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Services, Products and Projects
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Services
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Our
key focus areas
include:
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Real-Time
Applications
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Device drivers for PCI bridges, USB interfaces and many
others on all popular
Operating Systems
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Board
Support Packages development and porting
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Core
algorithm development and implementation for DSP
applications
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Architecture Specific Programming
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Board
Specific Programming – Low level software for
monitoring, debugging, diagnostics
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GUI
development for embedded systems and other
devices
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Cross Platform Development
and OS Porting
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Projects/Products
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We have developed a range of device
driver software and GUI using Linux, RTLinux,
QNX, VxWorks and Windows. These are listed
below
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Projects
on Linux/RTLinux
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Projects
on Windows
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Projects
on custom built cards
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Project on QNX
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Projects on
Linux/RTLinux
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Generic Library for
MIL-STD-1553B, Arinc-429 and
UART
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Description:
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The product provides
a
user interface application,
for testing or demonstrating
capabilities
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of
the MPAC PCI card. This application
is provided with the MPAC
card, to test MPAC card
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capabilities and
also to communicate through MIL-STD-1553B, ARINC-429
and RS422/RS232
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protocols. The application
provides different interfaces to do the various
modes of data transfer
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provided by these
protocol. It provides a generic
interface for all the
versions of MPAC, so
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that the UI can be used
independent of MPAC
cards.
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The main features are:
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Platform
independent UI
interface
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Card/
Chip independent UI interfaces
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Generic
interfaces for MIL-STD-1553B, ARINC-429 and
RS422/RS232 protocols.
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Multi
Protocol Data Transfer
capability.
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Easy
porting of GUI into other POSIX standards
platforms
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Development
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The
product has been developed using the tools listed
below :
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The user interfaces were
developed using scripting
language called Python using
TCL/TK
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library. The routines for
accessing the MPAC card
resources were developed in C
language
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using GNU tools. The
interface between the Python scripts and C
code were developed using
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a tool called
SWIG.
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PCI Linux Device driver for MPAC
(Multi Protocol Avionics Card)
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Description
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This is
a custom - built character device driver used for
controlling the MPAC card. It be
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characteristics of a
normal Linux character device driver, where
the user can access the device
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resources as stream
of bytes (like a file). The
driver implements the open, close, read,
write
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and ioctl system
calls for controlling the MPAC device. The driver is
accessed by the means of
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file
system nodes such as /dev/mpac. The
driver is built into an
object code called
kernel
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has
module, which can be dynamically linked and unlink
to the running kernel. It
also consists
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of
interrupt handling for the
MPAC shared interrupts. The
driver or kernel module built
is
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compatible
for any Linux with kernel version
2.4.2. The module source can compiled
in any
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Linux
compiled in any Linux kernel
version higher than 2.4.0 or
2.4.x.The driver has
been
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ported for
RTLinux ver 3.1.
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Development
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The product has been developed
in C language using GPL (General Public License) tools
like
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GNU tools gcc ( c
compiler and linker ) and
the kernel level debugging
is done through
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kgdb ( kernel - gdb version )
and with the kernel source
for compiling the driver
module.
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Projects
on
Windows
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PCI
Device driver for MPAC (Multi Protocol Avionics
Card)
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Description
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The
product is a indigenous
custom built device driver
for the MPAC PCI card series.
The
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driver is
fully supported by the WDM
(Windows Driver Model) Model. It is designed
to meet
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requirements
of the MPAC card. It provides
I/O control operations for open, close,
read/write
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the and
interrupt handling for the card.
The driver is compatible for
Windows
2000/98SE
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and
Windows XP also.
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Development:
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The
product has been developed
using Visual C++ in Visual studio IDE
and Windows driver
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development
kit.
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Projects on custom
built cards
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Device
driver for PC Card (PCMCIA)
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Description
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The
product is a indigenous
custom built device driver
for hot plug and
play PCMCIA |
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cards,
where the application pop ups informing the
user about the
PC Card insertion and a |
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notification,
while the card is being removed.
The driver is fully
supported by the
WDM |
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(Windows
Driver Model) Model features. The driver
is compatible
for Windows 2000/98SE |
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and
Windows XP also. |
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Development
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The
product has been developed using Visual C++ in Visual
studio IDE and windows driver
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development
kit |
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Device
drivers for Multi-protocol communication card
(MPCC)
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Description
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This card is one of the
two modules in the embedded system
called On-Board Computer, |
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a sub system in an avionics application.
The multi-protocol
communication card is based on |
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Intel's 196 micro controller.
The module supports
industry standard bus
interfaces like
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MIL-STD-1553B, ARINC-429, RS232
and RS-422. The module has decode logic and
interrupt |
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logic implemented on EPLD.
This module is interfaced to
the main controller
module, which
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is based on
Intel 486 microprocessor,
through arbitration logic
implemented on EPLD.
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The driver routines for the I/O
controllers in MPCC module bus interfaces
developed are used |
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by the application programmer
to communicate the data to and from
the other sub systems
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connected to the on board
computer. |
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Development
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The device drivers
has been developed using IAR
Embedded Work Bench
Tool for Intel’s |
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87C196KC micro controller. |
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Monitor
software for 486 based processor
module
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Description
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Monitor
software is a user
interactive software debugger tool
for a
customized, Intel’s 486 |
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processor
based board. The software
includes hardware diagnostics
and endurance test |
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routines.
The
board user its serial data port to communicate with
the host system. The user can |
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use
the commands to display
the contents of the processor
registers, modify, display the |
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memory
contents, download user program to the board and execute
the program. The user can |
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perform the hardware diagnostics for
the board by issuing the test commands. |
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Development
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The
monitor software has been developed
in C and assembly
languages using the Intel 386 |
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build
tools. |
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Projects in
QNX
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Porting
of GUI and the character driver for MPAC
card
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Description
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The
product test the capabilities of the MPAC PCI card
in QNX platform. It provides a character |
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driver for accessing the hardware resources of the MPAC
card and testing the capabilities
of the |
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MPAC card. |
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Development
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This
development is using QNX GNU tools and the Python GUI
has been ported for QNX 6.1
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platform
using Python 2.1 QNX platform
versions. |
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