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PXIe Source Measure Unit

S2013C

Single-channel PXIe SMU


The S2013C is a high precision, compact, cost-effective PXIe Source/Measure Unit (SMU) with the capability to source and measure both voltage and current. It has maximum ±200V, ± 1A (DC), ±3A(pulse) and constant 20W power sourcing capability. It supports conventional SMU SCPI commands for easy programming. It supports most standard PXIe chassis and multi-card synchronization, The S2013C can be integrated into production test environment to achieve test efficiency improvement and cost reduction.



Features

  • High Precision

    Resolution up to 100 fA/100 nV
  • High Range and High-speed Measurement

    ±200 V, ±1A (DC), ±3A (pulse)
    Up to 1M sampling rate can be supported
  • Adaptive PFC System

    Leverages Adaptive PFC
    (Precision Fast Control) system
    Users can adjust relevant parameters according to load characteristics
  • Building Multi-channel Parallel Test System

    Based on standard PXIe chassis
    Easily implement multi-channel parallel testing

Functions and Advantages

  • 5 Functions In One Card

    Voltage source
    Current source
    Ammeter
    Voltmeter
    Electronic load
  • ♦ The first and third quadrants are the source: the actual polarity of output V / I follows the source setting.
    ♦ The second and fourth quadrants are for load: CC and CV cooperate. When the load is used, the polarity of the load setting is opposite to the source polarity.
  • Can Test Various Equipment

  • Capture More Measurement Data

    ♦ 6.5-digit resolution: enjoy best-in-class 6.5-digit sourcing and measurement resolution.
    ♦ 100 fA / 100 nV resolution: excellent sensitivity for setting and measuring.
    ♦ 1M points / second: provide high-speed measurement, and can quickly set / digitize the rate to any waveform generator / list scan.
  • Rich Scanning Function

  • DC I-V Output Capacity

  • Pulse I-V Output Capacity

Voltage Programming and Measurement Specifications



Voltage Accuracy

Range Programming Resolution Accuracy (1 Year)
± (% reading+ offset)[1]
Typical Noise(RMS)
0.1 Hz-10Hz
±200 V[2] 100 μV 0.03%+10 mV 400 μV
±20 V 10 μV 0.03%+1 mV 50 μV
±6 V 1 μV 0.03%+0.4 mV 12 μV
±0.6 V 100 nV 0.03%+100 μV 3 μV
Temperature Coefficient ±(0.15 × accuracy)/°C (0℃-18℃, 28℃-50℃)
Overshoot <±0.1% (typical.normal.step is 10% to 90% range, full range, resistive load)
Noise  10Hz-20MHz

<5 mVrms, (20V voltage source, 1A resistive load)

[1] Accuracy calculation example: To test the accuracy of a 600mV range with a 120mV output, the tolerance is:


[2] This instrument has a potentially dangerous high voltage (±210 V) output to the HI / Sense HI / Guard terminals. To prevent electric shock, relevant safety precautions must be taken before powering on. Do not connect the Guard terminal to any output, including shorting it to the chassis ground or output LO, as this will damage the instrument





Current Programming and Measurement Specifications



Current Accuracy

 

 

 

 

 

 

 

 

Range

Resolution

Accuracy (1 Year)

± (% reading+ offset)

Typical Noise (RMS)

0.1 Hz-10 Hz

±3 A[3]

1 μA

0.03% + 2 mA

40 μA

±1 A

100 nA

0.03% + 90 μA

7 μA

±100 mA

10 nA

0.03% + 9 μA

600 nA

±10 mA

1 nA

0.03% + 900 nA

60 nA

±1 mA

100 pA

0.03% + 90 nA

6 nA

±100 μA

10 pA

0.03% + 9 nA

700 pA

±10 μA

1 pA

0.03% +1 nA

80 pA

±1 μA[4]

100 fA

0.03% + 200 pA

20 pA

Temperature Coefficient

±(0.15 × accuracy)/℃ (0℃-18℃,28℃-50℃)

Overshoot

<±0.1% (typical. normal mode. step is 10% to 90% range, full range, resistive load)


[3] 3A range is available only for pulse mode, accuracy specifications for 3A range are typical

[4] Low Current Measurements, Triaxial Cable is recommended to connect: HI connect to core cable, Guard connects to inner shield, outer shield connects to protective ground, LO connect to core cable, inner shield not connect, and outer shield connect to protective ground. Triaxial Cable rated insulation voltage is not less than 250V




Pulse Source Specifications



Minimum Programmable Pulse Width 100 μs
Pulse Width Programming Resolution 1 μs
Pulse Width Programming Accuracy ±10 μs
Pulse Width Jitter 2 μs
Pulse Width Definition The time from 10% leading to 90% trailing edge as follows



Maximums Maximum Pulse Width Maximum Duty Cycle
0.1 A/200 V DC, no limit 100%
1 A/20 V DC, no limit 100%
3 A/66.6 V 1 ms 5%
3 A/160 V 400 μs 2%






Typical Pulse Performance


Source Maximum Output Typical Rise Time[5] Typical Settling Time[6] Test load


Voltage
160 V 800 μs 1.2 ms No load
5 V 50 μs 100 μs No load


Current
3A~1 mA 90 μs 250 μs Full load[7]
100μA ~10 μA 150 μs 400 μs Full load[7]
1 μA 800 μs 1.2 ms Full load[7]


[5] Leading edge, the time from 10% leading to 90% leading

[6] The time required from pulse out 0 to reach within 1% of final value

[7] Test condition: Normal, resistive load 6V maximum output





Sampling Rate and NPLC Setting



Setting Range
NPLC 0.00005 PLC ~ 10 PLC
Sampling Rate 5 sps ~ 1 Msps




Typical Output Settling Time


Source

Range

Output Settling Time[8]

Condition

Fast[9]

Normal

Slow 

Voltage

200 V

<600 μs

<2 ms

<2 ms

Time required to reach within 0.1 % of final value at open load condition.
Step is 10% to 90% range

20 V

<80 μs

<150 μs

<800 μs

6 V

<60 μs

<100 μs

<300 μs

0.6 V

<60 μs

<60 μs

<60 μs

Current

3 A~1 mA

<100 μs

<180 μs

<0.8 ms

Time required to reach within 0.1% (0.3% for 3A range) of final value at short condition.
Step is 10% to 90% range

100μA~10 μA

<150 μs

<250 μs

<0.8 ms

1 μA

<1 ms

<1 ms

<1 ms

[8] Output transition speed:Fast, Normal, Slow. Users can adjust the APFC parameters based on the load characteristics to obtain precision, and fast output characteristics

[9] Slow mode is recommended for overshoot sensitive equipment, Fast mode may have overshoot on output in some condition

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