Custom-made assist: of course
Design Quantity: FR500A-4T-4.0G/5.5PB
Type: AC to AC
Output Type: Triple
Output Current: 9.5 A
Output Frequency: .00~ 600.00Hz unit: .01Hz
Certificates: CE, ISO9001:2008 for ac generate
Input terminals: DI-7(HDI-1), AI-3 ~10V, or -20mA
Output terminals: DO-2(HDO-1), RO-2, AO-two
Relevant motors: Asynchronous motor and synchronous motor
Pace manage precision: ±0.5% (SVC1) ±0.2%(SVC2)
Overload potential: 1 moment for a hundred and fifty% 10s for 180% 1s for 200%
Commencing torque: .5HZ:a hundred and eighty% (SVC1) .25HZ:a hundred and eighty%(SVC2) 0HZ:200%( Vector management)
Changing speed assortment: 1:100 (V/F control) 1:two hundred (SVC1, SVC2)
Manage techniques: V/F, SVC1, SVC2
IGBT and DSP: Infineon and Spansion for micro grid tie inverter
Packaging Details: Carton bins for small energy VFDs, wodden bins for 110KW or above VFDs
|Rated input voltage (V）
|3-period 380 V (-15%～+thirty%）
|Rated enter present (A）
|See table 2-one
|Rated enter frequency（Hz）
|See table 2-one
|Rated output current（A）
|See table 2-1
|The maximum output voltage（V）
|0～rated input voltage, error<±3%
|The optimum output frequency（Hz）
|V/f controlSensor-much less vector manage 1Sensor-considerably less vector control two
|1:50 (V/f management)1:a hundred (sensor-significantly less vector management 1)1:200（sensor-significantly less vector management 2）
|±0.5% (V/f handle)±0.2% (sensor-significantly less vector control 1 & 2)
|±0.3% (sensor-less vector manage 1 & 2)
|< 10ms (sensor-less vector control 1 & DCAC push frequency inverter 185kw 245hp 3-stage velocity variator fariador de frecuencia used in rice mill 2)
|0.5Hz: 180% (V/f management, sensor-less vector control 1).25Hz: 180% (sensor-much less vector handle 2)
|G Model:a hundred and fifty% Rated Current 60s,180% Rated Present 10s,two hundred% Rated Current 1s.P Design:120% Rated Existing 60s,one hundred forty five% Rated Existing 10s,a hundred and sixty% Rated Recent 1s.
|Automatic torque boost；Manual torque improve .1%～30.%
|Three methods:3 techniques: straight multi-level variety N Th-sort V / F curve（1.2 Th -sort, 1.4 Th -variety, 1.6 Th -variety, 1.8 Th -type, 2Th -type）
|Acceleration and deceleration Curve
|Line or curve acceleration and deceleration manner.Four varieties of acceleration and deceleration time，Ramp Time Assortment :.0～6000.0s
|DC brake begin frequency: .00～600.00HzDC brake time:.0s～10.0sDC brake current:.%～150.%
|Jog frequency selection:.00Hz～50.00Hz.Jog deceleration time: .0s～6000.0s.
|Simple PLC, Multi-speed
|Through the developed-in PLC or manage terminal to achieve up to 16 speed running
|Facilitate the realization of method handle loop management system
|Automatic voltage adjustment（AVR）
|When the grid voltage alterations, can routinely sustain a continual output voltage
|Fast current restrict perform
|Minimize in excess of current fault security inverter operating
|Over voltage In excess of existing
|System routinely restrictions of current and voltage during procedure to prevent repeated
|Given the control panel, control terminal, serial conversation port presented.
|9 kinds of frequency presented sources: electronic placing, keyboard potentiometer setting, analogVoltage, presented analog recent reference pulse is provided, the serial port is offered, multi-speed given, PLC is offered, the procedure PID reference. There are numerous methods to switch
|7 Change enter terminals, 1 way to make higher-pace pulse enter.3-channel analog inputs, like 2-way 0～10V / 0～20mA voltage and recent alternatives,a way to assist -10～+10 V input
|2-way switch output terminal, which supports a optimum street speed 100kHz pulse output.2 relay output terminals.2 analog output terminal, and optional voltage and recent.
|Parameter copy, parameter backup, adaptable parameter shown & concealed. Typical DC bus（Contains below 30 KW）.Different grasp & auxiliary command and switchover.Dependable pace research started out.A variety of Accel / Decel curves programmable.Timing handle, ten HP 20HP 25HP 30HP 35HP 40HP 45HP 50HP 55HP 60HP Variable Velocity Generate Variator Frequency Inverter VFD VSD For 3PH Motor fastened size control, rely purpose.Three faults recorded.Above excitation brake, overvoltage stall security programmable, beneath voltage stall defense programmable, restart upon powerloss.Four kinds of Accel/Decel time.Motor thermal safety.Versatile enthusiast handle.Process PID manage, simple PLC, sixteen-step speed handle programmable.Wobble frequency handle.Multi-purposeful crucial programmable, area-weakening control.Higher-precision torque management, V/f divided management, torque control at sensor-much less vector handle.
|Provide fault security dozen: Overcurrent, Overvoltage, Undervoltage, Overtemperature, Overload And so on Defense.
|Display and keyboard
|Key lock and purpose choice
|Realize some or all of the keys locked, scope definition section keys to stop misuse
|Run and stop checking details
|In the run or quit can be established to keep an eye on U00 group 4 objects ended up.
|Indoors, no immediate sunlight, cost-free from dust, corrosive gases,flammable gases, oil mist, water vapor, h2o fall and salt, and so forth.
|0～2000mDe-rate 1% for every single 100m when the altitude is over a thousand meters
|5～95%, no condensation
|Less than 5.9m/s2 (.6g)
|Wall-mounted or Flange mounting
Worm gear reducer
A worm gear reducer is a gear reducer that uses a worm gear train to reduce the required force. Unlike traditional gear reducers, these units are small and require low horsepower ratings. This reduces their efficiency, but their low cost and compact design help make up for this shortcoming. However, these gear reducers have some drawbacks, including their tendency to lock up when reversing.
High-efficiency worm reducers are ideal for applications where high performance, repeatability, and accuracy are critical. It consists of an input hypoid gear and an output hypoid bevel gear. The input worm rotates perpendicular to the output worm, so for every revolution of the input worm, the output gear makes one revolution. This arrangement reduces friction (another source of energy loss) in a high-efficiency worm gear to at least two arc minutes.
Compared with worm gear reducers, hypoid gearmotors offer several advantages, including lower operating costs and higher efficiency. For example, hypoid gear motors can transmit more torque even at high reduction ratios. Also, they are more efficient than worm gear reducers, which means they can produce the same output with a smaller motor.
In recent years, the efficiency of worm gear reducers has been dramatically improved. Manufacturers have made great strides in materials, design, and manufacturing. New designs, including dual-enveloping worm gear reducers, increase efficiency by 3 to 8 percent. These improvements were made possible through countless hours of testing and development. Worm gear reducers also offer lower initial costs and higher overload capability than competing systems.
Worm gear reducers are popular because they provide maximum reduction in a small package. Their compact size makes them ideal for low to medium-horsepower applications and they are reticent. They also offer higher torque output and better shock load tolerance. Finally, they are an economical option to reduce the device’s power requirements.
Low-noise worm gear reducers are designed to reduce noise in industrial applications. This type of reducer uses fewer bearings and can work in various mounting positions. Typically, a worm reducer is a single-stage unit with only one shaft and one gear. Since there is only one gear, the noise level of the worm gear reducer will be lower than other types.
A worm gear reducer can be integrated into the electric power steering system to reduce noise. Worm reducers can be made and from many different materials. The following three-stage process will explain the components of a low-noise worm reducer.
Worm gear reducers can be mounted at a 90-degree angle to the input worm shaft and are available with various types of hollow or solid output shafts. These reducers are especially beneficial for applications where noise reduction is essential. They also have fewer parts and are smaller than other types of reducers, making them easier to install.
Worm gear reducers are available from various manufacturers. Due to their widespread availability, gear manufacturers maintain extensive inventories of these reducers. The worm gear ratio is standard, and the size of the worm gear reducer is universal. Also, worm gear reducers do not need to be sized for a specific purpose, unlike other load interruptions.
A worm gear reducer is a transmission mechanism with a compact structure, large transmission ratio, and self-locking function under certain conditions. The worm gear reducer series products are designed with American technology and have the characteristics of stable transmission, strong bearing capacity, low noise, and compact structure. In addition, these products can provide a wide range of power supplies. However, these worm reducers are prone to leaks, usually caused by design flaws.
Worm gear reducers are available in single-stage and double-stage. The first type consists of an oil tank that houses the worm gear and bearings. The second type uses a worm gear with a sleeve for the first worm gear.
When choosing a gear reducer, it is essential to choose a high-quality unit. Improper gear selection can cause rapid wear of the worm gear. While worm gear reducers are generally durable, their degree of wear depends on the selection and operating conditions. For example, overuse, improper assembly, or working in extreme conditions can lead to rapid wear.
Worm reducers reduce speed and torque. Worm gears can be used to reduce the speed of rotating machines or inertial systems. Worm gears are a type of bevel gear, and their meshing surfaces have great sliding force. Because of this, worm gears can carry more weight than spur gears. They are also harder to manufacture. However, the high-quality design of the worm gear makes it an excellent choice for applications requiring high torque and high-speed rotation.
Worm gears can be manufactured using three types of gears. For large reduction ratios, the input and output gears are irreversible. However, the worm reducer can be constructed with multiple helices. The multi-start worm drive also minimizes braking effects.
The worm reducer is self-locking to prevent the load from being driven back to the ground. The self-locking function is achieved by a worm that meshes with the rack and pinion. When the load reaches the highest position, the reverse signal is disabled. The non-locking subsystem back-drives the load to its original position, while the self-locking subsystem remains in its uppermost position.
The self-locking function of the worm reducer is a valuable mechanical feature. It helps prevent backing and saves the cost of the braking system. Additionally, self-locking worm gears can be used to lift and hold loads.
The self-locking worm gear reducer prevents the drive shaft from driving backward. It works with the axial force of the worm gear. A worm reducer with a self-locking function is a very efficient machine tool.
Worm gear reducers can be made with two or four teeth. Single-ended worms have a single-tooth design, while double-ended worms have two threads on the cylindrical gear. A multi-boot worm can have up to four boots. Worm reducers can use a variety of gear ratios, but the main advantage is their compact design. It has a larger load capacity than a cross-shaft helical gear mechanism.
The self-locking function of the worm reducer can also be used for gear sets that are not necessarily parallel to the shaft. It also prevents backward travel and allows forward travel. The self-locking function is achieved by a ratchet cam arranged around the gear member. It also enables selective coupling and decoupling between gear members.
high gear ratio
Worm reducers are an easy and inexpensive way to increase gear ratios. These units consist of two worm gears – an input worm gear and an output worm gear. The input worm rotates perpendicular to the output worm gear, which also rotates perpendicular to itself. For example, a 5:1 worm gearbox requires 5 revolutions per worm gear, while a 60:1 worm gearbox requires 60 revolutions. However, this arrangement is prone to inefficiency since the worm gear experiences only sliding friction, not rolling friction.
High-reduction applications require many input revolutions to rotate the output gear. Conversely, low input speed applications suffer from the same friction issues, albeit with a different amount of friction. Worms that spin at low speeds require more energy to maintain their movement. Worm reducers can be used in many types of systems, but only some are suitable for high-speed applications.
Worm gears are challenging to produce, but the envelope design is the best choice for applications requiring high precision, high efficiency, and minimal backlash. Envelope design involves modifying gear teeth and worm threads to improve surface contact. However, this type of worm gear is more expensive to manufacture.
Worm gear motors have lower initial meshing ratios than hypoid gear motors, which allows the use of smaller motors. So a 1 hp worm motor can achieve the same output as a 1/2 hp motor. A study by Nissei compared two different types of geared motors, comparing their power, torque, and gear ratio. The results show that the 1/2 HP hypoid gear motor is more efficient than the worm gear motor despite the same output.
Another advantage of the worm gear reducer is the low initial cost and high efficiency. It offers high ratios and high torque in a small package, making it ideal for low to medium-horsepower applications. Worm gear reducers are also more shock-resistant.
editor by czh 2023-02-15