データシートサーチシステム
  Japanese  ▼
ALLDATASHEET.JP

X  

MC10E211 データシート(PDF) 8 Page - ON Semiconductor

部品番号 MC10E211
部品情報  5V ECL 1:6 Differential Clock Distribution Chip
Download  11 Pages
Scroll/Zoom Zoom In 100%  Zoom Out
メーカー  ONSEMI [ON Semiconductor]
ホームページ  http://www.onsemi.com
Logo ONSEMI - ON Semiconductor

MC10E211 データシート(HTML) 8 Page - ON Semiconductor

Back Button MC10E211 Datasheet HTML 3Page - ON Semiconductor MC10E211 Datasheet HTML 4Page - ON Semiconductor MC10E211 Datasheet HTML 5Page - ON Semiconductor MC10E211 Datasheet HTML 6Page - ON Semiconductor MC10E211 Datasheet HTML 7Page - ON Semiconductor MC10E211 Datasheet HTML 8Page - ON Semiconductor MC10E211 Datasheet HTML 9Page - ON Semiconductor MC10E211 Datasheet HTML 10Page - ON Semiconductor MC10E211 Datasheet HTML 11Page - ON Semiconductor  
Zoom Inzoom in Zoom Outzoom out
 8 / 11 page
background image
MC10E211, MC100E211
http://onsemi.com
8
APPLICATIONS INFORMATION
Differential versus Single−Ended Use
As can be seen from the data sheet, to minimize the skew
of the E211 the device must be used in the differential mode.
In the single−ended mode the propagation delays are
dependent on the relative position of the VBB switching
reference. Any VBB offset from the center of the input swing
will add delay to either the TPLH or TPHL and subtract delay
from the other. This increase and decrease in delay will lead
to an increase in the duty cycle skew and thus part−to−part
skew. The within−device skew will be independent of the
VBB and therefore will be the same regardless of whether the
device is driven differentially or single−ended.
For applications where part−to−part skew or duty cycle
skew are not important the advantages of single−ended
clock distribution may lead to its use. Using single−ended
interconnect will reduce the number of signal traces to be
routed, but remember that all of the complementary outputs
still need to be terminated therefore there will be no
reduction in the termination components required. To use
the E211 with a single−ended input the arrangement pictured
in Figure 5 should be used. If the input to the differential
CLK inputs are AC coupled as pictured in Figure 4 the
dependence on a centered VBB reference is removed. The
situation pictured will ensure that the input is centered
around the bias set by the VBB. As a result when AC coupled
the AC specification limits for a differential input can be
used. For more information on AC coupling please refer to
the interfacing section of the design guide in the ECLinPS
data book.
Using the Enable Pins
Both the common enable (CEN) and the individual
enables (ENx) are synchronous to the CLK or SCLK input
depending on which is selected. The active low signals are
clocked into the enable flip flops on the negative edges of the
E211 clock inputs. In this way the devices will only be
disabled when the outputs are already in the LOW state. The
internal propagation delays are such that the delay to the
output through the distribution buffers is less than that
through the enable flip flops. This will ensure that the
disabling of the device will not slice any time off the clock
pulse. On initial power up the enable flip flops will randomly
attain a stable state, therefore precautions should be taken on
initial power up to ensure the E211 is in the desired state.
IN
IN
0.01 mF
VBB
50 W
0.001mF
IN
0.01mF
Figure 4. AC Coupled Input
VBB
Figure 5. Single−Ended Input
IN


同様の部品番号 - MC10E211

メーカー部品番号データシート部品情報
logo
ON Semiconductor
MC10E211 ONSEMI-MC10E211 Datasheet
123Kb / 7P
   1:6 DIFFERENTIAL CLOCK DISTRIBUTION CHIP
1996 REV 3
More results

同様の説明 - MC10E211

メーカー部品番号データシート部品情報
logo
ON Semiconductor
MC10EL15 ONSEMI-MC10EL15_05 Datasheet
147Kb / 8P
   5V ECL 1:4 Clock Distribution Chip
August, 2005 ??Rev. 5
MC100EL14 ONSEMI-MC100EL14_06 Datasheet
122Kb / 8P
   5V ECL 1:5 Clock Distribution Chip
October, 2006 ??Rev. 7
logo
Pericom Semiconductor C...
PI90LV211 PERICOM-PI90LV211 Datasheet
185Kb / 9P
   1:6 Differential Clock Distribution Chip
logo
ON Semiconductor
MC10E211 ONSEMI-MC10E211 Datasheet
123Kb / 7P
   1:6 DIFFERENTIAL CLOCK DISTRIBUTION CHIP
1996 REV 3
MC10E111 ONSEMI-MC10E111_16 Datasheet
174Kb / 9P
   5V ECL 1:9 Differential Clock Driver
July, 2016 ??Rev. 17
MC10E111 ONSEMI-MC10E111_06 Datasheet
143Kb / 10P
   5V ECL 1:9 Differential Clock Driver
November, 2006 ??Rev. 16
MC100LVEL14 ONSEMI-MC100LVEL14_06 Datasheet
127Kb / 6P
   3.3V ECL 1:5 Clock Distribution Chip
November, 2006 ??Rev. 8
MC100EL38 ONSEMI-MC100EL38_06 Datasheet
122Kb / 7P
   5V ECL 첨2, 첨4/6 Clock Generation Chip
October, 2006 ??Rev. 7
MC10E451 ONSEMI-MC10E451_06 Datasheet
134Kb / 9P
   5V ECL 6?묪it D Register Differential Data and Clock
November, 2006 ??Rev. 9
MC10EL15 ONSEMI-MC10EL15_16 Datasheet
163Kb / 8P
   5V ECL 1:4 Clock Distribution Chip
July, 2016 ??Rev. 7
More results


Html Pages

1 2 3 4 5 6 7 8 9 10 11


データシート ダウンロード

Go To PDF Page


リンク URL




プライバシーポリシー
ALLDATASHEET.JP
ALLDATASHEETはお客様のビジネスに役立ちますか?  [ DONATE ] 

Alldatasheetは   |   広告   |   お問い合わせ   |   プライバシーポリシー   |   リンク交換   |   メーカーリスト
All Rights Reserved©Alldatasheet.com


Mirror Sites
English : Alldatasheet.com  |   English : Alldatasheet.net  |   Chinese : Alldatasheetcn.com  |   German : Alldatasheetde.com  |   Japanese : Alldatasheet.jp
Russian : Alldatasheetru.com  |   Korean : Alldatasheet.co.kr  |   Spanish : Alldatasheet.es  |   French : Alldatasheet.fr  |   Italian : Alldatasheetit.com
Portuguese : Alldatasheetpt.com  |   Polish : Alldatasheet.pl  |   Vietnamese : Alldatasheet.vn
Indian : Alldatasheet.in  |   Mexican : Alldatasheet.com.mx  |   British : Alldatasheet.co.uk  |   New Zealand : Alldatasheet.co.nz
Family Site : ic2ic.com  |   icmetro.com