2
0
mirror of https://github.com/lm-sensors/lm-sensors synced 2025-09-05 00:35:35 +00:00
Files
lm-sensors/prog/eeprom/decode-dimms.pl
Jean Delvare a3f6e05c65 Add Direct Rambus
Mark Rambus as unsupported


git-svn-id: http://lm-sensors.org/svn/lm-sensors/trunk@1923 7894878c-1315-0410-8ee3-d5d059ff63e0
2003-07-30 09:14:46 +00:00

534 lines
19 KiB
Perl
Executable File

#!/usr/bin/perl -w
#
# Copyright 1998, 1999 Philip Edelbrock <phil@netroedge.com>
# modified by Christian Zuckschwerdt <zany@triq.net>
#
# This program is free software; you can redistribute it and/or modify
# it under the terms of the GNU General Public License as published by
# the Free Software Foundation; either version 2 of the License, or
# (at your option) any later version.
#
# This program is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
# GNU General Public License for more details.
#
# You should have received a copy of the GNU General Public License
# along with this program; if not, write to the Free Software
# Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA.
#
# Version 0.4 1999 Philip Edelbrock <phil@netroedge.com>
# Version 0.5 2000-03-30 Christian Zuckschwerdt <zany@triq.net>
# html output (selectable by commandline switches)
# Version 0.6 2000-09-16 Christian Zuckschwerdt <zany@triq.net>
# updated according to SPD Spec Rev 1.2B
# see http://developer.intel.com/technology/memory/pc133sdram/spec/Spdsd12b.htm
# Version 0.7 2002-11-08 Jean Delvare <khali@linux-fr.org>
# pass -w and use strict
# valid HTML 3.2 output (--format mode)
# miscellaneous formatting enhancements and bug fixes
# clearer HTML output (original patch by Nick Kurshev <nickols_k@mail.ru>)
# stop decoding on checksum error by default (--checksum option forces)
#
#
# EEPROM data decoding for SDRAM DIMM modules.
#
# Two assumptions: lm_sensors-2.x installed,
# and Perl is at /usr/bin/perl
#
# use the following command line switches
# -f, --format print nice html output
# -b, --bodyonly don't printhtml header
# (useful for postprocessing the output)
# -c, --checksum decode completely even if checksum fails
# -h, --help display this usage summary
#
# References:
# PC SDRAM Serial Presence
# Detect (SPD) Specification, Intel,
# 1997,1999, Rev 1.2B
#
# Jedec Standards 4.1.x & 4.5.x
# http://www.jedec.org
#
use strict;
use vars qw($opt_html $opt_body $opt_bodyonly $opt_igncheck);
sub printl ($$) # print a line w/ label and value
{
my ($label, $value) = @_;
if ($opt_html) {
$label =~ s/</\&lt;/sg;
$label =~ s/>/\&gt;/sg;
$label =~ s/\n/<br>\n/sg;
$value =~ s/</\&lt;/sg;
$value =~ s/>/\&gt;/sg;
$value =~ s/\n/<br>\n/sg;
print "<tr><td valign=top>$label</td><td>$value</td></tr>\n";
} else {
$value =~ s%\n%\n\t\t%sg;
print "$label\t$value\n";
}
}
sub printl2 ($$) # print a line w/ label and value (outside a table)
{
my ($label, $value) = @_;
if ($opt_html) {
$label =~ s/</\&lt;/sg;
$label =~ s/>/\&gt;/sg;
$label =~ s/\n/<br>\n/sg;
$value =~ s/</\&lt;/sg;
$value =~ s/>/\&gt;/sg;
$value =~ s/\n/<br>\n/sg;
print "$label: $value\n";
} else {
$value =~ s%\n%\n\t\t%sg;
print "$label\t$value\n";
}
}
sub prints ($) # print seperator w/ given text
{
my ($label) = @_;
if ($opt_html) {
$label =~ s/</\&lt;/sg;
$label =~ s/>/\&gt;/sg;
$label =~ s/\n/<br>\n/sg;
print "<tr><td align=center colspan=2><b>$label</b></td></tr>\n";
} else {
print "\n---=== $label ===---\n";
}
}
sub printh ($) # print header w/ given text
{
my ($label) = @_;
if ($opt_html) {
$label =~ s/</\&lt;/sg;
$label =~ s/>/\&gt;/sg;
$label =~ s/\n/<br>\n/sg;
print "<h1>$label</h1>\n";
} else {
print "\n$label\n";
}
}
for (@ARGV) {
if (/-h/) {
print "Usage: $0 [-f|-b|-h]\n\n",
" -f, --format print nice html output\n",
" -b, --bodyonly don't printhtml header\n",
" (useful for postprocessing the output)\n",
" -c, --checksum decode completely even if checksum fails\n",
" -h, --help display this usage summary\n";
exit;
}
$opt_html = 1 if (/-f/);
$opt_bodyonly = 1 if (/-b/);
$opt_igncheck = 1 if (/-c/);
}
$opt_body = $opt_html && ! $opt_bodyonly;
if ($opt_body)
{
print "<!DOCTYPE html PUBLIC \"-//W3C//DTD HTML 3.2 Final//EN\">\n",
"<html><head>\n",
"\t<meta HTTP-EQUIV=\"Content-Type\" CONTENT=\"text/html; charset=iso-8859-1\">\n",
"\t<title>PC DIMM Serial Presence Detect Tester/Decoder Output</title>\n",
"</head><body>\n";
}
printh '
PC DIMM Serial Presence Detect Tester/Decoder
By Philip Edelbrock, Christian Zuckschwerdt and others
Version 2.6.6
';
my $dimm_count=0;
$_=`ls /proc/sys/dev/sensors/`;
my @dimm_list=split();
for my $i ( 0 .. $#dimm_list ) {
$_=$dimm_list[$i];
if (/^eeprom-/) {
my $dimm_checksum=0;
$dimm_count += 1;
print "<b><u><br><br>" if $opt_html;
printl2 "Decoding EEPROM" , " /proc/sys/dev/sensors/$dimm_list[$i]";
print "</u></b>" if $opt_html;
print "<table border=1>\n" if $opt_html;
if (/^[^-]+-[^-]+-[^-]+-([^-]+)$/) {
my $dimm_num=$1 - 49;
printl "Guessing DIMM is in", "bank $dimm_num";
}
# Decode first 16 bytes
prints "The Following is Required Data and is Applicable to all DIMM Types";
$_=`cat /proc/sys/dev/sensors/$dimm_list[$i]/00`;
my @bytes=split(" ");
for my $j ( 0 .. 15 ) { $dimm_checksum = $dimm_checksum + $bytes[$j]; }
printl "# of bytes written to SDRAM EEPROM",$bytes[0];
my $l = "Total number of bytes in EEPROM";
if ($bytes[1] <= 13) {
printl $l, 2**$bytes[1];
} elsif ($bytes[1] == 0) {
printl $l, "RFU";
} else { printl $l, "ERROR!"; }
$l = "Fundamental Memory type";
if ($bytes[2] == 2) { printl $l, "EDO"; }
elsif ($bytes[2] == 4) { printl $l, "SDR SDRAM"; }
elsif ($bytes[2] == 7) { printl $l, "DDR SDRAM"; }
elsif ($bytes[2] == 17) { printl $l, "Rambus [UNSUPPORTED]"; }
elsif ($bytes[2] == 1) { printl $l, "Direct Rambus [UNSUPPORTED]"; }
else { printl $l, "???"; }
$l = "Number of Row Address Bits (SDRAM only)";
if ($bytes[3] == 0) { printl $l, "Undefined!" }
elsif ($bytes[3] == 1) { printl $l, "1/16" }
elsif ($bytes[3] == 2) { printl $l, "2/17" }
elsif ($bytes[3] == 3) { printl $l, "3/18" }
else { printl $l, $bytes[3]; }
$l = "Number of Col Address Bits (SDRAM only)";
if ($bytes[4] == 0) { printl $l, "Undefined!" }
elsif ($bytes[4] == 1) { printl $l, "1/16" }
elsif ($bytes[4] == 2) { printl $l, "2/17" }
elsif ($bytes[4] == 3) { printl $l, "3/18" }
else { printl $l, $bytes[4]; }
$l = "Number of Module Rows";
if ($bytes[5] == 0 ) { printl $l, "Undefined!"; }
else { printl $l, $bytes[5]; }
$l = "Data Width (SDRAM only)";
if ($bytes[7] > 1) { printl $l, "Undefined!" } else {
my $temp=($bytes[7]*256) + $bytes[6];
printl $l, $temp; }
$l = "Module Interface Signal Levels";
if ($bytes[8] == 0) { printl $l, "5.0 Volt/TTL";}
elsif ($bytes[8] == 1) { printl $l, "LVTTL";}
elsif ($bytes[8] == 2) { printl $l, "HSTL 1.5";}
elsif ($bytes[8] == 3) { printl $l, "SSTL 3.3";}
elsif ($bytes[8] == 4) { printl $l, "SSTL 2.5";}
elsif ($bytes[8] == 255) { printl $l, "New Table";}
else { printl $l, "Undefined!";}
$l = "Cycle Time (SDRAM) highest CAS latency";
my $temp=($bytes[9] >> 4) + ($bytes[9] & 0xf) * 0.1;
printl $l, "${temp}ns";
$l = "Access Time (SDRAM)";
$temp=($bytes[10] >> 4) + ($bytes[10] & 0xf) * 0.1;
printl $l, "${temp}ns";
$l = "Module Configuration Type";
if ($bytes[11] == 0) { printl $l, "No Parity"; }
elsif ($bytes[11] == 1) { printl $l, "Parity"; }
elsif ($bytes[11] == 2) { printl $l, "ECC"; }
else { printl $l, "Undefined!"; }
$l = "Refresh Type";
if ($bytes[12] > 126) { printl $l, "Self Refreshing"; }
else { printl $l, "Not Self Refreshing"; }
$l = "Refresh Rate";
$temp=$bytes[12] & 0x7f;
if ($temp == 0) { printl $l, "Normal (15.625uS)"; }
elsif ($temp == 1) { printl $l, "Reduced (3.9uS)"; }
elsif ($temp == 2) { printl $l, "Reduced (7.8uS)"; }
elsif ($temp == 3) { printl $l, "Extended (31.3uS)"; }
elsif ($temp == 4) { printl $l, "Extended (62.5uS)"; }
elsif ($temp == 5) { printl $l, "Extended (125uS)"; }
else { printl $l, "Undefined!";}
$l = "Primary SDRAM Component Bank Config";
if ($bytes[13]>126) { printl $l, "Bank2 = 2 x Bank1";}
else { printl $l, "No Bank2 OR Bank2 = Bank1 width";}
$l = "Primary SDRAM Component Widths";
$temp=$bytes[13] & 0x7f;
if ($temp == 0) { printl $l, "Undefined!\n"; }
else { printl $l, $temp; }
$l = "Error Checking SDRAM Component Bank Config";
if ($bytes[14]>126) { printl $l, "Bank2 = 2 x Bank1";}
else { printl $l, "No Bank2 OR Bank2 = Bank1 width";}
$l = "Error Checking SDRAM Component Widths";
$temp=$bytes[14] & 0x7f;
if ($temp == 0) { printl $l, "Undefined!"; }
else { printl $l, $temp; }
$l = "Min Clock Delay for Back to Back Random Access";
if ($bytes[15] == 0) { printl $l, "Undefined!"; }
else { printl $l, $bytes[15]; }
prints "The Following Apply to SDRAM DIMMs ONLY";
# Decode next 16 bytes
$_=`cat /proc/sys/dev/sensors/$dimm_list[$i]/10`;
@bytes=split(" ");
for my $j ( 0 .. 15 ) { $dimm_checksum = $dimm_checksum + $bytes[$j]; }
$l = "Burst lengths supported";
$temp="";
if (($bytes[0] & 1) > 0) { $temp .= "Burst Length = 1\n"; }
if (($bytes[0] & 2) > 0) { $temp .= "Burst Length = 2\n"; }
if (($bytes[0] & 4) > 0) { $temp .= "Burst Length = 4\n"; }
if (($bytes[0] & 8) > 0) { $temp .= "Burst Length = 8\n"; }
if (($bytes[0] & 16) > 0) { $temp .= "Undefined! (bit 4)\n"; }
if (($bytes[0] & 32) > 0) { $temp .= "Undefined! (bit 5)\n"; }
if (($bytes[0] & 64) > 0) { $temp .= "Undefined! (bit 6)\n"; }
if (($bytes[0] & 128) > 0) { $temp .= "Burst Length = Page\n"; }
if ($bytes[0] == 0) { $temp .= "(None Supported)\n";}
printl $l, $temp;
$l = "Number of Device Banks";
if ($bytes[1] == 0) { printl $l, "Undefined/Reserved!"; }
else { printl $l, $bytes[1]; }
$l = "Supported CAS Latencies";
$temp="";
if (($bytes[2] & 1) > 0) { $temp .= "CAS Latency = 1\n";}
if (($bytes[2] & 2) > 0) { $temp .= "CAS Latency = 2\n"; }
if (($bytes[2] & 4) > 0) { $temp .= "CAS Latency = 3\n"; }
if (($bytes[2] & 8) > 0) { $temp .= "CAS Latency = 4\n"; }
if (($bytes[2] & 16) > 0) { $temp .= "CAS Latency = 5\n"; }
if (($bytes[2] & 32) > 0) { $temp .= "CAS Latency = 6\n"; }
if (($bytes[2] & 64) > 0) { $temp .= "CAS Latency = 7\n"; }
if (($bytes[2] & 128) > 0) { $temp .= "Undefined (bit 7)\n"; }
if ($bytes[2] == 0) { $temp .= "(None Supported)\n";}
printl $l, $temp;
$l = "Supported CS Latencies";
$temp="";
if (($bytes[3] & 1) > 0) { $temp .= "CS Latency = 0\n";}
if (($bytes[3] & 2) > 0) { $temp .= "CS Latency = 1\n"; }
if (($bytes[3] & 4) > 0) { $temp .= "CS Latency = 2\n"; }
if (($bytes[3] & 8) > 0) { $temp .= "CS Latency = 3\n"; }
if (($bytes[3] & 16) > 0) { $temp .= "CS Latency = 4\n"; }
if (($bytes[3] & 32) > 0) { $temp .= "CS Latency = 5\n"; }
if (($bytes[3] & 64) > 0) { $temp .= "CS Latency = 6\n"; }
if (($bytes[3] & 128) > 0) { $temp .= "Undefined (bit 7)\n"; }
if ($bytes[3] == 0) { $temp .= "(None Supported)\n";}
printl $l, $temp;
$l = "Supported WE Latencies";
$temp="";
if (($bytes[4] & 1) > 0) { $temp .= "WE Latency = 0\n";}
if (($bytes[4] & 2) > 0) { $temp .= "WE Latency = 1\n"; }
if (($bytes[4] & 4) > 0) { $temp .= "WE Latency = 2\n"; }
if (($bytes[4] & 8) > 0) { $temp .= "WE Latency = 3\n"; }
if (($bytes[4] & 16) > 0) { $temp .= "WE Latency = 4\n"; }
if (($bytes[4] & 32) > 0) { $temp .= "WE Latency = 5\n"; }
if (($bytes[4] & 64) > 0) { $temp .= "WE Latency = 6\n"; }
if (($bytes[4] & 128) > 0) { $temp .= "Undefined (bit 7)\n"; }
if ($bytes[4] == 0) { $temp .= "(None Supported)\n";}
printl $l, $temp;
$l = "SDRAM Module Attributes";
$temp="";
if (($bytes[5] & 1) > 0) { $temp .= "Buffered Address/Control Inputs\n";}
if (($bytes[5] & 2) > 0) { $temp .= "Registered Address/Control Inputs\n"; }
if (($bytes[5] & 4) > 0) { $temp .= "On card PLL (clock)\n"; }
if (($bytes[5] & 8) > 0) { $temp .= "Buffered DQMB Inputs\n"; }
if (($bytes[5] & 16) > 0) { $temp .= "Registered DQMB Inputs\n"; }
if (($bytes[5] & 32) > 0) { $temp .= "Differential Clock Input\n"; }
if (($bytes[5] & 64) > 0) { $temp .= "Redundant Row Address\n"; }
if (($bytes[5] & 128) > 0) { $temp .= "Undefined (bit 7)\n"; }
if ($bytes[5] == 0) { $temp .= "(None Reported)\n";}
printl $l, $temp;
$l = "SDRAM Device Attributes (General)";
$temp="";
if (($bytes[6] & 1) > 0) { $temp .= "Supports Early RAS# Recharge\n";}
if (($bytes[6] & 2) > 0) { $temp .= "Supports Auto-Precharge\n"; }
if (($bytes[6] & 4) > 0) { $temp .= "Supports Precharge All\n"; }
if (($bytes[6] & 8) > 0) { $temp .= "Supports Write1/Read Burst\n"; }
if (($bytes[6] & 16) > 0) { $temp .= "Lower VCC Tolerance:5%\n"; }
if (($bytes[6] & 16) == 0) { $temp .= "Lower VCC Tolerance:10%\n"; }
if (($bytes[6] & 32) > 0) { $temp .= "Upper VCC Tolerance:5%\n"; }
if (($bytes[6] & 32) == 0) { $temp .= "Upper VCC Tolerance:10%\n"; }
if (($bytes[6] & 64) > 0) { $temp .= "Undefined (bit 6)\n"; }
if (($bytes[6] & 128) > 0) { $temp .= "Undefined (bit 7)\n"; }
printl $l, $temp;
$l = "SDRAM Cycle Time (2nd highest CAS)";
$temp = $bytes[7] >> 4;
if ($temp == 0) { printl $l, "Undefined!"; }
else {
if ($temp < 4 ) {$temp=$temp + 15;}
printl $l, $temp + (($bytes[7] & 0xf) * 0.1) . "nS";
}
$l = "SDRAM Access from Clock Time (2nd highest CAS)";
$temp = $bytes[8] >> 4;
if ($temp == 0) { printl $l, "Undefined!"; }
else {
if ($temp < 4 ) {$temp=$temp + 15;}
printl $l, $temp + (($bytes[8] & 0xf) * 0.1) . "nS";
}
prints "The Following are Optional (may be Bogus)";
$l = "SDRAM Cycle Time (3rd highest CAS)";
$temp = $bytes[9] >> 2;
if ($temp == 0) { printl $l, "Undefined!"; }
else { printl $l, $temp + ($bytes[9] & 0x3) * 0.25 . "nS"; }
$l = "SDRAM Access from Clock Time (3rd highest CAS)";
$temp = $bytes[10] >> 2;
if ($temp == 0) { printl $l, "Undefined!"; }
else { printl $l, $temp + ($bytes[10] & 0x3) * 0.25 . "nS"; }
prints "The Following are Required (for SDRAMs)";
$l = "Minumum Row Precharge Time";
if ($bytes[11] == 0) { printl $l, "Undefined!"; }
else { printl $l, "$bytes[11]nS"; }
$l = "Row Active to Row Active Min";
if ($bytes[12] == 0) { printl $l, "Undefined!"; }
else { printl $l, "$bytes[12]nS"; }
$l = "RAS to CAS Delay";
if ($bytes[13] == 0) { printl $l, "Undefined!"; }
else { printl $l, "$bytes[13]nS"; }
$l = "Min RAS Pulse Width";
if ($bytes[14] == 0) { printl $l, "Undefined!"; }
else { printl $l, "$bytes[14]nS"; }
prints "The Following are Required and Apply to ALL DIMMs";
$l = "Row Densities";
$temp="";
if (($bytes[15] & 1) > 0) { $temp .= "4 MByte\n";}
if (($bytes[15] & 2) > 0) { $temp .= "8 MByte\n"; }
if (($bytes[15] & 4) > 0) { $temp .= "16 MByte\n"; }
if (($bytes[15] & 8) > 0) { $temp .= "32 MByte\n"; }
if (($bytes[15] & 16) > 0) { $temp .= "64 MByte\n"; }
if (($bytes[15] & 32) > 0) { $temp .= "128 MByte\n"; }
if (($bytes[15] & 64) > 0) { $temp .= "256 MByte\n"; }
if (($bytes[15] & 128) > 0) { $temp .= "512 MByte\n"; }
if ($bytes[15] == 0) { $temp .= "(Undefined! -- None Reported!)\n";}
printl $l, $temp;
# Decode next 16 bytes (32-47)
$_=`cat /proc/sys/dev/sensors/$dimm_list[$i]/20`;
@bytes=split(" ");
for my $j ( 0 .. 15 ) { $dimm_checksum = $dimm_checksum + $bytes[$j]; }
prints "The Following are Proposed and Apply to SDRAM DIMMs";
$l = "Command and Address Signal Setup Time";
$temp = (($bytes[0] & 0x7f) >> 4) + ($bytes[0] & 0xf) * 0.1;
printl $l, ( ($bytes[0] >> 7) ? -$temp : $temp ) . "nS";
$l = "Command and Address Signal Hold Time";
$temp = (($bytes[1] & 0x7f) >> 4) + ($bytes[1] & 0xf) * 0.1;
printl $l, ( ($bytes[1] >> 7) ? -$temp : $temp ) . "nS";
$l = "Data Signal Setup Time";
$temp =(($bytes[2] & 0x7f) >> 4) + ($bytes[2] & 0xf) * 0.1;
printl $l, ( ($bytes[2] >> 7) ? -$temp : $temp ) . "nS";
$l = "Data Signal Hold Time";
$temp = (($bytes[3] & 0x7f) >> 4) + ($bytes[3] & 0xf) * 0.1;
printl $l, ( ($bytes[3] >> 7) ? -$temp : $temp ) . "nS";
# That's it for the lower part of an SDRAM EEPROM's memory!
# Decode next 16 bytes (48-63)
$_=`cat /proc/sys/dev/sensors/$dimm_list[$i]/30`;
@bytes=split(" ");
for my $j ( 0 .. 14 ) { $dimm_checksum = $dimm_checksum + $bytes[$j]; }
printl "SPD Revision code ", sprintf("%x", $bytes[14]);
$l = "EEPROM Checksum of bytes 0-62";
$dimm_checksum &= 0xff;
printl $l, ($bytes[15]==$dimm_checksum?
sprintf("OK (0x%.2X)",$bytes[15]):
sprintf("Bad (found 0x%.2X, calculated 0x%.2X)\n",$bytes[15],$dimm_checksum));
if($bytes[15]==$dimm_checksum || $opt_igncheck) {
# Decode next 16 bytes (64-79)
$_=`cat /proc/sys/dev/sensors/$dimm_list[$i]/40`;
@bytes=split(" ");
$l = "Manufacturer's JEDEC ID Code";
$temp = sprintf("0x%.2X%.2X%.2X%.2X%.2X%.2X%.2X%.2X\n",$bytes[0],$bytes[1],$bytes[2],$bytes[3],$bytes[4],$bytes[5],$bytes[6],$bytes[7]);
printl $l, $temp;
$temp = pack("c8",
$bytes[0],$bytes[1],$bytes[2],$bytes[3],$bytes[4],$bytes[5],$bytes[6],$bytes[7]);
printl $l, "(\"$temp\")";
$l = "Manufacturing Location Code";
$temp = sprintf("0x%.2X\n",$bytes[8]);
printl $l, $temp;
$l = "Manufacurer's Part Number";
# Decode next 16 bytes (80-95)
$_=`cat /proc/sys/dev/sensors/$dimm_list[$i]/50`;
my @bytes2 = split ' ';
$temp = pack("c18",$bytes[9],$bytes[10],$bytes[11],$bytes[12],$bytes[13],$bytes[14],$bytes[15],
$bytes2[0],$bytes2[1],$bytes2[2],$bytes2[3],$bytes2[4],$bytes2[5],$bytes2[6],$bytes2[7],$bytes2[8],$bytes2[9],$bytes2[10]);
printl $l, $temp;
$l = "Revision Code";
$temp = sprintf("0x%.2X%.2X\n",$bytes2[11],$bytes2[12]);
printl $l, $temp;
$l = "Manufacturing Date";
$temp = sprintf("0x%.2X%.2X\n",$bytes2[13],$bytes2[14]);
printl $l, $temp;
$l = "Assembly Serial Number";
# Decode next 16 bytes (96-111)
$_=`cat /proc/sys/dev/sensors/$dimm_list[$i]/60`;
@bytes=split(" ");
$temp = sprintf("0x%.2X%.2X%.2X%.2X\n",$bytes2[15],$bytes[0],$bytes[1],$bytes[2]);
# Decode next 16 bytes (112-127)
$_=`cat /proc/sys/dev/sensors/$dimm_list[$i]/70`;
@bytes=split(" ");
$l = "Intel Specification for Frequency";
if ($bytes[14] == 102) { printl $l, "66MHz\n"; }
elsif ($bytes[14] == 100) { printl $l, "100MHz\n"; }
else { printl $l, "Undefined!\n"; }
$l = "Intel Spec Details for 100MHz Support";
$temp="";
if (($bytes[15] & 1) > 0) { $temp .= "Intel Concurrent AutoPrecharge\n";}
if (($bytes[15] & 2) > 0) { $temp .= "CAS Latency = 2\n";}
if (($bytes[15] & 4) > 0) { $temp .= "CAS Latency = 3\n";}
if (($bytes[15] & 8) > 0) { $temp .= "Junction Temp A (90 degrees C)\n";}
if (($bytes[15] & 8) == 0) { $temp .= "Junction Temp B (100 degrees C)\n";}
if (($bytes[15] & 16) > 0) { $temp .= "CLK 3 Connected\n";}
if (($bytes[15] & 32) > 0) { $temp .= "CLK 2 Connected\n";}
if (($bytes[15] & 64) > 0) { $temp .= "CLK 1 Connected\n";}
if (($bytes[15] & 128) > 0) { $temp .= "CLK 0 Connected\n";}
if ($bytes[15] > 175) { $temp .= "Double Sided DIMM\n"; }
else { $temp .= "Single Sided DIMM\n";}
printl $l, $temp;
}
print "</table>\n" if $opt_html;
}
}
print '<br><br>' if $opt_html;
printl2 "Number of SDRAM DIMMs detected and decoded", $dimm_count;
print "</body></html>\n" if $opt_body;
print "\nTry '$0 --format' for html output.\n" unless $opt_html;