EEWORLDEEWORLDEEWORLD

Part Number

Search

3GDW62GC-30N-800.000

Description
Oscillator
CategoryPassive components    oscillator   
File Size205KB,3 Pages
ManufacturerMercury
Websitehttp://www.mercuryunited.com
Download Datasheet Parametric View All

3GDW62GC-30N-800.000 Overview

Oscillator

3GDW62GC-30N-800.000 Parametric

Parameter NameAttribute value
MakerMercury
Reach Compliance Codecompliant
Base Number Matches1
GD
Applications
LVDS Differential
F group
0.5 ps
W group
4.0 ps
Min.
Thru-Hole
SMD
3.3V
750KHz
Max.
800MHz
GDF and GDW uses a high-Q fundamental crystal and a low jitter multiplier circuit.
GDF offers < 1 ps phase jitter at only a fraction of the cost of a high frequency
fundamental crystal VCXO. GDW series has moderate jitter at a low cost.
General specifications of GDF and GDW only , at Ta=+25°C , CL=15pF
Model
Technology
Output Logic
Available Frequency Range
Supply Voltage V
DD
Supply Voltage Code
Output Logic " High " , " 1 "
Output Logic " Low " , " 0 "
Differential Output Voltage, V
OD
Differential Output Error, V
OD
Output Offset Voltage, Vos
Offset Magnitude Error (
△Vos
)
Integrated Phase Jitter
(12 KHz to 20 MHz)
Period Jitter
(RMS ; Decoupling
capacitor between V
DD
and ground )
Period Jitter(peak-to-peak ;Decoupling
capacitor between V
DD
and ground )
Current Consumption (15 pF load)
"
GDF
" series
High Q fundamental crystal +
low jitter multiplier circuit
LVDS
38.0 MHz ~ 640.0 MHz
+3.3 V
DD
± 5%
"3"
1.4 V typical ; 1.6 V max.
0.9 V min. ; 1.1 V typical.
"
GDW
" series
High Q fundamental crystal +
multiplier circuit
750 KHz ~ 800.0 MHz
+3.3 V
DD
± 5%
"3"
247 mV min.; 355 mV typical ; 454 mV max. Output 1 - output 2
-50 mV min ; 50 mV max.
1.125 V min. ; 1.200 V typical ; 1.375 V max.
0 mV min. ; 3 mV typical ; 25 m V max.
0.4 ps typical; 0.5 ps max. [ for 156.250 MHz ]
3.0 ps typical; 5 ps max. [ for 156.250 MHz ]
20 ps typical; 30 ps max. [ for 156.250 MHz ]
38 MHz ~ 100 MHz - - - - - - - - - 65 mA max
100.01 MHz ~ 320 MHz - - - - - - - 80 mA max.
320.01 MHz ~ 640 MHz - - - - - - 90 mA max.
0.7 ns typical , 1.0 ns max.
( 20%↔80% of the LVDS wave form )
Frequency Stability over
± 25 ppm
± 50 ppm
Operating Temperature Range
Commercial "C" ( -10°C
~ +70°C
)
Industrial "
I
" (
-40°C to +85°C
)
A
D
B
E
2.6 ps typical; 4 ps max. [ for 155.520 MHz ]
4.3 ps typical. [ for 155.520 MHz ]
27 ps typical. [ for 155.520 MHz ]
< 24 MHz - - - - - - - - - - - - - - - - 25 mA max
24.01 MHz ~ 96 MHz - - - - - - - - 65 mA max
96.01 MHz ~ 800 MHz - - - - - - - 100 mA max..
1.5 ns max.
( 20%↔80% of the LVDS wave form )
± 100 ppm
C
F
If non-standard , please enter the desired
stability after the " C " or "
I
" .
For example :
" C20 " : ± 20 ppm over -10°C to +70°C
"
I20
" : ± 20 ppm over -40°C to +85°C
Rise Time / Fall Time
Frequency Stability
(1)
Codes
Load
Start-up Time
Duty Cycle
Drive Capability
Aging at Ta = +25°C
Control Voltage Center , Range
Voltage Control
Characteristics
Frequency Deviation Range
Linearity
Slope Polarity
Modulation Bandwidth
Input Impedance
No Connection
Tri - State Function.
on pad No. 2
Disable
50
from each output
5 m sec. typical; 10 m sec. max.
50% ± 5% ( measured at 1.25V)
100 ohms between LVDS output and complimentary LVDS output.
± 3 ppm max. first year ; ± 2 ppm max. per year thereafter
+ 1.65 V , Vcon =+0.3V to +3.0V
±80 ppm ( min.) . Use " N " ( minimum ) , " M " ( maxiimum ) , " T " ( typical,±20% ) for the desired range .
Example : " 100N " represents ±100ppm ( min.) .
6% typical ; 10% max.
Positive : Positive voltage for positive frequency shift
25 KHz min. ( -3dB , 0V
Vcontrol
3.3V )
60 KΩ min.
Differential LVDS and compliantary LVDS outputs .
Both outputs are disabled ( high impedance ) when pad No.2 is taken below 0.45*Vcc referenced to
ground ( threshold ) Oscillator is always On . Only buffer stage is disabled .
Disable current : 50 uA max. ( at 0.0V ) , Disable time : 10 ns (max.)
Enable
At disabled mode , both outputs are enabled when Tri-state pad is taken above 0.45*Vcc referenced to
ground ( threshold ) ;
Offset
10 Hz
100 Hz
1 KHz
10 KHz
100 KHz
1 MHz
10 MHz
Enable time : 10ns + one period of the output frequency (max.)
Frequency: 156.250 MHz
-62 dBc / Hz
-92 dBc / Hz
-120 dBc / Hz
-132 dBc / Hz
-128 dBc / Hz
-140 dBc / Hz
-150 dBc / Hz
Frequency: 155.520 MHz
-60 dBc / Hz
-90 dBc / Hz
-115 dBc / Hz
-125 dBc / Hz
-119 dBc / Hz
-120 dBc / Hz
-140 dBc / Hz
2 MΩ min.
Phase Noise :
Tested with Vcontrol pin connected
to ground ( typical )
(1)
Pad 1
Inclusive of 25ºC tolerance, operating temperature range, ±10% input voltage variation, load change, aging shock and vibration
Mercury
www .mercury-crystal.com
Taiwan : Tel (886)-2-2406-2779 /
sales-tw@mercury-crystal.com
U.S.A: Tel: (1)-909-466-0427 /
sales-us@mercury-crystal.com
■China:
Tel: (86)-512-5763-8100 /
sales-cn@mecxtal.com
A 10K Hz square wave with a duty cycle of 30% oscillates for a long time after being filtered by LC?
[p=25, null, left][color=#000][font=Tahoma, Helvetica, sans-serif]Bidirectional buck/boost circuit, pulse duty cycle is set to 30%, frequency is 10k Hz, LC filter front end is also a 30% duty cycle sq...
喜鹊王子 Analogue and Mixed Signal
Common problems and solutions in CCS compilation
1. warning: creating .stack section with default size of 400 (hex) words.This is because there is no set value for -stack in Project---Build Option---Linker. 2. warning: creating .sysmem section with ...
fish001 Microcontroller MCU
Design of an Integer Divider with Adjustable Calculation Precision Based on Verilog
[i=s] This post was last edited by paulhyde on 2014-9-15 09:26 [/i] Design of an integer divider with adjustable precision based on Verilog...
幺幺莫莫 Electronics Design Contest
Knowledge and skills required for qualified electronic engineers
Mastering the following hardware and software knowledge, you can basically become a qualified electronic engineer: Part I: Hardware Knowledge 1. Digital signal 1. TTL and buffered TTL signal 2. RS232 ...
征服 Embedded System
Problems with the EDIT Control in VS
How to set the scroll bar of the edit box of the VS Edit Control to scroll down automatically as the content increases?...
airchensu Embedded System
Can TVS be used to extinguish arcs?
Relays and other equipment will arc during operation due to the influence of induced electromotive force. In this way, relays are prone to failure. In practice, RC circuits are used to suppress arcing...
bigbat Motor Drive Control(Motor Control)

EEWorld
subscription
account

EEWorld
service
account

Automotive
development
circle

Robot
development
community

Index Files: 1981  2009  1926  823  2606  40  41  39  17  53 
Datasheet   0 1 2 3 4 5 6 7 8 9 A B C D E F G H I J K L M N O P Q R S T U V W X Y Z
Room 1530, 15th Floor, Building B, No. 18 Zhongguancun Street, Haidian District, Beijing Telephone: (010) 82350740 Postal Code: 100190
Copyright © 2005-2026 EEWORLD.com.cn, Inc. All rights reserved 京ICP证060456号 京ICP备10001474号-1 电信业务审批[2006]字第258号函 京公网安备 11010802033920号