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3.3V Low Skew PLL Clock Driver TurboClock Jr.

Package Information

Pkg. Type: SOIC
Pkg. Code: PSG24
Lead Count (#): 24
Pkg. Dimensions (mm): 15.4 x 7.6 x 2.34
Pitch (mm): 1.27

Environmental & Export Classifications

Pb (Lead) Free Yes
ECCN (US) EAR99
HTS (US) 8542.39.0090
Moisture Sensitivity Level (MSL) 1

Product Attributes

Pkg. Type SOIC
Lead Count (#) 24
Pb (Lead) Free Yes
Carrier Type Tube
C-C Jitter Max P-P (ps) 200
Core Voltage (V) 3.3
Feedback Input Yes
Input Freq (MHz) 15 - 85
Input Type LVCMOS, LVTTL
Inputs (#) 1
Length (mm) 15.4
MOQ 62
Moisture Sensitivity Level (MSL) 1
Output Banks (#) 1
Output Freq Range (MHz) 15 - 85
Output Signaling LVCMOS, LVTTL
Output Skew (ps) 250
Output Type LVCMOS, LVTTL
Output Voltage (V) 3.3
Outputs (#) 8
Package Area (mm²) 117
Pb Free Category e3 Sn
Pitch (mm) 1.27
Pkg. Dimensions (mm) 15.4 x 7.6 x 2.34
Prog. Clock No
Published No
Qty. per Carrier (#) 31
Qty. per Reel (#) 0
Requires Terms and Conditions Does not require acceptance of Terms and Conditions
Tape & Reel No
Temp. Range (°C) -40 to 85°C
Thickness (mm) 2.34
Width (mm) 7.6

Description

The 5V9910A is a high fanout phase locked-loop clock driver intended for high performance computing and data-communications applications. It has eight zero delay LVTTL outputs. When the GND/sOE pin is held low, all the outputs are synchronously enabled. However, if GND/sOE is held high, all the outputs except Q2 and Q3 are synchronously disabled. Furthermore, when the VCCQ/PE is held high, all the outputs are synchronized with the positive edge of the REF clock input. When VCCQ/ PE is held low, all the outputs are synchronized with the negative edge of REF. The FB signal is compared with the input REF signal at the phase detector in order to drive the VCO. Phase differences cause the VCO of the PLL to adjust upwards or downwards accordingly. An internal loop filter moderates the response of the VCO to the phase detector. The loop filter transfer function has been chosen to provide minimal jitter (or frequency variation) while still providing accurate responses to input frequency changes.