2.3 Electrical Parameters and Values

Table 2-1. SY75712 Current ConsumptionVDD = 1.8V ±10%, VDD = 1.5V ±10%, VDD = 1.2V ±10%, TA = –40°C to +105°C

Parameter

Symbol

Min.

Typ.

Max.

Units

Condition

VDD Supply Current

IDD_1.8V

—

6.5

7.5

mA

Note 1

IDD_1.5V

—

5.3

6.1

IDD_1.2V

—

4.1

4.7

Note:
  1. Tested with 25 MHz clock with outputs driving 4” long trace with 50Ω characteristic impedance, terminated with 2 pF capacitors to ground.
Table 2-2. SY75714 Current ConsumptionVDD = 1.8V ±10%, VDD = 1.5V ±10%, VDD = 1.2V ±10%, TA = –40°C to +105°C

Parameter

Symbol

Min.

Typ.

Max.

Units

Condition

VDD Supply Current

IDD_1.8V

—

9.8

11.3

mA

Note 1

IDD_1.5V

—

8.0

9.2

IDD_1.2V

—

6.3

7.3

Note:
  1. Tested with 25 MHz clock with outputs driving 4” long trace with 50Ω characteristic impedance, terminated with 2 pF capacitors to ground.
Table 2-3. Input Electrical CharacteristicsVDD = 1.8V ±10%, VDD = 1.5V ±10%, VDD = 1.2V ±10%, TA = –40°C to +105°C

Parameter

Symbol

Min.

Typ.

Max.

Units

Condition

Input High Voltage

VIH

0.7 × VDD

—

—

V

—

Input Low Voltage

VIL

—

—

0.3 × VDD

V

—

Input Leakage Current

IIL_IN

–5

—

50

µA

VIN = VINMAX, VIN = GND

Input Capacitance

CIN

—

—

5

pF

—

Input Leakage Current for OExb Inputs (includes current due to pull-down resistors)

IIL_OE

–5

—

50

µA

VIN = VDD, VIN = GND

Maximum Input Voltage

VINMAX

—

—

VDD + 0.4

V

—

Minimum Input Voltage

VINMIN

–0.3

—

—

V

—

Input Frequency

fIN

0

—

250

MHz

—

Input Pulse Width

tPW

2

—

—

ns

—

Input Rise/Fall Time (20% to 80%)

tr/tf

—

0.6

10

ns

—

Table 2-4. Output Electrical CharacteristicsVDD = 1.8V ±10%, VDD = 1.5V ±10%, VDD = 1.2V ±10%, TA = –40°C to +105°C, see Note 1
ParameterSymbolMin.Typ.Max.UnitsConditions
Output Rise Time (20% to 80%)tr—350580psNote 1
Output Edge Fall Time (80% to 20%)tf—350580psNote 1
Output High VoltageVOH0.8 × VDD——VIOUT = 3 mA
Output Low VoltageVOL——0.2 × VDDVIOUT = –3 mA
Output Duty Cycle (when input has 50% duty cycle) DC455055%fOUT = 156.25 MHz
Output Frequency fMAX

0

—250MHz—
Output-to-Output Skew tOOSK—3850ps—
Device-to-Device SkewtDDSK——550ps—
Input-to-Output Delay tIOD_CMOS_IN1.11.5 2.1ns—
Output Enable TimetEN3—5Clock cycles—
Output Disable TimetDIS3—5Clock cycles—
Output ImpedanceOIMP405060ΩNote 2
Notes:
  1. Bench tested with 100 MHz clock with outputs driving 4” long trace with 50Ω characteristic impedance, terminated with 2 pF capacitors to ground.
  2. 50Ω output impedance is with 1.2V VDD. When output is powered with 1.8V VDD, the output impedance will be slightly lower (approximately 40Ω).
Table 2-5. SY75712/14 Jitter and Phase Noise
ParameterSymbolMin.

Typ.

Max.UnitsConditions
VDD = 1.8V ±10%, TA = –40°C to +105°C, see Note 1
Additive RMS Jitter in 1 MHz to 5 MHz Bandtj_1M_5M—

15.3

26.5fsRMS25 MHz clock
Additive RMS Jitter in 1 MHz to 20 MHz Bandtj_1M_20M—

16.0

25.2fsRMS100 MHz clock
Additive RMS Jitter in 1 MHz to 20 MHz Bandtj_1M_20M—15.824.7fsRMS156.25 MHz clock
Additive RMS Jitter in 12 kHz to 5 MHz Band tj_12k_5M—19.734.4fsRMS25 MHz clock
Additive RMS Jitter in 12 kHz to 20 MHz Bandtj_12k_20M—16.926.3fsRMS100 MHz clock
Additive RMS Jitter in 12 kHz to 20 MHz Bandtj_12k_20M—16.926.1fsRMS156.25 MHz clock
Noise FloorNF—–175.2—dBc/Hz25 MHz clock
—–172.8—dBc/Hz100 MHz clock
—–169.7—dBc/Hz156.25 MHz clock
VDD = 1.2V ±10%, TA = –40°C to +105°C, see Note 1
Additive RMS Jitter in 1 MHz to 5 MHz Bandtj_1M_5M—35.156.8fsRMS25 MHz clock
Additive RMS Jitter in 1 MHz to 20 MHz Bandtj_1M_20M—33.753.9fsRMS100 MHz clock
Additive RMS Jitter in 1 MHz to 20 MHz Bandtj_1M_20M—32.048.7fsRMS156.25 MHz clock
Additive RMS Jitter in 12 kHz to 5 MHz Bandtj_12k_5M—42.266.7fsRMS25 MHz clock
Additive RMS Jitter in 12 kHz to 20 MHz Bandtj_12k_20M—36.357.1fsRMS100 MHz clock
Additive RMS Jitter in 12 kHz to 20 MHz Bandtj_12k_20M—35.953.5fsRMS156.25 MHz clock
Noise FloorNF—–171.9—dBc/Hz25 MHz clock
—–168.8—dBc/Hz100 MHz clock
—–165.2—dBc/Hz156.25 MHz clock
Note:
  1. Tested with input fed with low jitter clock from R&S SMA100B function generator and with outputs driving R&S FSWP8 Phase Noise Analyzer via SMA cable.