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	pkgsrc-2012Q4:1.1.0.10
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1.2
date	2013.09.12.06.20.35;	author mef;	state dead;
branches;
next	1.1;
commitid	ASehM97O2d9v575x;

1.1
date	2011.12.18.19.51.33;	author dholland;	state Exp;
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next	;


desc
@@


1.2
log
@(pkgsrc)
  Raw simulavr-1.0.0 does not build. Some patches, and SUBST to
  convert MACROS etc., are added reflecting git repository
  (These will be unnecessary at next release, hopefully).

(Upstream)
Bump the version
  simulavr-0.1.2.1 to
  simulavr-1.0.0

(From manual-1.0.pdf)
What features are new:

  - Run multiple AVR devices in one simulation. (only with interpreter
    interfaces or special application linked against simulavr library)
    Multiple cores can run where each has a different clock frequency.

  - Connect multiple AVR core pins to other devices like LCD, LED and
    others. (environment)

  - Connect multiple AVR cores to multiple avr-gdb instances. (each on
    its own socket/port number, but see first point for running multiple
    avr cores)

  - Write simulation scripts in Tcl/Tk or Python, other languages could
    be added by simply adding swig scripts!

  - Tracing the execution of the program, these traces support all
    debugging information directly from the ELF-file.

  - The traces run step by step for each device so you see all actions
    in the multiple devices in time-correct order.

  - Every interrupt call is visible.

  - Interrupt statistics with latency, longest and shortest execution
    time and some more.

  - There is a simple text based UI interface to add LCD, switches, LEDs
    or other components and can modify it during simulation, so there is
    no longer a need to enter a pin value during execution. (Tcl/Tk
    based)

  - Execution timing should be nearly accurate, different access times
    for internal RAM / external RAM / EEPROM and other hardware
    components are simulated.

  - A pseudo core hardware component is introduced to do "printf"
    debugging. This "device" is connected to a normal named UNIX socket
    so you do not have to waste a UART or other hardware in your test
    environment. (How?)

  - ELF-file loading is supported, no objcopy needed anymore.

  - Execution speed is tuned a lot, most hardware simulations are now
    only done if needed.

  - External IO pins which are not ports are also available. (E.g. ADC7
    and ADC8 on ATmega8 in TQFP package.)

  - External I/O and some internal states of hardware units (link
    prescaler counter and interrupt states) can be dumped ot into a VCD
    trace to analyse I/O behaviour and timing. Or you can use it for
    tests.
@
text
@$NetBSD: patch-src_storage_h,v 1.1 2011/12/18 19:51:33 dholland Exp $

 - Patch up gcc inline mess.

--- src/storage.h~	2003-12-02 08:25:00.000000000 +0000
+++ src/storage.h
@@@@ -46,7 +48,7 @@@@ extern Storage *storage_new (int base, i
 extern void storage_construct (Storage *stor, int base, int size);
 extern void storage_destroy (void *stor);
 
-extern inline uint8_t
+static inline uint8_t
 storage_readb (Storage *stor, int addr)
 {
     int _addr = addr - stor->base;
@@@@ -60,7 +62,7 @@@@ storage_readb (Storage *stor, int addr)
     return stor->data[_addr];
 }
 
-extern inline uint16_t
+static inline uint16_t
 storage_readw (Storage *stor, int addr)
 {
     int _addr = addr - stor->base;
@


1.1
log
@Patch up gcc inline mess. Fixes build with gcc 4.5.
@
text
@d1 1
a1 1
$NetBSD$
@