orthotropic and can vary among the individual ceramics and also between ceramic lots. Further, the interactions at the various component interfaces (e.g., at threads) may be difficult to characterize and the coefficient of convective heat transfer for air cooling may only be approximately estimated. Hence, much of the design process involves experimental testing.
The transducer converts high-frequency electrical energy into high-frequency mechanical vibrations. And it contains several piezoelectric ceramic discs sandwiched under pressure between two metal blocks. Between each disc is a thin metal plate, which forms the electrode. When a sinusoidal electrical signal is fed to the transducer via the electrodes, the discs expand and contract, producing axial vibrations.
Ultrasonic transducer is the core device that converts electrical energy into mechanical energy (ultrasonic), the piezoelectric ceramic chip adopts imported parts, and can give a strong and stable output. It is made from American aluminum alloy and titanium alloy. The frequency is 15 KHZ ~ 28 KHZ.
Item No. | Capacitance (pf) | Power (W) | Resistance range (Ω) | Transducer shape | Material of booster | ||
Yellow | Grey | Black | |||||
3035-4D | 6600-7400 | / | 9200-10200 | 800 | <35 | Inverted horn | Steel |
3035-4Z | 5500-6200 | / | / | 700 | <40 | Type column | Steel |
5500-6200 | / | / | 500 | Type column | Steel | ||
3535-4D | 6600-7400 | / | 9000-10000 | 800 | Inverted horn | ||
High efficiency: high mechanical quality factors and high efficiency of electroacoustic conversion at resonant frequency points.
Large amplitude: the structure of the computer optimized design, the ratio of vibration and speed is high, and the amplitude of the front cover plate is large.
Big power: under the action of the pre-stressed screw, the energy of the piezoelectric ceramic is exerted to the maximum extent.
Good heat resistance: small resonant impedance, small calorific value, wide range of use temperature. High reliability and long life.
▏Warranty one year for transducer.
▏You can cantact us for technical inquiry any time.
▏We supply OEM service for oversea customer, also will keep Confidentiality for our customers.
▏Shipment by FED-EX/DHL
