python_examples: Reformatted, self-checking, executable

* Moved body of each python example to main.  This allows for basic
      load module testing for CI
    * General cleanup of python modules (crlf/tabs/prints/etc)
    * Chmod'ed to 755 to allow running examples without specifying the
      python interpreter
    * Added ctest for loading python2/3 modules
    * Added jniclasscode pragma for java swig interface files.
    * Updated check_examplenames.py module to check all languages vs. a
      cxx example name
    * Added tests for checking python module and test loading
    * Added 'make test' to travis-ci run (run ctests)
    * Print a more meaningful message when not building cxx docs into
      python modules
    * Updated check_clean.py to only check java wrapper files
    * ENABLED ctests for UPM
    * Deleted using_carrays.py python example - this is covered by other
      examples

Signed-off-by: Noel Eck <noel.eck@intel.com>
This commit is contained in:
Noel Eck
2016-09-29 18:24:19 -07:00
parent 62718daf0b
commit 2f78d9f62b
203 changed files with 5890 additions and 5216 deletions

198
examples/python/hmtrp.py Normal file → Executable file
View File

@ -24,120 +24,120 @@
import time, sys, signal, atexit
import pyupm_hmtrp as upmHmtrp
# Instantiate a HMTRP radio device on uart 0
my_HMTRP_Radio = upmHmtrp.HMTRP(0)
def main():
# Instantiate a HMTRP radio device on uart 0
my_HMTRP_Radio = upmHmtrp.HMTRP(0)
## Exit handlers ##
# This stops python from printing a stacktrace when you hit control-C
def SIGINTHandler(signum, frame):
raise SystemExit
## Exit handlers ##
# This stops python from printing a stacktrace when you hit control-C
def SIGINTHandler(signum, frame):
raise SystemExit
# This function lets you run code on exit,
# including functions from my_HMTRP_Radio
def exitHandler():
print "Exiting"
sys.exit(0)
# This function lets you run code on exit,
# including functions from my_HMTRP_Radio
def exitHandler():
print "Exiting"
sys.exit(0)
# Register exit handlers
atexit.register(exitHandler)
signal.signal(signal.SIGINT, SIGINTHandler)
# Register exit handlers
atexit.register(exitHandler)
signal.signal(signal.SIGINT, SIGINTHandler)
myCounter = 0
# normal read/write mode
bufferLength = 256
radioBuffer = upmHmtrp.charArray(bufferLength)
myCounter = 0
# make sure port is initialized properly. 9600 baud is the default.
if (not my_HMTRP_Radio.setupTty(upmHmtrp.cvar.int_B9600)):
print "Failed to setup tty port parameters"
sys.exit(0)
# normal read/write mode
bufferLength = 256
radioBuffer = upmHmtrp.charArray(bufferLength)
usageStr = ("Usage:\n"
"Pass a commandline argument (any argument) to this program\n"
"to query the radio configuration and output it. NOTE: the\n"
"radio must be in CONFIG mode for this to work.\n\n"
"Running this program without arguments will simply transmit\n"
"'Hello World!' every second, and output any data received from\n"
"another radio.\n\n")
print usageStr
# make sure port is initialized properly. 9600 baud is the default.
if (not my_HMTRP_Radio.setupTty(upmHmtrp.cvar.int_B9600)):
print "Failed to setup tty port parameters"
sys.exit(0)
'''
By default, this radio simply transmits data sent via writeData()
and reads any available data via readData().
It can be placed into a configuration mode by grounding the
CONFIG pin on the module. When this is done, the various
configuration query and config methods can be used. In this
example, by default, we just read any data available fom the
device, and periodically transmit "Hello World".
usageStr = ("Usage:\n"
"Pass a commandline argument (any argument) to this program\n"
"to query the radio configuration and output it. NOTE: the\n"
"radio must be in CONFIG mode for this to work.\n\n"
"Running this program without arguments will simply transmit\n"
"'Hello World!' every second, and output any data received from\n"
"another radio.\n\n")
print usageStr
If any argument was specified on the command line, do a simple
configuration query and output the results. The radio must be in
CONFIG mode for this to work.
'''
By default, this radio simply transmits data sent via writeData()
and reads any available data via readData().
Note that the first command-line argument should be "hmtry.py"
The data we want would be the second... if it exists
'''
if (len(sys.argv) > 1):
# config mode
freq = upmHmtrp.uint32Array(0)
dataRate = upmHmtrp.uint32Array(0)
rxBandwidth = upmHmtrp.uint16Array(0)
modulation = upmHmtrp.uint8Array(0)
txPower = upmHmtrp.uint8Array(0)
uartBaud = upmHmtrp.uint32Array(0)
It can be placed into a configuration mode by grounding the
CONFIG pin on the module. When this is done, the various
configuration query and config methods can be used. In this
example, by default, we just read any data available fom the
device, and periodically transmit "Hello World".
if (my_HMTRP_Radio.getConfig(freq, dataRate, rxBandwidth,
modulation, txPower, uartBaud)):
print "Radio configuration:"
outputStr = ("freq: {0} dataRate: {1} "
"rxBandwidth: {2}Khz").format(freq.__getitem__(0),
dataRate.__getitem__(0),
rxBandwidth.__getitem__(0))
print outputStr
If any argument was specified on the command line, do a simple
configuration query and output the results. The radio must be in
CONFIG mode for this to work.
outputStr = "modulation: %d Khz txPower: %d uartBaud: %d" % (
modulation.__getitem__(0), txPower.__getitem__(0),
uartBaud.__getitem__(0))
print outputStr
else:
errString = ("getConfig() failed. Make sure the radio "
"is in CONFIG mode.")
print errString
else:
print "Running in normal read/write mode."
while (1):
# we don't want the read to block in this example, so always
# check to see if data is available first.
if (my_HMTRP_Radio.dataAvailable()):
rv = my_HMTRP_Radio.readData(radioBuffer, bufferLength)
if (rv > 0):
resultStr = "";
for x in range(rv):
resultStr += radioBuffer.__getitem__(x)
print "Received:", resultStr
Note that the first command-line argument should be "hmtry.py"
The data we want would be the second... if it exists
'''
if (len(sys.argv) > 1):
# config mode
freq = upmHmtrp.uint32Array(0)
dataRate = upmHmtrp.uint32Array(0)
rxBandwidth = upmHmtrp.uint16Array(0)
modulation = upmHmtrp.uint8Array(0)
txPower = upmHmtrp.uint8Array(0)
uartBaud = upmHmtrp.uint32Array(0)
if (rv < 0): # some sort of read error occurred
print "Port read error."
sys.exit(0)
myCounter += 1
# every second, transmit "Hello World"
if (myCounter > 10):
msg = "Hello World!"
if (my_HMTRP_Radio.getConfig(freq, dataRate, rxBandwidth,
modulation, txPower, uartBaud)):
print "Radio configuration:"
outputStr = ("freq: {0} dataRate: {1} "
"rxBandwidth: {2}Khz").format(freq.__getitem__(0),
dataRate.__getitem__(0),
rxBandwidth.__getitem__(0))
print outputStr
print "Transmitting %s..." % msg
outputStr = "modulation: %d Khz txPower: %d uartBaud: %d" % (
modulation.__getitem__(0), txPower.__getitem__(0),
uartBaud.__getitem__(0))
print outputStr
else:
errString = ("getConfig() failed. Make sure the radio "
"is in CONFIG mode.")
print errString
else:
print "Running in normal read/write mode."
while (1):
# we don't want the read to block in this example, so always
# check to see if data is available first.
if (my_HMTRP_Radio.dataAvailable()):
rv = my_HMTRP_Radio.readData(radioBuffer, bufferLength)
# Adding 1 for NULL terminator.
# Note that SWIG automatically adds a NULL terminator,
# so no need to NULL-terminate ourselves.
# Just increment the message length to include
# the NULL that's already there
my_HMTRP_Radio.writeData(msg, (len(msg) + 1))
myCounter = 0
time.sleep(.1)
if (rv > 0):
resultStr = "";
for x in range(rv):
resultStr += radioBuffer.__getitem__(x)
print "Received:", resultStr
if (rv < 0): # some sort of read error occurred
print "Port read error."
sys.exit(0)
myCounter += 1
# every second, transmit "Hello World"
if (myCounter > 10):
msg = "Hello World!"
print "Transmitting %s..." % msg
# Adding 1 for NULL terminator.
# Note that SWIG automatically adds a NULL terminator,
# so no need to NULL-terminate ourselves.
# Just increment the message length to include
# the NULL that's already there
my_HMTRP_Radio.writeData(msg, (len(msg) + 1))
myCounter = 0
time.sleep(.1)
if __name__ == '__main__':
main()