Parker EF11-LB2-36 amplifier (USA) in stock.
$139.51
The American Parker amplifier is actually an analog Fourier transform. The output of the lock-in amplifier is a DC voltage, proportional to the amplitude of the input signal at a specific frequency (the parameter input frequency). Other frequency components of the input signal will not contribute to the output voltage. Two sinusoidal signals, both with a frequency of 1Hz and a 90-degree phase difference, multiplied by a multiplier, result in a sinusoidal signal with DC bias.
Brand
PARKER/American Parker
Origin Category
Imported
Application Fields
Chemical, Petroleum, Mining, Road/Rail/Shipbuilding, Comprehensive
Parker amplifiers are devices that increase signal amplitude or power, and are important components in signal processing tools for automation technology. The amplification function of an amplifier is achieved by controlling the energy source with the input signal; the power consumption required for amplification is provided by the energy source. For linear amplifiers, the output is a reproduction and enhancement of the input signal. For nonlinear amplifiers, the output has a certain functional relationship with the input signal. Amplifiers are classified according to the physical quantity of the signal they process, such as mechanical amplifiers, electromechanical amplifiers, electronic amplifiers, hydraulic amplifiers, and pneumatic amplifiers, among which electronic amplifiers are the most widely used. With the promotion of jet technology (see jet elements), the application of hydraulic or pneumatic amplifiers is also gradually increasing. Electronic amplifiers are further classified according to the active devices used, such as vacuum tube amplifiers, transistor amplifiers, solid-state amplifiers, and magnetic amplifiers, among which transistor amplifiers are the most widely used. In automated instrumentation, transistor amplifiers are commonly used for voltage and current amplification of signals, mainly in the forms of single-ended amplification and push-pull amplification. In addition, they are commonly used for impedance matching, isolation, current-to-voltage conversion, charge-to-voltage conversion (such as charge amplifiers), and to achieve a certain functional relationship between output and input (such as operational amplifiers).
The principle of Parker amplifiers: High-frequency power amplifiers are used in the final stage of transmitters. Their function is to amplify the high-frequency modulated wave signal to meet the transmission power requirements, and then radiate it into space through an antenna, ensuring that receivers within a certain area can receive a satisfactory signal level without interfering with the communication of adjacent channels.
Parker amplifiers are important components of transmitting devices in communication systems. Based on their operating frequency band, they are divided into narrowband high-frequency power amplifiers and wideband high-frequency power amplifiers. Narrowband high-frequency power amplifiers typically use a frequency-selective circuit with frequency filtering as the output circuit, hence they are also called tuned power amplifiers or resonant power amplifiers; wideband high-frequency power amplifiers use a transmission line transformer or other wideband matching circuits as the output circuit, therefore they are also called untuned power amplifiers. A high-frequency power amplifier is an energy conversion device that converts DC energy supplied by a power source into high-frequency AC output. As known in the "Low-Frequency Electronic Circuits" course, amplifiers can be classified into three classes (A, B, and C) based on their current conduction angle. Class A amplifiers have a current conduction angle of 360°, suitable for small-signal, low-power amplification. Class B amplifiers have a current conduction angle of approximately 180°; Class C amplifiers have a current conduction angle less than 180°. Both Class B and Class C are suitable for high-power operation. Class C has the highest output power and efficiency among the three classes. Most high-frequency power amplifiers operate in Class C. However, the current waveform distortion of Class C amplifiers is too high, therefore they cannot be used for low-frequency power amplification, but only for resonant power amplification using a tuned circuit as the load. Because the tuned circuit has filtering capabilities, the circuit current and voltage remain very close to a sine wave, with very little distortion.
Parker Proportional Amplifier (USA)
Digital Power Amplifier.
Differential Input Stage.
Voltage or Current Input.
Programmable via RS232 serial interface.
Status Output.
Four-quadrant ramp function.
Four internal programmable instruction values.
Parameter adjustment software.
Also programmable using a desktop computer (HP48G).
Power amplifiers for directional control valves: PWD 00A-400 series
Power amplifiers for directional control valves: EW101 (Parker)
Power amplifiers for directional control valves: EW102 (Parker)
Proportional valve amplifiers (Parker)
EF96-EE0-36
EF41-FE2-37
ED20-124-10
EZ00-155-10
EW25-102-10
EVSA160A0613Z
EVVB50A10C1
ET00-154AX600
EH35-102-14X580
EH25-102-14
EF81/91-EB2-37
EF41-CE0-37
EF36-AB2-36
EF11-LB2-36
EE90-104-10X521 EW25-101-10
EW16-104-10
EVSA064A1013Z
EVSA064A1013
ET00-154A
EH35-101-14X580
EH35-101-14
EF46-BB0-36
EF41-CB0-37
EF41-BE0-37
EF36-AB0-36
EF00-101-40X652
EE92-104-11X551
EZ00-306-10
EW32-104-10
EW10-101-10
EVSA315A1013
EVB40A06B2-S16-HALB ERV101N8MD024D-C3B-G
EH35-102-14
EF41-FB2-37
EF31-CB2-36
EF31-AB2-36
ED34-124-10
ECR400S2
EX00-N16A
EW26-104-10
EVSA315A0613
EVAY080A10AA1
EF81/91-FB0-37
EE92-104-11X521
ECR400S4
EX00-S04A
EW32-101-10
EH17-102-14
EF96-FB0-36
EF81/91-HE0-37
Power Amplifier for Reversing Valves EW104 ◆ Power amplifiers for pressure valves: ED101 ◆ ED102
Power amplifiers for pressure valves: ED 104 ◆ ED105 ◆ ED 124
Power amplifiers for flow control valves: ET 101 ◆ ET 102 ◆ ED 104
Power amplifiers for pressure valves: ED 105 ◆ ET 154 ◆ ET105
Parker proportional amplifiers (USA), jack standard conforms to DIN 43650, Type A (ISO 4400), suitable for electromagnets of size □29 and above. Plug-in amplifier, protection rating IP65, installation standard DIN 40050, plug comes with wiring cable. P02 DIN 43 650 ISO 4400 Function: This proportional amplifier features a final-stage clock pulse; the clock frequency is infinitely adjustable as a dither signal, and the maximum and minimum electromagnetic currents are independently adjustable. It also integrates a linear ramp function. Its function can be locked by releasing/locking the input. The regulated output can be used as a power supply for an external setting signal or sensor. Applications: Due to its splash-proof design, this amplifier is suitable for a variety of applications.
Our company primarily deals in European and American brands. We can source brands from any European country, including our leading German brands such as: BURKERT, DEMAG, HAWE, REXROTH, HYDAC, PILZ relays, FESTO, IFM sensors, E+H, HEIDENHAIN, P+F sensors, SICK, TURCK, and HIRSCHMANN industrial switches. German brands: Hengstler, Murr, Schmersal, Samson, EPRO (Emerson Group)
American brands: MOOG, ASCO, MAC, NUMATICS, PARKER, VICKERS, ROSS
British brands: Norgren
Italian brands: OMAL, ATOS, CAMOZZI, UNIVER, Camozzi.



