Free 32 bit windows 4gb ram software for linux

MCP2510 Bit Timing Calculator project is a bit timing calculator for the MCP2510.

It is a bit timing calculator which is very easy to use.

All you have to do is to choose the baudrate and the oscilator-frequency.

Sure you can edit and change all setting. You will see a graphical bit timing diagram which show you your current options.

At the end you will get a detailed report of your choosen options. See an example here: mcp2510btn

HowTo

On the first step you have to choose your wished baudrate and the oscilator-frequency.

Second you will get a great table with all avaible baudrate for you oscilator-frequency. The are already choosen some baudrates if your baudrate equals with some on the table. Otherwise you have to select them manually, but you will get deviations to you choosen baudrate. You will the the deviation in percent at the right table.

When you are ready you can go forward to step three.
Here you have first to select your wanted Nominal Bit Time Screenshot 2 [Step 3]and then you can edit/change to values for the single segments of a bit timing.

iCalDoubleRemover script just removes duplicate Entries in iCals. Dupicate entries are defined as having the same Entries except for the UID bit. A special feature is support for duplicate BirthdayCal entries as well.

Be aware that you need Perl, Config::Inifiles via Perlupdate ( perl -MCPAN -e shell install Config::IniFiles ).

DBD::RAM is a DBI driver for files and data structures.

SYNOPSIS

use DBI;
my $dbh = DBI->connect(DBI:RAM:,usr,pwd,{RaiseError=>1});
$dbh->func({
table_name => my_phrases,
col_names => id,phrase,
data_type => PIPE,
data_source => [ ],
}, import );
print $dbh->selectcol_arrayref(qq[
SELECT phrase FROM my_phrases WHERE id = 1
])->[0];
__END__
1 | Hello, New World
2 | Some other Phrase

This sample creates a database table from data, uses SQL to make a selection from the database and prints out the results. While this table is in-memory only and uses pipe "delimited" formating, many other options are available including local and remote file access and many different data formats.

DBD::RAM allows you to import almost any type of Perl data structure into an in-memory table and then use DBI and SQL to access and modify it. It also allows direct access to almost any kind of file, supporting SQL manipulation of the file without converting the file out of its native format.

The module allows you to prototype a database without having an rdbms system or other database engine and can operate either with or without creating or reading disk files. If you do use disk files, they may, in most cases, either be local files or any remote file accessible via HTTP or FTP.

HeavenOS is an original, alternative 32-bit operating system for Intel 80386 compatible processors.

It is made with NASM (The Netwide Assembler), and is not intended to compare to modern operating systems, but to try to get the best features and discover better ways to do things.

HeavenOS project is intended to be a simple and pratical platform for development, running with a small amount of code.

Bit::Vector is an efficient bit vector, set of integers and "big int" math library.

CLASS METHODS

Version

$version = Bit::Vector->Version();

Word_Bits
$bits = Bit::Vector->Word_Bits(); # bits in a machine word

Long_Bits
$bits = Bit::Vector->Long_Bits(); # bits in an unsigned long

new
$vector = Bit::Vector->new($bits); # bit vector constructor

@veclist = Bit::Vector->new($bits,$count);

new_Hex
$vector = Bit::Vector->new_Hex($bits,$string);

new_Bin
$vector = Bit::Vector->new_Bin($bits,$string);

new_Dec
$vector = Bit::Vector->new_Dec($bits,$string);

new_Enum
$vector = Bit::Vector->new_Enum($bits,$string);

Concat_List
$vector = Bit::Vector->Concat_List(@vectors);
OBJECT METHODS
new
$vec2 = $vec1->new($bits); # alternative call of constructor

@veclist = $vec->new($bits,$count);

Shadow
$vec2 = $vec1->Shadow(); # new vector, same size but empty

Clone
$vec2 = $vec1->Clone(); # new vector, exact duplicate

Concat
$vector = $vec1->Concat($vec2);

Concat_List
$vector = $vec1->Concat_List($vec2,$vec3,...);

Size
$bits = $vector->Size();

Resize
$vector->Resize($bits);
$vector->Resize($vector->Size()+5);
$vector->Resize($vector->Size()-5);

Copy
$vec2->Copy($vec1);

Empty
$vector->Empty();

Fill
$vector->Fill();

Flip
$vector->Flip();

Primes
$vector->Primes(); # Sieve of Erathostenes

Reverse
$vec2->Reverse($vec1);

Interval_Empty
$vector->Interval_Empty($min,$max);

Interval_Fill
$vector->Interval_Fill($min,$max);

Interval_Flip
$vector->Interval_Flip($min,$max);

Interval_Reverse
$vector->Interval_Reverse($min,$max);

Interval_Scan_inc
if (($min,$max) = $vector->Interval_Scan_inc($start))

Interval_Scan_dec
if (($min,$max) = $vector->Interval_Scan_dec($start))

Interval_Copy
$vec2->Interval_Copy($vec1,$offset2,$offset1,$length);

Interval_Substitute
$vec2->Interval_Substitute($vec1,$off2,$len2,$off1,$len1);

is_empty
if ($vector->is_empty())

is_full
if ($vector->is_full())

equal
if ($vec1->equal($vec2))

Lexicompare (unsigned)
if ($vec1->Lexicompare($vec2) == 0)
if ($vec1->Lexicompare($vec2) != 0)
if ($vec1->Lexicompare($vec2) < 0)
if ($vec1->Lexicompare($vec2) Lexicompare($vec2) > 0)
if ($vec1->Lexicompare($vec2) >= 0)

Compare (signed)
if ($vec1->Compare($vec2) == 0)
if ($vec1->Compare($vec2) != 0)
if ($vec1->Compare($vec2) < 0)
if ($vec1->Compare($vec2) Compare($vec2) > 0)
if ($vec1->Compare($vec2) >= 0)

to_Hex
$string = $vector->to_Hex();

from_Hex
$vector->from_Hex($string);

to_Bin
$string = $vector->to_Bin();

from_Bin
$vector->from_Bin($string);

to_Dec
$string = $vector->to_Dec();

from_Dec
$vector->from_Dec($string);

to_Enum
$string = $vector->to_Enum(); # e.g. "2,3,5-7,11,13-19"

from_Enum
$vector->from_Enum($string);

Bit_Off
$vector->Bit_Off($index);

Bit_On
$vector->Bit_On($index);

bit_flip
$bit = $vector->bit_flip($index);

bit_test
contains
$bit = $vector->bit_test($index);
$bit = $vector->contains($index);
if ($vector->bit_test($index))
if ($vector->contains($index))

Bit_Copy
$vector->Bit_Copy($index,$bit);

LSB (least significant bit)
$vector->LSB($bit);

MSB (most significant bit)
$vector->MSB($bit);

lsb (least significant bit)
$bit = $vector->lsb();

msb (most significant bit)
$bit = $vector->msb();

rotate_left
$carry = $vector->rotate_left();

rotate_right
$carry = $vector->rotate_right();

shift_left
$carry = $vector->shift_left($carry);

shift_right
$carry = $vector->shift_right($carry);

Move_Left
$vector->Move_Left($bits); # shift left "$bits" positions

Move_Right
$vector->Move_Right($bits); # shift right "$bits" positions

Insert
$vector->Insert($offset,$bits);

Delete
$vector->Delete($offset,$bits);

increment
$carry = $vector->increment();

decrement
$carry = $vector->decrement();

inc
$overflow = $vec2->inc($vec1);

dec
$overflow = $vec2->dec($vec1);

add
$carry = $vec3->add($vec1,$vec2,$carry);
($carry,$overflow) = $vec3->add($vec1,$vec2,$carry);

subtract
$carry = $vec3->subtract($vec1,$vec2,$carry);
($carry,$overflow) = $vec3->subtract($vec1,$vec2,$carry);

Neg
Negate
$vec2->Neg($vec1);
$vec2->Negate($vec1);

Abs
Absolute
$vec2->Abs($vec1);
$vec2->Absolute($vec1);

Sign
if ($vector->Sign() == 0)
if ($vector->Sign() != 0)
if ($vector->Sign() < 0)
if ($vector->Sign() Sign() > 0)
if ($vector->Sign() >= 0)

Multiply
$vec3->Multiply($vec1,$vec2);

Divide
$quot->Divide($vec1,$vec2,$rest);

GCD (Greatest Common Divisor)
$vecgcd->GCD($veca,$vecb);
$vecgcd->GCD($vecx,$vecy,$veca,$vecb);

Power
$vec3->Power($vec1,$vec2);

Block_Store
$vector->Block_Store($buffer);

Block_Read
$buffer = $vector->Block_Read();

Word_Size
$size = $vector->Word_Size(); # number of words in "$vector"

Word_Store
$vector->Word_Store($offset,$word);

Word_Read
$word = $vector->Word_Read($offset);

Word_List_Store
$vector->Word_List_Store(@words);

Word_List_Read
@words = $vector->Word_List_Read();

Word_Insert
$vector->Word_Insert($offset,$count);

Word_Delete
$vector->Word_Delete($offset,$count);

Chunk_Store
$vector->Chunk_Store($chunksize,$offset,$chunk);

Chunk_Read
$chunk = $vector->Chunk_Read($chunksize,$offset);

Chunk_List_Store
$vector->Chunk_List_Store($chunksize,@chunks);

Chunk_List_Read
@chunks = $vector->Chunk_List_Read($chunksize);

Index_List_Remove
$vector->Index_List_Remove(@indices);

Index_List_Store
$vector->Index_List_Store(@indices);

Index_List_Read
@indices = $vector->Index_List_Read();

Or
Union
$vec3->Or($vec1,$vec2);
$set3->Union($set1,$set2);

And
Intersection
$vec3->And($vec1,$vec2);
$set3->Intersection($set1,$set2);

AndNot
Difference
$vec3->AndNot($vec1,$vec2);
$set3->Difference($set1,$set2);

Xor
ExclusiveOr
$vec3->Xor($vec1,$vec2);
$set3->ExclusiveOr($set1,$set2);

Not
Complement
$vec2->Not($vec1);
$set2->Complement($set1);

subset
if ($set1->subset($set2)) # true if $set1 is subset of $set2

Norm
$norm = $set->Norm();
$norm = $set->Norm2();
$norm = $set->Norm3();

Min
$min = $set->Min();

Max
$max = $set->Max();

Multiplication
$matrix3->Multiplication($rows3,$cols3,
$matrix1,$rows1,$cols1,
$matrix2,$rows2,$cols2);

Product
$matrix3->Product($rows3,$cols3,
$matrix1,$rows1,$cols1,
$matrix2,$rows2,$cols2);

Closure
$matrix->Closure($rows,$cols);

Transpose
$matrix2->Transpose($rows2,$cols2,$matrix1,$rows1,$cols1);

MOS 6502 Simulator is sort of an emulator for a 6502 chip. Theres virtually nothing apart from the CPU (minus BCD operations). It also bears no heed to instruction timings.

Whilst (apart from those two things) it successfully simulates the CPU there were a few design flaws, which led me not to continue with it:

- I wrote it in C++.

As the 6502 had no dedicated IO bus, everything was done via memory. I had the idea of having a pure virtual class which provided a generic interface, then as I wrote devices to sit in the memory space, they could just override portions of it, or trap on writes or something.

Whilst writing this, I kept getting the feeling I should have written it in asm instead Especially for manipulating flags and rotates and stuff. (as I could have just rotated AL, for example, rather than the mess I have in the C++ code.

- Sloppy instruction decoding.

I originally set out to decode the instructions properly, but there were lots of exceptions to the system used (esp. if I intended to support the 65C02 for example). This decended into a massive switch statement. I almost considered splitting it up to smaller files, and just #include them in the middle, just to make it more managable.

Also, as they are not in numerical order (grouped according to type, or addressing mode, cant remember atm) it wouldnt compile to a jump table. Does with optimisation on though.

The main thing that prompted me to write this was I found my BBC-B in the loft, and felt a pang of nostalgia for the hours wasted hunched over it in the lowest resolution text mode (IIRC mode 7 to save ram). I had the idea of writing a NES or BBC emulator, however it didnt get that far.

It has a pretty simple image format. The file must be >= 65536 bytes (64k) and that is simply the memory image for the system (16-bit address bus). There is a strange sort of ASCII text display at 0x200, which is ok enough for spewing a string to. As it was just thrown together in the space of 6 hours or so (took a long time to do the switch statement) its not very thouroughly documented, but hey.