Hitachi SJ700D-370HFEF3 — выбор кривых ускорения и замедления для инверторов [102/288]

Содержание

• Instruction manual p.1
• Hitachi inverter p.1
• Sj700d 3 series p.1
• Revision history p.2
• Introduction p.2
• Installation p.3
• Wiring p.3
• Warning p.3
• Safety instructions be sure to read this quick reference guide and appended documents thoroughly before installing operating maintaining or inspecting the inverter in this quick reference guide safety instructions are classified into two levels namely warning and caution p.3
• Safety instructions p.3
• Personal injury or death p.3
• Or slight personal injury or physical damage alone p.3
• Note that even a level situation may lead to a serious consequence according to circumstances be sure to follow every safety instruction which contains important safety information also focus on and observe the items and instructions described under notes in the text p.3
• Indicates that incorrect handling may cause hazardous situations which may result in serious p.3
• Indicates that incorrect handling may cause hazardous situations which may result in moderate p.3
• Caution p.3
• Caution p.4
• Others p.4
• Operation 3 operation p.4
• Maintenance inspection and parts replacement p.4
• Warning p.4
• Safety instructions p.4
• Safety instructions p.5
• Safety instructions p.6
• Safety instructions p.7
• Safety instructions p.8
• Safety instructions p.9
• Sj700 2 to sj700d 3 p.10
• Contents p.11
• Contents p.12
• Contents p.13
• Contents p.14
• Contents p.15
• Contents p.16
• Chapter 1 overview p.17
• Chapter 1 overview p.18
• Specification label p.18
• Chapter 1 overview p.19
• Chapter 1 overview p.20
• This chapter describes how to install the inverter and the wiring of main circuit and control signal terminals with typical examples of wiring p.21
• Installation 2 1 2 wiring 2 5 p.21
• Chapter 2 installation and wiring p.21
• Chapter 2 installation and wiring p.22
• Caution p.22
• Chapter 2 installation and wiring p.23
• Chapter 2 installation and wiring p.24
• Chapter 2 installation and wiring p.25
• Backing plate p.25
• 9 reduction of enclosure size p.25
• 2 for the models with 37 kw to 75kw 2 for the models with 37 kw to 75kw p.25
• 10 approximate loss by inverter capacity 10 approximate loss by inverter capacity p.25
• 1 for models with 30 kw or less capacity p.25
• Remove the rubber bushings from the holes to be used for wiring with conduits and then fit conduits into the holes p.25
• On the backing plate cut the joints around each section to be cut off with cutting pliers or a cutter remove them and then perform the wiring p.25
• Note do not remove the rubber bushing from holes that are not used for wiring with a conduit p.25
• If you mount the inverter inside an enclosure such that the heat sink of the inverter is positioned outside the enclosure the amount of heat produced inside the enclosure can be reduced and likewise the size of the enclosure mounting the inverter in an enclosure with the heat sink positioned outside requires an optional dedicated special metal fitting to mount the inverter in an enclosure with the heat sink positioned outside cut out the enclosure panel according to the specified cutting dimensions the cooling section including the heat sink positioned outside the enclosure has a cooling fan therefore do not place the enclosure in any environment where it is exposed to waterdrops oil mist or dust p.25
• If a cable is connected through the plate hole without a rubber bushing and conduit the cable insulation may be damaged by the edge of the hole resulting in a short circuit or ground fault p.25
• For wiring without using conduits p.25
• For wiring using conduits 2 for wiring using conduits p.25
• Cut an x in each rubber bushing of the backing plate with cutting pliers or a cutter and then perform the wiring p.25
• Warning p.26
• Chapter 2 installation and wiring p.26
• Caution p.26
• Terminal connection diagram and explanation of terminals and switch settings p.27
• Chapter 2 installation and wiring p.27
• Chapter 2 installation and wiring p.28
• 2 explanation of control circuit terminals p.28
• 1 explanation of main circuit terminals p.28
• T1 t2 t3 inverter output connect a 3 phase motor p.28
• Symbol terminal name description p.28
• Regenerative braking unit connection connect the optional regenerative braking unit brd p.28
• Pd p 1 dc reactor connection remove the jumper from terminals pd and p and connect the optional power factor reactor dcl p.28
• P rb rb p.28
• L1 l2 l3 main power input connect to the ac power supply leave these terminals unconnected when using a regenerative converter hs900 series p.28
• G inverter ground connect to ground for grounding the inverter chassis by type d grounding for 200 v class models or type c grounding for 400 v class models p.28
• External braking resistor connection p.28
• Connect the optional external braking resistor the rb terminal is provided on models with 30 kw or less capacity p.28
• The internal slide switch sw1 is used to enable or disable the emergency stop function the function is disabled by factory setting p.29
• For the location of the slide switch see page 2 10 p.29
• Chapter 2 installation and wiring p.29
• 3 explanation of switch p.29
• This terminal always serves as the b nc contact for the emergency stop emr signal this signal shuts off the inverter output without the operation by internal cpu software this signal makes the inverter trip due to emergency stop e37 p.30
• Chapter 2 installation and wiring p.30
• This terminal always serves as the a no contact for the reset rs signal this signal resets the inverter and releases the inverter from the trip due to emergency stop e37 p.30
• About the emergency stop functio p.30
• The emergency stop function shuts off the inverter output i e stops the switching operation of the main circuit p.30
• 1 when function 18 rs is assigned to the input terminal a b no nc selection is always 00 no 2 when terminal setting c003 is 64 emr terminal setting c013 is always 01 nc 3 if function 18 rs has been assigned to an intelligent input terminal other than intelligent input terminals 1 and 3 before slide p.30
• Terminal 3 function p.30
• Switch sw1 is set to on the input terminal setting for said terminal is automatically changed to no no function assigned when slide switch sw1 is set to on to prevent any duplication of terminal functions even if slide switch sw1 is subsequently returned to off the original function setting for said terminal will not be restored if necessary the original function will have to be re assigned to said terminal p.30
• Switch sw1 is set to off to disable the function p.30
• Signal logic is improper the inverter trips due to emergency stop e37 if this occurs check and correct the wiring and signal logic and then input the reset rs signal only the reset rs signal input from intelligent input terminal 1 can release the inverter from tripping due to emergency stop e37 the inverter cannot be released from the e37 status by any operation from the digital operator p.30
• Of the main circuit elements therefore do not touch any terminals of the inverter or any power lines e g motor cables otherwise electric shock injury or ground fault may result p.30
• Note the emergency stop function does not electrically shut off the inverter but merely stops the switching operation p.30
• Note if intelligent input terminal 3 is left unconnected the cable connected to the terminal is disconnected or the p.30
• Note before operating slide switch sw1 make sure that the input power supply is off p.30
• Function and no other functions can be assigned to these terminals even if other functions have been assigned to these terminals these are automatically disabled and these terminals are used exclusively for the emergency stop function terminal 1 function p.30
• Example if slide switch sw1 is set to on when function 18 rs has been assigned to input terminal 2 by terminal setting c002 example if slide switch sw1 is set to on when function 18 rs has been assigned to input terminal 2 by terminal setting c002 terminal setting c002 is changed to no no function assigned and function 18 rs is assigned to input terminal 1 by terminal setting c001 p.30
• Even if slide switch sw1 is subsequently returned to off terminal 2 function c002 and terminal 1 function c001 will remain as even if slide switch sw1 is subsequently returned to off terminal 2 function c002 and terminal 1 function c001 will remain as no no function assigned and 18 rs respectively p.30
• When the emergency stop function is enabled intelligent input terminals 1 and 3 are used exclusively for this p.30
• Elements in response to a command from a hardware circuit via an intelligent input terminal without the operation by internal cpu software p.30
• To enable the emergency stop function set the slide lever of slide switch sw1 to on with the factory setting slide p.30
• Disabled by the factory setting p.30
• Chapter 2 installation and wiring p.31
• Wiring of the main circuit p.32
• Chapter 2 installation and wiring p.32
• Chapter 2 installation and wiring p.33
• The figures below show the terminal layout on the main circuit terminal block of the inverter p.34
• Terminal layout inverter model p.34
• Short plug dummy plug green p.34
• Enabling pin j61 disabling pin j62 p.34
• Emc filter enables p.34
• Emc filter disables factory setting p.34
• Dummy plug green short plug p.34
• Chapter 2 installation and wiring p.34
• 2 layout of main circuit terminals p.34
• Chapter 2 installation and wiring p.35
• Terminal layout inverter model p.35
• Terminal layout inverter model p.36
• Chapter 2 installation and wiring p.36
• Terminal layout inverter model p.37
• Sj700d 750 to 1100h p.37
• Sj700d 550l ff3 fef3 fuf3 p.37
• Sj700d 1320hff3 fef3 sj700d 1500hfuf3 r0 and t0 m4 p.37
• R0 and t0 r0 and t0 m4 p.37
• Other terminals m10 p.37
• Ground terminal m8 p.37
• Ff3 fef3 fuf3 p.37
• Chapter 2 installation and wiring p.37
• Current is about eight times as high as the standard cable therefore when using an iv cable use the elb of which the rated sensitivity current is eight times as high as that given in the table below if the total cable length exceeds 100 m use a cv cable p.38
• Power supply p.38
• Chapter 2 installation and wiring p.38
• Note 9 when a cv cable is used for wiring through a metal conduit the average current leakage p.38
• Cable to connect the alarm output contact note 7 tighten each terminal screw with the specified tightening torque loose terminal screws p.38
• Note 8 select an earth leakage breaker elb of which the rated sensitivity current matches the p.38
• Note 6 use a 0 5 m p.38
• 3 applicable peripheral equipment p.38
• Note 5 if the power line exceeds 20 m cable that is thicker than the specified applicable cable p.38
• Note 2 select breakers that have proper capacity use breakers that comply with inverters note 3 use earth leakage breakers elb to ensure safety note 4 use copper electric wire hiv cable of which the maximum allowable temperature of the p.38
• Note 10 when an iv cable which has a high relative dielectric constant is used the leakage p.38
• Note 1 the peripheral equipment described here is applicable when the inverter connects a p.38
• Must be used for the power line p.38
• May cause short circuits and fire tightening a terminal screw with excessive torque may cause damage to the terminal block or inverter body p.38
• Magnetic contactor p.38
• M or less 50 p.38
• Total length of cables connected between the inverter and power supply and between the inverter and motor do not use a high speed type elb but use a delayed type elb because the high speed type may malfunction p.38
• M or less 100 p.38
• Is 30 ma km p.38
• Total cable length sensitivity current ma p.38
• Inverter p.38
• Standard hitachi 3 phase 4 pole squirrel cage motor p.38
• Insulation is 75 c p.38
• See item 4 recommended cable gauges wiring accessories and crimp terminals p.38
• With ul and cul standards under safety instructions the table below lists the specifications of cables crimp terminals and terminal screw tightening torques for reference p.39
• Note for compliance with ce and ul standards see the safety precautions concerning emc and the compliance p.39
• Note cable gauges indicate those of hiv cables maximum heat resistance 75 c note is described as ff fef or fuf note please use the round type crimp terminals for the ul standard suitable for the use electric wire when you connect the p.39
• Electric wire with the main circuit terminal stand please put on pressure to the crimp terminals l with a crimp tool that the terminal stand maker recommends p.39
• Chapter 2 installation and wiring p.39
• 4 recommended cable gauges wiring accessories and crimp terminals p.39
• Remove the j51 connector p.40
• Remove the connected cables p.40
• If the protective circuit of the inverter operates to open the magnetic contactor in the input power supply circuit the inverter control circuit power is lost and the alarm signal cannot be retained to retain the alarm signal connect control circuit terminals r0 and t0 to a power supply in details connect the control circuit power supply terminals r0 and t0 to the primary side of the magnetic contactor as shown below p.40
• Connect the control circuit power p.40
• Chapter 2 installation and wiring p.40
• 5 connecting the control circuit to a power supply separately from the main circuit p.40
• Supply cables to the control circuit power supply terminal block p.40
• Separate the twisted cables from other cables connected to other common terminals since very low current flows through the cables connected to the thermistor separate the cables from those power line cables connected to the main circuit the length of the cables connected to the thermistor must be 20 m or less p.41
• Separate the control circuit wiring from the main circuit wiring power line and relay control circuit wiring p.41
• M unavoidably you should use up down function or current signal input with an isolation amplifier p.41
• In the factory setting the input control logic for terminal fw and intelligent input terminals is the sink logic p.41
• If these wirings intersect with each other unavoidably square them with each other otherwise the inverter may malfunction p.41
• For connection to control circuit terminals p.41
• Each other otherwise the inverter may fail p.41
• Wiring of the control circuit p.41
• E g crossbar twin contact in which even a very low current or voltage will not trigger any contact fault p.41
• When connecting a relay to an intelligent output terminal also connect a surge absorbing diode in parallel with p.41
• When connecting a contact to a control circuit terminal e g an intelligent input terminal use a relay contact p.41
• Do not connect these common terminals to each other or ground them do not ground these terminals via any external devices check that the external devices connected to these terminals are not grounded p.41
• Use a shielded twisted pair cable recommended gauge 0 5 m p.41
• Do not connect analog power supply terminals h and l or interface power supply terminals p24 and cm1 to p.41
• Twist the cables connected from a thermistor to the thermistor input terminal th and terminal cm1 and p.41
• Chapter 2 installation and wiring p.41
• To switch the input control logic to the source logic remove the jumper connecting terminals p24 and plc on the control circuit block and then connect terminals plc and cm1 with the jumper p.41
• And connect the cable insulation to the corresponding common terminal tightening torque 0 nm max torque 0 nm p.41
• The relay p.41
• 3 switching the input control logic 3 switching the input control logic p.41
• The length of cables connected to control circuit terminals must be 20 m or less if the cable length exceeds 20 p.41
• 2 layout of control circuit terminals 2 layout of control circuit terminals p.41
• Terminals l and cm1 are common to i o signals and isolated from each other p.41
• 1 wiring instructions p.41
• Terminal screw size m3 tightening torque 0 nm max torque 0 nm p.41
• Source logic p.42
• Sink logic p.42
• Chapter 2 installation and wiring p.42
• Also an optional digital operator ope s ope sr wop p.42
• 5 connecting a programmable controller to intelligent output terminals p.42
• 4 connecting a programmable controller to intelligent input terminals p.42
• Your local hitachi distributor to supply a connection cable ics 1 1 meter cable or ics 3 3 meter cable if you prepare the cable by yourself the following product is recommended netstar c5e pc 24awgx4p lbh straight cable equipped with connector at both ends made by hitachi metal ltd p.42
• You can operate the inverter with not only the digital operator mounted in the inverter as standard equipment but p.42
• Wiring of the digital operator 2 wiring of the digital operator p.42
• When you intend to remove the standard digital operator from the inverter and use it as remote equipment request p.42
• When using the internal interface power supply when using an external power supply p.42
• The length of the connection cable must be 3 m or less if a cable over 3 m is used the inverter may malfunction p.42
• The sj700d 3 series inverter models with capacities of 0 to 22 kw have an internal dynamic braking circuit connecting an optional dynamic braking resistor to rb and p terminals increases the braking torque p.43
• Selection and wiring of dynamic braking resistor on 0 kw to 22 kw models p.43
• Note is described as ff fef or fuf p.43
• Chapter 2 installation and wiring p.43
• Chapter 3 operation p.45
• Warning p.46
• Chapter 3 operation p.46
• Caution p.46
• Chapter 3 operation p.47
• Chapter 3 operation p.48
• Code display system and key operations p.49
• Chapter 3 operation p.49
• Or function mode p.50
• Monitor mode p.50
• Monitor display p.50
• Key operation and p.50
• Key after changing the data p.50
• Function mode p.50
• Extended function mode p.50
• Data on display in monitor p.50
• Data on display in p.50
• Data display p.50
• Chapter 3 operation p.50
• 2 to update numerical data be sure to press the p.50
• Transition of monitored p.50
• 1 the content of the display varies depending on p.50
• Transition of codes on display in monitor or p.50
• Transition of codes on display in extended p.50
• 1 example of operation in full display mode b037 00 factory setting all parameters can be displayed in full display mode the display sequence of parameters matches their sequence shown in chapter 8 list of data settings p.50
• The parameter type p.50
• Pressing the or key respectively scrolls up or down the code displayed in code display mode or increases or decreases the numerical data displayed in data display mode press the or key until the desired code or numerical data is shown to scroll codes or increase decrease numerical data fast press and hold the key p.50
• Chapter 3 operation p.51
• Parameters in function mode or 24 parameters in extended function mode p.52
• Other parameters are not displayed to display all parameters select the full display mode b037 00 p.52
• Only basic parameters can be displayed in basic display mode all parameters in monitor mode four p.52
• Note if a desired parameter is not displayed check the setting of function b037 function code display restriction to display all parameters specify 00 for b037 p.52
• Chapter 3 operation p.52
• 3 example of operation in basic display mode b037 04 p.52
• Chapter 3 operation p.53
• A021 is displayed p.54
• A001 is displayed p.54
• 4 procedure for directly specifying or selecting a code p.54
• You can specify or select a code or data by entering each digit of the code or data instead of scrolling codes or p.54
• The following shows an example of the procedure for changing the monitor mode code d001 displayed to p.54
• Extended function code a029 p.54
• Display the monitor mode code 6 end the change of the extended function code p.54
• Data in the monitor function or extended function mode p.54
• D001 is displayed p.54
• Chapter 3 operation p.54
• Change to the extended function mode p.54
• Change the third digit of the code p.54
• Change the second digit of the code p.54
• Change the first digit of the code p.54
• A029 is displayed p.54
• Display the function code f001 on the monitor screen and then press the key once the monitor shows a preset output frequency with the factory setting 0 hz is shown use the and or key to change the displayed numeric value to the desired output frequency and then p.55
• Display the function code a002 on the monitor screen and then press the key once the monitor shows a 2 digit numeric value use the and or key to change the displayed numeric value to 02 and then press the p.55
• This section describes how to make a test run of the inverter that is wired and connected to external devices in a general way as shown below for the detailed method of using the digital operator see section 3 how to operate the digital operator 1 when entering operation and frequency setting commands from the digital operator the operating procedure below is common to the standard and optional digital operators p.55
• Display the function code a001 on the monitor screen and then press the key once the monitor shows a 2 digit numeric value use the and or key to change the displayed numeric value to 02 and then press the p.55
• The display reverts to f001 p.55
• Chapter 3 operation p.55
• The display reverts to a002 the operating device indicator lamp above the run key goes on the display reverts to a002 the operating device indicator lamp above the run key goes on p.55
• The display reverts to a001 p.55
• Set the output frequency p.55
• Set the operation direction of the motor p.55
• Select the digital operator as the operating device via the frequency source setting function p.55
• Select the digital operator as the operating device by the run command source setting function p.55
• Press the key once to determine the frequency p.55
• Operating procedure operating procedure 1 confirm that all wirings are correct 2 turn on the earth leakage breaker elb to supply power to the inverter the power lamp red led of the digital operator goes on when using an inverter with the factory setting proceed to step 5 p.55
• Key once to specify the digital operator as the operating device to input operation commands p.55
• Key once to specify the digital operator as the operating device to input frequency setting commands p.55
• How to make a test run p.55
• Display the function code f004 on the monitor screen and then press the key once the monitor shows 00 or 01 p.55
• Chapter 3 operation p.56
• The monitor shows a 2 digit numeric value the monitor shows a 2 digit numeric value p.57
• Apply a voltage across the terminals o and l on the control circuit block to output the frequency corresponding p.57
• The display reverts to a002 p.57
• The display reverts to a001 p.57
• Stop the motor p.57
• Start the motor operation p.57
• Source setting function display the function code a001 on the monitor screen and then press the key once p.57
• Setting function display the function code a002 on the monitor screen and then press the key once p.57
• Set the monitor mode p.57
• Set the fw signal at the fw terminal on the control terminal block to the on level to start the motor p.57
• Set the fw signal at the fw terminal on the control terminal block to the off level to decelerate and stop the p.57
• Select the control circuit terminal block as the device to input operation commands by the run command source p.57
• When the motor stops the run lamp green led goes off p.57
• Select the control circuit terminal block as the device to input frequency setting commands by the frequency p.57
• Use the and or key to change the displayed numeric value to 01 and then press the p.57
• Operating procedure 1 confirm that all wirings are correct 2 turn on the earth leakage breaker elb to supply power to the inverter the power lamp red led of the digital operator goes on p.57
• To the applied voltage from the inverter p.57
• To monitor the output frequency display the function code d001 and then press the key once the monitor shows the output frequency to monitor the operation direction display the function code d003 and then press the key once p.57
• Key once to specify the digital operator as the device to input operation commands p.57
• The run lamp green led goes on the run lamp green led goes on p.57
• Key once to specify the control circuit terminal block as the device to input frequency setting commands p.57
• The monitor shows for forward operation for reverse operation or for stopping p.57
• Chapter 3 operation p.57
• Example of i o connections p.58
• Chapter 3 operation p.58
• Chapter 3 operation p.59
• Chapter 3 operation p.60
• Chapter 3 operation p.61
• Chapter 3 operation p.62
• Basic parameter setting to drive motor p.62
• Frequency command source selection p.63
• Chapter 3 operation p.63
• Chapter 3 operation p.64
• Run command source selection p.65
• Chapter 3 operation p.65
• Chapter 3 operation p.66
• Dual rating selection p.67
• Chapter 3 operation p.67
• Note that there are diffrence of setting range and defaults between ct mode and vt mode note that when vt mode b049 01 is selected somel data are renewed to vt mode default refer to below p.68
• Chapter 3 operation p.68
• Chapter 3 operation p.69
• This chapter describes the functions of the inverter p.71
• Chapter 4 explanation of functions p.71
• Rotation direction monitoring p.72
• Process variable pv pid feedback monitoring p.72
• Output frequency monitoring p.72
• Output current monitoring p.72
• Monitor mode p.72
• Chapter 4 explanation of functions p.72
• Scaled output frequency monitoring p.73
• Intelligent output terminal status p.73
• Intelligent input terminal status p.73
• Chapter 4 explanation of functions p.73
• Torque monitoring p.74
• Torque command monitoring p.74
• Torque bias monitoring p.74
• Power monitoring p.74
• Output voltage monitoring p.74
• Chapter 4 explanation of functions p.74
• Actual frequency monitoring p.74
• Heat sink temperature monitoring p.75
• Cumulative power on time monitoring p.75
• Cumulative power monitoring p.75
• Cumulative operation run time monitoring p.75
• Chapter 4 explanation of functions p.75
• Motor temperature monitoring p.75
• Life check monitoring p.75
• User monitors 0 to 2 easy sequence function p.76
• Trip counter p.76
• Pulse counter monitor p.76
• Program number monitoring easy sequence function p.76
• Program counter display easy sequence function p.76
• Position command monitor in absolute position control mode p.76
• Inverter mode p.76
• Current position monitor in absolute position control mode p.76
• Chapter 4 explanation of functions p.76
• Programming error monitoring p.77
• Electronic thermal overload monitoring p.77
• Dc voltage monitoring p.77
• Chapter 4 explanation of functions p.77
• Brd load factor monitoring p.77
• Trip monitoring 1 to 6 p.77
• When you enter operation commands via the digital operator the keypad run key routing function allows you to select the direction of motor operation this function is ineffective when you use the control terminal block or remote operator to input operation commands p.78
• The rotational direction restriction function allows you to restrict the direction of motor operation this function is effective regardless of the specification of operation command input device e g control circuit block or digital operator if an operation command to drive the motor in a restricted direction is input the inverter digital operator will display p.78
• The output frequency setting function allows you to set the inverter output frequency you can set the inverter output frequency with this function f001 only when you have specified 02 for the frequency source setting a001 for other methods of frequency setting see section 4 frequency source setting a001 if the setting of function a001 is other than 02 function f001 operates as the frequency command monitoring function the frequency set with function f001 is automatically set as the multispeed frequency setting a020 to set the second and third multispeed s use the multispeed frequency setting 2nd motor function a220 and multispeed frequency setting 3rd motor function a320 or use function f001 for the setting after turning on the set and set3 signals for the setting using the set and set3 signals assign the set function 08 and set3 function 17 to intelligent input terminals if the set output frequency is used as the target data for the pid function pid feedback data will be displayed in p.78
• Rotational direction restriction p.78
• Output frequency setting p.78
• Keypad run key routing p.78
• Function mode p.78
• Chapter 4 explanation of functions p.78
• The run command source setting function allows you to select the method to input operation commands to start and stop the motor as the operation commands via control circuit terminals turn the fw signal for forward operation or rv signal for reverse operation on and off to start and stop the motor respectively note that the factory setting assigns the fw signal to intelligent input terminal 8 to switch each intelligent input terminal between a and b contacts specify each terminal with function c011 to c019 and then perform input a b no nc selection for each terminal when using the digital operation for the inverter operation specify the desired motor operation direction with function f004 and use the run and stop reset keys to start and stop the motor respectively if the start commands for both forward and reverse operations are input at the same time the inverter will assume the input of a stop command p.79
• The frequency source setting function allows you to select the method to input the frequency setting command p.79
• Run command source setting p.79
• Motor rotation direction is inverted when 10 to 0v is given as frequency command to 02 l terminals p.79
• Frequency source setting p.79
• Chapter 4 explanation of functions p.79
• Chapter 4 explanation of functions p.80
• When the control circuit terminal block is selected as the device to input operation commands the stop key enable function allows you to enable or disable the motor stopping and trip reset functions of the stop key of the digital operator this function is effective only when the digital operator 02 is not specified for the run command source setting a002 see section 4 if the digital operator 02 is specified for a002 the motor stopping and trip reset functions of the stop key are enabled regardless of this setting stop key enable p.80
• The stop mode selection function allows you to select one of two methods of stopping the motor when a stop command is input from the digital operator or via the control circuit terminal block one is to decelerate the motor according to the specified deceleration time and then stop it the other is to let the motor run freely until it stops if a start command is input while the motor is in free running status the inverter will restart the motor according to the setting of the restart mode after frs b088 see section 4 7 p.80
• Stop mode selection p.80
• Stop key enable p.80
• Chapter 4 explanation of functions p.81
• Acceleration deceleration time setting p.81
• Maximum frequency setting p.82
• Chapter 4 explanation of functions p.82
• Base frequency setting p.82
• The inverter has the following three types of external analog input terminals o l terminal 0 to 10 v oi l terminal 4 to 20 ma o2 l terminal 10 to 10 v the table below lists the settings of the external analog input terminals p.83
• Related code p.83
• Note that whether frequency commands are input to the o2 l terminal and whether the motor operation is reversible depend on the combination of settings of functions a005 and a006 and whether function 16 at is assigned to an intelligent input terminal as shown in the table below when the motor operation is reversible the inverter operates the motor in a reverse direction if the sum of the frequencies specified by the main frequency and auxiliary frequency commands is less than 0 even when the forward operation fw terminal is on even when no wire is connected to the 02 terminal reverse operation of the motor may occur and prolong the acceleration time if the output voltage fluctuates near 0 v p.83
• External analog input setting o oi and o2 p.83
• Chapter 4 explanation of functions p.83
• Addition a141 a142 p.84
• Operation target frequency selection 1 and 2 a141 a142 p.84
• 01 control on the digital operator valid only when the ope sr is connected p.84
• Note 2 the settings of a141 and a142 can be the same p.84
• Note 1 the 1 up and 2 down keys of the digital operator are ineffective when the frequency operation function p.84
• Multiplication a141 x a142 p.84
• Item function code data description p.84
• Is enabled also the frequency displayed by the output frequency monitoring d001 scaled output frequency monitoring d007 or output frequency setting f001 cannot be changed with key operations p.84
• Input via the rs485 terminal p.84
• Input via the oi terminal p.84
• Input via the o terminal p.84
• Input of pulse train p.84
• Input from option board 2 p.84
• The frequency operation function allows you to use the result of an arithmetic operation on two frequency commands as the actual frequency command or pid feedback data to use the operation result as the actual frequency command specify 10 for the frequency source setting a001 to use the operation result as the pid feedback data specify 10 for the pv source setting a076 p.84
• Input from option board 1 p.84
• Frequency source setting a001 10 output of operation result p.84
• Subtraction a141 a142 p.84
• Frequency operation function p.84
• Related code p.84
• Digital operator a020 a220 a320 p.84
• Pv source setting a076 10 output of operation result p.84
• Chapter 4 explanation of functions p.84
• Operator selection for frequency operation a143 p.84
• The frequency addition function allows you to add or subtract the value specified as the frequency to be added a145 to or from the frequency value of a selected frequency command to use this function assign function 50 add to an intelligent input terminal when the add terminal is turned on the inverter performs the addition or subtraction of the value specified as a145 p.85
• The data display by function a145 is in percentage in steps of 0 1 p.85
• Start end frequency setting for external analog input p.85
• Note 2 when the pid function is used the frequency addition function can apply to pid target data in such cases p.85
• Note 1 if the sign of the frequency value in the frequency command changes from minus to plus or vice versa p.85
• If the voltage of the signal to be input to the o l terminal is 0 to 5 v specify 50 for a014 p.85
• Frequency addition function p.85
• Example 1 a015 a105 00 example 2 a015 a105 01 p.85
• Chapter 4 explanation of functions p.85
• As the result of frequency addition the motor operation direction will be inverted p.85
• 1 start end frequency settings for the o l and oi l terminals p.85
• The start end frequency setting function allows you to set the inverter output frequency in relation to the external analog inputs frequency commands via the following terminals o l terminal 0 to 10 v oi l terminal 4 to 20 ma o2 l terminal 10 to 10 v p.85
• V of the external frequency command as follows p.86
• V f gain setting p.86
• To 10 v 0 to 100 0 to 10 v 0 to 100 p.86
• The v f gain setting function allows you to change the inverter output voltage by specifying the rate of the output voltage to the voltage 100 selected with the avr voltage select function a082 if the motor operation is cranky try to increase the gain setting p.86
• The external analog input filter setting function allows you to set the input voltage input current sampling time to be applied when frequency commands are input as external analog signals you can use this filter function effectively for removing noise from the frequency setting circuit signal if the noise disables the stable operation of the inverter increase the setting setting a larger value makes the inverter response slower the filtering constant is set value 1 to 30 x 2 ms when the setting is 31 factory setting a hysteresis of 0 hz is added to the filtering constant 500 ms p.86
• For example if the voltage of the signal to be input to the o2 l terminal is 5 to 5 v specify 50 for a114 p.86
• External analog input o oi o2 filter setting p.86
• Chapter 4 explanation of functions p.86
• 2 start end frequency settings for the o2 l terminal p.86
• 10 to 0 v 100 to 0 10 to 0 v 100 to 0 p.86
• 1 the frequency rates correspond to the voltages 10 to 10 p.86
• V f characteristic curve selection p.87
• Chapter 4 explanation of functions p.87
• 3 free v f characteristic setting the free v f characteristic setting function allows you to set an arbitrary v f characteristic by specifying the voltages and frequencies b100 to b113 for the seven points on the v f characteristic curve the free v f frequencies 1 to 7 set by this function must always be in the collating sequence of 1 2 3 4 5 6 7 since all free v f frequencies are set to 0 hz as default factory setting specify their arbitrary values begin setting with free setting v f frequency 7 the inverter cannot operate with the free v f characteristic in the factory setting enabling the free v f characteristic setting function disables the torque boost selection a041 a241 base frequency setting a003 a203 a303 and maximum frequency setting a004 a204 a304 the inverter assumes the value of free setting v f frequency 7 as the maximum frequency p.88
• 1 even if 800 v is set as a free setting v f voltage 1 to 7 the inverter output voltage cannot exceed the inverter p.88
• Input voltage or that specified by the avr voltage select p.88
• Chapter 4 explanation of functions p.88
• Carefully note that selecting an inappropriate control system v f characteristic may result in overcurrent during carefully note that selecting an inappropriate control system v f characteristic may result in overcurrent during motor acceleration or deceleration or vibration of the motor or other machine driven by the inverter p.88
• Torque boost setting p.89
• The torque boost setting function allows you to compensate for the voltage drop due to wiring and the primary resistance of the motor so as to improve the motor torque at low speeds when you select automatic torque boost by the torque boost selection a041 a241 adjust the settings of the motor capacity selection h003 h203 and motor pole selection h004 h204 based on the motor to be driven p.89
• Chapter 4 explanation of functions p.89
• 1 automatic torque boost the inverter outputs the voltage according to the settings of the manual torque boost a042 a242 a342 and manual torque boost frequency adjustment a043 a243 a343 use the manual torque boost value a042 a242 a342 to specify the rate of the boost to the voltage 100 set by the avr voltage select the set rate of voltage corresponds to the boost voltage that is output when the output frequency is 0 hz when increasing the value of the manual torque boost value be careful to prevent motor over excitation over excitation may result in motor burnout use the manual torque boost frequency adjustment a043 a243 a343 to specify the rate of the frequency at each breakpoint to the base frequency 100 to switch the settings among the 1st 2nd and 3rd settings a041 to a043 a241 to a243 and a342 and a343 assign function 08 set and 17 set3 to intelligent input terminals use the set and set3 signals for switching p.89
• This function cannot be selection for 3rd moter setting manual torque boost valid p.90
• Chapter 4 explanation of functions p.90
• 2 automatic torque boost when automatic torque boost data 01 is selected by the torque boost selection a041 a241 the inverter automatically adjusts the output frequency and voltage according to the load on the motor during actual operation the automatic torque boost is usually combined with the manual torque boost when you select the automatic torque boost adjust the settings of the motor capacity selection h003 h203 and motor pole selection h004 h204 according to the motor to be driven if the inverter trips due to overcurrent during motor deceleration set the avr function select a081 to always enable the avr function data 00 if you cannot obtain the desired operation characteristic by using the automatic torque boost make the following adjustments p.90
• Power reduced is reduced when 5hz up to 55kw or 3hz 75 150kw are set as shown below for detailed decreasing ratio dc braking limiter is to be referred p.91
• Dc braking force limiter 0 55kw dc braking force limiter 75 150kw p.91
• Dc braking db setting p.91
• Ct mode p.91
• Chapter 4 explanation of functions p.91
• Applied for 75 to 150kw 1 carrier frequency for dc braking use the dc braking carrier frequency setting a059 to specify the carrier frequency for dc braking but the raking p.91
• Vt mode p.91
• The dc braking function allows you to apply dc braking to the motor according to the load on the motor you can control dc braking in two ways the external control through signal input to intelligent input terminals and the internal control to be performed automatically when the motor is started and stopped note that the motor cannot be stopped by dc braking if the load on the motor produces a large moment of inertia p.91
• Chapter 4 explanation of functions p.92
• 2 external dc braking assign function 07 db to terminal function c001 to c008 turn the db terminal on and off to control the direct braking regardless of the setting of dc braking enable a051 adjust the braking force by adjusting the dc braking force setting a054 when you set the dc braking wait time a053 the inverter output will be shut off for the set period of delay and the motor will run freely during the period dc braking will be restarted after the delay when setting the dc braking time with function a055 or for the dc braking operation via the db terminal determine the length of time in consideration of the heat generation on the motor select the braking mode by the dc braking edge or level detection for db input a056 and then make any other necessary settings suitable for your system p.92
• Performs dc braking according to the setting of a055 when the output frequency reaches the setting of a052 the inverter performs dc braking for the time set for a055 even if the stop command is input during dc braking dc braking continues until the time set for a055 elapses see examples 5 a and 6 a p.93
• Operation commands regardless of the dc braking time setting a055 if the start command is input during dc braking the inverter starts the normal motor operation regardless of the dc braking time setting a055 see examples 5 b and 6 b p.93
• Level mode operation commands are given priority over the dc braking time setting the inverter follows p.93
• Chapter 4 explanation of functions p.93
• 3 internal dc braking a051 01 you can apply dc braking to the motor even without entering braking signals via the db terminal when the inverter starts and stops to use the internal dc braking function specify 01 for the dc braking enable a051 use function a057 to set the dc braking force for starting and use function a058 to specify the dc braking time for starting regardless of the braking mode selection edge or level mode see examples 4 a and 4 b set the braking force for periods other than starting by using the dc braking force setting a054 set the output frequency at which to start dc braking by using the dc braking frequency setting a052 when you set the dc braking wait time a053 the inverter output will be shut off when the output frequency reaches the setting of a052 after the operation command fw signal is turned off and the motor will run freely for the delay time set by a053 dc braking will be started after the delay a053 the internal dc braking operation to be performed when p.93
• Chapter 4 explanation of functions p.94
• Frequency upper limit setting p.95
• Chapter 4 explanation of functions p.95
• Jump frequency function p.96
• Chapter 4 explanation of functions p.96
• Acceleration stop frequency setting p.96
• 1 refer 4 2 frequency operation function 1 basic configuration of pid control p.97
• The pid function allows you to use the inverter for the process control on fluid flow airflow and pressure to enable this function specify 01 lenabled or 02 inverted data output enabled for function a071 you can disable the pid function with an external signal during the pid operation for this purpose assign function 23 pid terminal disabling pid operation to an intelligent input terminal turning the pid terminal on disables the pid function and makes the inverter perform the normal output with the pid function you can limit the pid output according to various conditions refer to maximum frequency 4 0 frequency limiter 4 0 pid rariation range a078 p.97
• Pid function p.97
• Kp proportional gain ti integral time td derivative time s operator ε deviation p.97
• Chapter 4 explanation of functions p.97
• Chapter 4 explanation of functions p.98
• Chapter 4 explanation of functions p.99
• Chapter 4 explanation of functions p.100
• Related code p.101
• Reaches a specified frequency p.101
• Operation from forward rotation to reverse rotation or vice versa p.101
• Example 3 when 02 is specified for a094 or a294 example 3 when 02 is specified for a094 or a294 p.101
• Example 1 when 00 is specified for a094 or a294 example 2 when 01 is specified for a094 or a294 p.101
• Chapter 4 explanation of functions p.101
• Changing the time by the signal input to an intelligent input p.101
• Automatically changing the time when the output frequency p.101
• Automatically changing the time only when switching the motor p.101
• Two stage acceleration deceleration function 2ch p.101
• The two stage acceleration deceleration function allows you to change the acceleration or deceleration time while the inverter is accelerating or decelerating the motor select one of the following three methods of changing the acceleration or deceleration time p.101
• Terminal p.101
• Selecting the 3rd control system enables the change of the acceleration or deceleration time only by terminal input not bytwo stage acceleration deceleration frequency to change the acceleration deceleration time by the signal input to an intelligent input terminal assign function 09 2ch to one of the terminal functions c001 to c008 p.101
• Related code p.102
• Linear acceleration deceleration p.102
• Item function code data or range of data description p.102
• Inverted u curve acceleration deceleration p.102
• El s curve acceleration deceleration p.102
• Curvature for el s curve deceleration 1 2 a152 a153 0 to 50 curvature of el s curve for deceleration p.102
• Curvature for el s curve acceleration 1 2 a150 a151 0 to 50 curvature of el s curve for acceleration p.102
• Chapter 4 explanation of functions p.102
• Acceleration deceleration curve selection a097 a098 p.102
• Acceleration deceleration curve selection p.102
• Acceleration deceleration curve constants setting a131 a132 01 to 10 p.102
• 1 acceleration deceleration pattern selection select acceleration and deceleration patterns with reference to the following table p.102
• You can set different patterns of motor acceleration and deceleration according to the type of system to be driven by the inverter use functions a097 and a098 to select acceleration and deceleration patterns respectively you can individually set an acceleration pattern for acceleration and a deceleration pattern for deceleration when the acceleration deceleration pattern is set other than 00 linear using analog input as frequency source is to be avoided because it prolongs the acceleration or deceleration time p.102
• U curve acceleration deceleration p.102
• Small degree of swelling 10 large degree of swelling p.102
• S curve acceleration deceleration p.102
• Related code p.103
• Operation mode selection a085 p.103
• Normal operation p.103
• Item function code data response accuracy p.103
• Item function code data description p.103
• If all curvatures are set to 50 the el s curve pattern will be equivalent to the s curve pattern if all curvatures are set to 50 the el s curve pattern will be equivalent to the s curve pattern p.103
• Fuzzy operation p.103
• Energy saving operation p.103
• Energy saving mode tuning a086 p.103
• Energy saver operation p.103
• Chapter 4 explanation of functions p.103
• 2 curve constant swelling degree specify the swelling degree of the acceleration curve with reference to the following graphs p.103
• The energy saver operation function allows you to automatically minimize the inverter output power while the inverter is driving the motor at constant speed this function is suited to operating a fan pump or other load that has a reduced torque characteristic to use this function specify 01 for the operation mode selection a085 use the energy saving mode tuning function a086 to adjust the response and accuracy of the energy saver operation the energy saver operation function controls the inverter operation comparatively slowly therefore if a sudden change in the load occurs e g impact load is applied the motor may stall and consequently the inverter may trip because of overcurrent p.103
• The acceleration or deceleration time may be shortened midway through the acceleration or deceleration according to the acceleration or deceleration time may be shortened midway through the acceleration or deceleration according to the s curve pattern if the lad cancellation lac function has been assigned to an intelligent input terminal and the lac terminal is turned on the selected acceleration and deceleration patterns are ignored and the output frequency is quickly adjusted to that specified by the frequency command 3 curvature of el s curve pattern when using the el s curve pattern you can set the curvatures a150 to a153 individually for acceleration and deceleration p.103
• With function b004 you can select whether to make the inverter trip when an instantaneous power failure or p.104
• When selecting a retry operation also set the retry conditions listed below according to the system to be driven by p.104
• Undervoltage status continues for 40 seconds p.104
• Undervoltage occur while the inverter is in a stopped state p.104
• The inverter p.104
• Retry or trip after instantaneous power failure p.104
• Related code p.104
• If you specify a retry operation for the selection of restart mode p.104
• Even during a retry operation the inverter will trip with error code e09 undervoltage displayed if the p.104
• Chapter 4 explanation of functions p.104
• B001 the inverter will retry the motor operation for the number of times set as b005 after an instantaneous power failure or the number of times set as b009 after overvoltage respectively and then trip if all retries fail the inverter will not trip if you specify an unlimited number of retries p.104
• As the inverter operation to be performed at the occurrence of instantaneous power failure or undervoltage p.104
• Applied for 75 to 150kw p.104
• 1 retry restart after instantaneous power failure you can select tripping or retrying restarting the motor operation p.104
• Chapter 4 explanation of functions p.105
• To any of the intelligent output terminals 11 to 15 c021 to c025 and the alarm relay terminal c026 to output the alarm signals p.106
• Reset section 4 8 p.106
• Note 2 for the alarm output following the occurrence of power failure of 1 second or longer see the explanation of p.106
• Note 1 you can assign the instantaneous power failure alarm signal ip 08 and the undervoltage alarm signal uv p.106
• Example 9 b004 01 p.106
• Example 8 b004 00 p.106
• Example 7 b004 02 p.106
• Example 6 b004 01 p.106
• Example 5 b004 00 p.106
• Example 10 b004 02 p.106
• Chapter 4 explanation of functions p.106
• 2 output of the alarms for instantaneous power failure and undervoltage in the stopped state use function b004 to specify whether to output an alarm when instantaneous power failure or undervoltage occurs the inverter outputs the alarm providing the control power remains in the inverter output of the alarms for instantaneous power failure and undervoltage in the stopped state examples 5 to 7 show the alarm output operations with standard settings examples 8 to 10 show the alarm output operations with the settings to supply dc power p n to control power supply terminals r0 and t0 p.106
• Input output phase loss protection p.107
• Chapter 4 explanation of functions p.107
• Range of setting 12 a 20 to 64 a 100 when 64 a is set as the electronic thermal setting b012 the time limit characteristic is as shown on the right p.108
• 2 electronic thermal characteristic the frequency characteristic set as the electronic thermal characteristic is integrated with the value of b012 b212 or b312 the cooling fan performance of a general purpose motor lowers when the motor speed is low so load current is decreased the reduced torque characteristic is designed to match the heat generation by hitachi s general purpose motors p.108
• Item function code range of data description p.108
• Item function code data description p.108
• Free setting of electronic thermal characteristic p.108
• Example setting on the sj700d 150lff3 ct mode rated current 64 a p.108
• Example setting on the sj700 750lff3 75 150kw p.108
• Example setting on the sj700 150lff 0 55kw p.108
• Electronic thermal setting calculated within the inverter from current output p.108
• Electronic thermal protection p.108
• Electronic thermal characteristic b013 b213 b313 p.108
• When b012 is 64 a the base frequency is 60 hz and output frequency is 20 hz p.108
• Ct mode rated current 64 a p.108
• Trip time s p.108
• Ct mode rated current 149 a p.108
• The electronic thermal protection function allows you to protect the motor against overheating make settings of this function based on the rated current of the motor the inverter will trip for overheat protection according to the settings this function provides optimum overheat protection that is also designed with the lowering of the motor s cooling performance at low speeds in mind you can configure this function so that the inverter outputs a warning signal before it trips for electronic thermal protection 1 electronic thermal level p.108
• Constant torque characteristic p.108
• Related code p.108
• Chapter 4 explanation of functions p.108
• Reduced torque characteristic p.108
• B012 b212 b312 0 to 1 x rated current see the example below p.108
• Range of setting 29 a 20 to 149 a 100 when 149 a is set as the electronic thermal setting b012 the time limit characteristic is as shown on the right p.108
• A reduced torque characteristic the time limit characteristic determined by the value of b012 b212 or b312 is integrated with each frequency multiplied by reduction scales p.108
• Chapter 4 explanation of functions p.109
• Overload restriction overload notice p.110
• Chapter 4 explanation of functions p.110
• The overcurrent restraint function allows you to restrain the overcurrent that can occur when the output current sharply increases because of rapid acceleration you can enable or disable the function by setting the overcurrent suppression enable b027 p.111
• Overcurrent restraint p.111
• Note when using the inverter for a lift disable the overcurrent restraint function if the overcurrent restraint p.111
• Functions during the lift operation the lift may slide down because of insufficient torque p.111
• Chapter 4 explanation of functions p.111
• Applied for 75 to 150kw p.111
• 2 overload notice function the overload notice function allows you to make the inverter output an overload notice signal before tripping because of overload you can use this function effectively to prevent the machine e g a conveyor driven by the inverter from being overloaded and prevent the conveyor from being stopped by the overload protection of the inverter to use this function assign function 03 ok or 26 ol2 to one of the intelligent output terminals 11 to 15 c021 to c025 and the alarm relay terminal c026 two types of overload notice signal are available for output p.111
• You can enable or disable the function by setting the overvoltage suppression p.112
• When 02 enabling the overvoltage suppression with acceleration is specified for the overvoltage suppression p.112
• When 01 enabling the over voltage supression with deceleration stop is specified for the overvoltage p.112
• Tripping because of the overvoltage that can be caused by the energy regenerated by the motor during deceleration p.112
• The over voltage supression function allows you to prevent the inverter from p.112
• Suppression enable b130 the inverter will decelerate by keeping the voltage of the main circuit dc section at over voltage suppression level b131 p.112
• Over voltage supression p.112
• Enable b130 the inverter will start acceleration according to the acceleration and deceleration rate at overvoltage suppression b132 if the voltage of the main circuit dc section exceeds the overvoltage suppression level b131 subsequently the inverter will restart deceleration when the voltage falls below the level b131 p.112
• Enable b130 p.112
• Chapter 4 explanation of functions p.112
• Start frequency setting p.113
• Reduced voltage start function p.113
• Chapter 4 explanation of functions p.113
• Applied for 75 to 150kw p.114
• 4 6 8 10 12 15 14 p.114
• 1 the maximum carrier frequency varies depending on the inverter capacity when increasing the carrier frequency fc derate the output current as shown in the following table p.114
• V class p.114
• The carrier frequency setting function b083 allows you to change the carrier frequency of the pwm waveform output from the inverter increasing the carrier frequency can lower the metallic noise from the motor but may increase the inverter noise and current leakage you can use this function effectively to avoid resonance of the mechanical system and motor p.114
• Related code p.114
• Kw 30kw p.114
• Item function code range of data description p.114
• Ct mode p.114
• Chapter 4 explanation of functions p.114
• Carrier frequency setting p.114
• Chapter 4 explanation of functions p.115
• Automatic carrier frequency reduction p.115
• Dynamic braking brd function p.116
• Cooling fan operation setting p.116
• Chapter 4 explanation of functions p.116
• And resume the operation after power recovered only inverter capacity 30kw or less models p.116
• 2 please refer to page 2 22 for 2 minimum resistance of connectable resistor and brd ratio p.116
• 1 the set dynamic braking activation level specifies the dc output voltage of the inverter s internal converter p.116
• The dynamic braking brd function is provided in the inverter capacity 2 kw or less models that have the built in brd circuit with this function the energy regenerated by the motor is consumed by an external resistor i e the energy is converted to heat you can effectively use this function in your system for example to operate the motor as a generator by rapidly decelerating the motor to use this function make the following settings p.116
• The cooling fan operation setting function allows you to specify the operation mode of the inverter s internal cooling fan the cooling fan can be operated on a constant basis or only while the inverter is driving the motor p.116
• Note the cooling fan stops automatically when instantaneous power failure occurs or the inverter power is shut off p.116
• You can assign the functions described below to intelligent input terminals 1 to 8 to assign the desired functions to the terminals specify the desired data listed in the table below for terminal settings c001 to c008 for example c001 corresponds to intelligent input terminal 1 you can select the a contact or b contact input for individual intelligent input terminals you can assign one function only to an intelligent input terminal if you have attempted to assign a function to two or more intelligent input terminals the function is assigned to only the terminal to which you have last attempted assignment function data no no assign is assigned to other terminals and those terminals are ineffective in terms of functions after assigning the desired functions to intelligent input terminals 1 to 8 confirm that the assigned functions have been stored on the inverter p.117
• Related code p.117
• Intelligent input terminal setting p.117
• Chapter 4 explanation of functions p.117
• Input terminal a b no nc selection p.118
• Chapter 4 explanation of functions p.118
• Carefully note that during multispeed operation the rotation direction specified in an operation command is reversed if the sum of the frequencies specified by the main frequency and auxiliary frequency commands is less than 0 hz when the following settings have been made the control circuit terminal block 01 is specified for the frequency source setting a001 the external analog input o o2 oi mode set by a combination of at selection a005 o2 selection a006 and p.118
• Bit operation mode with up to 8 speeds p.118
• B contact nc p.118
• At terminal on off state allows reversible motor operation p.118
• The multispeed select setting function allows you to set multiple motor speeds and switch among them by way of signal input via specified terminals multispeed operation can be performed in two modes binary operation mode with up to 16 speeds using four input terminals and bit operation mode with up to eight speeds using seven input terminals p.118
• A021 to a035 p.118
• The input terminal a b no nc selection function allows you to specify a contact or b contact input for each of the intelligent input terminals 1 to 8 and the fw terminal an a contact turns on the input signal when closed and turns it off when opened an b contact turns on the input signal when opened and turns it off when closed the terminal to which the reset rs function is assigned functions only as an a contact p.118
• A020 a220 p.118
• Terminal fw active state c019 00 a contact no p.118
• 1 refer to programing software ez sq user manual p.118
• Terminal active state c011 to c018 00 a contact no p.118
• Related code p.118
• Or start frequency to maximum frequency hz setting of the frequency as each speed p.118
• Multispeed select setting cf1 to cf4 and sf1 to sf7 p.118
• Multispeed operation selection a019 00 binary operation mode with up to 16 speeds p.118
• Multispeed 0 to 15 settings p.118
• Item function code data description p.118
• Specify the desired frequencies for speeds 1 to 7 sf1 to sf7 p.119
• Multispeed s 0 to 7 available for selection p.119
• If two or more input terminals are turned on at the same if two or more input terminals are turned on at the same time the terminal given the smallest terminal number among them has priority over others the x mark in the above table indicates that the speed can be selected regardless of whether or not the corresponding terminal is turned on p.119
• Chapter 4 explanation of functions p.119
• By setting multispeeds 1 to 7 a021 to a027 p.119
• 1 binary operation mode assign functions 02 cf1 to 05 cf4 individually to the terminal 1 to 8 functions c001 to c008 to make multispeed s 0 to 15 available for selection specify the desired frequencies for speeds 1 to 15 by setting multispeeds 1 to 15 a021 to a035 you can set speed 0 by using function a020 a220 a320 or f001 see section 4 when you have specified the digital operator for the frequency source setting you can set speed 0 by using the o oi or o2 terminal when you have specified the control circuit board for the frequency source setting p.119
• With multispeed binary operation mode you can use the multistage speed position determination time setting c169 to specify a delay to be set until the relevant terminal input is determined use this specification to prevent the application of fluctuating terminal input before it is determined the input data is finally determined when terminal input becomes stable after the delay set as c169 note that a long determination time deteriorates the input terminal response 2 bit operation mode assign functions 32 sf1 to 38 sf7 individually to the terminal 1 to 8 functions c001 to c008 to make p.119
• The jogging command setting function allows you to set and finely tune the motor stopping position to use this function assign function 06 jg to an intelligent input terminal p.120
• Note 2 you must set dc braking data if you specify 02 or 05 for the jog stop mode a039 see section 4 9 p.120
• Note 1 to perform the jogging operation always turn on the jg terminal before turning on the fw or rv terminals p.120
• Jogging jg command setting p.120
• Follow this sequence of command inputs also when using the digital operator to enter operation commands p.120
• Chapter 4 explanation of functions p.120
• 2 jog stop mode p.120
• 1 jog frequency setting since the inverter operates the motor with a full voltage for the jogging operation the inverter can easily trip during the latter adjust the jog frequency setting a038 properly so that the inverter will not trip p.120
• Nd 3rd motor control function set and set3 p.121
• Chapter 4 explanation of functions p.121
• The forcible operation function allows you to forcibly enable the inverter operation from the digital operator when the digital operator is not selected as the device to input frequency and operation commands an intelligent input terminal is used to turn this function on and off when the intelligent input terminal to which the forcible operation function is assigned is off frequency and operation commands are input from the devices selected by functions a001 and a002 when the terminal is on the device to input frequency and operation commands is forcibly switched to the digital operator if the input device is switched while the inverter is operating the current operation command is canceled and the inverter stops the output when restarting the inverter operation turn off the operation command that was to be entered from each input device for safety s sake and then enter a new operation command p.122
• Software lock sft function p.122
• Forcible operation from terminal f tm function p.122
• Forcible operation from digital operator ope function p.122
• Chapter 4 explanation of functions p.122
• The software lock function allows you to specify whether to disable rewriting of the data set for functional items use this function to protect the data against accidental rewriting you can select the functional items to be locked and the method of locking as described below when using an intelligent input terminal for this function assign function 15 sft to one of the terminal 1 to 8 functions c001 to c008 p.122
• The forcible operation function allows you to forcibly enable the inverter operation via control circuit terminals when the control circuit terminal block is not selected as the device to input frequency and operation commands an intelligent input terminal is used to turn this function on and off when the intelligent input terminal to which the forcible terminal operation function is assigned is off frequency and operation commands are input from the devices selected by functions a001 and a002 when the terminal is on the device to input frequency and operation commands is forcibly switched to the control circuit terminal block if the input device is switched while the inverter is operating the current operation command is canceled and the inverter stops the output when restarting the inverter operation turn off the operation command that was to be entered from each input device for safety s sake and then enter a new operation command p.122
• The free run stop frs function allows you to shut off the inverter output to let the motor start free running you can effectively use this function when stopping the motor with a mechanical brake e g electromagnetic brake if an attempt is made to forcibly stop the motor with a mechanical brake while the inverter keeps its output the inverter may trip because of overcurrent to use this function assign function 11 frs to one of the terminal 1 to 8 functions c001 to c008 the free run stop frs function operates as long as the frs terminal is on when the frs terminal is turned off the inverter restarts the motor after the retry wait time b003 however the inverter does not restart the motor if the digital operator 02 has been specified for the run command source setting a002 to restart the motor in such status enter a new operation command you can select the inverter output mode for restarting with the restart mode after frs b088 from starting the motor with 0 hz starting the motor with a ma p.123
• Free run stop frs function p.123
• Chapter 4 explanation of functions p.123
• Applied for 75 to 150kw p.123
• The commercial power source switching function allows you to switch the power supply between the inverter and commercial power supply to your system of which the load causes a considerable moment of inertia you can use the inverter to accelerate and decelerate the motor in the system and the commercial power supply to drive the motor for constant speed operation to use this function assign function 14 cs to one of the terminal 1 to 8 functions c001 to c008 when the cs terminal is turned off with an operation command being input the inverter waits for the retry wait time before motor restart b003 adjusts the output frequency to the speed of the free running motor and then accelerates the motor with the adjusted frequency the start mode is the starting with matching frequency however the inverter may start the motor with 0 hz if 1 the motor speed is no more than half the base frequency or 2 the voltage induced on the motor is attenuated quickly 3 if the motor speed falls to the restart f p.124
• Related code p.124
• Example 3 restarting with active matching frequency p.124
• Commercial power source switching cs function p.124
• Chapter 4 explanation of functions p.124
• After the retry wait time b003 the inverter restarts the motor with the frequency set as b030 the inverter subsequently decelerates the motor according to the setting of b029 while maintaining the output current at the level specified for b029 when the output voltage matches the frequency the inverter re accelerates the motor up to the frequency that was set when the inverter shut off the output to the motor before the restart if the inverter trips because of overcurrent when it restarts the motor with input frequency reduce the setting of b028 p.124
• The reset function allows you to recover the inverter from a tripped state to perform resetting press the stop reset key of the digital operator or turn the rs terminal off to use the control circuit terminal for resetting assign function 18 rs to an intelligent input terminal you can select the restart mode to apply after resetting with the restart mode after reset c103 when c102 03 starting with 0 hz is selected regardless to c103 setting if the inverter trips because of overcurrent when it starts the motor with matching frequency increase the retry wait time before motor restart b003 you can select the alarm reset timing with the reset mode selection c102 you can also enable the reset signal to be output only when resetting an error alarm the rs terminal can be configured only as an a contact no do not use the rs terminal for the purpose of shutting off the inverter output the reset operation clears the electronic thermal and brd counter data stored in the inverter and without this p.125
• Reset rs function p.125
• Chapter 4 explanation of functions p.125
• Chapter 4 explanation of functions p.126
• Unattended start protection usp function p.127
• Remote control function up and dwn p.127
• Chapter 4 explanation of functions p.127
• Wire interface operation function sta stp and f r p.128
• External trip ext function p.128
• Chapter 4 explanation of functions p.128
• The p pi switching function allows you to switch the control compensation mode of the speed control system between the proportional integrated compensation and proportional compensation modes when the v f characteristic curve selection is the sensorless vector control 0hz range sensorless vector control or vector control with sensor to use this function assign function 43 ppi p pi mode selection to one of the terminal 1 to 8 functions c001 to c008 when the ppi terminal is turned off the proportional integrated compensation mode is selected when the ppi terminal is turned on the proportional compensation mode is selected if function 43 ppi p pi mode selection is not assigned to any intelligent input terminal the proportional integrated compensation mode is selected p.129
• The control gain switching function allows you to set and switch between two types of gains and time constants for the speed control system with proportional and integral compensations when the v f characteristic curve selection is the sensorless vector control 0hz range sensorless vector control or vector control with sensor to use this function assign function 26 cas control gain setting to one of the terminal 1 to 8 functions c001 to c008 when the cas terminal is turned off the gain settings h050 h250 h051 h251 h052 and h252 are selected when the cas terminal is turned on the gain settings h070 h071 and h072 are selected if function 26 cas control gain setting is not assigned to any intelligent input terminal the same gain settings as those selected when the cas terminal is off are selected p.129
• P pi switching function ppi p.129
• Control gain switching function cas p.129
• Chapter 4 explanation of functions p.129
• Synchronous rotation speed at base frequency p.130
• Speed error at rated torque x p.130
• Intelligent pulse counter pcnt and pcc p.130
• Chapter 4 explanation of functions p.130
• Analog command holding function ahd p.130
• You can assign the functions described below to the intelligent output terminals 11 to 15 c021 to c025 and the alarm relay terminal c026 the intelligent output terminals 11 to 15 are used for open collector output and the alarm relay terminal is used for relay output you can select the a contact or b contact output for individual output terminals by using functions c031 to c035 and c036 when 01 3 bits or 02 4 bits is specified for the alarm code output c062 see section 4 5 the alarm code output is assigned to output terminals 11 to 13 or output terminals 11 to 14 ac0 to ac3 respectively subsequently the settings of c021 to c024 are invalidated p.131
• Related code p.131
• Intelligent output terminal setting p.131
• Data description reference item p.131
• Chapter 4 explanation of functions p.131
• Chapter 4 explanation of functions p.132
• Between each terminal and cm2 voltage drop when turned on 4 v or less allowable maximum voltage 27 vdc allowable maximum current 50 ma p.132
• B contact nc p.132
• The intelligent output terminal a b no nc selection function allows you to specify a contact or b contact output for each of the intelligent output terminals 11 to 15 and the alarm relay terminal the intelligent output terminals 11 to 15 are used for open collector output and the alarm relay terminal is used for relay output p.132
• B contact p.132
• Terminal active state c031 to c035 00 p.132
• An a contact turns on the output signal when closed and turns it off when opened an a contact turns on the output signal when closed and turns it off when opened a b contact turns on the output signal when opened and turns it off when closed 1 specifications of intelligent output terminals 11 to 15 intelligent output terminals 11 to 15 have the following specifications p.132
• Setting of c031 to c035 power supply output signal p.132
• Alarm relay active state c036 00 p.132
• Related code p.132
• Al0 al1 al2 p.132
• On on off p.132
• A contact no p.132
• Mja major failure major failure signal p.132
• A contact p.132
• Item function code data description p.132
• 71 55 wcoi p.132
• Intelligent output terminal a b no nc selection p.132
• 2 specifications of alarm relay terminal the alarm relay terminal uses a normally closed nc contact that operates as described below p.132
• Inside the inverter p.132
• Example of operation as an alarm output terminal example of operation as an alarm output terminal p.132
• Electric characteristics p.132
• Data description reference item p.132
• Cm2 11 p.132
• Running signal run p.133
• Frequency arrival signals fa1 fa2 fa3 fa4 and fa5 p.133
• Chapter 4 explanation of functions p.133
• Chapter 4 explanation of functions p.134
• Running time over and power on time over signals rnt and ont p.135
• Hz speed detection signal zs p.135
• Chapter 4 explanation of functions p.135
• The inverter outputs the over torque signal when it detects that the estimated motor output torque exceeds the specified level to enable this function assign function 07 otq over torque signal to an intelligent output terminal this function is effective only when the v f characteristic curve selection selected with function a044 or a244 is the sensorless vector control 0hz range sensorless vector control or vector control with sensor with any other v f characteristic curve selection the output of the otq signal is unpredictable when using the inverter for a lift use the otq signal as the trigger to stop braking use the frequency arrival signal as the trigger to start braking p.136
• The alarm code output function allows you to make the inverter output a 3 or 4 bit code signal as the trip factor when it has tripped specifying 01 3 bits or 02 4 bits for the alarm code output c062 forcibly assigns the alarm code output function to intelligent output terminals 11 to 13 or 11 to 14 respectively the following table lists the alarm codes that can be output p.136
• Over torque signal otq p.136
• Chapter 4 explanation of functions p.136
• Applied for 75 to 150kw p.136
• Alarm code output function ac0 to ac3 p.136
• The logical output signal operation function allows you to make the inverter internally perform a logical operation of output signals this function applies to all output signals except to logical operation results log1 to log6 three types of operators and or and xor are selectable the necessary parameters depend on the logical output signal to be operated the following table lists the parameters to be set for each logical output signal p.137
• The logical output signal 1 log1 to the intelligent output terminal 2 intelligent output terminal 2 c002 33 log1 logical output signal 1 selection 1 c142 00 run logical output signal 1 selection 2 c143 02 fa2 logical output signal 1 operator c143 00 and p.137
• Logical output signal operation function log1 to log6 p.137
• Example to output the and of the running signal 00 run and set the frequency overreached signal 02 fa2 as p.137
• Chapter 4 explanation of functions p.137
• Capacitor life warning signal wac p.138
• This signal function is enabled only when modbus rtu has been selected for the rs485 communication if a reception timeout occurs the inverter continues to output the communication line disconnection signal until it receives the next data specify the limit time for reception timeout by setting the communication trip time c077 for details see section 4 communication functions p.138
• The inverter checks the operating life of the capacitors on the internal circuit boards on the basis of the internal temperature and cumulative power on time you can monitor the state of the capacitor life warning wac signal by using the life check monitoring function d022 if the wac signal is output you are recommended to replace the main circuit and logic circuit boards p.138
• Communication line disconnection signal ndc p.138
• Chapter 4 explanation of functions p.138
• The inverter outputs the starting contact fr signal while it is receiving an operation command the fr signal is output regardless of the setting of the run command source setting a002 if the forward operation fw and reverse operation rv commands are input at the same time the inverter stops the motor operation p.139
• The inverter outputs the cooling fan speed drop waf signal when it detects that the rotation speed of its internal cooling fan has fallen to 75 or less of the full speed if 01 has been selected for the cooling fan control b092 the inverter will not output the waf signal even when the cooling fan stops if the waf signal is output check the cooling fan cover for clogging you can monitor the state of the waf signal by using the life check monitoring function d022 p.139
• The inverter monitors the temperature of its internal heat sink and outputs the heat sink overheat warning ohf signal when the temperature exceeds the heat sink overheat warning level c064 p.139
• Starting contact signal fr p.139
• Heat sink overheat warning signal ohf p.139
• Cooling fan speed drop signal waf p.139
• Chapter 4 explanation of functions p.139
• Low current indication loc signal p.140
• Inverter ready signal irdy p.140
• Forward rotation signal fwr p.140
• Chapter 4 explanation of functions p.140
• 1 when 01 control circuit terminal is selected as frequency source setting a001 there is a case that inverter does not recognize the speed as constant value due to sampling in this case adjusting is to be made by setting c038 00 valid during operation or increasing analogue input filter a016 p.140
• The inverter outputs the low current indication loc signal when the inverter output current falls to the low current indication signal detection level c039 or less you can select one of the two signal output modes with the low current indication signal output mode selection c038 in one mode the loc signal output is always enabled during the inverter operation in the other mode the loc signal output is enabled only while the inverter is driving the motor for constant speed operation p.140
• The inverter outputs the major failure mja signal in addition to an alarm signal when it trips because of one of the errors listed below this signal function applies to the tripping caused by hardware p.141
• The inverter continues to output the forward rotation rvr signal while it is driving the motor for reverse operation the rvr signal is turned off while the inverter is driving the motor for forward operation or stopping the motor p.141
• Reverse rotation signal rvr p.141
• Major failure signal mja p.141
• Chapter 4 explanation of functions p.141
• You can specify a hysteresis width for the maximum limit and minimum limit levels of the window comparator you can specify limit levels and a hysteresis width individually for analog inputs o oi and o2 you can fix the analog input data to be applied to an arbitrary value when wco wcoi or wco2 is output for this p.142
• Window comparators wco wcoi wco2 detection of terminal disconnection odc oidc o2dc p.142
• When the values of analog inputs o oi and o2 are within the maximum and minimum limits specified for the window comparator you can monitor analog inputs with reference to arbitrary levels to find input terminal disconnection and other errors p.142
• The window comparator function outputs signals p.142
• Related code p.142
• Purpose specify a desired value as the operation level at o oi o2 disconnection b070 b071 b072 when no is specified the analog input data is reflected as input p.142
• Output values of odc oidc and o2dc are the same as those of wco wcoi and wco2 respectively p.142
• Chapter 4 explanation of functions p.142
• Connected makes the inverter trip p.143
• Chapter 4 explanation of functions p.143
• Output signal delay hold function p.143
• Note specifying 01 for the thermistor for thermal protection control b098 without an external thermistor p.143
• Input terminal response time p.143
• External thermistor function th p.143
• You can monitor the inverter output frequency and output current via the fm terminal on the control circuit terminal block the fm terminal is a pulse output terminal 1 fm siginal selection select the signal to be output from the fm terminal among those shown below if you select 03 digital output frequency connect a digital frequency counter to the fm terminal to monitor other output signals use an analog meter p.144
• Fm terminal p.144
• Control 0hz range sensorless vector control or vector control with sensor p.144
• Chapter 4 explanation of functions p.144
• 2 fm terminal analog meter adjustment adjust the inverter output gain for the external meter connected to the fm terminal p.144
• 2 digital current monitoring if the output current matches the digital current monitor reference value c030 the fm terminal will output a signal indicating 1 440 hz p.144
• 1 this signal is output only when the v f characteristic curve selection see section 4 8 is the sensorless vector p.144
• 3 the actually detected output frequency is output when the v f p.145
• 2 the voltage range is 0 to 10v positive going only regardless of forward or reverse moter rotation in addition please do offset p.145
• 2 am ami adjustment the early precision is 20 please adjust it as needed adjust the inverter output gain for the external meters connected to the am and ami terminals p.145
• 1 when the current range of ami terminal output is 4 to 20 ma the offset of 4 ma is approximately 20 the adjustment is the following procedure in the case of ami it is similar p.145
• You can monitor the inverter output frequency and output current via the am and ami terminals on the control circuit block the am terminal outputs an analog voltage signal 0 to 10 v the ami terminal outputs an analog current signal 4 to 20 ma the early precision is 20 please adjust it as needed 1 am siginal selection ami signal selection select the signals to be output from the am and ami terminals among those shown below p.145
• 1 this signal is output only when the v f characteristic curve selection p.145
• See section 4 8 is the sensorless vector control 0hz range sensorless vector control or vector control with sensor p.145
• Note in the case of use please do the setting that had room not to be able to shake off a meter across the rating note in the case of use please do the setting that had room not to be able to shake off a meter across the rating p.145
• Either in c028 01 02 04 p.145
• Characteristic curve selection is the vector control with sensor a044 05 p.145
• Chapter 4 explanation of functions p.145
• Am output offset adjustment p.145
• Am output gain adjustment p.145
• Am and ami terminals p.145
• Adjustment when this outputs negative going of the output torque signed p.145
• A in a state of c028 00 and please run moter at the maximum frequency b adjust offset c109 first and then use c106 to set the voltage for full scale output p.145
• 4 for detail of the function refer programing software ez sq user manual p.145
• Initialization setting p.146
• Chapter 4 explanation of functions p.146
• Chapter 4 explanation of functions p.147
• 1 function specific display mode if a specific function has not been selected the monitor does not display the parameters concerning the specific function the following table lists the details of display conditions p.147
• The function code display restriction function allows you to arbitrarily switch the display mode or the display content on the digital operator p.147
• Function code display restriction p.147
• Chapter 4 explanation of functions p.148
• 2 user setting display mode the monitor displays only the codes and items that are arbitrarily assigned to user parameters u001 to u012 except codes d001 f001 and b037 3 data comparison display mode the monitor displays only the parameters that have been changed from the factory settings except all monitoring indications d and code f001 note that the settings of input span calibration and input zero calibration c081 to c083 and c121 to c123 and thermistor input tuning c085 are not always displayed p.148
• The initial screen selection function allows you to specify the screen that is displayed on the digital operator immediately after the inverter power is turned on the table below lists the screens items selectable the factory setting is 01 d001 to adjust the screen selection setting of your sj700 series inverter to an sj300 series inverter select 00 the screen displayed when the stop reset key was last pressed p.149
• Note when 000 the screen displayed when the str key was last pressed has been selected the monitor displays p.149
• Initial screen selection selection of the initial screen to be displayed after power on p.149
• In case automatic return to inirial display function is enabling the monitor automatically displays the data selected initial screen selection without operating for 10 minutes p.149
• Code entry to a group of functions if the functional item displayed last is not d or f example if the inverter power is turned off immediately after the setting of a020 has been changed the monitor will display a as the initial screen after the next power on p.149
• Chapter 4 explanation of functions p.149
• 4 basic display mode the monitor displays basic parameters the monitor display is the factory setting the following table lists the parameters that can be displayed in basic display mode p.149
• Stabilization constant setting p.150
• Selection of operation at option board error p.150
• Chapter 4 explanation of functions p.150
• Automatic user parameter setting p.150
• Applied for 75 to 150kw p.150
• You can select how the inverter operates when an error results from a built in option board between two modes in one mode the inverter trips in the other mode the inverter ignores the error and continues the operation when you use the feedback option board sj fb as option board 1 specify 01 for p001 when you use the sj fb as option board 2 specify 01 for p002 p.150
• The stabilization constant setting function allows you to adjust the inverter to stabilize the motor operation when the motor operation is unstable if the motor operation is unstable check the motor capacity setting h003 h203 and motor pole setting h004 h204 to determine whether the settings match the motor specifications if they do not match readjust the settings if the primary resistance of the motor is less than the standard motor specification try to increase the setting of h006 h206 h306 step by step try to reduce the setting of h006 h206 h306 if the inverter is driving a motor of which the capacity is higher than the inverter rating you can also use the following methods to stabilize the motor operation 1 reducing the carrier frequency b083 see section 4 1 2 reducing the v f gain setting a045 see section 4 7 p.150
• The automatic user parameter setting function allows you to make the inverter automatically store the parameters you readjusted sequentially as user parameters u001 to u012 you can use the stored data as a readjustment history to enable this function select 01 enabling automatic user parameter setting for the automatic user parameter setting function enable b039 the setting data entered in displayed on the digital operator is stored when the str key is pressed also the monitor screen code d is stored at the same time user parameter u001 retains the latest update of setting user parameter u012 the oldest update a functional parameter can be stored as only a single user parameter after all the 12 user parameters have been used to store functional parameter settings new functional parameter settings will be stored as user parameters on a first in first out basis that is the next parameter will be written to u012 storing the oldest update first p.150
• Optimum accel decel operation function p.151
• Chapter 4 explanation of functions p.151
• Chapter 4 explanation of functions p.152
• Brake control function p.152
• When using the brake control function you are recommended to select the sensorless vector control a044 03 when using the brake control function you are recommended to select the sensorless vector control a044 03 0hz range sensorless vector control a044 04 or v2 a044 05 as the v f characteristic curve selection that ensures a high starting torque see section 4 8 settings required for the brake control function p.153
• When using the brake control function assign the following signal functions to intelligent input and intelligent output terminals as needed 1 to input a signal indicating that the brake is released from the external brake to the inverter assign the braking p.153
• Terminals 11 to 15 c021 to c025 to output a signal when braking is abnormal assign the brake error signal 20 ber to an intelligent output terminal p.153
• During deceleration the braking confirmation signal bok is not turned off within the braking wait time b124 otherwise the braking confirmation signal is turned off although the brake release signal is output p.153
• During acceleration the braking confirmation signal bok is not turned on within the braking wait time b124 p.153
• Confirmation signal 44 bok to one of the terminal 1 to 8 functions c001 to c008 p.153
• Chapter 4 explanation of functions p.153
• Applied for 75 to 150kw the inverter will trip with the braking error signal ber e36 brake error output in one of the following cases 1 the inverter output current brake remains below the brake release current even after the release wait time p.153
• 2 assign the brake release signal 19 brk which is a brake releasing command to one of the intelligent output p.153
• Setting lower b054 orlonger deceleration time during powerloss b053 results in undervoltage trip due to less regeneration power p.154
• Related code p.154
• Note3 setting higher initial out put frequency p.154
• Note2 this nonstop deceleration function cannot be canceled until the nonstop deceleration operation is completed note2 this nonstop deceleration function cannot be canceled until the nonstop deceleration operation is completed p.154
• Note1 if the over voltage threshold during power loss b052 is less than the dc bus voltage trigger level during power note1 if the over voltage threshold during power loss b052 is less than the dc bus voltage trigger level during power p.154
• Nonstop deceleration at instantaneous power failure b050 01 the nonstop deceleration at instantaneous power failure is the function making the inverter decelerate and stop the p.154
• Motor while maintaining the voltage below the overvoltage level over voltage threshold during power loss b052 when an instantaneous power failure occurs during the inverter operation p.154
• Loss b051 the over voltage threshold during power loss will be increased to the dc bus voltage trigger level during power loss when the stop level is applied however the stored setting will not be changed and in case b052 is less than the supply voltage equivalent to rectified dc voltage which is square root 2 times supply ac voltage when power recovers while this function is activated inverter will be in the lad stop status and cannot decelerate stop command and frequency change command are not accepted until deceleration is completed be sure to set b052 more than the standard supply voltage p.154
• If the voltage increases to an overvoltage level exceeding the over voltage threshold during power loss b052 p.154
• If an instantaneous power failure has occurred while the inverter is operating the motor and the output voltage falls p.154
• Decrease during powerloss b054 results in over current trip due to sudden deceleration p.154
• Deceleration and stopping at power failure nonstop deceleration at instantaneous power failure p.154
• Vpn v vpn v p.154
• Chapter 4 explanation of functions p.154
• To use this function remove the j51 connector cables from terminals r0 and t0 connect the main circuit terminals p p.154
• Because of regeneration the inverter enters the lad stop state until the voltage falls below the overvoltage level p.154
• To the dc bus voltage trigger level during power loss b051 or less the inverter reduces the output frequency by the initial output frequency decrease during power loss b054 once and then decelerates the motor for the deceleration time setting during power loss b053 p.154
• B052 b051 p.154
• To restart the inverter operation after power recovery wait until the inverter stops enter a stop command and then enter an operation command p.154
• The nonstop deceleration at instantaneous power failure is the function making the inverter decelerate and stop the motor while maintaining the voltage below the overvoltage level when an instantaneous power failure occurs during the inverter operation you can select three modes with controller deceleration and stop on power loss b050 p.154
• And r0 to each other and connect the main circuit terminals n and t0 to each other use 0 5 mm2 or heavier wires for the connections p.154
• Chapter 4 explanation of functions p.155
• Specify 00 disabling for the dc braking enable the default setting is 00 p.156
• Related code p.156
• Other than the altanatives set as motor voltage a082 outputr voltage gain a045 motor rated voltage please set 00 constant torque characteristicvc to v f control mode a044 and do not set free v f setting 02 if you set free v f setting a044 auto tuning function does not work see note 6 p.156
• Offline auto tuning function p.156
• If 02 auto tuning with motor rotation is specified for the auto tuning setting h001 confirm or observe the following p.156
• If 01 enabling is specified for the dc braking enable a051 motor constants cannot be measured by offline auto tuning p.156
• Down therefore remove the motor from the machine or other load and perform auto tuning with the motor alone the moment of inertia j measured by auto tuning is that of the motor alone to apply the data add the moment of inertia of the p.156
• Chapter 4 explanation of functions p.156
• Adjust the settings of base frequency a003 and avr voltage select a082 to the motor specifications when motor voltage is p.156
• A no problem occurs when the motor rotates at a speed close to 80 of the base frequency b the motor is not driven by any other external power source c all brakes are released d during auto tuning insufficient torque may cause a problem in the load driven by the motor for example a lift may slide p.156
• When using this function follow the instructions below p.156
• This function can properly apply to only the motors in the maximum applicable capacity class of your inverter or one class lower p.156
• The offline auto tuning function allows you to make the inverter automatically measure and set the motor constants that are required for the sensorless vector control 0hz range sensorless vector control and vector control with sensor when using the inverter to perform the sensorless vector control 0hz range sensorless vector control and vector control with sensor for a motor of which the motor constants are unknown measure the motor constants with the offline tuning function when 00 hitachi general purpose motor data is specified for the motor constant selection h002 h202 the motor constants of hitachi s general purpose motors are set as defaults when you drive a hitachi s general purpose motor with the inverter you can usually obtain the desired motor characteristics without problems if you cannot obtain the desired characteristics adjust the motor constant settings as described in section 4 2 or 4 3 if you intend to use the online tuning function described later be sure to perform of p.156
• Than the capacity class of your inverter if this function is used for motors with other capacities correct constant data may not be obtained in such cases the auto tuning operation may not be completed if the auto tuning operation is not completed press the stop reset key the operation will end with an error code displayed p.156
• Chapter 4 explanation of functions p.157
• Secondary resistance compensation temperature compensation function p.158
• Online auto tuning function p.158
• Chapter 4 explanation of functions p.158
• Motor constants selection p.159
• Directly input the desired values for h230 to h234 p.159
• Directly input the desired values for h220 to h224 p.159
• Directly input the desired values for h030 to h034 p.159
• Directly input the desired values for h020 to h024 p.159
• Chapter 4 explanation of functions p.159
• Arbitrary setting of motor constants for the arbitrary setting of the motor constants the function codes requiring settings vary depending on the settings of the 1st 2nd control function and the motor constant selection when the 1st control function is enabled and 00 is specified for the motor constant selection p.159
• Adjust the motor constant settings to the motor to be driven by the inverter when using a single inverter to drive multiple motors in the control mode based on vc vp or free v f characteristic calculate the total capacity of the motors and specify a value close to the total capacity for the motor capacity selection h003 h203 when the automatic torque boost function is used the motor constant settings that do not match the motor may result in a reduced motor or unstable motor operation you can select the motor constants that are used when the control mode is the sensorless vector control 0hz range sensorless vector control or vector control with sensor from the following three types 1 motor constants of hitachi general purpose motor 2 motor constants tuned by offline auto tuning 3 arbitrarily set motor constants the motor constants set for the 1st motor control apply to the 3rd motor control p.159
• When the offline auto tuning has not been performed the constants hitachi general purpose motor constants of the motors in the same capacity class as the inverter have been set for h030 h230 to h034 h234 p.159
• When the 2nd control function is enabled and 01 or 02 is specified for the motor constant selection p.159
• When the 2nd control function is enabled and 00 is specified for the motor constant selection p.159
• When the 1st control function is enabled and 01 or 02 is specified for the motor constant selection p.159
• Torque limit x inverter capacity motor capacity example when the inverter capacity is 0 5 kw and the motor capacity is 0 kw the torque limit value is p.160
• Torque limit b041 to b044 torque limit b041 to b044 x motor capacity inverter capacity 200 x 0 kw 0 5 kw 106 p.160
• To b044 so that the value calculated by the expression below does not exceed 200 otherwise the motor may be burnt out p.160
• The sensorless vector control function estimates and controls the motor speed and output torque on the basis of the inverter output voltage and output current and the motor constants set on the inverter this function enables the inverter to accurately operate the motor with a high starting torque even at a low frequency 0 hz or more to use this function specify 03 for the v f characteristic curve selection a044 a244 before using this function be sure to make optimum constant settings for the motor with reference to section 4 1 motor constant selection when using this function observe the following precautions 1 if you use the inverter to drive a motor of which the capacity is p.160
• Sensorless vector control p.160
• Readjust the motor constants according to the symptom as described in the table below p.160
• Note 2 when driving a motor of which the capacity is one class lower than the inverter adjust the torque limit b041 p.160
• Note 1 always set the carrier frequency b083 to 2 khz or more if the carrier frequency is less than 2 khz the p.160
• Inverter cannot operate the motor normally p.160
• If you cannot obtain the desired characteristics from the motor driven under the sensorless vector control p.160
• Chapter 4 explanation of functions p.160
• Calculated as follows based on the assumption that the value should be 200 p.160
• Two classes lower than the maximum applicable capacity of the inverter you may not be able to obtain adequate motor characteristics p.160
• When using this function observe the following precautions 1 be sure to use an inverter of which the capacity is one class higher than the motor to be driven 2 if you use the inverter to drive a motor of which the capacity is two classes lower than the maximum applicable p.161
• Torque limit x inverter capacity motor capacity example when the inverter capacity is 0 5 kw and the motor capacity is 0 kw the torque limit value is p.161
• Torque limit b041 to b044 torque limit b041 to b044 x motor capacity inverter capacity 200 x 0 kw 0 5 kw 106 p.161
• The 0hz domain sensorless vector slv control function incorporates hitachi s own torque control system and enables high torque operation in the 0hz range 0 to 3 hz this control function is best suited for driving a lifting machine e g crane or hoist that requires sufficient torque when starting at a low frequency to use this function specify 04 for the v f characteristic curve selection a044 a244 before using this function be sure to optimize constant settings for the motor with reference to section 4 1 motor constant selection the parameters related to the 0hz range sensorless vector control are as follows 1 the zero lv lmit for 1st 2nd motors h060 h260 is the parameter that specifies the output current for the constant current control in the 0 hz range about 3 hz or less the parameter value is expressed as a ratio of the output current to the inverter s rated current 2 the zero lv starting boost current h061 h261 is the parameter to specify the current for boosting at motor start up p.161
• Sensorless vector 0 hz domain control p.161
• Readjust the motor constants according to the symptom as described in the table below p.161
• Note 2 adjust the torque limit b041 to b044 so that the value calculated by the expression below does not p.161
• Note 1 always set the carrier frequency b083 to 2 khz or more if the carrier frequency is less than 2 khz the p.161
• Inverter cannot operate the motor normally p.161
• If you cannot obtain desired characteristics from the motor driven under the 0hz range sensorless vector control p.161
• Exceed 200 otherwise the motor may be burnt out p.161
• Chapter 4 explanation of functions p.161
• Capacity of the inverter you may not be able to obtain adequate motor characteristics p.161
• Calculated as follows on the assumption that the value should be 200 p.161
• Chapter 4 explanation of functions p.162
• Torque monitoring function p.162
• Forcing function foc p.162
• Torque limitation function p.163
• The torque limitation function allows you to limit the motor output torque when 03 sensorless vector control 04 0hz range sensorless vector control or 05 vector control with sensor is specified for the v f characteristic curve selection a044 a244 you can select one of the following four torque limitation modes with the torque limit selection b040 1 quadrant specific setting mode in this mode individual torque limit values to be applied to four quadrants i e forward powering reverse regeneration reverse powering and forward regeneration are set as the torque limits 1 to 4 b041 to b044 respectively p.163
• Terminal switching mode in this mode the torque limit values set in the torque limits 1 to 4 b041 to b044 are switched from one another according to the combination of the states of torque limit switch terminals 1 and 2 trq1 and trq2 assigned to intelligent input terminals a single selected torque limit is valid in all operating states of the inverter p.163
• Option option 1 2 mode this mode is valid when the option board sj dg is used for details on this mode refer to the instruction manual for the option board if function 40 tl whether to enable torque limitation has been assigned to an intelligent input terminal the torque limitation mode selected by the setting of b040 is enabled only when the tl terminal is turned on when the tl terminal is off torque limit settings are invalid and the maximum torque setting is applied as a torque limit if the tl function has not been assigned to any intelligent input terminal the torque limitation mode selected by the setting of b040 is always enabled each torque limit value used for this function is expressed as a ratio of the maximum torque generated when the inverter outputs its maximum current on the assumption that the maximum torque is 200 note that each torque limit value does not represent an absolute value of torque the actual output torque varies depending on the motor if the torque limited p.163
• Chapter 4 explanation of functions p.163
• Applied for 75 to 150kw p.163
• Analog input mode in this mode a torque limit value is set by a voltage applied to the control circuit terminal o2 the voltage range 0 to 10 v corresponds to the torque limit value range 0 to 200 a single selected torque limit is valid in all operating states of the inverter p.163
• Reverse run protection function p.164
• Chapter 4 explanation of functions p.164
• Normally specified for one motor p.165
• High torque multi motor operation p.165
• For constant j specify a value half as large as the total moment p.165
• For constant io specify a value twice as large as that normally p.165
• Chapter 4 explanation of functions p.165
• Torque lad stop function p.165
• The torque lad stop function is effective when 03 sensorless vector control 04 0hz range sensorless vector control or 05 vector control with sensor is specified for the v f characteristic curve selection a044 a244 this function temporarily stops the frequency based deceleration function lad when the torque limitation function operates p.165
• The high torque multi motor operation function allows you to make a single inverter operate the two motors having the same specifications that drive a single load machine this function is effective when the v f characteristic curve selection is the sensorless vector control or 0hz range sensorless control to use the function adjust the inverter settings required for the sensorless vector control see section 4 2 or 0hz range sensorless control see section 4 3 except for the motor constant settings adjust the motor constants as follows 1 for constants r1 r2 and l specify a value half as large as that p.165
• Specified for one motor p.165
• Select the motor capacity that is closest to the collective capacity of both motors if different loads are driven by the two motors operated by the inverter the load fluctuations on one motor may change the other motor s operation status and the inverter may be unable to normally control the motors be sure to configure your system so that the motors drive only a single load or multiple loads that can at least be recognized as a single load p.165
• Of inertia of the two motors and the load connected to them p.165
• Prodrivenext p.166
• Easy sequence function p.166
• Data read write selection p.166
• Chapter 4 explanation of functions p.166
• V2 control pulse setting p.167
• Related code p.167
• Functions requiring the sj fb p.167
• Functions available when the feedback option board sj fb is mounted p.167
• Chapter 4 explanation of functions p.167
• Chapter 4 explanation of functions p.168
• Vector control with encoder feedback p.168
• With a reverse operation command the torque is generated in the opposite direction to that specified by the with a reverse operation command the torque is generated in the opposite direction to that specified by the sign of the torque bias value p.169
• With a forward operation command the torque is generated in the same direction as that specified by the with a forward operation command the torque is generated in the same direction as that specified by the sign of the torque bias value p.169
• When 01 depending on the motor rotation direction is specified the sign of the bias value indicated by the torque bias signal and the direction of the torque biasing change according to the rotation direction specified by the operation command p.169
• Torque control function p.169
• Torque biasing function p.169
• The torque control function is effective in the v2 control mode you can use the inverter not only under the speed control or pulse train position control but also with this torque control function you can use this function effectively for inverter applications to for example a winding machine to operate the inverter to drive the motor under torque control assign function 52 atr to an intelligent input terminal the torque command input is enabled when the atr terminal is on you can select one of four torque command input methods digital operator and three analog input terminals by the torque command input selection p034 p.169
• The torque biasing function allows you to make the inverter bias the torque command generated during the operation in speed control mode you can effectively use this function for inverter applications to a lift or other elevating machines p.169
• Related code p.169
• Item function code data or range of data description p.169
• Chapter 4 explanation of functions p.169
• Applied for 75 to 150kw p.169
• 2 1 when 00 depending on the sign of the bias value is specified regardless of the direction of motor rotation torque in the forward direction increases when the torque bias signal indicates a positive value torque in the reverse direction increases when the torque bias signal indicates a negative value p.169
• 10 v as the bias value 200 to 200 p.169
• 1 when the torque bias is set as a signal input via the o2 terminal the inverter recognizes the signal voltage 10 to p.169
• 1 in pulse train position control mode the frequency value of a frequency command is calculated as follows frequency command hz in position control mode the setting for the acceleration and deceleration time is invalid the lad cancellation function operates automatically to ignore acceleration and deceleration patterns when the position loop gain is larger the acceleration deceleration time is shorter p.170
• To use this function specify 05 v2 for v f characteristic curve selection 1st motor a044 and 01 pulse train position control mode for the control pulse setting p012 you can choose the input source of pulse train command pulse train mode setting p013 p.170
• Pulse train position control mode p.170
• Chapter 4 explanation of functions p.170
• Md2 forward operation pulse train with reverse operation pulse train p.171
• Md1 forward reverse operation command with pulse train p.171
• Chapter 4 explanation of functions p.171
• 2 the following timing charts show the detailed operations in pulse train input mode 1 md0 90 phase shift pulse train p.171
• Increase the positioning accuracy and position holding force increase the loop gain if a high loop gain results in unstable motor operation reduce the loop gain p.172
• Feed forward gain to reduce the position deviation between the main motor and sub motor increase the feed forward gain if the motor operation is unstable reduce the feed forward gain p.172
• Feed forward gain setting note 2 p022 0 0 to 655 p.172
• Electronic gear set position selection p019 00 position feedback fb side p.172
• The electronic gear function allows you to set a gain on the position command or position feedback data to adjust the ratio between the main motor and sub motor speeds during the synchronous operation of the motors p.172
• Electronic gear ratio numerator setting note 4 p020 1 to 9999 p.172
• Related code p.172
• Electronic gear ratio denominator setting note 4 p021 1 to 9999 p.172
• Position loop gain setting note 3 p023 0 0 to 99 9 or 100 rad s p.172
• Electronic gear function p.172
• Position command ref side p.172
• D electronic gear ratio denominator p021 d electronic gear ratio denominator p021 p.172
• P019 01 ref p019 01 ref p.172
• Chapter 4 explanation of functions p.172
• P019 00 fb p019 00 fb p.172
• Note 4 the electronic gear ratio n d must be within the following range 1 50 n d 20 p.172
• Note 3 you are recommended to set the position loop gain p023 to 2 0 first when adjusting the loop gain to p.172
• Note 2 you are recommended to set the feed forward gain setting p022 to 2 0 first when adjusting the note 2 you are recommended to set the feed forward gain setting p022 to 2 0 first when adjusting the p.172
• Note 1 block diagrams for the electronic gear function are shown below p.172
• N electronic gear ratio numerator p020 n electronic gear ratio numerator p020 p.172
• Item function code data or range of data description p.172
• Chapter 4 explanation of functions p.173
• Position biasing function p.174
• Motor gear ratio setting function p.174
• Chapter 4 explanation of functions p.174
• Speed biasing function p.174
• When the operation command is turned on with the ort terminal turned on the inverter accelerates the motor to p.175
• The speed specified by the home search speed setting p015 and then runs the motor at a constant speed if the motor is already running the inverter changes the speed to the home search speed when the ort terminal is turned on p.175
• The inverter performs position control by rotating the motor by one turn as the target amount from the position p.175
• The inverter outputs a pok signal when the time specified by the home search completion delay time setting p018 p.175
• The home search function allows you to make the inverter locate the motor shaft at a specified position you can use this function for example to stop a metal cutting machine to replace the tool attached to the main spindle when using the home search function be sure to insert a reference point pulse signal between the ezp pulse and ezn pulse signals from the encoder p.175
• Specified by the home search stop position setting p014 when running the motor forward or by two turns as the target amount from the home search stop position p014 when running the motor reversely in this case the shorter the deceleration time the larger the position loop gain setting p023 becomes this deceleration time does not follow the deceleration time setting p.175
• Home search function p.175
• Elapses after the remaining number of pulses enters the range specified by the home search completion range setting p017 the inverter continues to output the pok signal until the ort terminal is turned off after home search operation has been completed servo lock status continues until the operation command is turned off p.175
• Chapter 4 explanation of functions p.175
• After the home search speed is reached the inverter switches to position control mode when it detects the first z p.175
• Chapter 4 explanation of functions p.176
• Chapter 4 explanation of functions p.177
• Can switch between the speed control and position control modes during operation p.177
• Actually running the machine p.177
• Absolute position control mode p.177
• You can select zero return mode from one low speed and two p.177
• To use the absolute position control mode function specify 05 v2 for v f characteristic curve selection 1st motor a044 and 02 apr absolute position control for the control pulse setting p012 if 03 high resolution absolute position control has been specified p.177
• The teaching function allows you to specify position settings while p.177
• Position settings can be switched in up to eight stages in p.177
• Only the four high order digits of data are displayed when the data p.177
• If function 73 spd is assigned to an intelligent input terminal you p.177
• High speed modes the home search function described in the preceding section cannot be used p.177
• For the control pulse setting p012 the quadruple number of pulses used for internal operations is applied to the control then specify values of quadruple precision for the multistage position settings and position range specification p.177
• E g position setting to be displayed consists of a large number of many digits p.177
• Combination with control pulse settings p.177
• Operation in absolute position control mode p.178
• Chapter 4 explanation of functions p.178
• To perform speed control operation in absolute position control mode turn on the spd terminal while the spd terminal is off the current position count remains at 0 therefore if the spd terminal is turned off during operation the control operation is switched to position control operation based on the position where the terminal is turned off speed control operation is switched to position control operation if the position setting is 0 at this time the inverter stops the motor at that position hunting may occur if a certain position loop gain value has been set while the spd terminal is on the rotating direction depends on the operation command when switching from speed control to position control pay attention to the sign of the value set in the operation command p.179
• Speed position switching function spd p.179
• Multistage position switching function cp1 cp2 cp3 p.179
• Chapter 4 explanation of functions p.179
• You can specify a delay to be applied at multistage position setting input until the relevant terminal input is determined use this specification to prevent the application of fluctuating terminal input before it is determined you can adjust the determination time with the multistage speed position determination time setting c169 the input data is finally determined when the terminal input becomes stable after the delay set as c169 note that a long determination time deteriorates the input terminal response p.179
• When functions 66 cp1 to 68 cp3 are assigned to terminal 1 function c001 to terminal 8 function c008 you can select a position setting from multistage positions 0 to 7 use multistage position settings 0 to 7 p060 to p067 for the position settings if no position settings are assigned to terminals multistage position setting 0 p060 is assumed p.179
• Zero return function org orl p.180
• Low speed zero return p.180
• High speed zero return 2 p.180
• High speed zero return p.180
• Chapter 4 explanation of functions p.180
• Teaching function p.181
• Position range specification function p.181
• Forward reverse drive stop function fot rot p.181
• Chapter 4 explanation of functions p.181
• Servo on function p.182
• Chapter 4 explanation of functions p.182
• Pulse train frequency input p.183
• Chapter 4 explanation of functions p.183
• Block diagram for pulse train frequency input p.183
• The pulse train frequency input function allows you to use the pulse train input via the sap or san terminal as a frequency command or pid feedback data in each control mode you can use this function in every control mode specify the input frequency corresponding to the allowable maximum frequency as the pulse train frequency scale p055 you cannot use the start end frequency setting function for external analog input together with this function to limit the input frequency specify the desired values for the pulse train frequency bias p057 and pulse train frequency limit p058 p.183
• When two wires are on one terminal pole 0 4 m p.184
• Use shielded and twisted pair cable 0 m p.184
• To connect tm2 if a shielded and twisted pair cable is not available followings are recommended as the wire solid core wire 0 4m p.184
• The inverter can engage in rs485 communications with an external control system that is connected to the tm2 terminal block on the control circuit terminal block board of the inverter the sj700 series inverter shares the ascii communication protocol with the sj300 l300p and sj700 series inverters 1 communication specifications p.184
• Striped covering length 5mm screw torque 0 2nm 0 5nm screw size m2 p.184
• Standard wire with bar terminal 0 5m p.184
• Standard wire 0 4m p.184
• For the rs485 communication function use the tm2 terminal block on the control circuit terminal block board p.184
• Communication functions p.184
• Chapter 4 explanation of functions p.184
• Chapter 4 explanation of functions p.185
• Press the stop reset key of the digital operator or the reset button on the copy unit to switch to the normal 5 press the stop reset key of the digital operator or the reset button on the copy unit to switch to the normal p.186
• In case modbus rtu mode is activated in communication mode selection c079 internal setting of communication data length selection become 8bit automatically 3 communication test mode use the communication test mode to check the hardware of the rs485 communication train as for this function communication mode selection c079 is effective only at the time of ascii mode 00 procedure for communication test 1 remove all cables from the tm2 terminal block to perform a loopback test 2 make the following setting with the digital operator of the inverter p.186
• Chapter 4 explanation of functions p.186
• 2 required settings the following table lists the inverter settings required for the rs485 communication p.186
• When the communication is normal when the communication train is abnormal p.186
• Turn the inverter power off once and then turn it back on whereupon the communication test begins 4 after the test is completed the inverter displays one of the following p.186
• Specify 02 loopback test for the communication speed selection c071 p.186
• Setting screen using the setting screen change the setting made in step 2 to that desired p.186
• Communication in ascii mode p.187
• Chapter 4 explanation of functions p.187
• 1 communication protocol the communication between the inverter and external control system is based on the following protocol 1 frame that is sent from the external control system to the inverter 2 frame that is sent from the inverter to the external control system the inverter sends frame 2 as a response always after receiving frame 1 the inverter does not actively output any frame to the external control system the following table lists the frames commands used for communication commands p.187
• Response frame positive response see item 2 i of this section negative response see item 2 ii of this section p.188
• Note 4 when using the data as the feedback data for pid control set the most significant byte to 1 p.188
• Note 3 the data indicates a value 100 times as large as the actual frequency value to be set example 5 hz 500 000500 30 30 30 35 30 30 p.188
• Note 2 for example to set the output frequency of the inverter with station no 01 to 5 hz the data is as follows stx 01 01 000500 bcc cr 02 30 31 30 31 30 30 30 35 30 30 30 35 0d p.188
• Note 1 p.188
• Motor to use this command set a002 to 03 rs485 p.188
• Example when sending a forward rotation command to the inverter with station no 01 stx 01 00 1 bcc cr 02 30 31 30 30 31 33 30 0d response frame positive response see item 2 i of this section negative response see item 2 ii of this section ii 01 command this command sets the inverter output frequency to use this command set a001 to 03 p.188
• Example 5 500 100500 31 30 30 35 30 30 p.188
• Chapter 4 explanation of functions p.188
• Transmission frame frame format p.188
• The commands are described below i 00 command this command instructs the inverter to drive the motor for forward or reverse rotation or stop the p.188
• Stx station no command data bcc cr p.189
• Stx control code start of text 1 byte stx 0x02 p.189
• Station no station number of control target inverter 2 bytes 01 to 32 or ff broadcast to all stations p.189
• Note 5 the table below lists the functions of the intelligent input terminals and corresponding hexadecimal data for p.189
• Iii 02 12 command this command turns the specified intelligent input terminals on or off transmission frame frame format p.189
• Details see the explanation of the intelligent input terminal functions p.189
• Description description data size setting p.189
• Data data to be transmitted 16 bytes see note 5 p.189
• Cr control code carriage return 1 byte cr 0x0d p.189
• Command command to be transmitted 2 bytes 02 p.189
• Chapter 4 explanation of functions p.189
• Bcc block check code 2 bytes xor of the items from station no to data see item 3 of this section p.189
• Command for details see the explanation of the intelligent input terminal functions p.190
• Chapter 4 explanation of functions p.190
• X0000000000000001 0x0000000000000004 0x0000000000000008 0x000000000000000d p.190
• Stx 01 02 000000000000000d bcc cr p.190
• Response frame response frame p.190
• Positive response see item 2 i of this section negative response see item 2 ii of this section p.190
• Note 6 the table below lists the functions of the intelligent input terminals and corresponding hexadecimal data for p.190
• Inverter with station no 01 specify the following in the data part p.190
• Example when activating the forward rotation multispeed 1 setting and multispeed 2 setting settings on the p.190
• Consequently the whole transmission frame is as follows p.190
• Transmission frame frame format p.191
• Response frame frame format p.191
• Note 8 monitoring of intelligent input terminals note 8 monitoring of intelligent output terminals p.191
• Note 7 monitored data p.191
• Iv 03 command this command reads all monitored data from the inverter p.191
• Chapter 4 explanation of functions p.191
• Chapter 4 explanation of functions p.192
• Bcc block check code 2 bytes xor of the items from station no to data see item 3 of this section p.192
• V 04 command this command reads the status of the inverter transmission frame frame format p.192
• Stx station no data bcc cr p.192
• Stx station no command bcc cr p.192
• Stx control code start of text 1 byte stx 0x02 p.192
• Status a status b status c 00 reserved p.192
• Station no station number of control target inverter 2 bytes 01 to 32 p.192
• Response frame frame format p.192
• Note 10 the data indicating the status of the inverter consists of the following three status elements a b and c data p.192
• Inverter status a inverter status b inverter status c p.192
• Description description data size setting p.192
• Data data 8 bytes see note 8 p.192
• Cr control code carriage return 1 byte cr 0x0d p.192
• Command command to be transmitted 2 bytes 04 p.192
• Note 11 the inverter stores the data trip history on the last six times of tripping together with the total trip count p.193
• Chapter 4 explanation of functions p.193
• 8 bytes p.193
• Vi 05 command this command reads the trip history data from the inverter transmission frame frame format p.193
• Response frame frame format p.193
• Vii 06 command this command reads a specified setting item from the inverter transmission frame frame format p.194
• The code data corresponding to h003 or h203 motor capacity selection is as follows the code data corresponding to h003 or h203 motor capacity selection is as follows p.194
• Selection p.194
• Response frame positive response frame format p.194
• Note 13 when the read parameter is an selection item the data part contains the code data corresponding to the p.194
• Note 12 the parameters that can be specified for reading are f002 to f004 a001 to a153 b001 to b132 c001 to p.194
• Negative response see item 2 ii of this section p.194
• For the value contained in the data part when the read parameter is a numerical item see the list of function codes example when the setting of the acceleration 1 time f002 is 30 0 seconds the data part contains 3000 p.194
• Chapter 4 explanation of functions p.194
• C159 h003 to h073 and p001 to p131 to read the f001 parameter use the 01 command p.194
• Response frame response frame positive response see item 2 i of this section negative response see item 2 ii of this section ix 08 command this command initializes specified settings in the inverter the setting items to be initialized follow the setting of the initialization mode b084 when b084 is 00 the trip history data is cleared transmission frame frame format p.195
• Response frame positive response see item 2 i of this section negative response see item 2 ii of this section p.195
• Note 14 possible range of parameters is as follows f002 a001 b001 c001 h001 p001 f001 is written with 01 command p.195
• Chapter 4 explanation of functions p.195
• Viii 07 command this command writes data to a specified setting item in the inverter transmission frame frame format p.195
• X 09 command this command checks whether set data can be stored in the eeprom in the inverter transmission frame frame format p.196
• Response frame positive response see item 2 i of this section negative response see item 2 ii of this section p.196
• Response frame frame format p.196
• Negative response see item 4 ii of this section xi 0a command this command stores set data in the eeprom in the inverter transmission frame frame format p.196
• Chapter 4 explanation of functions p.196
• Xii 0b command this command recalculates the constants set in the inverter this command must be issued when the base frequency or the setting of parameter h has been changed for the rs485 communication transmission frame frame format p.197
• Response frame positive response see item 2 i of this section negative response see item 2 ii of this section p.197
• Chapter 4 explanation of functions p.197
• Note 15 error codes p.198
• Ii negative response response frame frame format p.198
• If a command is broadcasted to all inverter stations no response will be returned to the external control system p.198
• Chapter 4 explanation of functions p.198
• 2 positive and negative responses i positive response response frame frame format p.198
• Ascii cod p.199
• 3 how to calculate the block check code bcc example when using the 01 command frequency setting command to set the inverter output frequency to p.199
• The contents of station no to data are converted into ascii data and the ascii data is xored bit by bit the final xor result is set as the block check code bcc in the above example of transmission frame bcc is calculated as follows p.199
• Reference ascii code conversion table p.199
• Note hex meas hexadecimal p.199
• Hz the station no of the inverter is 01 p.199
• Chapter 4 explanation of functions p.199
• The inverter sends a response frame ii always after receiving a query frame i the inverter does not actively output any frame to the external control system p.200
• Communication in modbus rtu mode p.200
• Chapter 4 explanation of functions p.200
• After reception timeout occurs the inverter operates according to the setting of the selection of operation after after reception timeout occurs the inverter operates according to the setting of the selection of operation after communication error c076 for details see the table below monitoring of reception timeout begins when the first communication is performed after the inverter power has been turned on or the inverter has been reset reception timeout is monitored only when the inverter communicates with the master system p.200
• 1 communication protocol the communication between the inverter slave and external control system master is based on the following protocol i query frame that is sent from the external control system to the inverter ii response frame that is sent from the inverter to the external control system iii communication trip limit time c077 if the inverter cannot complete the reception of a query from the master system external control system within the communication trip limit time after having sent a response to the preceding query the inverter enters the status in which to receive the query from the beginning subsequently the inverter returns no response to the master system p.200
• Ii function code the function code specifies the function to be executed by the inverter p.201
• I slave address node allocation the slave address is a number 1 to 247 that is assigned to the inverter slave beforehand a query is received by the inverter having the same slave address as that specified in the query p.201
• Function codes function codes p.201
• Command message that master device sends messages to slave device is called query response message that slave device sends messages to master device is called response the formats of the query and response frames are described below p.201
• Chapter 4 explanation of functions p.201
• 2 message format p.201
• With a broadcast query the master device can neither read inverter data nor perform a loopback test with a broadcast query the master device can neither read inverter data nor perform a loopback test p.201
• The table below lists the function codes supported by the sj700 series inverter the table below lists the function codes supported by the sj700 series inverter p.201
• The sj700 series inverter supports the following modbus data format the sj700 series inverter supports the following modbus data format p.201
• The sending format is different depending on the function code the sending format is different depending on the function code p.201
• The query with the slave address set to 0 at the master device is broadcasted to all the connected inverters in the query with the slave address set to 0 at the master device is broadcasted to all the connected inverters in case of broadcast communication all slaves recieve the message but do not respond p.201
• Slave address of modbus specification are 1 to 247 in addition master device can send message to specified slave slave address of modbus specification are 1 to 247 in addition master device can send message to specified slave devices when slave address set 250 to 254 slave device do not respond writing command 05h 06h 0fh and 10h are available p.201
• Query response p.201
• Iii data the data contains a functional instruction p.201
• Chapter 4 explanation of functions p.202
• Chapter 4 explanation of functions p.203
• The data received in the response indicates the status of coils 7 to 14 read the received data 17h 00010111b as shown below the least significant bit indicates the status of coil 7 p.204
• If the query has specified the reading of an undefined coil the data on the said coil is represented by 0 in the response if the function to read the coil status cannot be executed normally the inverter will return an exception response for details see item ix exception response p.204
• Chapter 4 explanation of functions p.204
• 3 explanation of function codes i reading the coil status 01h this function reads the coil status on or off example when reading the status of the intelligent input terminals 1 to 6 of the inverter at slave address 8 assume that the intelligent input terminals are in the status as shown below p.204
• If the function to read registers cannot be executed normally the inverter will return an exception response for details see item ix exception response p.205
• Chapter 4 explanation of functions p.205
• Read the data received in the response as follows p.205
• Ii reading registers 03h this function reads a specified number of registers beginning at a specified register address example when reading the trip history data from the inverter at slave address 5 assume that the conditions of the past three trips are as follows p.205
• Iii writing data to a specified coil 05h this function writes data to a specified coil the following table shows the updating of the coil status p.206
• Example when sending an operation command to the inverter at slave address 10 to start the inverter operation 03 must be set in parameter a002 coil 1 is used to turn on an operation command if the function to write data to a coil cannot be executed normally the inverter will return an exception response for details see item ix exception response iv writing data to a specified register 06h this function writes data to a specified register example when setting 50 hz as the base frequency setting a003 in the inverter at slave address 5 since register 1203h to store the base frequency setting a003 has a data resolution of 1 hz specify 50 0032h as the updating data to set 50 hz if the function to write data to a specified register cannot be executed normally the inverter will return an exception response for details see item ix exception response p.206
• Chapter 4 explanation of functions p.206
• V performing a loopback test 08h the loopback test function is used to check the communication between the external control system master and the inverter slave example when performing a loopback test with the inverter at slave address 1 the diagnosis subcode only conforms to the echoing of query data 00h 00h it cannot be used for other commands vi writing data to multiple coils 0fh this function rewrites data in sequential coils example when updating the status of the intelligent input terminals 1 to 6 of the inverter at slave address 5 the status of the intelligent input terminals is updated to the status shown in the following table p.207
• If the function to write data to multiple coils cannot be executed normally the inverter will return an exception response for details see item viii exception response p.207
• Chapter 4 explanation of functions p.207
• Vii writing data to multiple registers 10h this function writes data to sequential registers p.208
• If the function to write data to multiple registers cannot be executed normally the inverter will return an exception if the function to write data to multiple registers cannot be executed normally the inverter will return an exception response for details see item viii exception response p.208
• Example when setting 3 000 s as the acceleration 1 time f002 in the inverter at slave address 1 since register 1103h and 1104h to store the acceleration 1 time f002 have a data resolution of 0 1 seconds specify 300000 493e0h as the updating data to set 3 000 seconds p.208
• Chapter 4 explanation of functions p.208
• Viii writes read data to multiple registers 17h this function writes reads data to multiple registers p.209
• If the function to write read data to multiple registers cannot be executed normally the inverter will return an exception response for details see item ix exception response p.209
• Example when setting 50 0 hz as the output frequency setting f001 and reading the output frequency monitor d001 in the inverter at slave address 1 p.209
• Chapter 4 explanation of functions p.209
• Ix exception response the master system requests the inverter slave to return a response upon reception of a query other than broadcasted queries the inverter must return the response that matches the query it has received however if an error is found in a query the inverter will return an exception response the exception response consists of the following fields p.210
• Field configuration p.210
• Details of the field configuration are described below the exception response in reply to a query includes a function code that is the sum of 80h and the function code specified by the query the exception code in the exception response indicates the content of the error p.210
• Chapter 4 explanation of functions p.210
• Chapter 4 explanation of functions p.211
• Chapter 4 explanation of functions p.212
• 5 list of registers the r w column of the list indicates whether the coils and registers are read only or readable and writable r indicates a read only coil or register r w indicates a readable and writable coil or register i list of coils p.212
• Inverter operation p.213
• Chapter 4 explanation of functions p.213
• Block is turned on or the coil itself is set to on in this regard the operation of the intelligent input terminal has priority over the operation of the coil if disconnection of the communication train has disabled the master system from turning off the coil turn the corresponding intelligent input terminal on the control circuit block on and off this operation turns off the coil p.213
• 2 communication error data is retained until an error reset command is input the data can be reset during the p.213
• 1 normally this coil is turned on when the corresponding intelligent input terminal on the control circuit terminal p.213
• Ii list of registers frequency settings and trip monitoring p.214
• Chapter 4 explanation of functions p.214
• Chapter 4 explanation of functions p.215
• Chapter 4 explanation of functions p.216
• List of inverter trip factors p.216
• Iv list of registers p.217
• Iii list of registers monitoring p.217
• Chapter 4 explanation of functions p.217
• V list of registers function modes p.218
• Chapter 4 explanation of functions p.218
• Chapter 4 explanation of functions p.219
• Chapter 4 explanation of functions p.220
• Chapter 4 explanation of functions p.221
• Chapter 4 explanation of functions p.222
• Chapter 4 explanation of functions p.223
• Chapter 4 explanation of functions p.224
• Chapter 4 explanation of functions p.225
• Chapter 4 explanation of functions p.226
• Chapter 4 explanation of functions p.227
• Chapter 4 explanation of functions p.228
• Chapter 4 explanation of functions p.229
• Chapter 4 explanation of functions p.230
• Chapter 4 explanation of functions p.231
• Chapter 4 explanation of functions p.232
• Chapter 4 explanation of functions p.233
• Vii list of registers function modes for the 2nd control settings p.234
• Vi list of registers 2nd control settings p.234
• Chapter 4 explanation of functions p.234
• Motor capacity 90kw 110 132 150 160 p.235
• Motor capacity 5 kw 7 11 15 18 22 30 37 45 55 75 p.235
• Motor capacity 0 kw 0 7 0 0 5 0 5 1 1 2 3 3 4 p.235
• Code data 22 23 24 25 26 p.235
• Code data 11 12 13 14 15 16 17 18 19 20 21 p.235
• Code data 00 01 02 03 04 05 06 07 08 09 10 p.235
• Chapter 4 explanation of functions p.235
• Chapter 4 explanation of functions p.236
• Ix list of registers 3rd control setting p.236
• This chapter describes the error codes of the inverter error indications by the functions and troubleshooting methods p.237
• Chapter 5 error codes p.237
• Power once if error code e08 is displayed when the inverter power is turned on subsequently the internal memory device may have failed or parameters may have not been stored correctly in such cases initialize the inverter and then re set the parameters p.238
• Error codes and troubleshooting p.238
• Error codes p.238
• Chapter 5 error codes p.238
• 3 the inverter will not accept reset commands input via the rs terminal or entered by the stop reset key therefore turn off the inverter p.238
• 2 the inverter will not accept any reset command after an eeprom error occurs with error code displayed turn off the inverter p.238
• 1 the inverter will not accept any reset command within about 10 seconds after tripping i e after the protective function operates p.238
• Chapter 5 error codes p.239
• 3 the inverter will not accept reset commands input via the rs terminal or entered by the stop reset key therefore turn off the inverter p.239
• Chapter 5 error codes p.240
• 5 the inverter applied for 004 to 110l h will not accept reset commands input via the rs terminal or entered by the stop reset key p.240
• 4 the inverter will not accept the reset command entered from the digital operator therefore reset the inverter by turning on the rs p.240
• 3 the inverter will not accept reset commands input via the rs terminal or entered by the stop reset key therefore turn off the inverter p.240
• Therefore turn off the inverter power p.240
• Terminal p.240
• Chapter 5 error codes p.241
• When an option board is mounted in the optional port 1 located near the operator connector the error code display format is e6 on the digital operator or op1 on the remote operator when it is mounted in the optional port 2 located near the control circuit terminal block the error code display format is e7 on the digital operator or op2 on the remote operator 1 error indications by protective functions with the feedback option board sj fb mounted p.242
• Option boards error codes p.242
• Note if the option board does not operate normally confirm the dip switch settings on the option board functions of the dip switches on the feedback option board sj fb p.242
• Note for details refer to the instruction manual for the option board p.242
• Chapter 5 error codes p.242
• Name description display on digital p.243
• Input mode specified by switch settings note for details refer to the instruction manual for the option board p.243
• If timeout occurs during the communication between the inverter and digital option board the inverter will shut off its output and display the error code shown on the right p.243
• Functions of the dip and rotary switches on the digital option board sj dg functions of the dip and rotary switches on the digital option board sj dg p.243
• Error indications by protective functions with the digital option board sj dg mounted p.243
• Does not operate normally confirm the dip switch and rotary switch settings on the option board p.243
• Display on remote p.243
• Chapter 5 error codes p.243
• Sj dg error p.243
• Operator err1 p.243
• Operator p.243
• Op1 0 op2 0 p.243
• Note the input mode is determined by a combination of di switch and rotary switch settings if the option board p.243
• The left most switch indicates the highest order bit of mac id therefore the example of switch settings shown on the left indicates the following mac id p.244
• Setting of mac id dip switches no 3 to no 8 p.244
• Note if the option board does not operate normally confirm the dip switch settings on the option board functions of the dip switches on the devicenet option board sj dn setting of devicenet baud rate dip switches no 1 and no 2 p.244
• Note for details refer to the instruction manual for the option board p.244
• Mac id dip switch setting p.244
• Error indications by protective functions with the devicenet option board sj dn mounted p.244
• Dr1 dro p.244
• Dip switch setting p.244
• Chapter 5 error codes p.244
• Baud rate 125 kbps 250 kbps 500 kbps p.244
• 29 hexadecimal 41 decimal p.244
• Error indications by protective functions with the easy sequence function used p.245
• Chapter 5 error codes p.245
• 1 the error code is output when the relevant program runs p.245
• Trip conditions monitoring p.246
• Chapter 5 error codes p.246
• When the inverter is warning you can confirm the warning information d090 these parameters are checked even when the digital operator 02 is not specified for the frequency source setting a001 p.247
• When the inverter is warning it can not run to work the motor refer to the above column and modify the patramerters to the p.247
• Warning codes p.247
• The inverter displays a warning code when the data set as a target function code satisfies the condition specified in the p.247
• The following table lists the warning codes and the contents of parameter readjustments p.247
• Correct data p.247
• Condition column in relation to the data set as the corresponding basic function code p.247
• Chapter 5 error codes p.247
• This chapter describes the precautions and procedures for the maintenance and inspection of the inverter p.249
• Chapter 6 maintenance and inspection p.249
• Chapter 6 maintenance and inspection p.250
• Warning p.250
• Precautions for maintenance and inspection p.250
• Periodic inspection p.250
• Daily inspection p.250
• Cleaning p.250
• Daily and periodic inspections p.251
• Chapter 6 maintenance and inspection p.251
• Withstand voltage test p.252
• When testing an external circuit with a megger disconnect all the external circuit cables from the inverter to prevent it from being exposed to the test voltage use a tester in high resistance range mode for a conduction test on the control circuit do not use a megger or buzzer for that purpose apply the ground resistance test using a megger only to the main circuit of the inverter do not carry out the test using a megger for its control circuit use a 500 vdc megger for the ground resistance test before the main circuit test with a megger remove the jumper for switching the inverter s internal filter function and then connect terminals r s t u v w p pd n rb r0 and t0 by wires as shown in the figure below subsequently carry out the test after the test using the megger remove the wires from terminals r s t u v w p pd n rb r0 and t0 and connect the jumper for switching the inverter s internal filter function at the original position note that only inverter models with a capacity of less t p.252
• Ground resistance test with a megger p.252
• Do not carry out a withstand voltage test for the inverter the test may damage its internal parts or cause them to deteriorate p.252
• Chapter 6 maintenance and inspection p.252
• Note 2 when the measured terminal is nonconductive the tester reads a nearly infinite resistance the tester may not read the infinite resistance if the measured terminal flows a current momentarily under the influence of the smoothing capacitor p.253
• Method of checking the inverter and converter circuits p.253
• Checking method checking method measure the current conduction at each of the inverter s main circuit terminals r s t u v w rb p and n while switching the tester polarity alternately note 1 before checking the circuits measure the voltage across terminals p and n with the tester in dc voltage range mode to confirm that the smoothing capacitor has fully discharged electricity p.253
• Chapter 6 maintenance and inspection p.253
• You can check the quality of the inverter and converter circuits by using a tester preparation 1 remove the external power supply cables from terminals r t and t the motor cables from terminals u v and w and the regenerative braking resistor cables from terminals p and rb p.253
• When the measured terminal is conductive the tester reading is several ohms to several tens of ohms the when the measured terminal is conductive the tester reading is several ohms to several tens of ohms the measured values may vary slightly depending on the types of circuit devices and tester however if the values measured at the terminals are almost the same the inverter and converter circuits have adequate quality p.253
• Prepare a tester use the 1ω measuring range p.253
• Note 3 only inverter models with capacity of 22 kw or less have the brd circuit p.253
• Output of life warning p.254
• Dc bus capacitor life curve p.254
• Chapter 6 maintenance and inspection p.254
• Since the inverter output waveform is p.255
• Power supply p.255
• Notes 1 to measure the output voltage use an p.255
• Methods of measuring the input output voltages current and power p.255
• Method to measure the output voltage p.255
• Inverter p.255
• Instrument that reads the effective value of the fundamental wave to measure the current or power use an instrument that reads the effective value of full waves p.255
• Controlled by pwm it has a large margin of error especially at low frequencies in many cases general testers may be inapplicable for the measurement because of the adverse effect of noise p.255
• Chapter 6 maintenance and inspection p.255
• W 220 ｋ p.255
• This section describes the measuring instruments generally used to measure the input and output voltages output current and output power of the inverter p.255
• This chapter describes the specifications and external dimensions of the inverter p.257
• Chapter 7 specifications p.257
• Specifications p.258
• Rated output current a p.258
• Ct constant torque mode vt variable torque mode 1 specifications of the 200 v class model p.258
• Chapter 7 specifications p.258
• 3 common specifications of 200 v class and 400 v class models p.258
• 2 specifications of the 400 v class model p.258
• Chapter 7 specifications p.259
• 3 common specifications of 200 v class and 400 v class models continued p.259
• Chapter 7 specifications p.260
• 3 common specifications of 200 v class and 400 v class models continued p.260
• Chapter 7 specifications p.261
• Chapter 7 specifications p.262
• Chapter 7 specifications p.263
• Chapter 7 specifications p.264
• Precautions for data setting 8 1 p.265
• Monitoring mode 8 1 p.265
• Function mode 8 2 p.265
• Extended function mode 8 3 p.265
• Chapter 8 list of data settings p.265
• Please refer to the appropriate pages in this guide and the instruction manual for further details p.266
• Monitoring mode 8 monitoring mode with the default settings the initial display on the operator after powering on is always the output frequency monitor d001 to change the initial display content change the setting of the initial screen selection b038 as required p.266
• Important please be sure to set the motor nameplate data into appropriate parameters to ensure proper operation and protection of the motor p.266
• For example in case of 1 kw 400v class sj700d 015h 3 is described as ff fef or fuf p.266
• Even though the inverter is driving the motor you can change some parameters if you specify 10 for the p.266
• Chapter 8 list of data settings p.266
• B012 is the motor overload protection value a082 is the motor voltage selection h003 is the motor kw capacity h004 is the number of motor poles p.266
• Al 15 14 13 12 11 p.266
• 7 6 5 4 3 2 1 p.266
• Software lock mode selection b031 you can change some more parameters see the table below p.266
• Precautions for data setting 8 precautions for data setting ff fef and fuf are the parts of inverter model p.266
• Function mode p.267
• Chapter 8 list of data settings p.267
• Ff fef fuf p.268
• Extended function mode p.268
• Default p.268
• Code function name monitored data or setting p.268
• Chapter 8 list of data settings p.268
• Change during run operation page p.268
• 1 this setting is valid only when the ope sr is connected p.268
• Chapter 8 list of data settings p.269
• Chapter 8 list of data settings p.270
• Chapter 8 list of data settings p.271
• Chapter 8 list of data settings p.272
• Chapter 8 list of data settings p.273
• Chapter 8 list of data settings p.274
• Chapter 8 list of data settings p.275
• Chapter 8 list of data settings p.276
• Chapter 8 list of data settings p.277
• Chapter 8 list of data settings p.278
• Chapter 8 list of data settings p.279
• Not allowed p.280
• Indicate the setting range of 75 to 150kw p.280
• Function name monitored data or setting p.280
• Ff fef fuf b031 10 b031 10 p.280
• Default p.280
• Chapter 8 list of data settings p.280
• Change during run operation p.280
• Allowed allowed p.280
• 268435455 p.280
• Chapter 8 list of data settings p.281
• Upgrading from the sj300 series p.283
• Appendix p.283
• Appendix p.284
• Index 1 p.285
• Index 2 p.286
• Index 3 p.287
• Index 4 p.288