MITSUBISHI FR-A7NC datasheet PDF

Input points: 36 points.
Output points: 24 points.
Power supply voltage: AC240-360V.
Output type: relay output.
Built in CPU, power supply, input and output. While maintaining the convenience of FX1N while improving performance.
Special adaptor and function expansion board can be installed and used FX3 series FR-A7NC PDF.
High speed operation.
Basic instructions: 0.21 s/ instruction.
Application instruction: 0 FR-A7NC5 s/ instruction.
Large capacity memory.
Built in program memory 32000 steps.
EEPROM memory cartridge with program transfer function. Input and output points: 16 points.
Input points: 8 points.
Input specification: leakage type.
Output points: 8 points.
Output form: transistor output (drain).
Power consumption: 6W FR-A7NC PDF.
Weight: 0.2KG.
Outline dimension: 34x90x87mm.
Hard and compact type third generation micro programmable controller.
Connector type input and output type provincial connection.
Greatly strengthened the industry''s highest level of high-speed processing and positioning and other built-in features.
High cost of the province space models.
FX3UC in the province of space, the province also greatly strengthened the connection of high-speed processing and positioning and other built-in features FR-A7NC PDF.
The host is built in DC24V power supply, the connector input and output form of the transistor output.
In addition, according to the product mix can also achieve network communications, analog control, data collection and other functions.
Third generation high function micro programmable controller.
Connector type can save space, province wiring.
Built in high speed processing and positioning.
Ultra small size, control points to 256 points.
Construction of CC-Link remote I/O 384 points. MITSUBISHI inverter FR-D720 series.
Voltage level: three phase 200V.
Frequency converter capacity: 1.5KW.
Vector control variable frequency speed control is the practice of the asynchronous motor in the three-phase coordinate system of the stator current Ia, Ib, Ic, through the three-phase to two-phase transformation,
The alternating current of Ia1Ib1 is equivalent to a two phase stationary coordinate system, and then is rotated by the rotor field orieented,
Equivalent to the DC current Im1, It1 (Im1 equivalent to DC motor excitation current in synchronous rotating coordinate system;
It1 equal to the armature current proportional to the torque, and then imitate the DC motor conttrol method, to obtain the DC motor control,
The control of asynchronous motor is realized through the corresponding inverse coordinate transformation FR-A7NC datasheet FR-A7NC datasheet.