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Typical operating characteristics – Rainbow Electronics MAX106 User Manual

Page 6

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MAX106

±5V, 600Msps, 8-Bit ADC with On-Chip
2.2GHz Bandwidth Track/Hold Amplifier

6

_______________________________________________________________________________________

Typical Operating Characteristics

(V

CC

A = V

CC

I = V

CC

D = +5.0V, V

EE

= -5.0V, V

CC

O = +3.3V, REFIN connected to REFOUT, f

S

= 600Msps, T

A

= +25°C, unless other-

wise noted.)

8.00

10

100

1000

EFFECTIVE NUMBER OF BITS vs.

ANALOG INPUT FREQUENCY

(SINGLE-ENDED ANALOG INPUT DRIVE)

MAX106 toc01

ANALOG INPUT FREQUENCY (MHz)

ENOB (Bits)

6.75

6.50

7.25

7.50

7.00

7.75

-6dBFS

-1dBFS

-12dBFS

8.00

10

100

1000

EFFECTIVE NUMBER OF BITS vs.

ANALOG INPUT FREQUENCY

(DIFFERENTIAL ANALOG INPUT DRIVE)

MAX106 toc02

ANALOG INPUT FREQUENCY (MHz)

ENOB (Bits)

6.75

6.50

7.25

7.50

7.00

7.75

-6dBFS

-1dBFS

-12dBFS

SIGNAL-TO-NOISE + DISTORTION

vs. ANALOG INPUT FREQUENCY

(SINGLE-ENDED ANALOG INPUT DRIVE)

MAX106 toc03

ANALOG INPUT FREQUENCY (MHz)

SINAD (dB)

100

35

40

45

50

55

30

10

1000

-1dB FS

-6dB FS

-12dB FS

SIGNAL-TO-NOISE + DISTORTION

vs. ANALOG INPUT FREQUENCY

(DIFFERENTIAL ANALOG INPUT DRIVE)

MAX106 toc04

ANALOG INPUT FREQUENCY (MHz)

SINAD (dB)

100

35

40

45

50

55

30

10

1000

-1dB FS

-6dB FS

-12dB FS

50

10

100

1000

SIGNAL-TO-NOISE RATIO vs.

ANALOG INPUT FREQUENCY

(SINGLE-ENDED ANALOG INPUT DRIVE)

MAX106 toc05

ANALOG INPUT FREQUENCY (MHz)

SNR (dB)

30

38

42

34

46

-1dBFS

-12dBFS

-6dBFS

50

10

100

1000

SIGNAL-TO-NOISE RATIO vs.

ANALOG INPUT FREQUENCY

(DIFFERENTIAL ANALOG INPUT DRIVE)

MAX106 toc06

ANALOG INPUT FREQUENCY (MHz)

SNR (dB)

30

38

42

34

46

-6dBFS

-1dBFS

-12dBFS

Note 12: Total harmonic distortion (THD) is computed from the first five harmonics.
Note 13: Guaranteed by design with a reset pulse width of one clock period or longer.
Note 14: Guaranteed by design. The DREADY to DATA propagation delay is measured from the 50% point on the rising edge of the

DREADY signal (when the output data changes) to the 50% point on a data output bit. This places the falling edge of the
DREADY signal in the middle of the data output valid window, within the differences between the DREADY and DATA rise
and fall times, which gives maximum setup and hold time for latching external data latches.