This source code base used Maven 2 for building. The root directory and each source code module has a pom.xml file which is used by Maven.
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javax.usb - My implementation of the JSR-80 API. This is a small module which only implements the API itself.
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javax.usb-extra - Some extra code that only depend on the JSR-80 API which I feel either should be a part of the API or is just too generic to put elsewhere.
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libusb / libusb-git - A Maven module that builds libusb from the sources checked out by git under libusb-git. Make sure to configure your environment to get this module to build. See below.
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javalibusb1 - The implementation itself. Consists of some C code with some header files and a set of Java files.
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usbtools - Random tools to work with USB chips.
Contains a library and command line tools to work with fx2 chips.
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ftdi - Utilities for talking to ftdi chips.
The device and handle references are stored internally in the Device and Interface classes as integers. These should be byte arrays to be a bit more generic.
To control the debugging level from libusb set the system property "javax.usb.libusb.debug" to the desired level:
-Djavax.usb.libusb.debug=3`
See their documentation for the up to date values. Current values:
- Level 0: no messages ever printed by the library (default)
- Level 1: error messages are printed to
stderr
- Level 2: warning and error messages are printed to
stderr
- Level 3: informational messages are printed to
stdout
, warning and error messages are printed tostderr
To trace all calls to libusb, truss/strace/kdump style set the system property "javax.usb.libusb.trace" to true
-Djavax.usb.libusb.trace=true`
For setting up the building environment please see the build howto.
To build the main software a mvn install
will be sufficient.
If you want to make life easy for you, you want build and use the libusb
referenced from as a git module too. To do that simply run
(cd libusb; mvn install)
. Like with the javalibusb1 library, the build is
set to build 64-bit versions if the JVM is running in 64-bit mode.
If you do not use the referenced libusb module, you have to build it manually and point libusb.home to it.
Example settings.xml:
<settings>
<profiles>
<profile>
<id>libusb-32</id>
<activation>
<os>
<arch>i386</arch>
</os>
</activation>
<properties>
<libusb.home>${user.home}/opt/libusb-git-32</libusb.home>
<libusb.cflags>-m32</libusb.cflags>
</properties>
</profile>
<profile>
<id>libusb-64</id>
<activation>
<os>
<arch>x86_64</arch>
</os>
</activation>
<properties>
<libusb.home>${user.home}/opt/libusb-git-64</libusb.home>
<libusb.cflags>-m64</libusb.cflags>
</properties>
</profile>
</profiles>
</settings>
Note that on Linux "arch" is amd64 while on OSX it is x86_64. You can check the values for your platform by running
mvn -version`
Note that you might have to run Maven's JVM with -d32 or -d64 to select a different bit size.
You can see the current settings with
mvn help:active-profiles -N -f javalibusb1/pom.xml`
The Maven setup will automatically build 64-bit versions of libusb and javalibusb1 if you are using a 64-bit JVM. Run your Maven with -d64 to run a 64-bit JVM.
At least IntelliJ IDEA does not realize that the usbtools module depend on the javalibusb1 because the javalibusb1 is not recognized ha a "Java" module when it has packaging=nar in its POM.
Simply run:
rdiscount README.markdown > README.html
This is the command used to create and synchronize the upstream CVS repositories:
git cvsimport -d :pserver:[email protected]:/cvsroot/javax-usb javax-usb
This section has slowly bit rotted after no-one could document the required USB setup for the firmware. Will have to invent/run my own TCK to prove compliance.
To build this software you need:
- For the TCK: A working SDCC installation in your PATH that supports the "mcs51" target. I'm using v2.9.0.
The original firmware images are not used as it's not clear which images they represent. In addition I can't use any tools that work on OS X/Linux to upload the firmware.
The sources depend on fx2lib which is a "Library routines for creating firmware for the Cypress FX2 (CY7C68013 and variants) with SDCC". Fx2lib includes its own build system which the Makefile calls out to.
To be able to build the images you need to create a Makefile.local
with references to your fx2 library and add cycfx2prog
to your
PATH. For example:
FX2LIBDIR=/Users/trygvis/dev/com.github/mulicheng/fx2lib/
PATH:=/Users/trygvis/src/cycfx2prog-0.47:$(PATH)
Building the firmware is easy once your have all the prerequisites set up:
cd tck/images
make
To load the firmware:
-
Make sure that the device is available. You can do this with
make list
:$ make list cycfx2prog --list Bus 004 Device 001: ID 05ac:8005 Bus 004 Device 002: ID 05ac:0237 Bus 004 Device 003: ID 05ac:8242 Bus 036 Device 001: ID 05ac:8006 Bus 036 Device 002: ID 05ac:8507 Bus 006 Device 001: ID 05ac:8005 Bus 038 Device 001: ID 05ac:8006 Bus 038 Device 002: ID 04b4:8613 (unconfigured FX2)
Here you can see that the device was disovered and as long as there's only one device on the system it will be used directly.
-
Program the device with the wanted image using the
program-%
target where the percentage sign is replaced with eithertopology
,bulk
oriso
.$ make program-topology make topology make[2]: Nothing to be done for `ihx'. cycfx2prog prg:build/topology.ihx run Using ID 04b4:8613 on 038.002. Putting 8051 into reset. Programming 8051 using "build/topology.ihx". Putting 8051 out of reset.
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The device should be ready for the TCK now.
TODO: Add output of
make list
.