at TA = 25°C,
VDD = 5.5 V, Internal reference = 2.5 V, REF-DIV = 0 and BUFF-GAIN = 1, and DAC
outputs unloaded (unless otherwise noted)
Figure 7-3 Integral Linearity Error vs Digital Input Code Figure 7-5 Total Unadjusted Error vs Digital Input Code Figure 7-7 Differential Linearity Error vs Temperature Figure 7-9 Zero Code Error vs Temperature Figure 7-11 Full Scale Error vs Temperature REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-13 Integral Linearity Error vs Supply VoltageFigure 7-15 Total
Unadjusted Error vs Supply Voltage Figure 7-17 Offset Error vs Supply Voltage Figure 7-19 Full
Scale Error vs Supply Voltage Figure 7-21 Differential Linearity Error vs Reference Voltage Figure 7-23 Zero
Code Error vs Reference Voltage Figure 7-25 Gain
Error vs Reference Voltage Figure 7-27 Supply Current vs Digital Input Code Figure 7-29 Supply Current vs Supply Voltage
External reference = 2.5 V, REF-DIV = 1 and BUFF-GAIN =
0 |
Figure 7-31 Power
Down Current vs Supply Voltage
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-33 Source and Sink Capability
REF-DIV = 1 and BUFF-GAIN = 0 |
|
Figure 7-35 Source and Sink Capability
DAC
code transition from midscale to midscale – 1
LSB, |
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-37 Glitch Impulse, Falling Edge, 1‑LSB Step
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-39 Full-Scale Settling Time, Falling Edge
REF-DIV = 0 and BUFF-GAIN = 0 |
|
Figure 7-41 Power-off Glitch
fo = 1 kHz, fs = 400 kHz,
includes 7 harmonics, |
measurement bandwidth = 20 kHz, external reference =
2.5 V, |
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-43 DAC
Output THD+N vs Frequency
DAC
code at midscale, external reference = 2.5 V, |
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-45 DAC
Output Noise 0.1 Hz to 10 Hz
DAC
code at midscale, external reference = 2.5 V, |
SCLK
= 1 MHz, REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-47 Clock
FeedthroughFigure 7-49 Internal Reference Voltage vs Supply Voltage Figure 7-51 Internal Reference Noise Density vs Frequency Figure 7-53 Internal Reference Temperature Drift Histogram Figure 7-55 Internal Reference
Temperature Drift (Pre- and Post-Solder) Histogram Figure 7-4 Differential Linearity Error vs Digital Input Code Figure 7-6 Integral Linearity Error vs Temperature Figure 7-8 Total Unadjusted Error vs Temperature Figure 7-10 Offset Error vs Temperature Figure 7-12 Gain Error vs Temperature REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-14 Differential Linearity Error vs Supply VoltageFigure 7-16 Zero
Code Error vs Supply Voltage Figure 7-18 Gain
Error vs Supply Voltage Figure 7-20 Integral Linearity Error vs Reference Voltage Figure 7-22 Total
Unadjusted Error vs Reference Voltage Figure 7-24 Offset Error vs Reference Voltage Figure 7-26 Full
Scale Error vs Reference Voltage Figure 7-28 Supply Current vs Temperature
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-30 Power
Down Current vs Temperature
External reference = 2.5 V |
Figure 7-32 Headroom and Footroom vs Load Current
REF-DIV = 0 and BUFF-GAIN = 1 |
Figure 7-34 Source and Sink Capability
DAC
code transition from midscale – 1 to midscale
LSB, |
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-36 Glitch Impulse, Rising Edge, 1‑LSB Step
REF-DIV = 0 and BUFF-GAIN = 0 |
|
Figure 7-38 Full-Scale Settling Time, Rising Edge
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-40 Power-on Glitch
DAC
code at midscale, VDD = 5.0 V + 0.2
VPP, |
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-42 DAC
Output AC PSRR vs Frequency
Gain
= 1X (REF-DIV = 1 and BUFF-GAIN = 1), |
external reference = 2.5 V, |
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-44 DAC
Output Noise Spectral Density
DAC
code at midscale, internal reference = 2.5 V, |
REF-DIV = 0 and BUFF-GAIN = 0 |
Figure 7-46 DAC
Output Noise 0.1 Hz to 10 HzFigure 7-48 Internal Reference Voltage vs Temperature Figure 7-50 Internal Reference Voltage vs Time Figure 7-52 Internal Reference Noise, 0.1 Hz to 10 Hz Figure 7-54 Internal Reference Initial Accuracy (Pre- and Post-Solder)
Histogram