该页无缩略图
3：输出频率
·发生报警时所存档的当前输出频率。
4：输出电流
· 发生报警时所存档的当前输出电流。
5：日期/时间
·发生报警时所存档的当前日期/时间。
6.7 显示设置区
| 显示 | 名称 | 设定范围 | 出厂值 | 参数联动 | 运行中更改 |
| G7-01 | 参数初始化 | 0: 不使用1: G2区2: G3区3: G4区4: G5区5: G6区6: G7区7：全部初始化 | 0 | × | X |
| G7-02 | 年设定 | 0 | 22 | X | X |
| G7-03 | 月/日设定 | 1月1日 | 0 | × | X |
| G7-04 | 时间设定 | 0:00 | 0 | X | X |
| G7-05 | 锁屏功能 | 0:不使用 1:使用 | 0 | X | X |
| G7-06 | 软件版本 | 0.01 | 0.01 | X | X |
| G7-07 | 累积电量 kWh | 0~999999kWh | 0 | X | X |
| G7-08 | 通电时间 | 0~ 999999 h | 0 | X | X |
| G7-09 | 运行次数 | 0~999999（次） | 0 | X | X |
| G7-10 | 运行时间 | 0~999999 h | 0 | × | X |
| G7-11 | 报警累计次数 | 0~65535(次) | 0 | X | X |
| G7-12 | 变频器输出电压 | 0~400V | 0 | X | X |
6.7.1 显示设置区功能说明
1：参数初始化
对所有或者各功能区初始化。
| 设定值 | 设定范围 | ||
| 0(出厂值) | 0: 不使用 | 1: G2区 | 2: G3区 3: G4区 |
| 4: G5区 | 5: G6区 | 6: G7区 7：全部初始化 | |
2：年设定
当前年份设定。
| 设定值 | 设定范围 |
| 22（出厂值） | 0000 |
3：月/日设定
当前月份日期设定。
| 设定值 | 设定范围 |
| 01/01（出厂值） | 01/01 |
4：时间设定设定
当前时间设定。
| 设定值 | 设定范围 |
| 00:00（出厂值） | 00:00 |
5：锁屏功能
激活锁屏功能，解锁时需要组合键解锁，每次进入参数组都需要重新解锁。
| 设定值 | 设定范围 |
| 0(出厂值) | 0:不使用 1:使用 |
6：软件版本
显示当前软件版本。
| 设定值 | 设定范围 |
| 1.0 (出厂值) | 0.01 |
| 故障代码 | 故障内容 | 故障时是否自动复位 |
| Er-00 | 无报警 | |
| Er-02 | 出口传感器异常 | O |
| Er-03 | 出口传感器数量异常 | X |
| Er-04 | 出口压力过高 | O |
| Er-05 | 出口压力超高 | X |
| Er-06 | 出口压力过低 | O |
| Er-07 | 出口传感器压差大 | O |
| Er-08 | 进口探针低水位 | O |
| Er-09 | 进口传感器异常 | O |
| Er-10 | 进口水位过高 | O |
| Er-11 | 进口水位过低 | O |
| Er-12 | 进口压力过高 | O |
| Er-13 | 进口压力过低 | O |
| Er-14 | CAN通讯ID重复 | X |
| Er-15 | RS485通讯异常 | X |
| Er-16 | 辅泵数量过多 | X |
| Er-17 | 直流母线电压过高 | O |
| Er-18 | 直流母线电压过低 | O |
| Er-19 | 驱动器过热 | O |
| Er-20 | 驱动器过载 | O |
| Er-21 | 电机过电流 | O |
| Er-22 | 电机过热 | O |
| Er-23 | IGBT驱动IC故障 | X |
| Er-24: | 输出缺相 | X |
| Er-25 | 紧急停止 | X |
| Er-26 | 试用时间超过 | X |
| Er-27 | CAN通讯异常 | X |
| Er-28 | CAN_BPS设定异常 | X |
| Er-29 | 电流传感器故障 | X |
6.8.1 故障及警报解除方法
出现警报时键盘上显示警报内容。
·故障或报警时请到G6组查看故障信息。
·按“设置”键解除警报。
·自动解除警报并重启。没有满足警报解除条件时解除警报会再次有警报。
6.8.2 故障原因及措施
Er-02：出口传感器异常
原因：
· 传感器不良。
• 控制器不良。
• 传感器端子缺陷。
• 联动时未设置通信ID。
措施：
· 更换传感器。
• 更换控制器。
• 确认传感器端子缺陷，或传感器配置信息。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 信号参数G5 | 01 | 出口传感器模式 | 0(出厂值) | 0：不使用 1：出口压力传感器 |
Er-03：出口传感器数量异常
原因：
• 传感器配置错误。
• 联动时未设置通信ID。
措施：
• 确认出口传感器配置信息。
• 联动时设置通信ID。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 信号参数 G4 | 01 | CAN通信ID | 0（出厂值) | 0：单机模式1～6：联机模式 |
| 信号参数G5 | 01 | 出口传感器模式 | 0(出厂值) | 0：不使用 1：出口压力传感器 |
Er-04：出口压力过高
原因：
·运行中比设定压力高2bar，超过出口高压报警延时停止运行并警报显示在LCD画面上。
(试运行测试时有可能发生此现象)
措施：
·确认设定压力及警报级别。
·当前压力低于高压警报压力时控制器自动复位。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数 G3 | 01 | 出口高压报警偏差值 | 2（出厂值） | 0.5 ~ 3.0 bar 0.50 ~0.30 Mpa |
| 02 | 出口高压报警延时 | 5(出厂值) | 0 ~ 600 sec |
Er-05：出口压力超高
原因：
·运行中比设定压力高3bar运行时停止运行并警报显示在LCD画面上。
措施：
·确认设定压力及警报级别。
·无法自动复位，需人为手动复位
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数 G3 | 03 | 出口超高压报警绝对值 | 3(出厂值) | 16.0 bar |
Er-06：出口压力过低
原因：
·当运行在实际压力低于低压警报级别时警报。
警报后过了“故障恢复时间”后再次启动。超过“报警恢复次数”时为了保护控制器，控制器将会不再重启。
措施：
·确认水箱（蓄水池）水量是否充分。
·确认水泵是否有空气。
·开放气口确认是否有流水。
·按“设置”键解除警报并按RUN键启动水泵。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数 G3 | 04 | 出口低压报警值 | 0.5 bar（出厂值） | 0~25.0 bar |
| 05 | 出口低压判断台数 | 1 (出厂值) | 1~6台 | |
| 06 | 出口低压报警延时 | 20(出厂值) | 0~600 sec |
Er-07：出口传感器压差大
原因：
·出口传感器1和出口传感器2采样值相差一定数值时出发报警。
措施：
·确认2个出口传感器采样值。
·更换出口传感器。
·确认出口传感器参数。
·按“设置”键解除警报并按RUN键启动水泵。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数G3 | 19 | 出口压力传感器诊断 | 0(出厂值) | 0：不使用 1：使用 |
| 信号参数G5 | 03 | 出口传感器最大值 | 16.0 bar（出厂值）1.60 Mpa(出厂值） | 0 ~ 45.0 bar 0 ～ 4.50 Mpa |
Er-08：进口探针低水位
原因：
·低水位端子断开导致触发故障。
·内部端子损坏。
措施：
·确认低水位线路是否断联。
·更换控制板。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数 G3 | 07 | 低水位探针检测 | 0 | 0：不使用 1：使用 |
| 信号参数 G5 | 08 | 低水位探针延时 | 3(出厂值) | 0 ~ 600 sec |
Er-09：进口传感器异常
原因：
· 传感器不良。
• 控制器不良。
• 传感器端子缺陷。
措施：
· 更换传感器。
• 更换控制器。
• 确认传感器端子缺陷，或传感器配置信息。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 信号参数G5 | 06 | 进口传感器模式 | 0(出厂值) | 0：不使用 1：进口压力传感器2：进口水位传感器 |
Er-10：进口水位过高
原因：
·进口水位高于报警值。
·传感器损坏。
措施：
·更换传感器。
·确认进口水位报警级别。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数 G3 | 17 | 进口高水位报警值 | 5.0(出厂值） | 进口传感器最小值～最大值 |
| 18 | 进口高水位报警延时 | 5(出厂值) | 0 ~ 600 sec |
Er-11：进口水位过低
原因：
·进口水位低于报警值。
·传感器损坏。
措施：
·更换传感器。
·确认进口水位报警级别。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数 G3 | 14 | 进口低水位报警值 | 0.6(出厂值) | 进口传感器最小值～最大值 |
| 15 | 进口低水位报警延时 | 5(出厂值) | 0 ~ 600 sec |
Er-12：进口压力过高
原因：
• 进口压力高于报警值。
·传感器损坏。
措施：
· 更换传感器。
• 确认进口压力报警级别。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数 G3 | 12 | 进口高压报警值 | 16.0(出厂值） | 进口传感器最小值~最大值 |
| 13 | 进口高压报警延时 | 5(出厂值) | 0 ~ 600 sec |
Er-13：进口压力过低
原因：
• 进口压力低于报警值。
·传感器损坏。
措施：
· 更换传感器。
• 确认进口压力报警级别。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 保护参数G3 | 09 | 进口低压报警值 | 0.3（出厂值） | 进口传感器最小值～最大值 |
| 10 | 进口低压报警延时 | 5(出厂值) | 0 ~ 600 sec |
Er-14：CAN通讯ID重复
原因：
·CAN通信线连接不良。
·控制器CAN通信IC不良。
措施：
·确认CAN通信连接状态。
·更换控制器
Er-15：RS485通讯异常
原因：
·在通讯时，出现异常数据流触发故障。
措施：
·数据流正常后解除只报警提示。
Er-16：辅泵数量过多
原因：
·在系统中只允许最大辅泵数量为2台G4-14(水泵类型) 超过2台触发。
措施:
·需要合理设定辅泵数量（只运行设置最多2台）。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 驱动参数 G4 | 14 | 水泵类型 | 1 (出厂值) | 1：主泵 2：辅泵 |
Er-17：直流母线电压过高
原因：
· 电源电压高时。
·连接到比电源电压大的负荷时。
措施:
· 检查控制器输入电压。
·确认电源容量。
注：请在参数表里确认 DC Link电压G0-05。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 驱动参数 G4 | 13 | 减速时间 | 6(出厂值) | 0 ~ 600 sec |
Er-18：直流母线电压过低
原因：
·电源电压低时。
·连接到比电源电压小的负荷时。
措施：
· 检查控制器输入电压。
·确认电源容量。
注：请在参数表里确认 DC Link电压G0-05。
Er-19：驱动器过热
原因：
·变频器温度过高。
·风扇损坏。
·温度传感器损坏。
措施：
·检查控制器风扇是否堵转，更换风扇。
·更换温度探头。
Er-20：驱动器 过载
原因：
·负荷比控制器额定容量大时。
措施：
·请使用容量比负荷大的控制器。
·确认驱动器过载保护报警级别。
Er-21：电机 过电流
原因：
·电机实际运行电流与额定电流比较后根据不同级别进行报警。
措施：
·确认电机额定电流(铭牌)，确认设定的电机额定电流。
注：在主界面确认输出电流。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 驱动参数G4 | 06 | 电机额定电流 | 14.5（出厂值） | 0.0 ~ 99.0 A |
| 15 | 电机过流报警值 | 110%（出厂值） | 50 ~ 200 % | |
| 16 | 电机过流报警延时 | 60 sec | 0 ~ 200 sec |
Er-22：电机 过热
原因：
·加减速时间短时。
·电机在 Free Run 状态下重启时。
·电机损坏。
措施:
·调整加减速时间。
·确认控制器容量是否跟电机容量匹配。
· 检查负荷，电机，输出排线。
·出现同样警报时请咨询运维服务部。
Er-23：IGBT驱动IC故障
原因：
·加减速时间过短。
·IGBT短路。
· 输出短路。
·电机损坏，绝缘缺陷。
措施：
· 扩大加速时间。
·确认是否是电机损坏，绝缘情况。
·控制器中分离电机线并测试，若出现同样警报的话有可能是IGBT短路，此类现象咨询运维服务部。
| 功能区 | 序号 | 名称 | 设定值 | 设定范围 |
| 驱动参数 G4 | 12 | 加速时间 | 10(出厂值） | 0 ~ 600 sec |
Er-24：输出缺相
原因：
· 输出排线不良。
·输出端子解除不良。
措施：
· 确认输出排线。
·确认输出端子解除状态。
Er-25：紧急停止
原因：
·因外部信号而出现的警报。
措施：
·确认外部信号端。
Er-26：试用时间超过
原因：
·试用时间超过允许值。
措施：
·此类现象咨询运维服务部。
Er-27：CAN通讯异常
原因：
· CAN通讯异常时触发故障。
措施：
·通讯正常后解除故障。
Er-28：CAN通讯速度设定异常
原因：
·CAN通讯速度设定异常。
措施:
·CAN通讯速度设定异常，修改通讯速度入网后解除故障。
Er-29：电流传感器故障
原因：
· 电流传感器输出异常时触发报警。
措施：
· 断电重启是否解除。
·咨询运维服务部。
6.9 RS485通信
采用电子工业协会(EIA)的通信标准。
| 项目 | 规格 |
| 协议 | MODBUS RTU通信协议 |
| 通信距离 | 500米(推荐距离) |
| 通信方式 | 2线半双工,可多台 |
| 通信速度 | 2400,4800,9600,19200,38400bps |
| 校验位 | 无,偶校验，奇效验 |
| 数据长度 | 8位 |
| 停止位 | 1位,2位 |
| 通信代码 | 二进制 |
6.10 MODBUS RTU通信协议
1、数据格式
遵循主机发送命令，从机返回相应的原则。
1) 命令帧
| (1) | (2) | (3) | (4) | (5) | (6) |
| 3.5个字符停顿 | 从机地址(变频器）(1个字节) | 功能码(1个字节) | 数据区域 | CRC-16校验码(2个字节) | 3.5个字符停顿 |
(1)3.5字符时间以上的停顿。
(2)从机地址（变频器）范围：1～250。
(3) 功能码：
| 功能代码 | 功能码类型 | 说明 |
| 03H | 读 | 读取指定地址内的数据，一次可以读取一个或多个 |
| 10H | 写 | 向指定地址内写入数据，一次可以写入一个或多个 |
| 06H | 写 | 向指定地址内写入数据，一次只能写入一个 |
(4)数据区域：存放功能码所需的数据。
(5) CRC-16校验码。
| 地址 | 参数编号 | 名称 | 指令 | 小数点 | 范围 | 内容 | ||
| 类型 | 运行时停 | 机时 | ||||||
| 运行参数 | ||||||||
| 1000 | GO-01 | 测量压力 | R | R | R | 1 | 0~450 | 0~45.0(bar)0~4.50(Mpa) |
| 1001 | G0-02 | 设定压力 | R/W | R/W | R/W | 1 | 0~450 | 0~45.0(bar)0~4.50(Mpa) |
| 1002 | G0-07 | 进口压力 | R | R | R | 1 | 0~500 | -5.0~45.0(bar)-0.50~4.50(Mpa) |
| 1003 | G0-08 | 进口水位 | R | R | R | 1 | 0~500 | 0.0~5.0M |
| 1004 | Null | 系统状态 | R | R | R | 1 | 0~3 | 0：STOP（所有停止）1：RUN（哪怕一台有频率输出）2：READY（所有待机）3：Fault(有故障时故障) |
| 1005 | Null | 系统模式 | R | R | R | 1 | 0~1 | 0：自动1：手动 |
| 1006 | Null | 主机故障信息 | R | R | R | 0~26 | Trip 内容0~29 | |
| 1007 | Null | 运行指令 | W | W | W | 0 | 0~0x3F | Bit15-Bit0Bit15-Bit12 备用Bit11,10:6变频器，00停机,10待机，01运行Bit9,8:5变频器，00停机,10待机，01运行Bit7,6:4变频器，00停机,10待机，01运行Bit5,4:3变频器，00停机,10待机，01运行Bit3,2:2变频器，00停机,10待机，01运行Bit1,0:1变频器，00停机,10待机，01运行 |
| 运行参数 | ||||||||
| 1000 | Null | 变频器配置 | R | R | R | 1 | 0~5 | 低字节：bit0-5：主泵配置，(对应ID1~6变频器)高字节：bit0-5：辅泵配置，(对应ID1~6变频器) |
| 1009 | G0-03 | P1 输出频率 | R/W | R/W | R/W | 0 | 0~60 | 在自动模式时只允许读在手动模式时可允许读写 |
| 1010 | P2 输出频率 | R/W | R/W | R/W | 0 | 0~60 | ||
| 1011 | P3 输出频率 | R/W | R/W | R/W | 0 | 0~60 | ||
| 1012 | P4 输出频率 | R/W | R/W | R/W | 0 | 0~60 | ||
| 1013 | P5 输出频率 | R/W | R/W | R/W | 0 | 0~60 | ||
| 1014 | P6 输出频率 | R/W | R/W | R/W | 0 | 0~60 | ||
| 1015 | G0-04 | P1 输出功率 | R | R | R | 1 | 0.0~100.0 | 单位： kW |
| 1016 | P2 输出功率 | R | R | R | 1 | 0.0~100.0 | ||
| 1017 | P3 输出功率 | R | R | R | 1 | 0.0~100.0 | ||
| 1018 | P4 输出功率 | R | R | R | 1 | 0.0~100.0 | ||
| 1019 | P5 输出功率 | R | R | R | 1 | 0.0~100.0 | ||
| 1020 | P6 输出功率 | R | R | R | 1 | 0.0~100.0 | ||
| 1021 | G0-05 | P1 直流电压 | R | R | R | 0 | 0~1000 | 单位：V |
| 1022 | P2 直流电压 | R | R | R | 0 | 0~1000 | ||
| 1023 | P3 直流电压 | R | R | R | 0 | 0~1000 | ||
| 1024 | P4 直流电压 | R | R | R | 0 | 0~1000 | ||
| 1025 | P5 直流电压 | R | R | R | 0 | 0~1000 | ||
| 1026 | P6 直流电压 | R | R | R | 0 | 0~1000 | ||
| 1027 | G0-06 | P1 输出电流 | R/W | R/W | R/W | 1 | 0.0~99.9 | 单位：A |
| 1028 | P2 输出电流 | R/W | R/W | R/W | 1 | 0.0~99.9 | ||
| 1029 | P3 输出电流 | R/W | R/W | R/W | 1 | 0.0~99.9 | ||
| 1030 | P4 输出电流 | R/W | R/W | R/W | 1 | 0.0~99.9 | ||
| 1031 | P5 输出电流 | R/W | R/W | R/W | 1 | 0.0~99.9 | ||
| 1032 | P6 输出电流 | R/W | R/W | R/W | 1 | 0.0~99.9 | ||
| 1033 | Null | 变频器1状态 | R | R | R | 0 | 0~2 | 0:停机1:运行2:待机 |
| 1034 | 变频器2状态 | R | R | R | 0 | 0～2 | ||
| 1035 | 变频器3状态 | R | R | R | 0 | 0~2 | ||
| 1036 | 变频器4状态 | R | R | R | 0 | 0~2 | ||
| 1037 | 变频器5状态 | R | R | R | 0 | 0~2 | ||
| 1038 | 变频器6状态 | R | R | R | 0 | 0~2 | ||
| 1039 | Null | P1 变频器输出电压 OV | R | R | R | 0 | 0~500 | 单位： V |
| 1040 | P2 变频器输出电压 OV | R | R | R | 0 | 0~500 | ||
| 1041 | P3 变频器输出电压 OV | R | R | R | 0 | 0~500 | ||
| 1042 | P4 变频器输出电压 OV | R | R | R | 0 | 0~500 | ||
| 1043 | P5 变频器输出电压 OV | R | R | R | 0 | 0~500 | ||
| 1044 | P6 变频器输出电压 OV | R | R | R | 0 | 0~500 | ||
| 1045 | Null | P1 报警累计次数 | R | R | R | 0 | 0~65535 | Null |
| 1046 | P2 报警累计次数 | R | R | R | 0 | 0~65535 | ||
| 1047 | Null | P3 报警累计次数 | R | R | R | 1 | 0~65535 | 单位：A |
| 1048 | P4 报警累计次数 | R | R | R | 1 | 0~65535 | ||
| 1049 | P5 报警累计次数 | R | R | R | 1 | 0~65535 | ||
| 1050 | P6 报警累计次数 | R | R | R | 1 | 0~65535 | ||
| 1051 | Null | P1 累积电量H | R | R | R | 0 | 0~999999 | 单位：kWh |
| 1052 | P1 累积电量L | R | R | R | 1 | |||
| 1053 | P2 累积电量H | R | R | R | 0 | 0~999999 | ||
| 1054 | P2 累积电量L | R | R | R | 1 | |||
| 1055 | P3 累积电量H | R | R | R | 0 | 0~999999 | ||
| 1056 | P3 累积电量L | R | R | R | 1 | |||
| 1057 | P4 累积电量H | R | R | R | 0 | 0~9999990~999999 | ||
| 1058 | P4 累积电量L | R | R | R | 1 | |||
| 1059 | P5 累积电量H | R | R | R | 0 | |||
| 1060 | P5 累积电量L | R | R | R | 1 | |||
| 1061 | P6 累积电量H | R | R | R | 0 | 0~999999 | ||
| 1062 | P6 累积电量L | R | R | R | 1 | |||
| 1063 | Null | P1 通电时间 H | R | R | R | 0 | 0~999999 | 单位：小时 |
| 1064 | P1 通电时间 L | |||||||
| 1065 | P2 通电时间 H | R | R | R | 0 | 0~999999 | ||
| 1066 | P2 通电时间 L | |||||||
| 1067 | Null | P3 通电时间 H | R | R | R | 0 | 0~999999 | 单位：小时 |
| 1068 | P3 通电时间 L | |||||||
| 1069 | P4 通电时间 H | R | R | R | 0 | 0~999999 | ||
| 1070 | P4 通电时间 L | |||||||
| 1071 | P5 通电时间 H | R | R | R | 0 | 0~999999 | ||
| 1072 | P5 通电时间 L | |||||||
| 1073 | P6 通电时间 H | R | R | R | 0 | 0~999999 | ||
| 1074 | P6 通电时间 L | |||||||
| 1075 | Null | P1 运行次数 H | R | R | R | 0 | 0~999999 | Null |
| 1076 | P1 运行次数 L | |||||||
| 1077 | P2 运行次数 H | R | R | R | 0 | 0~999999 | ||
| 1078 | P2 运行次数 L | |||||||
| 1079 | P2 运行次数 L | R | R | R | 0 | 0~999999 | ||
| 1080 | P3 运行次数 L | |||||||
| 1081 | P4 运行次数 H | R | R | R | 0 | 0~999999 | ||
| 1082 | P4 运行次数 L | |||||||
| 1083 | P5 运行次数 H | R | R | R | 0 | 0~999999 | ||
| 1084 | P5 运行次数 L | |||||||
| 1085 | P6 运行次数 H | R | R | R | 0 | 0~999999 | ||
| 1086 | P6 运行次数 L | |||||||
| 运行参数 | ||||||||
| 1087 | Null | P1 运行时间 H | R | R | R | 0 | 0~999999 | 单位：小时 |
| 1088 | P1 运行时间 L | |||||||
| 1089 | P2 运行时间 H | R | R | R | 0 | 0~999999 | ||
| 1090 | P2 运行时间 L | |||||||
| 1091 | P3 运行时间 H | R | R | R | 0 | 0~999999 | ||
| 1092 | P3 运行时间 L | |||||||
| 1093 | P4 运行时间 H | R | R | R | 0 | 0~999999 | ||
| 1094 | P4 运行时间 L | |||||||
| 1095 | P5 运行时间 HP5 运行时间 L | R | R | R | 0 | 0~999999 | ||
| 1096 | ||||||||
| 1097 | P6 运行时间 HP6 运行时间 L | R | R | R | 0 | 0~999999 | ||
| 1098 | ||||||||
MEMO
产品保证书
保证本产品是根据本公司严格的质量管理，检验测试的合格产品。
自购买之日起一年以内因产品本身的质量问题出现故障时按照保证规定无条件维修及更换。
| 品名 | NSQ Drive II / T | 保修期 | 1年 |
| 型号 | 购买日期 | 年 月 日 | |
| 经销商 | 有效期 | 年 月 日 | |
| 地址 | 电话 |
保证规定：
1. 产品出现故障时，自购买之日起1年内免维修费，请与经销商或本公司售后服务部联系。
2. 保质期内出现下列情况时，不在免维修费范围之内。
・使用者使用不当引起的故障（未按使用说明书操作）。
·在本公司指定的地点以外维修、改造、拆除引起的故障。
·火灾等自然灾害引起的故障。
·保管不当而引起的故障(高温、潮湿或有有机物的场所)。
·没有本保证书时。
·经销商及购买日期涂改时。
·配件、消耗品不列为保修范围。
·因本司产品故障而引起的损失，本公司不承担责任。
注意事项：
1. 本保证书保证根据以上的保证规定无偿或有偿维修，但不是法律上限制顾客的权力。
2. 如对保证书的内容有疑问时请与经销商或本公司售后服务中心联系。
3.保证书上请登记好经销商及采购年月日。
4. 本保证书遗失不补，请妥善保管。
上海中韩杜科泵业制造有限公司
地址：上海市青浦区练塘工业区章练塘路239号
电话：+86.21.67679390传真：+86.21.67679396
NSQ Drive II/T
dooch
DOOCH CO., LTD.
上海中韩杜科泵业制造有限公司
地址：上海市青浦区练塘工业区章练塘路239号
电话：+86.21.67679390传真：+86.21.67679396
全国统一服务热线：400-622-6271
www.doochpump.com.cn
Content
Safety precautions 1
Chapter 1 Precautions before use
1.1 Confirm the product nameplate content 5
1.2 Product form 5
1.3 Installation recommendations 6
1.4 Cable arrangement precautions 6
Chapter 2 Specifications
2.1 Product Specifications (3-phase) 7
Chapter 3 Dimensions
3.2 NSQ-0075T\~ NSQ-0400T 8
3.3 NSQ-0550T\~NSQ-0750T 9
3.4 NSQ-1100T \~ NSQ-2200T 10
Chapter 4 Installation
4.1 Installation notes 11
4.2 Terminal wiring diagram 12
4.3 Main power circuit wiring 13
4.3.1 Main circuit wiring instructions 13
4.3.2 Precautions when wiring the main power supply 13
4.3.3 Grounding cable wiring precautions 13
4.3.4 Recommended wire and terminal screw specifications 14
4.4 Control circuit wiring 15
4.4.1 Control terminal block arrangement 15
4.4.2 Control terminal block function table (3-phase) 16
4.4.3 Precautions when wiring the control circuit 17
4.4.4 Pressure sensor and low water level sensor connection 17
Content
Chapter 5 Operation
5.2 NSQ-T operation interface 18
5.1.1 Parameter setting interface 19
5.1.2 Running status interface 20
5.2 NSQ-II operation interface. 21
5.2.1 Appearance and description. 21
5.2.2 Functional description of each part. 22
5.2.3 Parameter setting change method 24
5.2.4 Basic parameters setting. 24
Chapter 6 Function Table and Description
6.1 Status indication 26
6.2 Pump control area 27
6.2.1 Pump control area function description 28
6.3 Parameter protection area 31
6.3.1 Function description of parameter protection area 32
6.4 Drive parameter area 37
6.4.1 Function description of drive parameter area 38
6.5 Signal parameter area 42
6.5.1 Signal parameter area function description 42
6.6 Fault log parameter area 45
6.6.1 Function description of fault log parameter area 46
6.7 Display settings area 48
6.7.1 Function description of display setting area 48
6.8 List of protective functions 50
6.8.1 Faults and alarm release methods 51
6.8.2 Causes and measures of failure 51
6.9 RS485 Communication 59
6.10 MODBUS RTU Communication Protocol 59
Foreword
Thank you for using the Dooch NSQ series digital integrated frequency converter.
NSQ series digital integrated frequency conversion controller is a product developed to meet the requirements of water pump frequency conversion drive and logic control.
Dooch provides power protection and application functions required for pump operation.
This product can be installed on the outer wall of the water pump motor or hung in other spatial locations.
Please read the instructions carefully before using this product.
Safety precautions
Safety precautions are measures to prevent possible dangers and ensure safe use.
The instruction manual will have a "Warning, Caution" sign.
This symbol is to prevent user operation errors.
Please understand the safety precautions and read the instructions before using the controller.
Please keep the instruction manual where you can see it.
 | Warning : Potentially dangerous situations and failure to display instructions may result in malfunctions or serious accidents, even affecting personal safety. |
 | Caution : Potentially dangerous situations may occur and instructions may not be displayed, resulting in product damage and property loss. |
• Do not open the cover of the controller while it is running or receiving power. (High voltage terminals or DC capacitors exposed may cause electric shock)
• Except for checking the cables, do not open the controller cover even if there is no power supply.
(Even if the power supply is disconnected, the capacitor still has residual power)
A WARNING
•When checking or wiring, cut off the power supply for more than ten minutes and then use a voltage meter to measure whether the controller is fully discharged. (There is a possibility of electric shock. Please operate below DC30V)
• If the skin of the input and output wires of the controller is damaged, do not connect the power supply. (Possible electric shock)
• Do not place heavy objects on the power cord or sensor cord. (Damage to the cord surface may cause electric shock)
• Do not place near flammable gases. (To prevent fire, do not place near flammable materials or combustible substances)
•Cut off power supply when the controller fails. (Secondary fire will occur if the power is not cut off)
A CAUTION
• Do not touch the controller while it is connected to the power supply or within a few minutes after it is disconnected from the power supply. (The stopped controller is still at high temperature, please do not get burned)
• If the product or accessories are damaged, do not connect them to the power supply even after installation.
• Avoid screws, metal materials, water, toxic and corrosive substances in the controller. (It may cause fire)
Precautions during use
A. Transportation and setup
Take appropriate handling methods according to weight.
Do not stack under heavy objects.
Connect according to the instructions.
Do not open the cover during transportation.
Do not place heavy objects on the controller.
The setting direction is mainly based on the instructions.
The product is a precision instrument, please do not knock or drop it.
In winter and when it is not used for a long time at low temperatures, please drain the water in the water pump.
Suitable for the following conditions.
| Usage Environment | No corrosive gas, flammable gas, waste residue, smoke and dust |
| Temperature / Humidity | -10 ~ 40℃ / below 90% RH (no dew) |
| Storage temperature | -20~65℃ |
| Elevation / Vibration | Altitude below 1000m / 5.9m/sec² ( = 0.6g) or less(loss should be considered for the part exceeding this altitude) |
| Ambient air pressure | 70~106 kpa |
B. Wiring
Install the controller before wiring.
Wiring or inspection is performed by specialized staff.
Install phase-advancing capacitors and power filters at the output end of the controller.
Correctly install the power input line and motor output line.
Incorrect line connection may damage the machine.
Please use a molded case circuit breaker.
Disable the leakage circuit breaker at the power input.
If you have any questions or abnormalities, please consult the factory or dealer.
C. Pre-startup confirmation
Confirm the parameter settings before starting, and set the parameters according to the rated parameters of the pump and the surrounding environment.
The main power supply and loop lines shall be connected in accordance with the specified method.
Please use the pressure sensor and low water level sensor provided by our company.
D. Operation
●The automatic restart and reset after power failure functions have been set at the factory. If the controller stops due to a fault system alarm or a power failure during operation, it can automatically restart.
Do not modify the internal parts of the machine without authorization.
Do not use an electronic breaker (M/C) as a switch.
Please use electromagnetic compatibility filters to reduce electronic interference and protect other electronic components around the controller. Please install a reactor when the voltage is unstable. The high frequency emitted by the controller will cause the phase capacitor and motor to overheat and be damaged.
When driving a 400V motor with a controller, please use a motor with good insulation performance or take measures to suppress the sharp rise in voltage.
Please set the necessary parameters after initialization to return to factory settings.
E. Handling matters for malfunctions and abnormalities
To prevent the system from failing to operate due to a malfunction, please install an auxiliary system.
Please refer to Chapter 7 when the controller fails.
F. Repair and Inspection
Please do not test the insulation resistance of the controller circuit.
G. Abandonment
Dispose of as general waste.
1. Precautions before use
1.1 Confirmation of product nameplate content
After receiving the product, please confirm the controller model and rated power indicated on the nameplate on the side of the product, and check whether there is any damage during transportation.
If you have any questions or find any abnormalities, please consult the factory or dealer.
Nameplate
Model :NSQ-0550T /0750T□
Input : 3Phase 50Hz / 60Hz
: 380V\~440V
Output : 3Phase 0\~480Hz
380V\~440V 12A□16A□
Serial No.: C- SD05/07T0001CCM
DOOCH CO., LTD.
www.doochpump.com.cn Made in China
Controller Model
Controller input power parameters
Controller output power parameters
Factory number
1.2 Product Model
Frequency conversion controller type (Il: digital tube, T: touch screen)
The product model is in the same format as above. The first digit is the capacity of the drive, expressed as 00.00kW, with the ecimal point omitted.
“T”: The input voltage is three-phase power.
1.3 Installation Recommendations
Considering the life and performance of the controller, please install and use it in an environment that meets the requirements
1.4 Precautions for wiring
Please connect the power line and motor connection line to the power terminal, and connect the control signal line to the control terminal. If the connection is incorrect, the
2.1 Product Specifications (Three-phase)
| Model NSQ- T | Standard Models | ||||||||||
| 0075 | 0150 | 0220 | 0400 | 0550 | 0750 | 1100 | 1500 | 1850 | 2200 | ||
| Standard motor [kW] | 0.75 | 1.5 | 2.2 | 4 | 5.5 | 7.5 | 11 | 15 | 18.5 | 22 | |
| Standard motor [HP] | 1 | 2 | 3 | 5.5 | 7.5 | 10 | 15 | 20 | 25 | 30 | |
| Rated output | Output Power [kVA] | 2 | 2.6 | 4 | 5.9 | 7.9 | 10.5 | 15.8 | 19.7 | 25.7 | 29.6 |
| Rated output current [A] | 3 | 4 | 6 | 9 | 12 | 16 | 24 | 30 | 39 | 45 | |
| Output voltage [V] | Three-phase 380 ～ 440 | ||||||||||
| Output frequency [Hz] | 0~480 | ||||||||||
| inputRated | Input rated voltage [V] | Three-phase 380 ~ 440 | |||||||||
| Input frequency [Hz] | 50/60 | ||||||||||
| Protection level | IP55 | ||||||||||
| Switching frequency [kHz] | 5~16 | ||||||||||
| Cooling method | Fan Cooling | ||||||||||
| Control | Control method | V/F control, SVC control | |||||||||
| Frequency accuracy | 1% of rated frequency | ||||||||||
| Overload | 120% 1 point | ||||||||||
| Add torque | Add torque (0 ～ 10%) | ||||||||||
| Operation | Operation method | Keyboard / Terminal / Communication (CAN) | |||||||||
| Frequency setting method | Keyboard /Terminal (0~10V or 4~20mA) / Communication (CAN) | ||||||||||
| Acceleration anddeceleration time | 1 ~ 600 sec. | ||||||||||
| Abnormal reset | Automatic reset with automatic restart | ||||||||||
| signalOutput | Alarm status | Output wiring (FLT-AT,CT), LED output | |||||||||
| Running status | Output wiring (RUN-AT,CT), LED output | ||||||||||
| Other functions | Pump antifreeze function, power failure reset, high/low pressure alarm, low water levelalarm, Multi-unit linkage function, fault storage function, forced alternating operation,PID control, stable frequency operation function, No flow sensor function | ||||||||||
| Protection functions | High voltage, low voltage, over current, grounding, overload, controller | ||||||||||
| Display | Controller alarm | Output frequency, actual pump pressure, set pump pressure, DC voltage, output current,output and input pressure (when differential pressure control) | |||||||||
| Abnormal alarm | Pressure sensor abnormality | ||||||||||
| EnvironmentUsage | Installation Environment | Altitude below 1,000m, no corrosive gases, flammable gases, or dust | |||||||||
| Ambient temperature | -10℃~40℃ | ||||||||||
| Storage temperature | -20℃~60℃ | ||||||||||
| Ambient humidity | Relative humidity: below 90% RH (prevent dew) | ||||||||||
3. Dimensions
3.1 NSQ-0075T \~ NSQ-0400T
NSQ-0075 T, 0150 T, 0220 T, 0400 T have the same dimensions.
NSQ-0075 T，0150 T，0220 T heat shield without fan.
NSQ-0400T heat shield has fans.
Consists of 3 PG7 and 2 PG13.5.
3.2 NSQ-0550T\~ NSQ-0750T
NSQ-0550T, 0750T have the same dimensions.
Consists of 2 PG7, 1 PG11, and 2 PG21.
3.3 NSQ-1100T \~ NSQ-2200T
NSQ-1100 T,2200 T have the same dimensions.
Consists of 2 PG7, 1 PG11, and 2 PG29.
4. Installation
4.1 Things to note during installation
Precautions during installation or transportation
The controller is composed of precision components, so please install or transport it carefully to avoid damage.
Be careful when installing in a vibrating environment.
Take vibration reduction measures when installing directly on the motor or pipeline.
Notes on ambient temperature
The ambient temperature has a great impact on the life and function of the controller. The ambient temperature cannot exceed (-10\~40°C). If used in a high temperature environment, please reduce the output current
Notes on ambient temperature
The ambient temperature has a great impact on the life and function of the controller.
The ambient temperature cannot exceed (-10\~40°C). If used in a high temperature environment, please reduce the output current
Please install it on flame-resistant/non-combustible materials
Since the controller will generate high temperature when in operation, please install it on flameresistant or non-combustible materials
Requirements for installation space during installation
The controller is a heat source, so in order to ensure its heat dissipation effect, the side with the cooling fan must be installed at the bottom. And in order to improve the performance of the cooling fan, please ensure that there is enough space around the product.
Please make sure to install it firmly and vertically when installing.
Please use screws or bolts to make the controller secure and vertically mounted.
4.2 Terminal wiring diagram (Three-phase)
Main power circuit diagram
4.3 Main power circuit wiring
4.3.1 Main circuit wiring
Three-phase
| FG | R | S | T | U | V | W | FG |
| Terminal Number | Terminal Name | Terminal Description |
| R, S, T | AC current input | Connect to normal AC power supply |
| FG | Grounding | Controller shell ground terminal |
| U, V, W | Controller output | Connect motor |
4.3.2 Things to note when wiring the main power supply
Make sure the controller has been discharged to below DC 30V before wiring.
A circuit breaker (MCCB) must be installed between the AC input power supply and the controller power input terminals (R, S, T). The capacity of the circuit breaker (MCCB) must be greater than 1.5\~2 times the rated current of the controller.
The input power supply and the controller input terminals (R, S, T) can be connected arbitrarily (regardless of the phase sequence), but the controller output terminals (U, V, W) must be connected to the motor in the correct phase sequence considering the motor rotation direction. When you need to change the direction of motor rotation, just change any two of the three phases at the controller output, or modify the inverter parameters.
Please do not short-circuit or ground the controller output terminals (U, V, W). Shortcircuiting or grounding the output terminals will damage the controller and may cause personal injury accidents.
Please do not connect capacitors or filters to the output of the controller. Connecting capacitors or filters may cause the controller to malfunction or damage the capacitors and filters.
The input and output ends of the controller should be connected with power cords of correct thickness. Using a power cord that is too thin may result in reduced output power and may result in a fire due to overheating
Please ensure that the length of the connection line between the controller and the motor is within 50m. If the connection line is longer than 50m, you need to use an insulation-reinforced motor or a micro surge protection filter.
4.3.3 Things to note when grounding wiring
The controller may have leakage when it is running, so the controller must have grounding measures to prevent leakage.
The grounding resistance should be less than 10ù during grounding.
The grounding wire must be a special grounding wire of specified thickness.
4.3.4 Recommended wire and terminal screw specifications
Three-phase
| ControllerCapacity | Terminal Screw | Nut TighteningTorque(N.m) | Cable thickness(not lower than the following specifications) | ||
| mm²(AWG) | |||||
| R, S, T | U, V, W | FG | |||
| 0.75kW | M4 | 1.2~1.5 | 2(14) | 2(14) | 2(14) |
| 1.5kW | M4 | 1.2~1.5 | 2(14) | 2(14) | 2(14) |
| 2.2kW | M4 | 1.2~1.5 | 3.5(12) | 3.5(12) | 2(14) |
| 4kW | M4 | 1.2~1.5 | 3.5(12) | 3.5(12) | 3.5(12) |
| 5.5kW | M5 | 2.5 | 5.5(10) | 5.5(10) | 5.5(10) |
| 7.5kW | M5 | 2.5 | 5.5(10) | 5.5(10) | 5.5(10) |
| 11kW | M6 | 4~5 | 8(8) | 8(8) | 8(8) |
| 15kW | M6 | 4~5 | 8(8) | 8(8) | 8(8) |
| 18.5kW | M6 | 4~5 | 14(6) | 14(6) | 14(6) |
| 22kW | M6 | 4~5 | 22(4) | 22(4) | 14(6) |
Loose nuts can cause erroneous operation of the controller, and tightening them can damage the nut holes.
Use 600V grade wires.
4.4 Terminal wiring diagram
4.4.1 Control Terminal Arrangement
0.75kW\~ 22kW (Three-phase)
| Classification | Terminal Number | Name | Description | |
| Input Signal | Controlfunction | S1+ S1- | Pressure sensor 1 | Pressure sensor 1 connection terminal |
| S2+,S2- | Pressure sensor 2 | Pressure sensor 2 connection terminal(for differential pressure control) | ||
| LV, GNDI | Low water level sensor | Low water level sensor connection terminal(dry contact) | ||
| Runningfunction | RUN | Runninginstructions | Run/Stop | |
| EST | Abnormal stop | When the EST signal is ON, cut off the controlleroutput. | ||
| GNDI | Connection operationShared terminal | Common terminal | ||
| AnalogFrequencysetting | V | Frequency setting(voltage) | Input DC 0~10V to become the setting | |
| 1 | Frequency setting(current) | Input DC 4~20mA and become the settingfrequency | ||
| GND | Frequency settingsShared terminal | Analog Common terminal for frequencysetting signal terminals | ||
| Output Signal | RelayConnection | RUN(AT, CT) | Running signaloutput | Action when the controller outputs frequency(Below AC250V 5A以下, DC30V 5A) |
| FAULT(AT, CT) | Fault signal output | Action when the controller outputs frequency(Below AC250V 5A,Below DC30V 5A) | ||
| Communication Signal | CAN | CANH, CANL | CAN signal | CAN signal line terminal |
| GNDI | CAN commonterminal | CAN communication power groundingcommon terminal | ||
| RS485 | 485A+, 485B- | RS485 Signal | RS485 signal line terminal | |
| GNDI | RS485Common terminal | Common power ground terminal for RS485communication | ||
4.4.3 Precautions for wiring the control circuit
The line distance between the pressure sensor, low water level sensor and the controller cannot exceed 10m.
When using Analog signal remote control, the distance between the remote control cabinet and the controller cannot exceed 50m.
The sensor and Analog signal lines are far away from the power line.
The signal line of the control loop uses a shielded line.
GND and GNDI are insulated from each other and cannot be connected to each other or grounded.
4.4.4 Pressure sensor and low water level sensor connection
Please use the pressure sensor and low water level sensor specified by our company.
The specifications of the pressure sensor and low water level sensor specified by our company are as follows:
| Difference | Pressure Sensors |
| Output Voltage | DC 24V |
| Sensor Output | 4~20mA |
The pressure sensor terminals have polarity, so please pay attention to correct installation during installation.
When using pressure sensors and low water level sensors not specified by our company, please consult our company before use.
5. Operation
5.1 NSQ-T Operation Interface
| No. | Display | Description |
| 1 | Display date and time | Display date, time and screen lock status |
| 2 | Pressure setting | Display and change of pressure setting |
| 3 | Actual pressure | Actual outlet pressure display |
| 4 | Parameter settings | Set system parameters |
| 5 | Water inlet parameters | Display water level/water inlet pressure |
| 6 | Running status | The operation status and information of each water pump arerepresented by animated graphics. |
| 7 | Curve chart | Actual operating pressure curve display |
| 8 | System output rate | System output rate and system flow display |
| 9 | Start | Water pump running |
| 10 | Stop | Water pump stopped |
5.1.1 Parameter setting interface
Note: Click the "Parameter Setting" button on the home page to enter this page.
| lcon | Information | Description | No.Reference |
 | Pump control | Parameter settings in the pump control area | P27 |
 | Parameter protection | Parameter settings in the parameter protection area | P31 |
 | Drive parameter | Parameter settings in the drive parameter area | P37 |
 | Signal parameter | Parameter settings in the signal parameter area | P42 |
 | Fault log parameter | Parameter settings in the fault log parameter area | P45 |
 | Display settings | Display parameter settings in the setup area | P48 |
5.1.2 Running Status Interface
Note: Click the "Running Status" button on the home page to enter this page.
| Icon | Information | Description | Units |
 | Output rate | Actual output rate of the water pump | % |
 | Accumulatedelectric power | Display the current accumulated power of the water pump | kWh |
 | Output frequency | Display the current output frequency of the water pump | Hz |
 | Current output | Display the current output current of the water pump | A |
 | DC voltage | Display the current DC voltage of the water pump | V |
 | Power output | Display the current output power of the water pump | kW |
5.2 NSQ-II operation interface
5.2.1 Appearance and Description
In order to indicate various Value settings and states, FND consists of 5 7-segment digital tubes, 4 indicator lights, and 4 buttons for changing Value settings.
5.2.2 Functional description of each part
1) LED indicator light
The LED indicator lights are composed of operation, manual, alarm 1, and alarm 2.
The functions are as follows:
| Run | Always on when in standby mode, off when stopped, flashing when running |
| Manual | Always on when the control mode is changed to manual, off in automatic mode |
| Alarm 1/Alarm 2 | Alarm 1 and alarm 2 are as follows, always on according to the content |
| No. | Name | Corresponding alarm content | ||
| 1 | Alarm 1 | Er-00: No alarm Er-02: Abnormality outlet sensor Er-03: Abnormal number of outlet sensors Er-04: Too-high outlet pressure Er-05: Extremely high outlet pressure Er-06: Too-low outlet pressure Er-07: High outlet sensor differential pressure Er-08: Low water level of inlet probe Er-09: Abnormality Inlet sensor Er-10: Too-high inlet water level Er-11: Too-low inlet water level Er-12: Too-high inlet pressure Er-13: Too-low inlet pressure Er-14: CAN communication ID repetition Er-15: RS485 communication abnormality Er-16: Excessive number of auxiliary pumps Er-27: CAN communication abnormality | ||
| Note: When the above alarm occurs, "Alarm light 1" is always on, and "Alarm light 1" goes out when the alarm is cleared. | Er-28: CAN_BPS setting abnormality | |||
| No. | Name | Corresponding alarm content | |
| 2 | Alarm 2 | Er-17: DC bus voltage is too high Er-18: DC bus voltage is too low Er-19: Driver overheat Er-20: Driver overload Er-21: Motor overcurrent Er-22: Motor overheat Er-23: IGBT driver IC failure Er-24: Output phase loss Er-25: Emergency stop Er-26: Trial time exceeded Er-29: Current sensor failure | |
| Note: When the above alarms occur, "Alarm light 2" is always on, and "Alarm light 2" goes out when the alarm is cleared. | |||
2) FND area
FND uses 5 7-segment digital tubes to display the status values of the controller and pump and the parameter setting values. It is divided into G0 zone (status zone), and G2 zone (operation parameters), G3 zone (protection parameters), G4 zone (drive parameters), G5 zone (signal parameters), G6 zone (fault log), G7 zone (display settings).
3) Button zone
It consists of four buttons, used for parameter setting, movement.
| SET RESET | Pressure setting, various parameter input confirmation, and alarm reset. |
| RUN STOP | Run or stop the controller; The operation prompt light is on when in operation. |
 | Used to change parameter items or Value settings Decrease value, increase value. After the Value setting is changed, you must |
| press EEF the button to save. Value setting a press at the same time for 1 second to enter the parame area. |
5.2.3 Parameter setting change method
Parameter setting value directly affects the operation of the controller.
Please record before changing parameter value.
Parameter change by professionals.
Please confirm the data or parameters that cannot be changed during operation (refer to the function table in Chapter 6).
1) Parameter area moving method
2) Parameter item moving method
To move each parameter item in the parameter zone, useand, as shown in the figure:
