随着能源利用效率不断受到重视，市场对更高精度和更可靠的功率分析仪的需求也在日益增长。功率分析、待机功耗、变压器和逆变器效率，以及由变频器、电机、照明电路、电源等导致的波形失真等都需要精确可靠的测量。作为全球最大的能源和功率分析仪器制造商，YOKOGAWA可以为您提供多种不同领域的选择，其中包括(WT5000高精度功率分析仪、WT1800E高性能功率分析仪、WT300E系列数字功率计、WT500功率分析仪 、CW500电能质量分析仪等)可以满足您的需求。而且仪器主机享受三年质保。
YOKOGAWA功率分析仪测量技术不仅可以提供一流的精度和稳定性，也可以使精度、可读性、同步测量功能、高级运算以及谐波分析和闪变测量功能实现最佳性能。
| 型号 | WT5000 | WT1800E | PX8000 | WT500 | WT300E |
|---|---|---|---|---|---|
| 外观 |
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| 输入通道数 | 1 - 7 | 1 - 6 | 1 - 4 | 1 - 3 | 1, 2 or 3 |
| 基本功率精度(50/60 Hz) | 读数的0.01%+ 量程的0.02% |
读数的0.05%+ 量程的0.05% |
读数的0.1% + 量程的0.1% |
读数的0.1% + 量程的0.1% |
读数的0.1%+ 量程的0.05% |
| 带宽 | DC，0.1Hz~10MHz | DC，0.1Hz~5MHz | DC，0.1Hz~20MHz | DC，0.1Hz~1MHz | DC，0.1Hz~100kHz |
横河可以支撑您自信的进行精准测量：
- 在广泛的范围和带宽上保证精度
- 标准机构的首选
- 针对众多行业应用的解决方案
- 丰富的技术支持和培训资源
精度 – 在同类功率分析仪器中， WT1800E能保证功率精度达到“ 读数的0.05% + 量程的0.05%” ， 它可以执行多达500次谐波分析(50/60Hz基波频率)。
可靠 – 测量需要重复执行并需要追求准确性。WT1800E稳定性极高， 无论现在还是将来， 都可以确保完成精准的测量。
灵活 – WT1800E不但拥有最多6输入通道、 宽量程显示和分析功能， 还可以和电脑相连接，能在功率效率和谐波分析领域为客户提供广泛的测量解决方案。
WT300E系列数字功率计是久负盛名的横河（Yokogawa）紧凑型功率计的第五代产品。横河的功率计产品在确保能耗标准和电气设备功耗测量的领域中长期扮演至关重要的角色。 WT300E系列包括：WT310E单相输入型；WT310EH单相输入/大电流型；WT332E 2输入单元型；WT333E 3输入单元型，精度为读数的0.1% +量程的0.05%。 WT310E提供的电流测量功能最低到50微安左右，高至26安培RMS，能够轻松支持客户测试自己的产品是否符合能源之星、SPECpower 、IEC62301 / EN50564等标准 ，进行电池和待机功耗等低水平电压测试，使用WT300E系列无疑是这些应用领理想解决方案。
YOKOGAWA CW500电能质量分析仪是一款使用电流钳的便携式现场功率测量仪器，适用于供电线路的功耗测量及电能质量分析。可捕捉短时间的功率故障，符合IEC 61000-4-30 Class S标准。
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Conditions
Input Channels >= Frequency >= ADC Resolution >= ADC Sampling rate >= Voltage >=
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Model Code
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WT5000
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WT1801E to WT1806E
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WT1801R to WT1806R
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760201 to 760203
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WT310E
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WT310EH
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WT332E/WT333E
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PX8000
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CW500
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Number of Input Channels
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Max. 7
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WT1801E: 1 WT1802E: 2 WT1803E: 3 WT1804E: 4 WT1805E: 5 WT1806E: 6
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WT1801R: 1 WT1802R: 2 WT1803R: 3 WT1804R: 4 WT1805R: 5 WT1806R: 6
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760201: 1 760202: 2 760203: 3
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1
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1
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WT332E: 2 WT333E: 3
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Max. 4
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With the same voltage; Single-phase 2-wire: 4 systems, single-phase 3-wire: 2 systems, three-phase 3-wire 2-current: 2 systems
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Basic Power Accuracy (50/60 Hz)
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0.01% of reading + 0.02% of range
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0.05% of reading + 0.05% of range
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0.05% of reading + 0.05% of range
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0.1% of Reading + 0.1% of range
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0.1% of reading + 0.05% of range
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0.1% of reading + 0.05% of range
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0.1% of reading + 0.05% of range
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0.1% of Reading + 0.1% of range
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±(0.8% rdg + 0.2% rng) when using clamps 96061, 96062, 96063, 96064, ±(1.1% rdg + 0.2% rng) when using clamp 96065, ±(1.3% rdg + 0.2% rng) when using clamp 96066,
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Power Frequency Range
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DC and 0.1 Hz to 1 MHz
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DC and 0.1 Hz to 1 MHz
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DC and 0.1 Hz to 1 MHz
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DC and 0.5 Hz to 100 kHz
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DC and 0.1 Hz to 100 kHz
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DC and 0.1 Hz to 20 kHz
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DC and 0.1 Hz to 100 kHz
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DC and 0.1 Hz to 1 MHz
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45 to 70Hz
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A/D Converter
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18-bit Max. 10 MS/sec
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16-bit 2 MS/sec
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16-bit 2 MS/sec
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16-bit 100 kS/sec
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16-bit 100 kS/sec
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16-bit 100 kS/sec
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16-bit 100 kS/sec
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12-bit Max. 100 MS/sec
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-
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Voltage Ranges
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1.5/ 3/ 6/ 10/ 15/ 30/ 60/ 100/ 150/ 300/ 600/ 1000 V (crest factor CF3)
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1.5/ 3/ 6/ 10/ 15/ 30/ 60/ 100/ 150/ 300/ 600/ 1000 V (crest factor3)
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1.5/ 3/ 6/ 10/ 15/ 30/ 60/ 100/ 150/ 300/ 600/ 1000 V (crest factor3)
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15/ 30/ 60/ 100/ 150/ 300/ 600/ 1000 V (crest facter 3)
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15/ 30/ 60 /150/ 300/ 600 V (crest facter 3)
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15/ 30/ 60 /150/ 300/ 600 V (crest facter 3)
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15/ 30/ 60 /150/ 300/ 600 V (crest facter 3)
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1.5/ 3/ 6/ 10/ 15/ 30/ 60/ 100/ 150/ 300/ 600/ 1000 V(crest facter 3)
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600V, 1000 V
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Current Ranges
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Direct input (5 A element): 5 m/ 10 m/ 20 m/ 50 m/ 100 m / 200 m/ 500 m / 1/ 2/ 5 A (crest factor CF3) External current sensor input - 50 m/ 100 m/ 250 m/ 500 m / 1/ 2.5/ 5/ 10 V (crest factor CF3) Direct input (30 A element): 0.5/ 1/ 2/ 5/ 10/ 20/ 30 A (crest factor CF3) External current sensor input - 50 m/ 100 m/ 250 m/ 500 m / 1/ 2.5/ 5/ 10 V (crest factor CF3)
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Direct input (5 A element): 10 m/ 20 m/ 50 m/ 100 m / 200 m/ 500 m / 1/ 2/ 5 A (crest factor3) External current sensor input - 50 m/ 100 m/ 250 m/ 500 m / 1/ 2.5/ 5/ 10 V (crest factor3) Direct input (50 A element): 1/ 2/ 5/ 10/ 20/ 50 A (crest factor3) External current sensor input - 50 m/ 100 m/ 250 m/ 500 m / 1/ 2.5/ 5/ 10 V (crest factor3)
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Direct input (5 A element): 10 m/ 20 m/ 50 m/ 100 m / 200 m/ 500 m / 1/ 2/ 5 A (crest factor3) External current sensor input - 50 m/ 100 m/ 250 m/ 500 m / 1/ 2.5/ 5/ 10 V (crest factor3) Direct input (50 A element): 1/ 2/ 5/ 10/ 20/ 50 A (crest factor3) External current sensor input - 50 m/ 100 m/ 250 m/ 500 m / 1/ 2.5/ 5/ 10 V (crest factor3)
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Direct input: 0.5/ 1/ 2/ 5/ 10/ 20/ 40 A (crest facter 3) External input (optional): External input - 50 m/ 100 m/ 200 m/ 500 m / 1/ 2/ 5/ 10 V (crest facter 3)
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Direct input: 5 m / 10 m/ 20 m/ 50 m/ 100 m/ 200 m/ 500 m/ 1/ 2/ 5/ 10/ 20 A (crest facter 3) External input (optional): 2.5/ 5/ 10 V or 50 m/ 100 m/ 200 m/ 500mV/ 1/ 2 V (crest facter 3)
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Direct input: 1/ 2/ 5/ 10/ 20/ 40 A (crest facter 3) External input (optional): 2.5/ 5/ 10 V or 50 m/ 100 m/ 200 m/ 500mV/ 1/ 2 V (crest facter 3)
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Direct input: 0.5/ 1/ 2/ 5/ 10/ 20 A (crest facter 3) External input (optional): 2.5/ 5/ 10 V or 50 m/ 100 m/ 200 m/ 500mV/ 1/ 2 V (crest facter 3)
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Direct input: 10 m/ 20 m/ 50 m/ 100 m/ 200 m/ 500 m/ 1/ 2/ 5 A(crest facter 3) External input: 50 m/ 100 m/ 200 m/ 500mV/ 1/ 2/ 5/ 10 V(crest facter 3)
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96060 (2A) 2000mA *Leakage current only 96061 (50A) 5000mA/50.00A/AUTO 96062 (100A) 10A/100A/AUTO 96063 (200A) 20A/200A/AUTO 96064 (500A) 50A/500A/AUTO 96065 (1000A) 100A/1000A/AUTO 96066 (3000A) 300A/1000A/3000A
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Continuous Allowable Max. Input Voltage
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Peak voltage of 1.6 kV or RMS of 1.5 kV, whichever is lower
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Peak voltage of 2 kV or RMS of 1.1 kV, whichever is lower
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Peak voltage of 2 kV or RMS of 1.1 kV, whichever is lower
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The peak is 1.5 kV, or the RMS of 1kV, whichever is less.
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Peak voltage of 1.5 kV or RMS of 1.0 kV, whichever is lower
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Peak voltage of 1.5 kV or RMS of 1.0 kV, whichever is lower
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Peak voltage of 1.5 kV or RMS of 1.0 kV, whichever is lower
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Peak voltage of 2 kV or RMS of 1.1 kV, whichever is lower
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1200 Vrms
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Continuous Allowable Max. Input Current
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Direct input (5 A element): Peak current of 10 A or RMS of 7 A (whichever is lower.), Direct input (30 A element): Peak current of 90 A or RMS of 33 A (whichever is lower.) External Current Sensor Input - Peak not to exceed 5 times range-value or 25 V (whichever is lower)
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Direct input (5 A element): Peak current of 10 A or RMS of 7 A (whichever is lower.), Direct input (50 A element): Peak current of 150 A or RMS of 55 A (whichever is lower.) External Current Sensor Input - Peak not to exceed 5 times range-value
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Direct input (5 A element): Peak current of 10 A or RMS of 7 A (whichever is lower.), Direct input (50 A element): Peak current of 150 A or RMS of 55 A (whichever is lower.) External Current Sensor Input - Peak not to exceed 5 times range-value
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Direct input: The peak is 100 A, or RMS is 45 A, whichever is less. External input: The peak is 5 times the range or less.
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Direct input: 5-200 mA Peak current of 30 A or RMS of 20 A (whichever is less.), 0.5-20 A Peak current of 100 A or RMS of 30 A (whichever is less.) External input: Peak value of 5 times range or less.
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Direct input: 1-20 A Peak current of 100 A or RMS of 44 A (whichever is less.) External input: Peak value of 5 times range or less.
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Direct input: 0.5-20 A Peak current of 100 A or RMS of 30 A (whichever is less.) External input: Peak value of 5 times range or less.
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Direct input: 8.5 A Peak or RMS of 6 A (whichever is less.) External input: Peak value of 4 times range or less.
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96060 (2A) 60Arms 96061 (50A) 130Arms 96062 (100A) 100Arms 96063 (200A) 250Arms 96064 (500A) 500Arms 96065 (1000A) 1300A 96066 (3000A) 3600A
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Display Type
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10.1-inch color TFT LCD with touch screen
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8.4-inch color TFT LCD
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8.4-inch color TFT LCD
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5.7-inch TFT color LCD
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7 segment LED 4 displays
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7 segment LED 4 displays
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7 segment LED 4 displays
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10.4 inch color TFT LCD
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3.5-inch TFT color LCD (320 x 240 Pixel)
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Measuring Items
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U, I, P, S, Q, Power factor, Frequency, Efficiency, Phase angle, Upk, Ipk, f, Wp, q, CF, FF, Impedance, Rs, Rp, Xs, Xp, Pc, Harmonic, Fundamental values
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U, I, P, S, Q, Power factor, Efficiency, Phase angle, Upk, Ipk, f, Wp, q, CF, FF, Impedance, Rs, Rp, Xs, Xp, Pc, Harmonic
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U, I, P, S, Q, Power factor, Efficiency, Phase angle, Upk, Ipk, f, Wp, q, CF, FF, Impedance, Rs, Rp, Xs, Xp, Pc, Harmonic
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U, I, P, S, Q, PF, efficiency, phase angle, Upk, Ipk, f, CF, Harmonic
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U, I ,P, S, Q, PF,phase angle, Upk, Ipk, UHz, IHz, Wh, q, CF,Harmonic
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U, I ,P, S, Q, PF,phase angle, Upk, Ipk, UHz, IHz, Wh, q, CF,Harmonic
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U, I, P, S, Q, PF,phase angle, efficiency, Upk, Ipk, UHz, IHz, Wh, q, CF,Harmonic
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U, I, P, S, Q, Power factor, Efficiency, Phase angle, Upk, Ipk, f, CF, FF, Impedance, Rs, Rp, Xs, Xp, Pc, Harmonic, THD and 24 waveform parameters
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U, I, f, P, S, Q, Active energy, Reactive energy, Apparent energy, Pf, Phase Advancing Condensor, Neutral current, Demand, Harmonics, Power Quality (Swell/ Dip/ Interrupt/ Transient overvoltage, Inrush current, Unbalance rate. IEC flicker)
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Storages
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External USB memory, 2 GB Internal Memory (optional 32 GB inernal memory)
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External USB memory, 32 MB Internal Memory
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External USB memory, 1 GB Internal Memory
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USB memory, 20MB Internal Memory
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Internal memory normal measurement: Max 9000 blocks, normal + harmonic measurement: Max 700 blocks
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Internal memory normal measurement: Max 9000 blocks, normal + harmonic measurement: Max 700 blocks
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Internal memory normal measurement: WT332E: Max 4000 blocks WT333E: Max 3000 blocks, normal + harmonic measurement: WT332E: Max 300 blocks WT333E: Max 200 blocks
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USB memory and SD memory card
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SD Card (2 GB)
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Interface
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GP-IB, Ethernet, and USB
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GP-IB, Ethernet, and USB
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GP-IB(option), Ethernet, and USB
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GP-IB, USB, Ethernet
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USB, GP-IB or RS-232
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USB, GP-IB or RS-232
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USB, GP-IB or RS-232
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GP-IB, Ethernet and USB
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USB, Bluetooth
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Optional Features
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32 GB Internal Memory, 20-channel D/A output, Motor Evaluation Function 1, Motor Evaluation Function 2(requires select of Motor Evaluation Function 1)
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External Current Sensor Input, Built-in printer, Harmonic Measurement, Dual Harmonic Measurement, RGB Output, 20-channel D/A output, Motor Evaluation Function, Auxiliary Inputs, Power supply for external current sensors
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GP-IB interface, External Current Sensor Input, Harmonic Measurement, Dual Harmonic Measurement, RGB Output, 20-channel D/A output, Motor Evaluation Function, Auxiliary Inputs, Power supply for external current sensors
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harmonic measurement, VGA output, external input, delta calculation, GP-IB, Ethernet
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Ethernet interface, D/A output (4 channels), harmonic measurement, External current sensor input *Ethernet interface supports Modbus/TCP
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Ethernet interface, D/A output (4 channels), harmonic measurement, External current sensor input *Ethernet interface supports Modbus/TCP
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Ethernet interface, D/A output (12 channels), harmonic measurement, External current sensor input *Ethernet interface supports Modbus/TCP
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Built-in printer, IRIG, Harmonic Measurement, 50M/CH Memory, 100M/CH Memory and Probe power (4-output), Power supply for external current sensors
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Dimensions (W x H x D)
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426 x 177 x 496 mm
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426 x 177 x 459 mm 426 x 221 x 459 mm (/PD2 option)
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426 x 177 x 459 mm 426 x 221 x 459 mm (/PD2 option)
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213 x 177 x 409 mm
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213 x 88 x 379 mm
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213 x 88 x 379 mm
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213 x 132 x 379 mm
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355 x 259 x 180 mm 355 x 259 x 245 mm (/PD2 option)
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120 x 175 x 68mm
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Max. Weight
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Approx. 12.5 kg (including /M1,/ MTR1 and /DA20 options without any input element)
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WT1801E: Approx.11.6 kg WT1802E: Approx.12.3 kg WT1803E: Approx.13 kg WT1804E: Approx.13.6 kg WT1805E: Approx.14.3 kg WT1806E: Approx.15 kg /PD2 option WT1801E: Approx.13.6 kg WT1802E: Approx.14.3 kg WT1803E: Approx.15 kg WT1804E: Approx.15.6 kg WT1805E: Approx.16.3 kg WT1806E: Approx.17 kg
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WT1801R: Approx.11.6 kg WT1802R: Approx.12.3 kg WT1803R: Approx.13 kg WT1804R: Approx.13.6 kg WT1805R: Approx.14.3 kg WT1806R: Approx.15 kg /PD2 option WT1801R: Approx.13.6 kg WT1802R: Approx.14.3 kg WT1803R: Approx.15 kg WT1804R: Approx.15.6 kg WT1805R: Approx.16.3 kg WT1806R: Approx.17 kg
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760201: Approx.5.5 kg 760202: Approx.6.0 kg 760203: Approx.6.5 kg
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Approx. 3 kg
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Approx. 3 kg
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Approx. 5 kg
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Approx. 6.5 kg Approx. 7.5kg (/PD2 option)
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Approx. 0.9 kg (with battery)
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【search key】 WT5, WT50, WT500, WT
Maximum torque per ampere (MTPA) is an optimization strategy for the control of electric motors and drives that employ field-oriented control (FOC), particularly with electric vehicles (EVs) and industrial automation applications. The goal of MTPA is to achieve the maximum possible torque output from a motor for a given current input.
Maximum power point tracking (MPPT) charge controllers play a crucial role in the optimization of renewable energy system efficiency and performance. Through dynamic tracking of a renewable energy source’s maximum power point, an MPPT controller enables more efficient energy harvesting, faster charging, and adaptability to changing environmental conditions.
Detailed measurement methods, supply voltage settings, and others are specified for the harmonic/flicker standard test.
【search key】 WT1, WT18, WT180, WT3, WT30, WT5, WT50, WT500, WT
Energy consumption in low-power and standby modes is an important issue due to increased awareness that energy resources are becoming limited and demand for energy-saving household electrical appliances continues to grow. IEC62301 Ed2.0 (2011) and EN 50564:2011 define standby mode as the lowest energy consumption of an appliance not performing its main function, when connected to the mains. IEC62301 Ed2.0 (2011) defines test methods and requirements for both the mains supply and the test equipment. It is crucial that design and test engineers choose highly accurate power measurement tools to confirm that their devices meet these requirements.
Yokogawa Meters & Instruments Corporation宣布于1月15日发布示波功率仪PX8000。作为世界上首台示波功率仪，PX8000将功率分析仪与示波器技术融为一体，为瞬态功率测量提供了新思路。
紧凑型、高性价比通用功率计数字功率计WT310/WT330系列发售通知:横河公司宣布将于1月10日正式发售数字功率计WT310/WT330系列。此系列共有4个机型，外形小巧、性价比高。WT310/WT330系列面向电气电子设备节能市场，广泛应用于从研发到生产线的各个领域。WT310/WT330系列是WT210/WT230系列的升级产品。
- Electric Motor Power Measurement and Analysis
- Improving/optimizing electric motor performance and efficiency
- Understand how electric current is measured
Government agencies that define the standardization of energy efficiency metrics continue to be a driving force behind the development of the next generation electric vehicle powertrains. These metrics require manufacturers to have high confidence in their measurements and motivate the optimization of efficiency.
Standards driving energy efficiency classifications are a driving force behind the development of the next generation of motor and drive technologies. Learn more here.
《应用探索》是一份电子快讯，每两个月发布一期，向客户通报我们最新的新闻和产品应用。
The right tool to measure power in complex EV systems is a purpose-built power analyzer that captures three core parameters—voltage, current and power—as well as a few very important additional parameters (depending on what system you are testing) that contribute to understanding the efficiency and overall system performance.
《应用探索》是一份电子快讯，每两个月发布一期，向客户通报我们最新的新闻和产品应用。
《应用探索》是一份电子快讯，每两个月发布一期，向客户通报我们最新的新闻和产品应用。
《应用探索》是一份电子快讯，每两个月发布一期，向客户通报我们最新的新闻和产品应用。
《应用探索》是一份电子快讯，每两个月发布一期，向客户通报我们最新的新闻和产品应用。
"Error(Code:846): Attempted to start integration while measurement of peak overflow was in progress"The following error code will appear if Peak Over has occurred and you attempt to start integration. The WT3000 has two ...
- WTViewer Save Setting feature will only save WTViewer setting information
- Will NOT save the setting information of the instrument
The AC Power Input in all Yokogawa instruments is designed as a 3-pin connection (one of which is a GND pin). In some parts of the world, PCs are sold with AC power cables that are 2-pin. Often times this means the ...
It is not necessary to specify the accuracy for PST values outside the range of 1.0, as any value larger than 1.0 is non-standard. The standard (IEC 61000-3-3) requires that the value of the short-term light ...
The WT1600 can support printers that have the following commands. ESC-P ESC-P2 (for printers that support ESC/P raster commands) BJ PCL5 LIPS3 Post Script Before attempting to connect a Network Printer to the WT1600, ...
The circuit design for the line filters used on the WT & PZ series instruments are similar to Butterworth filters but have been redesigned. We redesigned the original filtering characteristic to obtain a ...
There are no built-in over temperature protection devices in the WT3000. The official operating range covered by warranty is listed at 5°C - 40°C. Our own internal test have revealed that it is possible to ...
The part numbers for the 2 piece screws in the WT210 Rack Mount Kit (751533-E2) are listed below: Y9414LB: Binding-head screw (M4, 14mm long) Y9414EB: Flat-head screw (M4,14mm long) If you wish to purchase the screws ...
- WT1800 High Performance Power Analyzer, WT500 STORE functions can only be used to record NUMERIC data
- WT1600, WT3000 STORE functions can be used to record both NUMERIC and WAVEFORM data
Yes, the AUX inputs on the WT1800 can be used in the Math functions. For example, if you wanted to measure a DC bus input using the AUX inputs (input elements not connected), you would scale one of the AUX inputs to ...
When making a WT230 Digital Power Meter RS232C connection using GateWT, please verify the following RS232C communication settings on the instrument: Mode = 488.2 Hand = 0 For = 0 Baud Rate = 9600 Terminator Cr+Lf Even though you can run ...
- Current Knobs and Pads (Studder) Used on the Direct Input Terminals of the WT500 Part Numbers
- A9105ZG: Black Current Knob Set of 2 B9292GX: Pad (Studder) Set of 10
The D/A output of the WT230 Power Meter uses a 24-Pin Centronics type connector. For additional informating regarding the 24-Pin Centronics Connector, please refer to the attached PDF and click on the link below.
You can read the average active power during continuous integration mode (just before the integral resets) for the WT230, by monitoring the status of the ITG or ITM bits of the extended event register. Bit 1 ITG is ...
Although WTViewer is not officially supported under the Linux environment, users have successfully done so using WINE (flavor of Linux) via RS232. For connectivity to WT210/WT230, WTViewer requires that the meter be set ...
It is possible to lock out all the keys, including LOCAL, on the WT210/WT230 using a GPIB specific or controller specific command.For the GPIB controller from National Instruments, the command is called LLO or Local ...
To use the WT3000 with the Flicker Software, the WT3000 Precision Power Analyzer must have the following options: /G6 option - Advanced Calculations /FL option - Flicker Measurements 1 to 3 elements - 30A Input Module Note: The 2A input ...
Yes, please contact your nearest Yokogawa representative for more details.
Please download the attached PDF file for a list of pinouts for various communication cables.
Although Yokogawa does not have any official recommendation for USB to Serial converters, it is possible to use some USB to RS232 DB9 Adapter Cables. If you choose to use a laptop PC without RS232C port, please use ...
The following product tutorial guides have been created for the WT and PZ Series Power Meter and Analyzer instruments and are available for download. Each tutorial contains quick and easy steps to help you get started ...
Yes, it is possible to alter the standard model WE7000. The following is a list of range standard special order specifications and correspond models. Current Range 1/10 A Model: WT1010, WT1030, WT1030M, WT2010, ...
The WT1000/WT2000 series instrument uses a BNC connector for the external shunt input terminal. The output terminal of the 751550 Clamp Probe is a banana plug. Please use the 366921 Banana-to-BNC Conversion Adapter to ...
Output function: HArWhen the default output item is set to 1, the printout time for up to the 50th order is about 116 seconds. The printout time for up to the 25th order is about 75 seconds. Output function: HArWhen the ...
You can use the Power Viewer (Model 253734) software. However if you only need to view waveforms, we recommend you use the Waveform Viewer (Model 700919, version 1.23 or later) software. The trial version of the Power ...
The actual display update rate is shown below for observation times from 2 ms to 100 ms. 2 ms : 0.8 s 4 ms : 0.9 s 10 ms : 1.2 s 20 ms : 1.8 s 40 ms : 1.8 s 100 ms : 1.8 s Measurement Conditions Modules mounted : ...
The output resolution for the WT3000 is 16-bits.
When the selected data update cycle of the fundamental wave is shorter than the width of the analysis window determined by the fundamental frequency (cycle of the fundamental wave), measurement is not performed and no ...
Selecting formulas for calculating apparent power and reactive powerThere are several types of power—active power, reactive power, and apparent power. Generally, the following equations are satisfied:Active power P = ...
With RS232C, the response time depends on settings other than the communications speed. An actual measurement example is given below at 1 byte=10 bits (start bit: 1 bit, data: 8 bits, stop bit: 1 bit, no parity) with a ...
The frequency display and D/A output can handle only one input element at a time, either the voltage or the current. When either the V Hz or A Hz display function indicators are lit in display C, the frequency ...
NO, you should not use the instrument with both the direct input and external sensor terminals wired. Doing so will put the user at risk of electric shock and could damage the instrument. This is because the ...
You can use the "STATUS:ESSR?" command to access the extended event register and determine whether the data was updated. You can judge the data update status by referencing bit 1 (DAV) of this register. However to do ...
Send the appropriate command as shown below to your instrument, then read in all the data that is returned. PZ4000: "NUMERIC:NORMAL:VALUE?" WT1600: "NUMERIC:NORMAL:VALUE?" WT100/200 series ...
Send the "OFDO" command.This command turns all items for output OFF. Therefore no items will be output if you send the "OD" command. Send the "OF1,1" command to the measuring instrument. This command turns the voltage ...
To change the voltage range on element 1 to the 30 V range, send the "RV1,4" command to the measuring instrument. To change the current range on element 1 to the 1 A range, send the "RA1,5" command to the measuring ...
Send the "NUMERIC:FORMAT:ASCII" command This sets the data format for the data you want to read out. Measured data read out using the "NUMERIC:NORMAL:VALUE?" command is output as an ASCII string. Send the ...
Send the "OF1,1,1" commandThis command sets the voltage value (V) from element 1 to output to channel 1 (from among the 14 output channels), and causes the voltage of element 1 to be read out. In the same manner, make ...
Send the "MEASURE:NORMAL:ITEM:PRESET:CLEAR" command to the measuring instrument. This command turns all items for output OFF. Therefore no items will be output if you send the "MEASURE:NORMAL:VALUE?" command. Send the ...
You can determine whether data was updated by performing a serial poll and referencing the status byte.Bit 0 of the status byte (D101) changes to 1 when data is updated. When bit 0 changes to 1, bit 6 (D107) also ...
You can use the "STATUS:ESSR?" command to access the extended event register and determine whether the data was updated. You can judge the data update status by referencing bit 0 (UPD) of this register. However to do ...
To change the voltage range on element 1 to 30 V, send the "INPUT:VOLTAGE:RANGE:ELEMENT1 30V" command to the measuring instrument.To change the current range on element 1 to the 1 A range, send the ...
To change the voltage range on element 1 to 30 V, send the "CONFIGURE:VOLTAGE:RANGE:ELEMENT1 30V" command to the measuring instrument.To change the current range on element 1 to the 1 A range, send the ...
To change the voltage range on element 1 to 30 V, send the "CONFIGURE:VOLTAGE:RANGE 30V" command to the measuring instrument.To change the current range on element 1 to the 1 A range, send the "CONFIGURE:CURRENT:RANGE ...
The waveform may actually not be a pure sine wave. Even though a 50/60 Hz sine wave is expected, the following factors may be involved: The waveform is slightly distorted (harmonic components are mixed in) Small ...
- Check the "Sync Source" and zero cross filter (frequency filter) settings.
- For the WT3000, "Sync Source" setting is irrelevant if the data update rate is 250 ms, 500 ms, 1 s, or 2 s.
Check for differences in the specifications or features of the instruments. For values that do not match when inputting a 50/60 sine wave Check whether the value is within the specifications (error) of each power ...
The measurement intervals of the measured I/O data must overlap exactly. Check the sync source setting. For example, route the input to a three-phase device under measurement to input elements 1-3 on the power meter, ...
Check for differences in the specifications or features of the instruments. For values that do not match when inputting a 50/60 sine wave Check whether the value is within the specifications (error) of each power ...
- Power Analyzer/Power Meter
- In the case of three-wire, or 3V3A wiring, or three phase power source, they do not match because it is the line to line voltage that is measured
In the three-phase three-wire, or 3V3A wiring scheme, the phase angle of voltage between each input element is 60 degrees because it is the line to line voltage that is measured. Please download and refer to the ...
In the three-phase three-wire, or 3V3A wiring scheme, the phase angle of voltage and current input to each input differs from that of the actual load because it is the line to line voltage that is measured. In ...
When measuring input signals of distorted waves, signals that are DC-offset or signals that include superimposed harmonic components, will result in different values for power factor and phase angle than those expected ...
The peak value and crest factor may be unstable if they have not been captured accurately. If the peak value is not stable, neither will the crest factor be stable. The cause is the difficulty in capturing the narrow ...
The difference in measurement values can be attributed to the difference in calculation methods for normal mode and harmonic mode. The voltage, current, and power in normal mode are displayed as the total of the ...
The following may be causing the problem. 5V may have occurred during rating. Check the range setting again. DA output error can affect the values when the input is smaller than the rating. Have you checked the error ...
Check the Synch Source and Frequency Filter settings When a single-phase signal being measured fluctuates around power factor of 1.Slight fluctuations in the measured values of voltage, current, and power can cause a ...
- Power analyzers/power meters
- Binding posts on the direct current input terminals
- Prevent an open current circuit and safety hazards
A quick and simple way of accessing the measurement data from a CSV file saved by the WT1800 is to use the MATLAB import wizard. In MATLAB, simply click on File > Import Data.... You can also use the MATLAB built-in ...
To use USB interface on the WT500 and WT1800 Power Analyzer from NI LabVIEW environment, you will need to use the USB driver from National Instruments. This USB driver is usually installed when you install NI-VISA and is called the ...
To measure inrush current on the WT1800, you will need to define and use the IPPEAKMAX() user defined function in combination with the Max Hold feature. A complete tutorial with instrument settings and how-to procedures ...
There are restrictions of the DSP hardware. WT230 and WT210 are low-cost power meters. So, a low-cost, modest performance DSP utilized.This DSP has slow calculation. WT3000 is performing complicated ...
The WT1800 allows you the ability to create and load your own custom display for special application needs. You will not only be able to generate your own custom background but you will be able to change the displayed ...
What is the maximum size of ATA Flash Card we can use with the WT3000? The maximum size of the card to save data is 16GByte. The maximum size of the card used for firmware updating procss is limited to 256MByte.(A ...
The WT3000 enables users to save the waveform data via two methods: waveform displayed data, and waveform sampled data. The number of data points saved by the waveform displayed data method is compressed to a total ...
In the manual IM-WT1801-01EN, the following sentences are written. Fundamental Measurement ConditionsAll the settings for the fundamental measurement conditions for high speed data capturing are the same as those for ...
When the WT1600 Digital Power Analyzer is set into Integration mode, the averaged power (watt) values can be calculated and displayed. This is available only by using the User-Defined Function feature found in the MEASURE button menu. The ...
It is possible to measure the phase difference by using the function φU1(1)-U2(1) in Hamonics Measurement Mode.In this mode, if the wiring pattern is set to 1P2W, the PZ4000 will display no value (----). It is ...
The WT1800 and WT3000 series digital power analyzer offer two calculation methods, Type1 and Type3, for apparent and reactive power. Type1:The WT will first calculate the RMS voltage Urms, current Irms, and active ...
The Urms and Umn values can be simultaneously read and retrieved using communication commands, only if the instrument is in WT300 IEE 488.2 mode. The WT300 has two communication command modes:IEE 488.2 in WT210/WT230 ...
To programmatically read all 500 harmonic orders measurement values, please use the ":NUMERIC:LIST" command set. The maximum number of items for the :NUMERIC:LIST:VALUE? command is 64. However, 1 LIST ITEM can ...
You can not use LabVIEW and WTviewer to communicate with the PC using same USB driver. The USB driver for LabVIEW and the USB driver for WTviewer is different. Yokogawa's YKMUSB driver is used by WTviewer ...
Yes, the WT210 will meet or exceed all requirements set by the Energy Star guideline. Please see the attached documents for more details.
There are several items you will need to check and verify to solve this issue. Verify the GP-IB connectionSome instruments have a D/A output connector located next to the GP-IB connector. There have been some ...
- Power Analyzer Accuracy and Basic Uncertainty Calculator from Yokogawa Test&Measurement
- Determine uncertainty in voltage, current, and active power (watts) measurement values
- Various frequency ranges and wiring systems
Unfortunately the WT3000 cannot display the RMS and DC values of voltage/current at the same time, even if you use the user-defined function feature. You must select either RMS or DC mode in the Voltage/Current Range ...
Please refer to the attached Excel spreadsheet for complete information regarding the RS232 cable pinouts used with by the WT & PZ Series Power Analyzers.
The IEC Harmonic analysis on the DL/DLM series oscilloscopes provides a rough analysis and estimation for harmonic testing. The scope will perform an FFT on the current waveform and can be used to measure the general ...
The actual display update rate for the WT500 Power Analyzer will depend on the input signal and the trigger setting. In addition, there may be a very small trigger delay (several milliseconds) if the input signal does not match the ...
The value depends on the model of the power analyzer. For Precision Power Analyzer WT1000, WT2000, WT100, and WT200, it is fixed to the fundamental wave. For power analyzers with 7 segments LED, the relative harmonic content is fixed to the ...
"Zero level correction" is performed only when the setting initialization accompanies one of the following change. Switching normal measurement/harmonics measurement. Switching the voltage range. Switching the current ...
The Precision Power Analyzer WT3000 D/A output terminal is electrically isolated from the case. For all other models, the D/A output terminal is connected to the case.
Yes, by using the User-Defined Function feature, the WT1600 can display the average power value during integration. Enter the following equation to calculate the average power for Element ...
Yes, if the instrument is in auto-range, zero level correction will still be executed.
The impedance of the 366924 and the 366925 BNC cable is 50 Ω.
Can Xviewer.exe be run as multiple instance? No - not at this time. Xviewer can not control two or more DL850 chassis. Xviewer can not connect to two or more instruments at the same time. Two or more Xviewer ...
When using WTViewerFree to automatically save data in CSV format, a lack of memory may occur due to increasing load on anti-virus software such as Virus Buster. As the data save time becomes longer, the CSV file will ...
The following softwares have been tested for Windows 7 compatibility. WTViewer Xviewer SL1000 Acquisition Software USB Instrument Drivers for all USB supported instruments TMCTL Library Files for programming with VB, ...
This training module covers the following topics:
- Introduction & Installation
- Connecting to Instrument
- Setup, Measure, and Analyze
- File Operations: Saving and Loading Data
- Video Demonstrations
宣传手册
- All Products Guide 中文 (15.9 MB)
操作培训
横河数字功率计WT330接线&基本设置操作说明
首先，点击屏幕右上角的Setup按钮，进入设定界面。我们以输入单元1为例，在<输入（基本）Input (Basic)>设置界面下，点击电压量程区域，会显示从1.5V到1000V的所有电压量程。选择需要的量程。选择量程的原则时，选择最接近被测电压最大值并且大于被测电压最大值的电压量程。这样可以保证量程误差尽量小。如果不知道被测电压大小，或者被测电压波动比较大，可以打开自动量程，WT5000会根据被测电压的实际大小调整量程。
我们按照同样的方式进行电流量程的设置。5A输入单元的电流量程从5mA到5A，选择合适的固定量程，或者选择自动量程。
如果所用的电流传感器是电压输出型的，则需要将这个外部传感器开关打开。再选择合适的二次侧电压量程。然后设置好传感器的变比。
30A输入单元的电流量程是从500mA到30A。设置方法与5A输入单元相同。
电流传感器输入单元的电流量程是从10mA到1A。设置方法也与5A输入单元类似。
设置量程的另一种方法是通过实体按键进行设置。
这种设置方式更加直观且便捷。
这里有7个按键，分别对应主机后面的7个输入单元。例如我们想调节第1个单元的量程，我们点亮按键1，然后通过下面的调节按键选择合适的电压量程或者电流量程。点亮Auto按键，将会开启自动量程。同理，我们可以设置其他输入单元的量程。
对于量程来说，还有一些其他的相关设定，需要点开<输入（高级）Input (Advanced/Options)>设置。
并择<量程>(Range)菜单。
第一项是<峰值因数>(Crest Factor)选项。默认值是CF3。如果被测信号的波动很大，需要频繁切换量程时，可以尝试选择CF6或者CF6A，一般来说可以有效减少因为信号波动产生的量程切换。
第二项是电流量程的显示格式。默认是<变比前量程>(Direct)，量程显示为直接输入电流的量程。另一个选项是<变比后量程>(Measure)，选择它后，电流量程显示为使用电流传感器可以测量的电流范围。
第三项是<量程关联>(Range Link)设置。默认是ON状态，此时同一个接线系统只需要设定一相的量程，同一组里的其他相都会自动设为相同的量程。如果设为OFF，则需要为接线系统中的每一相分别设置量程。
在<量程配置>(Range Config)菜单下，我们可以看到所有输入单元的量程配置情况。在自动量程时，量程是按照这里的量程顺序进行切换的。有些情况下，为了能减少量程切换时间，可以把不关注的量程关闭。
点击<有效测量量程>(Valid Measurement Range)按键，进入到这个界面。在这里把不需要的量程前面的对钩取消掉，就可以在量程切换时直接跳过这些量程，从而实现量程快速切换。
以上是关于WT5000量程设置的操作方法。设置合适的量程以及相关参数，可以获得更加精准的测量结果，并且能够使测试过程更加平顺。
横河数字功率计WT310接线&基本设置操作说明
横河数字功率计WT310产品介绍
横河数字功率计WT330谐波和积分功能操作说明
横河数字功率计WT300系列功耗测试操作说明
横河数字功率计WT300系列WTViewerPlus操作说明
横河数字功率计WT310系列谐波和积分功能操作说明
产品展示
横河数字功率计WT330产品介绍
横河新型示波功率仪PX8000产品介绍演示
The current sensor element for the Yokogawa Test&Measurement WT5000 Precision Power Analyzer is ideal for applications requiring a current transformer for high-current measurements. The internal DC power supply simplifies preparations before measurement, requiring only a connecting cable and eliminating the external power supply.
The WT5000, an industry-leading power analyzer, features seven field-removeable elements, 10 MS/s, 1 MHz power bandwidth, 18-bit resolution, and 0.03% basic power accuracy. Yokogawa Test&Measurement continues to innovate on the platform, enabling /D7 data streaming, /G7 harmonics, and flicker analysis.
The new current sensor element replaces the traditional current inputs and includes a sensor input terminal with integrated ±15V power supply, eliminating the need for an external power supply. The isolated voltage terminals remain the same as the 5A and 30A elements.
Test and measurement engineering work groups can have differing priorities and requirements, which often results in multiple instrumentation systems and data file formats, as well as incompatible reporting. This lack of effective communication between groups and instruments causes decreased efficiency and quality and increased spending and time to market. Unify test and measurement instrumentation, software, and data across engineering teams with a suite of solutions that caters to the different needs of engineering work groups, including accurate power data, fast sampling rates, long recordings of multiple different input types, and insights into waveform data.
入门指南
- How To: Yokogawa WT5000 Power Analyzer Current Connectors
- High current power/wire connectors
This video demonstrates how to measure transient phenomena on power signals using the Yokogawa Test&Measurement PX8000 Precision Power Scope.
In several applications, especially those testing AC power to a standard such as IEC61000-3-11, the voltage and current signals must be monitored to confirm there are no major dips and/or swells in the signal. This can be done with instruments capable of reporting rms values, including power analyzers, traditional oscilloscopes, and some data acquisition systems.
To test to a standard, however, the instrument must have an accuracy spec that is traceable back to a national standard of calibration such as ISO17025 or NIST.
Having multiple memory options allows engineering groups to optimize how data is stored, no matter if you need to record for a long time at slower sampling rates, do a fast capture at high sampling rates, or anything in between.
The Yokogawa Test&Measurement DL950 ScopeCorder operates as an oscilloscope and incorporates the ability to record data for long periods of time like a data acquisition recorder. There are four memory types on the DL950 ScopeCorder: internal memory, solid state drive, flash memory, and PC storage through the IS8000 Integrated Test and Measurement Software Platform. This videos talks about the advantages of each of these and how to pick the best data recording method for you.
This video demonstrates how to test to an IEC standard (IEC 61000) using a Yokogawa Test&Measurement WT5000 Precision Power Analyzer and the harmonic flicker testing software. The software automates the process of judging if the device under test is compliant with the chosen standard and allows you to output the necessary test reports for your records.
网络研讨会
- Establishing baselines for system efficiency
- Conducting inverter control signal analysis at the systems level
- Identifying critical measurements for benchmarking inverter input, inverter output, and motor output
- Analyzing motor control signals, including torque control variables, positional sensors, and pulse-width modulation (PWM), as well as torque measurements
- A look at multi-phase measurements and measurement techniques
- A review of practical applications
- Real-world examples
With ongoing innovations in motor and inverter technologies seeking to advance global decarbonization objectives in the automotive industry, it’s crucial that engineers have a thorough understanding of how to properly analyze these systems.
This complimentary webinar provides engineering professionals involved in motor and control system development with insights that enable data benchmarking and troubleshooting issues related to energy efficiency in electric vehicle (EV) powertrains.
Key webinar topics include:
Although DC power measurements can be fairly straightforward, complexities with AC power measurements arise when dealing with distorted waveforms, fluctuating power factors, and multiple phases, which introduce intricacies that complicate an otherwise simple measurement process.
This on-demand webinar provides an informative dive into the various fundamental aspects of power measurement and includes:
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