mises a jour

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Franck Wajsburt 1999-09-28 07:21:23 +00:00
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.\" $Id: sxlib.5,v 1.4 1999/09/27 17:06:10 franck Exp $
.\" $Id: sxlib.5,v 1.5 1999/09/28 07:21:23 franck Exp $
.\" @(#)Labo.l 0.0 92/09/24 UPMC; Author: Franck Wajsburt
.pl -.4
.TH SXLIB 5 "September 16, 1999" "ASIM/LIP6" "CAO\-VLSI Reference Manual"
.SH NAME
.B sxlib - a portable CMOS Standard Cell Library
@ -10,15 +9,28 @@
\fBsxlib\fP library contains standard cells that have been developed at
UPMC-ASIM/LIP6. This manual gives the list of available cells, with their
behavior, width, maximum delay and input fan-in.
behavior, width, maximum delay and input fan-in. This manual gives also
few thumb rules to help the user to well use the cells. The given delais
are the maximum (that means worst case for a generic .35 micron process).
More precise delais can be found in ALLIANCE VHDL behavior files (.vbe file).
Cell-name is built that way <behavior>_<output drive>
(see explanations below).
.nf
Three files are attached to each cell:-
- Layout cell-name.ap
- Transistor net-list cell-name.al
- VHDL behavior cell-name.vbe
Four files are attached to each cell:-
- ALLIANCE Layout ............... cell-name.ap
- ALLIANCE Transistor net-list .. cell-name.al
- ALLIANCE VHDL behavior ........ cell-name.vbe
- Compiled HILO behavior ........ 0000000xx.dat
And few files more:-
- CATAL ......................... ALLIANCE catalog file
- sxlib.cct ..................... Cell definition for HILO CAD tools
- CIRCUIT.idx ................... HILO catalog file
- sxlib.lib ..................... Cell definition for Synopsys CAD tools
- sxlib.db ...................... Compiled cell definition for Synopsys
- sxlib.sdb ..................... Icon definition for Synopys
Cell-name is built that way <behavior>_<output drive>.
.fi
.SH PHYSICAL OUTLINE
@ -29,6 +41,7 @@ mapping to a specific process CIF or GDS2 layout must be performed by the
\fBs2r\fP tool (symbolic to real), which uses a value for the lambda
(e.g. 1 lambda=0.3um).
.nf
_________________
50 | VDD |
45 |_________________| x : place of virtual connector.
@ -124,6 +137,9 @@ the VHDL interface component is always the alphabetic order.
[\fBn\fP][\fBsd\fP]\fBff\fP<i> : [\fBn\fPot] [\fBs\fPtatic|\fBd\fPynamic] \fBf\fPlip-\fBf\fPlop <i> inputs
[\fBn\fP]\fBoa\fP... : [\fBn\fPot] \fBa\fPnd/\fBo\fPr function (see below)
\fBand_or cell (lex grammar):-\fP
NAME : \fBn\fP OA_CELL -> not OA_CELL
@ -161,18 +177,21 @@ The delay is in nano-seconds. Remember this delay corresponds to the slower
input+0.6ns. The behavior gives logic function. / means not, + means or, .
means and, ^ means xor. Each input is followed by fan-in capacitance in fF,
(e.g. i0<11> means i0 pin capacitance is 11fF).
.nf
\fB=================================================================\fP
\fBWIDTH NAME DELAY BEHAVIOR\fP
\fB---------------------------------------------------------- BUFFER\fP
\fB-------------------------------------------------------- INVERSOR\fP
3 inv_x1 .7 nq <= /i<8>
3 inv_x2 .7 nq <= /i<12>
4 inv_x4 .7 nq <= /i<26>
7 inv_x8 .7 nq <= /i<54>
\fB---------------------------------------------------------- BUFFER\fP
4 buf_x2 1.0 q <= i<6>
5 buf_x4 1.0 q <= i<9>
8 buf_x8 1.0 q <= i<15>
\fB------------------------------------------------------ THREE STATE\fP
6 nts_x1 .8 IF (cmd<14>) nq <= /i<14>
8 nts_x2 .9 IF (cmd<18>) nq <= /i<28>
@ -204,11 +223,6 @@ means and, ^ means xor. Each input is followed by fan-in capacitance in fF,
10 o3_x4 1.2 q <= (i0<10>+i1<10>+i2<9>)
7 o4_x2 1.2 q <= (i0<10>+i1<10>+i2<10>+i3<9>)
8 o4_x4 1.3 q <= (i0<12>+i1<12>+i2<12>+i3<12>)
\fB-------------------------------------------------------------- XOR\fP
9 nxr2_x1 1.1 nq <= /(i0<21>^i1<22>)
11 nxr2_x4 1.2 nq <= /(i0<20>^i1<21>)
9 xr2_x1 1.0 q <= (i0<21>^i1<22>)
12 xr2_x4 1.2 q <= (i0<20>^i1<21>)
\fB--------------------------------------------------------- AND/OR 3\fP
6 nao22_x1 .9 nq <= /((i0<14>+i1<14>).i2<14>)
10 nao22_x4 1.3 nq <= /((i0<8>+i1<8>).i2<9>)
@ -227,11 +241,19 @@ means and, ^ means xor. Each input is followed by fan-in capacitance in fF,
10 ao2o22_x4 1.3 nq <= ((i0<8>+i1<8>).(i2<8>+i3<8>))
9 oa2a22_x1 1.2 nq <= ((i0<8>.i1<8>)+(i2<8>.i3<8>))
10 oa2a22_x4 1.4 nq <= ((i0<8>.i1<8>)+(i2<8>.i3<8>))
\fB------------------------------------------------------ MULTIPLEXER\fP
7 nmx2_x1 1.0 nq <= /((i0<14>./cmd<21>)+(i1<14>.cmd))
12 nmx2_x4 1.3 nq <= /((i0<8>./cmd<14>)+(i1<9>.cmd))
9 mx2_x2 1.1 q <= (i0<8>./cmd<17>)+(i1<9>.cmd)
10 mx2_x4 1.3 q <= (i0<8>./cmd<17>)+(i1<9>.cmd)
\fB-------------------------------------------------------------- XOR\fP
9 nxr2_x1 1.1 nq <= /(i0<21>^i1<22>)
11 nxr2_x4 1.2 nq <= /(i0<20>^i1<21>)
9 xr2_x1 1.0 q <= (i0<21>^i1<22>)
12 xr2_x4 1.2 q <= (i0<20>^i1<21>)
\fB-------------------------------------------------------- FLIP-FLOP\fP
."25 nsdff2_x4 1.0 IF RISE(ck<23>) nq <=/((i0<11>./cmd<13>)+(i1<7>.cmd))
18 sff1_x4 1.7 IF RISE(ck<8>) q <= i<8>
@ -244,11 +266,6 @@ means and, ^ means xor. Each input is followed by fan-in capacitance in fF,
\fB==================================================================\fP
.fi
.SH SEE ALSO
\fB MBK_CATA_LIB (1), catal(1), scr(1), lynx(1), bop(1), glop(1), scmap(1),
c4map(1), tas(1), yagle(1), genlib(1), ap(1), al(1), vbe(1)\fP
.SH NEW CELLS
It is possible to add new cells in the library just by providing the 3
@ -294,4 +311,10 @@ PORT (
vss : in BIT
);
.fi
.SH SEE ALSO
\fBMBK_CATA_LIB (1), catal(1), scr(1), lynx(1), bop(1), glop(1), scmap(1),
c4map(1), tas(1), yagle(1), genlib(1), ap(1), al(1), vbe(1)\fP
.so man1/alc_bug_report.1