Max109, Ac electrical characteristics (continued) – Rainbow Electronics MAX109 User Manual
Page 6

MAX109
8-Bit, 2.2Gsps ADC with Track/Hold Amplifier
and 1:4 Demultiplexed LVDS Outputs
6
_______________________________________________________________________________________
AC ELECTRICAL CHARACTERISTICS (continued)
(V
CC
A = V
CC
I = V
CC
D = 5V, V
CC
O = 3.3V, V
EE
= -5V, GNDA = GNDI = GNDD = GNDO = GNDR = 0V, f
CLK
= 2.2Gsps, analog input
amplitude at -1dBFS differential, clock input amplitude 400mV
P-P
differential, digital output pins differential R
L
= 100Ω. Typical values
are at T
A
= +25°C, unless otherwise noted.)
PARAMETER
SYMBOL
CONDITIONS
MIN
TYP
MAX
UNITS
SFDR
300
f
IN
= 300MHz, f
CLK
= 2.2Gsps
61.7
SFDR
1000
f
IN
= 1000MHz, f
CLK
= 2.2Gsps (Note 8)
44.4
51.1
SFDR
1600
f
IN
= 1600MHz, f
CLK
= 2.2Gsps (Note 8)
43.7
50.3
SFDR
2500
f
IN
= 2500MHz, f
CLK
= 2.2Gsps
45.0
SFDR
500
f
IN
= 500MHz, f
CLK
= 2.5Gsps
53.7
Spurious Free Dynamic Range
SFDR
1600
f
IN
= 1600MHz, f
CLK
= 2.5Gsps
44.6
dBc
SINAD
300
f
IN
= 300MHz, f
CLK
= 2.2Gsps
44.1
SINAD
1000
f
IN
= 1000MHz, f
CLK
= 2.2Gsps (Note 8)
40.4
43.1
SINAD
1600
f
IN
= 1600MHz, f
CLK
= 2.2Gsps (Note 8)
37.9
42.1
SINAD
2500
f
IN
= 2500MHz, f
CLK
= 2.2Gsps
40.1
SINAD
500
f
IN
= 500MHz, f
CLK
= 2.5Gsps
43.1
Signal-to-Noise-Plus-Distortion
Ratio
SINAD
1600
f
IN
= 1600MHz, f
CLK
= 2.5Gsps
40.5
dB
Third-Order Intermodulation
IM3
f
IN1
= 1590MHz, f
IN2
= 1610MHz at -7dBFS
-60
dBc
Metastability Probability
10
-14
TIMING CHARACTERISTICS
Maximum Sample Rate
f
CLK(MAX)
2.2
Gsps
Clock Pulse-Width Low
t
PWL
t
CLK
= t
PWL
+ t
PWH
(Note 8)
180
ps
Clock Pulse-Width High
t
PWH
t
CLK
= t
PWL
+ t
PWH
(Note 8)
180
ps
Aperture Delay
t
AD
200
ps
Aperture Jitter
t
AJ
0.2
ps
Reset Input Data Setup Time
t
SU
(Note 8)
300
ps
Reset Input Data Hold Time
t
HD
(Note 8)
250
ps
t
PD1
DCO = f
CLK
/ 4, CLK fall to DCO rise time
1.6
t
PD1DDR
DCO = f
CLK
/ 8, DDR mode, CLK fall to
DCO rise time
1.6
CLK-to-DCO Propagation Delay
t
PD1QDR
DCO = f
CLK
/ 16, QDR mode, CLK fall to
DCO rise time
1.6
ns
t
PD2
DCO = f
CLK
/ 4, DCO rise to data transition
(Note 8)
-520
+520
t
PD2DDR
DCO = f
CLK
/ 8, DDR mode, DCO rise to
data transition (Note 8)
-520 +
2t
CLK
2t
CLK
520 +
2t
CLK
DCO-to-Data Propagation Delay
t
PD2QDR
DCO = f
CLK
/ 16, QDR mode, DCO rise to
data transition (Note 8)
-520 +
2t
CLK
2t
CLK
520 +
2t
CLK
ps
DCO Duty Cycle
Clock mode independent
45 to
55
%