def __init__(self):
# this is only changed once the ball is kicked
self.switch_goal = False
self.prev_state = state.none
self.prev_ball = -1
self.prev_goal = -1
# CONDITIONS
self.ball_in_dribbler = False
self.ball_found = False
self.goal_found = False
self.goal_aligned = False
# STATES
self.state = state.none
self.search = search.none
# OBJECTS
self.drive_sys = Drive()
self.dribbler = Dribbler()
self.field = Field()
self.kicker = Kicker()
# MOTOR pwm
self.left_motor = 0
self.right_motor = 0
# range/headings
self.obs_range = [None, None, None]
self.obs_heading = [None, None, None]
self.ball_range = None
self.ball_heading = None
self.goal_range = None
self.goal_heading = None
class StateMachineNode:
def __init__(self):
rospy.init_node('state_machine')
self.markers_subscriber = rospy.Subscriber(AR_TAG_TOPIC, AlvarMarkers,
self.markers_callback, queue_size=10)
self.starter_subscriber = rospy.Subscriber(STARTER_TOPIC, Bool,
self.start_callback, queue_size=10)
self.lights_off = False
self.state = State.nothing
self.drive = Drive()
self.image_processor = ImageProcessor()
self.cv_bridge = CvBridge()
self.drive_speed = 1.2503309
self.left_goal_dist = 0.90
self.right_goal_dist = 0.8
def markers_callback(self, msg):
self.update_state(msg.markers)
print("State: %s" % self.state)
if self.state == State.follow_middle:
self.drive.drive_middle(self.drive_speed)
elif self.state == State.follow_left:
self.drive.drive_left(self.left_goal_dist, self.drive_speed)
def __init__(self, config, service_type):
self.__config = config
self.info = {
'details': []
}
if service_type == SERVICE_DRIVE:
self.service = Drive(config)
elif service_type == SERVICE_DROPBOX:
raise NotImplementedError('not implemented yet!')
def get_email_user():
drive = Drive()
creds = drive.setup_creds()
emailUser = []
print("GETTING USER EMAIL")
emailUser.append(drive.get_user_info(creds)['email'])
print("DONE!")
return emailUser
def main():
import config
import time
import logging
from drive import Drive
logging.basicConfig(level=logging.DEBUG)
log = logging.getLogger(__name__)
log.info("Testing vision subsystem")
vision = Vision(config)
drive = Drive()
drive.close_tray()
calibration_markers = None
while True:
drive.close_tray()
log.info("Acquiring calibration image")
image_filename = vision.image_acquire()
if not image_filename:
log.warn(
"Could not acquire image for calibration, please check the camera"
)
time.sleep(config.camera_calibration_delay)
continue
(calibration_markers, frame) = vision.detect_markers(image_filename)
os.unlink(image_filename)
log.debug("Markers detected during calibration: '{}'".format(
calibration_markers))
if calibration_markers and 'disk_center' in calibration_markers and 'disk_edge' in calibration_markers:
break
else:
log.warn(
"Both calibration markers need to be detectable, please adjust the camera or lighting conditions"
)
time.sleep(config.camera_calibration_delay)
log.info(
"Camera calibration was successful, calibration markers detected: {}".
format(calibration_markers))
drive.open_tray()
camera_image_filename = vision.image_acquire('camera-image')
vision.write_cover_image(camera_image_filename, 'cover.png',
calibration_markers)
drive.close_tray()
def __init__(self,mode,device,calibrationSpeeds):
baud = 9600
if mode == Mode.SIM:
self.drive = Drive(device,baud,simulate=1,calibration=calibrationSpeeds)
elif mode == Mode.LIVE:
self.drive = Drive(device,baud,simulate=0,calibration=calibrationSpeeds, persist=False)
self.pos = self.azalt()
self.getCurrentPos()
self.location = self.drive.location #TODO - use this
self.status = Status.INIT
self.mode = mode
def mount(drive_name): ''' Reconnects a drive as a volume. Any data on the drive is preserved. Returns the volume. ''' drive = Drive.reconnect(drive_name) inputt = drive.read_block(0) data = inputt.splitlines() length = int(data[0]) i = 1 while i < length: inputt = drive.read_block(i) data.extend(inputt.splitlines()) i+=1 i = 1 outcome = False data[len(data)-1] = data[len(data)-1].rstrip() while len(data) > (i+1): while len(data) > (i+1) and data[i+1].isdigit() == outcome: data[i] += data[i+1] data.pop(i+1) i+=1 outcome = not outcome volume = Volume(drive, data[1]) for i in range(len(data[3])): #TODO Needs better fix if data[3][i] == 120: volume.bmap[i] = b'x' volume.import_files() return volume
def mount(drive_name):
'''
Reconnects a drive as a volume.
Any data on the drive is preserved.
Returns the volume.
'''
drive = Drive.reconnect(drive_name)
vol = Volume()
block = drive.read_block(0).split(b'\n')
volinfosize= int(bytes.decode(block[0]))
volinfo =b''
volinfo+=drive.read_block(0)
if volinfosize!=1:
for i in range (1,volinfosize+1):
volinfo+=drive.read_block(i)
vol.setSize(int(bytes.decode(block[2])))
vol.setDrive(drive)
bmpArr =[]
bmp = bytes.decode(volinfo.split(b'\n')[3])
for i,v in enumerate(bmp):
if v == 'x':
bmpArr.append(1)
else:
bmpArr.append(0)
vol.setVolInfo(volinfo)
vol.setBitmapArray(bmpArr)
return vol
def __init__(self, args):
self._args = args
self._drive = DummyDrive() if args.nohw else Drive()
self._finder = PositionsFinder(args.debug)
self._hysteresis = Hysteresis(frames=args.frames,
resolution=args.resolution,
threshold=args.threshold)
def __init__(self):
super().__init__()
self.loader = Loader()
self.shooter = Shooter()
self.drive = Drive(config.robotDrive, config.leftJoy, config.hsButton,
config.alignButton)
self.componets = [ self.loader, self.shooter, self.drive ]
def get_drives(self):
drives = []
for letter in 'ABCDEFGHIJKLMNOPQRSTUVWXYZ':
drive = Drive(letter)
if drive.type:
log.debug('drive=%s' % str(drive))
drives.append(drive)
return drives
def __init__(self, config, service_type):
self.__config = config
self.info = {
'details': []
}
if service_type == SERVICE_DRIVE:
self.service = Drive(config)
elif service_type == SERVICE_DROPBOX:
raise NotImplementedError('not implemented yet!')
def _initEmptyBoard(self):
"""
:return: the initialized board
"""
board = [[Square(None, i, j) for j in range(5)] for i in range(5)]
board[0][0] = Square(Note(False), 0, 0)
board[0][1] = Square(Governance(False), 0, 1)
board[0][2] = Square(Relay(False), 0, 2)
board[0][3] = Square(Shield(False), 0, 3)
board[0][4] = Square(Drive(False), 0, 4)
board[1][4] = Square(Preview(False), 1, 4)
board[3][0] = Square(Preview(True), 3, 0)
board[4][0] = Square(Drive(True), 4, 0)
board[4][1] = Square(Shield(True), 4, 1)
board[4][2] = Square(Relay(True), 4, 2)
board[4][3] = Square(Governance(True), 4, 3)
board[4][4] = Square(Note(True), 4, 4)
return board
class Upload(object):
"""
TODO interface or abstract class for upload services
"""
def __init__(self, config, service_type):
self.__config = config
if service_type == SERVICE_DRIVE:
self.service = Drive(config)
elif service_type == SERVICE_DROPBOX:
raise NotImplementedError('not implemented yet!')
def run(self, paths):
"""
"""
for path in paths:
self.service.upload(path)
log_dict(self.service.info)
def __init__(self):
rospy.init_node('state_machine')
self.markers_subscriber = rospy.Subscriber(AR_TAG_TOPIC, AlvarMarkers,
self.markers_callback, queue_size=10)
self.starter_subscriber = rospy.Subscriber(STARTER_TOPIC, Bool,
self.start_callback, queue_size=10)
self.lights_off = False
self.state = State.nothing
self.drive = Drive()
self.image_processor = ImageProcessor()
self.cv_bridge = CvBridge()
self.drive_speed = 1.2503309
self.left_goal_dist = 0.90
self.right_goal_dist = 0.8
def test_long_volume_name(self):
blocks = 100
drive_name = 'driveH.txt'
disk = Drive.format(drive_name, blocks)
name = b'long volume name' * 100
volume = Volume.format(disk, name)
self.assertEqual(name, volume.name())
self.assertEqual(blocks, volume.size())
self.assertEqual(99, volume.root_index())
volume.unmount()
def mount(drive_name):
drive = Drive.reconnect(drive_name)
allVolumeData = drive.read_block(0).decode()
numOfBlocksUsed = allVolumeData.split('\n',1)[0]
if int(numOfBlocksUsed)>1:
for i in range(1,int(numOfBlocksUsed)):
allVolumeData+=drive.read_block(i).decode()
data = allVolumeData.split('\n')
numOfBlocksUsed=int(data[0])
name = data[1]
#dont need this
numOfBlocksInDrive = int(data[2])
bitmap = data[3]
rootIndex = int(data[4])
usedDrives=[False]*numOfBlocksInDrive
Volume.calculate_volume_data_blocks(name, drive, rootIndex)
numOfDataBlocks = Volume.calculate_volume_data_blocks(name, drive, rootIndex )
for i in range(numOfDataBlocks):
usedDrives[i]=True
usedDrives[rootIndex]=True
volume = Volume(drive, name.encode(), rootIndex, usedDrives, numOfBlocksUsed)
#read the rootdirectory
rootString = drive.read_block(rootIndex).decode()
root= rootString.split('\n')
for i in range(len(root)):
if root[i].isdigit():
if int(root[i])!=0:
fileData = volume.drive.read_block(int(root[i])).decode().split('\n')
for i in range(0,len(fileData)-1,3):
fileName = fileData[i]
fileDataLength = fileData[i+1]
fileStart = fileData[i + 2]
#then go into the fileStart
fileDirectory = volume.drive.read_block(int(fileStart))
fileDirectory = fileDirectory.decode().split('\n')
dataLocations = []
for j in range(len(fileDirectory)):
if fileDirectory[j].isdigit():
dataLocations.append(fileDirectory[j])
#now that we have all the locations of the data, we can read all the locations and concatinate them
dataOnFile = b''
for k in range(len(dataLocations)):
dataOnFile+=volume.drive.read_block(int(dataLocations[k]))
#only want the first n bits
dataOnFile = dataOnFile[:int(fileDataLength)]
file = volume.open(fileName.encode())
file.write(0, dataOnFile)
print (file.data)
#print (root)
return volume
'''
def __init__(self):
Config.update()
self.sound = Sound()
# sensor values
self.sensLeft = ColorSensor(INPUT_1)
self.sensRight = ColorSensor(INPUT_4) # TODO: Sensoren anschließen
self.sensIR = InfraredSensor(INPUT_2)
self.sensTouch = TouchSensor(INPUT_3)
self.btn = Button()
self.sensValues = {}
# Classes for features
self.drive = Drive()
self.cross = Cross()
# statemachine
self.fsm = StateMachine()
# adding States
self.fsm.states["followLine"] = State("followLine")
self.fsm.states["followLine"].addFunc(self.drive.followLine,
self.sensValues)
self.fsm.states["brake"] = State("brake")
self.fsm.states["crossFirstTurn"] = State("crossFirstTurn")
self.fsm.states["crossFirstTurn"].addFunc(self.cross.firstTurn,
self.sensValues)
self.fsm.states["checkNextExit"] = State("checkNextExit")
self.fsm.states["checkNextExit"].addFunc(self.drive.followLine,
self.sensValues)
# adding Transitions
self.fsm.transitions["toFollowLine"] = Transition("followLine")
self.fsm.transitions["toBrake"] = Transition("brake")
self.fsm.transitions["toBrake"].addFunc(self.drive.brake)
self.fsm.transitions["toCrossFirstTurn"] = Transition("crossFirstTurn")
def simulate(drive_sizes, file_size, strategy):
drives = list(map(lambda drive_size: Drive(drive_size), drive_sizes))
candidates = list(filter(lambda drive: drive.free() >= file_size, drives))
while candidates:
for drive in drives:
drive.tick()
selection = strategy(candidates)
selection.store(file_size)
if selection.free() < file_size:
candidates.remove(selection)
return drives
def test_long_volume_name(self):
blocks = 10
drive_name = 'driveB.txt'
drive = Drive.format(drive_name, blocks)
name = b'long volume name' * 10
volume = Volume.format(drive, name)
self.assertEqual(3, volume.volume_data_blocks())
self.assertEqual(name, volume.name())
self.assertEqual(blocks, volume.size())
self.assertEqual(b'xxx------x', volume.bitmap())
self.assertEqual(9, volume.root_index())
volume.unmount()
def test_reconnect_drive(self):
blocks = 10
drive_name = 'driveC.txt'
drive = Drive.format(drive_name, blocks)
drive.disconnect()
with self.assertRaises(IOError):
Drive.reconnect('badname')
drive = Drive.reconnect(drive_name)
self.assertEqual(blocks * Drive.BLK_SIZE, drive.num_bytes())
name = b'reconnect volume'
volume = Volume.format(drive, name)
volume.unmount()
with self.assertRaises(IOError):
Volume.mount('driveZ')
volume = Volume.mount(drive_name)
self.assertEqual(1, volume.volume_data_blocks())
self.assertEqual(name, volume.name())
self.assertEqual(blocks, volume.size())
self.assertEqual(b'x--------x', volume.bitmap())
self.assertEqual(9, volume.root_index())
volume.unmount()
class Robot():
# 100 ms update (stable frequency) / 50 ms update (maximum frequency)
PERIODIC_DELAY = 0.05
stopped = False
def __init__(self):
self.drive = Drive()
self.oi = OperatorInterface(self.drive)
self.drive.setOperatorInterface(self.oi)
def update(self):
self.drive.update()
def stop(self):
self.stopped = True
self.drive.stop()
self.oi.stop()
def periodic(self):
nextTime = time.time()
while (not self.stopped):
try:
self.update()
nextTime = nextTime + self.PERIODIC_DELAY
delay = max(0, nextTime - time.time())
if (delay == 0):
print("--------------THRASH--------------")
time.sleep(delay)
except:
print("Exception in Periodic")
traceback.print_exc()
self.stop()
def __init__(self):
self.circle_obstacle = False
self.goto_ball = False
self.ball_captured = False
self.goto_obstacle = False
self.goto_goal = False
self.ball_found = False
self.goal_found = False
self.goal_clear = False
self.spin = False
self.search_obs = False
self.timer = Timer()
self.target_side = -1
self.ball_side = -1
self.goal_side = -1
self.wall_side = -1
self.obs_side = -1
self.speed_mod = 1
self.no_target_count = 0
self.circle_count = 0
self.obs_r = None
self.obs_h = None
self.ball_r = None
self.ball_h = None
self.goal_r = None
self.goal_h = None
self.wall_r = None
self.wall_h = None
self.target_r = None
self.target_h = None
self.target_found = False
self.drive_sys = Drive()
self.dribbler = Dribbler()
self.kicker = Kicker()
class Upload(object):
"""
TODO interface or abstract class for upload services
"""
def __init__(self, config, service_type):
self.__config = config
self.info = {
'details': []
}
if service_type == SERVICE_DRIVE:
self.service = Drive(config)
elif service_type == SERVICE_DROPBOX:
raise NotImplementedError('not implemented yet!')
def run(self, paths):
"""
"""
for path in paths:
self.service.upload(path)
self.info['details'].append(self.service.info)
log_dict(self.service.info)
def format(self, name):
thisDrive = Drive(name)
thisDrive.format()
thisDrive.write_block(0, "+" + "-" * 127 + ("f:" + " " * 9 + "0000:" + "000 " * 12) * 6)
global availableBlocksList
availableBlocksList = ['+'] + ['-' for x in range(127)]
global availableBlockIndices
availableBlockIndices = list(range(1, 128))
self.currentDrive = thisDrive
self.rootDirectory = Directory(self.currentDrive, None, 0, None, None) #drive, fileNum, parentBlockNum, parent, name
self.blocksAvailability = thisDrive.read_block(0)[:127]
def test_file_reads(self):
volume = Volume.format(Drive.format('driveE.txt', 8), b'file read volume')
file = volume.open(b'fileA')
data = b'A different fileA'
file.write(0, data)
with self.assertRaises(IOError):
file.read(30, 1)
with self.assertRaises(IOError):
file.read(0, 50)
self.assertEqual(data, file.read(0, len(data)))
self.assertEqual(b'if', file.read(3, 2))
file.write(file.size(), b'Aaargh' * 10)
self.assertEqual(b'arghAaarghAaargh', file.read(61, 16))
volume.unmount()
def test_file_reads(self):
volume = Volume.format(Drive.format("driveK.txt", 100), b'file read volume')
file = volume.open(b'fileA')
data = b'A different fileA' * 10
file.write(0, data)
with self.assertRaises(IOError):
file.read(300, 1)
with self.assertRaises(IOError):
file.read(0, 500)
self.assertEqual(data, file.read(0, len(data)))
self.assertEqual(b'if', file.read(71, 2))
file.write(file.size(), b'Aaargh' * 100)
self.assertEqual(b'AaarghAaargh', file.read(500, 12))
volume.unmount()
def test_reconnect_drive_with_files(self):
drive_name = 'driveF.txt'
volume = Volume.format(Drive.format(drive_name, 12), b'reconnect with files volume')
filenames = [b'file1', b'file2', b'file3', b'file4']
files = [volume.open(name) for name in filenames]
for i, file in enumerate(files):
file.write(0, bytes(str(i).encode()) * 64)
files[0].write(files[0].size(), b'a')
volume.unmount()
volume = Volume.mount(drive_name)
file4 = volume.open(b'file4')
self.assertEqual(b'3333', file4.read(0, 4))
file1 = volume.open(b'file1')
self.assertEqual(65, file1.size())
self.assertEqual(b'0a', file1.read(63, 2))
volume.unmount()
def test_simple_file_creation(self):
# the Volume didn't call format in the original
volume = Volume.format(Drive.format('driveD.txt', 8), b'file creation volume')
with self.assertRaises(ValueError):
volume.open(b'fileA\n')
file = volume.open(b'fileA')
self.assertEqual(0, file.size())
data = b'Hello from fileA'
file.write(0, data)
self.assertEqual(len(data), file.size())
file.write(file.size(), data)
self.assertEqual(2 * len(data), file.size())
file = volume.open(b'fileB')
data = b'Welcome to fileB'
file.write(50, data)
self.assertEqual(50 + len(data), file.size())
volume.unmount()
def get_files():
drive = Drive()
service = drive.setup_service(drive.setup_creds())
print("GETTIN FILES EXTENSION")
fileExtension = drive.get_file_extension(service)
print("DONE!")
print("GETTING FILES FROM GOOGLE DRIVE")
files = drive.get_data_api(service)
print("DONE!")
return files, fileExtension
def main():
"""Uploads files in a directory to Google Drive.
"""
upload_dir_path = os.path.abspath(arguments.upload_dir) + "/"
my_drive = Drive()
folder = my_drive.query("name = 'Drone Club Videos'")
folder_id = folder['files'][0]['id']
new_folder_id = my_drive.create_folder(str(datetime.date.today()),
folder_id)
for f in os.scandir(upload_dir_path):
my_drive.upload_file(f.name, f.path, new_folder_id)
def test_simple_file_creation(self):
volume = Volume.format(Drive.format('driveJ.txt', 100), b'file creation volume')
with self.assertRaises(ValueError):
volume.open(b'dir/fileA') # incase we ever implement subdirectories
with self.assertRaises(ValueError):
volume.open(b'fileA\n')
file = volume.open(b'fileA')
self.assertEqual(0, file.size())
data = b'Hello from fileA' * 10
file.write(0, data)
self.assertEqual(len(data), file.size())
file.write(file.size(), data)
self.assertEqual(2 * len(data), file.size())
file = volume.open(b'fileB')
data = b'Welcome to fileB'
file.write(500, data)
self.assertEqual(500 + len(data), file.size())
volume.unmount()
def test_new_volume(self):
blocks = 10
drive_name = 'driveA.txt'
drive = Drive.format(drive_name, blocks)
with self.assertRaises(ValueError):
Volume.format(drive, b'')
with self.assertRaises(ValueError):
Volume.format(drive, b'Volume\nA')
with self.assertRaises(ValueError):
Volume.format(drive, b'a' * blocks * Drive.BLK_SIZE)
name = b'new volume test'
volume = Volume.format(drive, name)
self.assertEqual(1, volume.volume_data_blocks())
self.assertEqual(name, volume.name())
self.assertEqual(blocks, volume.size())
self.assertEqual(b'x--------x', volume.bitmap())
self.assertEqual(9, volume.root_index())
volume.unmount()
def test_reconnect_disk_with_files(self):
drive_name = 'driveL.txt'
volume = Volume.format(Drive.format(drive_name, 500), b'reconnect with files volume')
files = []
for i in range(100):
name = 'file{:02}'.format(i).encode()
files.append(volume.open(name))
for i,file in enumerate(files):
file.write(0, str(i).encode() * 64)
files[99].write(files[99].size(), b'a')
volume.unmount()
volume = None
volume = Volume.mount(drive_name)
file4 = volume.open(b'file04')
self.assertEqual(b'4444', file4.read(0, 4))
file99 = volume.open(b'file99')
self.assertEqual(129, file99.size())
self.assertEqual(b'9a', file99.read(file99.size() - 2, 2))
volume.unmount()
def create(self, entity_type, name, parent_path):
if entity_type != Drive and not parent_path:
raise IllegalFileSystemOperation(
'only drives can be at the root level')
# if a drive is being created
if entity_type == Drive and not parent_path:
self.add_drive(Drive(name))
return
parent = self.get_entity(parent_path)
if type(parent) == Text:
raise IllegalFileSystemOperation('parent cannot be a text file')
if entity_type == Drive and parent_path:
raise IllegalFileSystemOperation('drive cannot have a parent')
# if PathNotFound, we know that the path is available
try:
self.get_entity(parent_path + '\\' + name)
raise PathAlreadyExists
except PathNotFound:
parent.add_child(entity_type(name, parent))
def undo_EFI_folder(self, associated_task):
for efi_drive in 'HIJKLMNOPQRSTUVWXYZ':
drive = Drive(efi_drive)
if not drive.type:
break
efi_drive = efi_drive + ':'
log.debug("Temporary EFI drive %s" % efi_drive)
try:
run_command(['mountvol', efi_drive, '/s'])
dest = join_path(efi_drive, 'EFI',
self.info.previous_target_dir[3:], 'wubildr')
dest.replace(' ', '_')
dest.replace('__', '_')
if os.path.exists(dest):
log.debug('Removing EFI folder %s' % dest)
shutil.rmtree(dest)
run_command(['mountvol', efi_drive, '/d'])
except Exception, err: #this shouldn't be fatal
log.error(err)
def modify_EFI_folder(self, associated_task, bcdedit):
command = [bcdedit, '/enum', '{bootmgr}']
boot_drive = run_command(command)
if 'partition=' in boot_drive:
boot_drive = boot_drive[boot_drive.index('partition=') + 10:]
else:
boot_drive = boot_drive[boot_drive.index('device') + 24:]
boot_drive = boot_drive[:boot_drive.index('\r')]
log.debug("EFI boot partition %s" % boot_drive)
# if EFI boot partition is mounted we use it
if boot_drive[1] == ':':
efi_drive = boot_drive
else:
for efi_drive in 'HIJKLMNOPQRSTUVWXYZ':
drive = Drive(efi_drive)
if not drive.type:
break
efi_drive = efi_drive + ':'
log.debug("Temporary EFI drive %s" % efi_drive)
if efi_drive != boot_drive:
run_command(['mountvol', efi_drive, '/s'])
src = join_path(self.info.root_dir, 'winboot', 'EFI')
src.replace(' ', '_')
src.replace('__', '_')
dest = join_path(efi_drive, 'EFI', self.info.target_dir[3:])
dest.replace(' ', '_')
dest.replace('__', '_')
if not os.path.exists(dest):
shutil.os.mkdir(dest)
dest = join_path(dest, 'wubildr')
if os.path.exists(dest):
shutil.rmtree(dest)
log.debug('Copying EFI folder %s -> %s' % (src, dest))
shutil.copytree(src, dest)
if self.get_efi_arch(associated_task, efi_drive) == "ia32":
efi_path = join_path(dest, 'grubia32.efi')[2:]
else:
efi_path = join_path(dest, 'shimx64.efi')[2:]
if efi_drive != boot_drive:
run_command(['mountvol', efi_drive, '/d'])
return efi_path
def mount(drive_name):
'''
Reconnects a drive as a volume.
Any data on the drive is preserved.
Returns the volume.
'''
print("mounting volume: " + str(drive_name))
volume = Volume()
volume.drive = Drive.reconnect(drive_name)
# volume.drive_name = drive.name
# int
volume.block_info_occupied_blocks_num = int(volume.drive.read_block(0).split()[0].decode())
# int
volume.BLK_SIZE = volume.drive.BLK_SIZE
# print("mounting: " + str(volume.drive.read_block(0)))
volumeInfoByte = volume.read_block_info()
volumeInfoStr = volumeInfoByte.decode().split('\n')
# volume.volumeName = volumeInfoStr[1].encode()
# volume.numberOfBlocks = int(volumeInfoStr[2])
# volume.bitmapStr = volumeInfoStr[3]
# volume.rootDirIndex = int(volumeInfoStr[4])
# volume.rootFileList = volume.getRootFileList()
# volume.openingFiles = []
print("volumeInfoStr: " + str(volumeInfoStr))
# byte
volume.volume_name = volumeInfoStr[1].encode()
# int
volume.total_num_of_blocks = int(volumeInfoStr[2])
# str
volume.bitmapStr = volumeInfoStr[3]
print("mounting volume with bitmap: " + volume.bitmapStr)
# int int(volumeInfoStr[4]) [s.strip() for s in content_byte.decode().split("\n") if s.strip() != ""]
volume.root_files_block_index = [int(i) for i in volumeInfoStr[4].split() if i.strip() != "" and i.isdigit()]
print("root_files_block_index: " + str(volume.root_files_block_index))
# array
volume.rootFileList = volume.get_root_file_list()
volume.openingFiles = []
return volume
def store_drives(raw_drives):
# takes as input raw_drives from the blkid command
# Returns a list of Drive objects
connected_drives = []
for i in range(len(raw_drives)):
temp_drive = Drive()
temp_raw_drive = raw_drives[i].split()
for attribute in temp_raw_drive:
if '/dev' in attribute:
attribute = list(attribute)
attribute.pop()
attribute = ''.join(attribute)
temp_drive.set_source(attribute)
elif 'TYPE' in attribute:
temp_drive.set_fs(attribute)
connected_drives.append(temp_drive)
return connected_drives
def __init__(self):
proc = subprocess.Popen('sudo blkid',
stdout=subprocess.PIPE,
shell=True)
(drives, err) = proc.communicate()
drives = drives.decode('utf-8').split('\n')
connected_drives = []
for i in range(len(drives)):
temp_drive = Drive()
temp_source = ''
temp_fs = ''
temp_raw_drive = drives[i].split()
for attribute in temp_raw_drive:
if '/dev' in attribute:
attribute = list(attribute)
attribute.pop()
attribute = ''.join(attribute)
temp_drive.set_source(attribute)
elif 'TYPE' in attribute:
temp_drive.set_fs(attribute)
connected_drives.append(temp_drive)
self.drives = connected_drives
class SRT():
def __init__(self,mode,device,calibrationSpeeds):
baud = 9600
if mode == Mode.SIM:
self.drive = Drive(device,baud,simulate=1,calibration=calibrationSpeeds)
elif mode == Mode.LIVE:
self.drive = Drive(device,baud,simulate=0,calibration=calibrationSpeeds, persist=False)
self.pos = self.azalt()
self.getCurrentPos()
self.location = self.drive.location #TODO - use this
self.status = Status.INIT
self.mode = mode
def getCurrentPos(self):
"""
Returns current position in azalt.
"""
return self.pos
def setCurrentPos(self, pos):
self.pos = pos
def getMode(self):
return self.mode
def setMode(self,mode):
self.mode = mode
def skycoord(self):
"""
Returns the position information of the telescope in an astropy SkyCoord object.
Returns
-------
SkyCoord : An astropy SkyCoord.
"""
position = self.getCurrentPos()
observatory = self.drive.location
time = self.drive.current_time
coord = SkyCoord(AltAz(az = position[0]*u.degree, alt = position[1]*u.degree, obstime = time, location = observatory))
return coord
def azalt(self):
"""
Returns the azimuth and altitude of the SRT by calling the status() method of the drive class.
"""
#status = self.drive.status()
az,alt = self.drive.az, self.drive.alt
#print("status " + "%f %f" % (az,alt))
return (az,alt)
def radec(self):
"""
Returns the right ascention and declination of the SRT by calling the status() method of the drive class.
"""
status = self.drive.status()
ra,dec = status['ra'],status['dec']
return (ra,dec)
def galactic(self):
"""
"""
return (0.00,0.00)
def stow(self):
"""
A wrapper function for Drive.stow().
"""
self.setStatus(Status.SLEWING)
if self.mode == Mode.SIM:
self.slew((0,90))
elif self.mode == Mode.LIVE:
self.drive.stow()
def home(self):
"""
A wrapper function for Drive.home().
"""
self.setStatus(Status.SLEWING)
if self.mode == Mode.SIM:
self.slew((90,0))
elif self.mode== Mode.LIVE:
self.drive.home()
def calibrate(self):
"""
A wrapper function for Drive.calibrate().
"""
if self.mode == Mode.SIM:
print("Calibration only works in live mode.")
elif self.mode == Mode.LIVE:
self.setStatus(Status.CALIBRATING)
self.drive.calibrate()
def slew(self,pos):
"""
Slews to position pos in degrees.
"""
delay = 0.05
self.status = Status.SLEWING
if self.mode == Mode.SIM:
print("Slewing in sim mode.")
if isinstance(pos,SkyCoord):
now = Time.now()
altazframe = AltAz(obstime=now,location=self.drive.location)
apos = pos.transform_to(altazframe)
x, y = int(apos.az.value), int(apos.alt.value)
else:
(xf,yf) = pos # target position in degrees
x = int(xf)
y = int(yf)
(cxf,cyf) = self.pos # current position in degrees
cx = int(cxf)
cy = int(cyf)
if x < cx:
for i in reversed(range(x,cx)):
self.setCurrentPos((i,cy))
QtGui.QApplication.processEvents()
time.sleep(delay)
elif x > cx:
for i in range(cx,x+1):
self.setCurrentPos((i,cy))
QtGui.QApplication.processEvents()
time.sleep(delay)
if y < cy:
for i in reversed(range(y,cy)):
self.setCurrentPos((x,i))
QtGui.QApplication.processEvents()
time.sleep(delay)
elif y > cy:
for i in range(cy,y+1):
self.setCurrentPos((x,i))
QtGui.QApplication.processEvents()
time.sleep(delay)
else:
# This is where live code goes
# remember self.getCurrentPos() is now in degrees in azalt - NOT pixel coordinates.
print("Slewing in live mode.")
if isinstance(pos,SkyCoord):
now = Time.now()
altazframe = AltAz(obstime=now,location=self.drive.location)
apos = pos.transform_to(altazframe)
x, y = int(apos.az.value), int(apos.alt.value)
else:
(x,y) = pos # target - mouse click position in degrees
(cx,cy) = self.pos # current position in degrees.
#print("Target Pos: (" + str(x) + "," + str(y) + ")")
#print("Current Pos: (" + str(cx) + "," + str(cy) + ")")
# construct a SkyCoord in correct coordinate frame.
# TODO: fix this -- drive.location
acreRoadAstropy = self.location
now = Time(time.time(),format='unix')
altazframe = AltAz(x*u.deg,y*u.deg,obstime=now,location=acreRoadAstropy)
skycoordazel = SkyCoord(altazframe)
self.drive.goto(skycoordazel,track=self.drive.tracking)
def slewSuccess(self,targetPos):
"""
"""
(tx,ty) = targetPos
targetPos = SkyCoord(AltAz(tx*u.deg,ty*u.deg,obstime=self.drive.current_time,location=self.drive.location))
(cx,cy) = self.pos
realPos = SkyCoord(AltAz(cx*u.deg,cy*u.deg,obstime=self.drive.current_time,location=self.drive.location))
d = 0.5
if targetPos.separation(realPos).value <= d:
#print("Finished slewing to " + str(self.getCurrentPos()))
return True
else:
return False
def getStatus(self):
return self.status
def setStatus(self,status):
self.status = status
def track(self,src):
"""
The SRT will follow the source as it move across the sky.
"""
if self.mode == Mode.SIM:
#pos = src.getPos()
#self.slew(pos)
self.status = Status.TRACKING
else:
pass
#!/usr/bin/python
import os
from runkeeper import upload_to_runkeeper
from drive import Drive
from models import DriveActivity
drive_service = Drive(
os.environ['GOOGLE_API_CLIENT_ID'],
os.environ['GOOGLE_API_CLIENT_SECRET'],
)
folders = drive_service.folders()
print("Please select a folder to sync tracks from:")
for i, folder in enumerate(folders):
print "{}: {}".format(i, folder['title'])
index = raw_input("Folder number: ")
folder = folders[int(index)]
print("You chose the folder: {}".format(folder['title']))
tracks = drive_service.files(folder)
for i, track in enumerate(tracks):
print('{}: {}'.format(i, track['title']))
index = raw_input("Track number: ")
track = tracks[int(index)]
q = DriveActivity.all()
q.filter('pk =', track['id'])
drive_activity = q[0]
class MyRobot(wpilib.SimpleRobot):
def __init__(self):
super().__init__()
self.loader = Loader()
self.shooter = Shooter()
self.drive = Drive(config.robotDrive, config.leftJoy, config.hsButton,
config.alignButton)
self.componets = [ self.loader, self.shooter, self.drive ]
def RobotInit(self):
wpilib.Wait(0.25)
shooterEncoder.Start()
def Disabled(self):
while wpilib.IsDisabled():
CheckRestart()
wpilib.Wait(0.01)
def Autonomous(self):
while wpilib.IsAutonomous() and wpilib.IsEnabled():
CheckRestart()
wpilib.Wait(0.01)
def OperatorControl(self):
dog = self.GetWatchdog()
dog.SetEnabled(True)
dog.SetExpiration(0.25)
self.drive.stop()
shooterMotor.Set(0)
tipperMotor.Set(0)
rollerMotor.Set(0)
while self.IsOperatorControl() and self.IsEnabled():
dog.Feed()
CheckRestart()
for componet in self.componets:
componet.tick()
#Teleop Code
#if not self.drive.aligning :
# self.drive.arcadeDrive(leftJoy.GetRawButton(halfSpeed))
shooterMotor.Set(rightJoy.GetY())
## Alignment
#if leftJoy.GetRawButton(allignButton) :
# if not self.drive.aligning:
# self.drive.aligning = True
# robotDrive.StopMotor()
# self.drive.align()
#else:
# self.drive.aligning = False
## Tipper Up and Down
if rightJoy.GetRawButton(tipperUp):
tipperMotor.Set(-1)
elif rightJoy.GetRawButton(tipperDown):
tipperMotor.Set(1)
else:
tipperMotor.Set(0)
## Roller Up and Down
if rightJoy.GetRawButton(rollerUpButton):
rollerMotor.Set(-1)
elif rightJoy.GetRawButton(rollerDownButton):
rollerMotor.Set(1)
else:
rollerMotor.Set(0)
## Loading
if rightJoy.GetRawButton(feederButton):
self.loader.load()
## Shooting
if rightJoy.GetRawButton(latchButton):
self.shooter.unlatch()
## Debug & Tuning
wpilib.Wait(0.01)
def __init__(self, dbname='SOS.db', sheet_name='', drop=False):
self.drive = Drive(sheet_name)
self.con = sqlite3.connect(dbname)
self.con.row_factory = sqlite3.Row
class Median:
def __init__(self):
self.values = []
def step(self, value):
self.values.append(value)
def finalize(self):
count = len(self.values)
values = sorted(self.values)
if count % 2 == 1:
return values[math.ceil(count / 2)]
else:
return (values[int(count / 2) - 1] +
values[int(count / 2)]) / 2
self.con.create_aggregate("median", 1, Median)
self.c = self.con.cursor()
self.diff_table = False
self.median_table = False
self.cats_conf = OrderedDict({
"R": {
"precision": 1,
"close_limit": 3,
"batting": True,
"real": True
}
})
self.cats_conf["HR"] = {
"precision": 1,
"close_limit": 1,
"batting": True,
"real": True
}
self.cats_conf["RBI"] = {
"precision": 1,
"close_limit": 3,
"batting": True,
"real": True
}
self.cats_conf["SB"] = {
"precision": 1,
"close_limit": 1,
"batting": True,
"real": True
}
self.cats_conf["H"]= {
"precision": 0,
"batting": True,
"real": False
}
self.cats_conf["AB"] = {
"precision": 0,
"batting": True,
"real": False
}
self.cats_conf["AVG"] = {
"precision": 3,
"close_limit": 0.020,
"batting": True,
"real": True,
"expr": "ifnull(1.0 * $(H) / $(AB), 0)",
}
self.cats_conf["W"] = {
"precision": 1,
"close_limit": 1,
"batting": False,
"real": True
}
self.cats_conf["SV"] = {
"precision": 1,
"close_limit": 1,
"batting": False,
"real": True
}
self.cats_conf["K"] = {
"precision": 0,
"close_limit": 5,
"batting": False,
"real": True
}
self.cats_conf["IP"] = {
"precision": 1,
"batting": False,
"real": False
}
self.cats_conf["ER"] = {
"precision": 1,
"batting": False,
"real": False
}
self.cats_conf["WH"] = {
"precision": 0,
"batting": False,
"real": False
}
self.cats_conf["ERA"] = {
"precision": 2,
"close_limit": 0.50,
"batting": False,
"real": True,
"invert": True,
"expr": "ifnull($(ER) * 9 / $(IP), 0)"
}
self.cats_conf["WHIP"] = {
"precision": 2,
"close_limit": 0.10,
"batting": False,
"real": True,
"invert": True,
"expr": "ifnull($(WH) / $(IP), 0)"
}
if drop:
self.drop_db()
self.create_db()
class FantasyDB(object):
def __init__(self, dbname='SOS.db', sheet_name='', drop=False):
self.drive = Drive(sheet_name)
self.con = sqlite3.connect(dbname)
self.con.row_factory = sqlite3.Row
class Median:
def __init__(self):
self.values = []
def step(self, value):
self.values.append(value)
def finalize(self):
count = len(self.values)
values = sorted(self.values)
if count % 2 == 1:
return values[math.ceil(count / 2)]
else:
return (values[int(count / 2) - 1] +
values[int(count / 2)]) / 2
self.con.create_aggregate("median", 1, Median)
self.c = self.con.cursor()
self.diff_table = False
self.median_table = False
self.cats_conf = OrderedDict({
"R": {
"precision": 1,
"close_limit": 3,
"batting": True,
"real": True
}
})
self.cats_conf["HR"] = {
"precision": 1,
"close_limit": 1,
"batting": True,
"real": True
}
self.cats_conf["RBI"] = {
"precision": 1,
"close_limit": 3,
"batting": True,
"real": True
}
self.cats_conf["SB"] = {
"precision": 1,
"close_limit": 1,
"batting": True,
"real": True
}
self.cats_conf["H"]= {
"precision": 0,
"batting": True,
"real": False
}
self.cats_conf["AB"] = {
"precision": 0,
"batting": True,
"real": False
}
self.cats_conf["AVG"] = {
"precision": 3,
"close_limit": 0.020,
"batting": True,
"real": True,
"expr": "ifnull(1.0 * $(H) / $(AB), 0)",
}
self.cats_conf["W"] = {
"precision": 1,
"close_limit": 1,
"batting": False,
"real": True
}
self.cats_conf["SV"] = {
"precision": 1,
"close_limit": 1,
"batting": False,
"real": True
}
self.cats_conf["K"] = {
"precision": 0,
"close_limit": 5,
"batting": False,
"real": True
}
self.cats_conf["IP"] = {
"precision": 1,
"batting": False,
"real": False
}
self.cats_conf["ER"] = {
"precision": 1,
"batting": False,
"real": False
}
self.cats_conf["WH"] = {
"precision": 0,
"batting": False,
"real": False
}
self.cats_conf["ERA"] = {
"precision": 2,
"close_limit": 0.50,
"batting": False,
"real": True,
"invert": True,
"expr": "ifnull($(ER) * 9 / $(IP), 0)"
}
self.cats_conf["WHIP"] = {
"precision": 2,
"close_limit": 0.10,
"batting": False,
"real": True,
"invert": True,
"expr": "ifnull($(WH) / $(IP), 0)"
}
if drop:
self.drop_db()
self.create_db()
def drop_db(self):
self.c.executescript("""
DROP TABLE IF EXISTS team;
DROP TABLE IF EXISTS matchup;
DROP TABLE IF EXISTS week_stats;
""")
def create_db(self):
self.c.executescript("""
CREATE TABLE team (team_id integer, team_key text,
label text, manager text);
CREATE TABLE matchup (team_id1 integer, team_id2 integer,
week integer);
CREATE TABLE week_stats
(team_id integer, opponent_id integer, week integer, R integer,
HR integer, RBI integer, SB integer, H integer, AB integer,
W integer, SV integer, K integer, IP real, ER integer,
WH integer);
""")
def create_tmp_stats_table(self, table_name):
self.c.executescript("""
DROP TABLE IF EXISTS %s;
CREATE TABLE %s
(team_id integer, opponent_id integer, week integer,
R integer, HR integer, RBI integer, SB integer, AVG real,
W integer, SV integer, K integer, ERA real, WHIP real);
""" % (table_name, table_name))
def create_tmp_matchup_table(self, table_name):
self.c.executescript("""
DROP TABLE IF EXISTS %s;
CREATE TABLE %s (team_id integer, week integer,
R integer, HR integer, RBI integer, SB integer, AVG real,
W integer, SV integer, K integer, ERA real, WHIP real);
""" % (table_name, table_name))
def insert(self, sql, data=None):
if data is None:
self.c.execute(sql)
else:
for line in data:
self.c.execute(sql, line)
self.con.commit()
def add_teams(self, teams):
self.insert("INSERT INTO team VALUES (?, ?, ?, ?)", teams)
def add_matchups(self, matchups):
self.insert("INSERT INTO matchup VALUES(?, ?, ?)", matchups)
def add_stats(self, stats):
sql = "INSERT INTO week_stats ("
sql += ", ".join(stats.keys())
sql += ") VALUES("
sql += ", ".join(["?"] * len(stats)) + ")"
self.insert(sql, [tuple(stats.values())])
def save_data(self, data, name):
# Save to file
f = open("export/" + name + ".txt", "w", encoding="utf-8")
f.write(data)
f.close()
# Save to Google Drive
if self.drive is not None:
self.drive.login()
self.drive.create_sheet(name, data)
def nb_weeks(self):
sql = "SELECT DISTINCT COUNT(*) FROM week_stats GROUP BY team_id"
return self.c.execute(sql).fetchone()[0]
def get_select(self, aggregate="AVG", real_only=True, use_alias=True,
use_round=True, as_string=True, table_alias=""):
columns = OrderedDict({})
if len(table_alias):
table_alias += "."
for cat, conf in self.cats_conf.items():
if real_only and not conf["real"]:
continue
expr = "$(" + cat + ")" if "expr" not in conf else conf["expr"]
col = expr.replace("$(", aggregate + "(" + table_alias)
if use_round:
col = self.apply_round(cat, col)
if use_alias:
col = self.apply_alias(cat, col)
columns[cat] = col
return ", ".join(columns.values()) if as_string else columns
def apply_round(self, cat, expr):
precision = str(self.cats_conf[cat]["precision"])
return "round(" + expr + "," + precision + ")"
def apply_alias(self, cat, expr):
return expr + " AS " + cat
def stats_avg_query(self):
sql = "SELECT 'Moyenne' as Moyenne, "
sql += self.get_select()
sql += " FROM week_stats w"
# sql += " WHERE team_id <> 6 OR week < 7 "
return sql
def stats_query(self):
sql = "SELECT t.label AS Team, "
sql += self.get_select()
sql += " FROM week_stats w JOIN team t ON(w.team_id = t.team_id) "
sql += "GROUP BY t.team_id"
print(sql)
return sql
def stats_against_query(self):
sql = "SELECT t.label AS Team, "
sql += self.get_select()
sql += " FROM week_stats w JOIN team t ON(w.opponent_id = t.team_id) "
sql += "GROUP BY t.team_id"
return sql
def stats_diff_query(self):
sql = "SELECT t.label AS Team"
cols = self.get_select("AVG", table_alias="for", use_alias=False,
use_round=False, as_string=False)
for cat, col in cols.items():
col = col + " - " + col.replace("for.", "against.")
col = self.apply_round(cat, col)
if "invert" in self.cats_conf[cat]:
col = "- (" + col + ")"
col = self.apply_alias(cat, col)
sql += ", " + col
sql += """
FROM week_stats against
JOIN team t ON(against.opponent_id = t.team_id)
JOIN week_stats for ON(t.team_id = for.team_id)
GROUP BY t.team_id
"""
return sql
def create_diff_table(self):
if self.diff_table:
return
select = "SELECT for.team_id, against.team_id, for.week"
cols = self.get_select("AVG", table_alias="for", use_alias=False,
use_round=False, as_string=False)
for cat, col in cols.items():
col = col + " - " + col.replace("for.", "against.")
col = self.apply_round(cat, col)
if "invert" in self.cats_conf[cat]:
col = "- (" + col + ")"
col = self.apply_alias(cat, col)
select += ", " + col
select += """
FROM week_stats against
JOIN week_stats for ON(against.opponent_id = for.team_id
AND against.week = for.week)
GROUP BY for.team_id, for.week
"""
# Temp table creation
table = "tmp_stats"
self.create_tmp_stats_table(table)
self.insert("INSERT INTO tmp_stats " + select)
self.diff_table = True
def create_median_table(self, win=True):
# if self.median_table:
# return
select = "SELECT team_id, week"
cols = self.get_select("", use_alias=False,
use_round=False, as_string=False)
for cat, expr in cols.items():
col = "(SELECT COUNT(*) FROM week_stats "
col += "WHERE team_id = w1.team_id AND week = w1.week "
query = "SELECT median(%s) FROM week_stats w3 " % expr
query += "WHERE w3.week = w1.week AND w1.team_id != w3.team_id"
invert = "invert" in self.cats_conf[cat]
lt = invert if win else not invert
op = "<" if lt else ">"
col += "AND %s %s (%s))" % (expr, op, query)
select += ", " + col
select += " FROM week_stats w1"
select += " GROUP BY team_id, week"
# Temp table creation
table = "tmp_medium_stats_%s" % ("W" if win else "L")
self.create_tmp_matchup_table(table)
self.insert("INSERT INTO %s %s" % (table, select))
self.median_table = True
def stat_diff_win_query(self, win=True):
self.create_diff_table()
op = ">" if win else "<"
sql = "SELECT t.label AS Team"
for cat, conf in self.cats_conf.items():
if not conf["real"]:
continue
expr = "AVG(" + cat + ")"
query = "SELECT ifnull(" + self.apply_round(cat, expr) + ", '') FROM tmp_stats "
query += "WHERE " + cat + " " + op + " 0 AND team_id = tmp.team_id"
sql += self.apply_alias(cat, ", (" + query + ")")
sql += " FROM tmp_stats AS tmp"
sql += " JOIN team t ON(tmp.team_id = t.team_id)"
sql += " GROUP BY tmp.team_id"
return sql
def close_diff_win_query(self, win=True):
self.create_diff_table()
sql = "SELECT t.label AS Team"
for cat, conf in self.cats_conf.items():
if not conf["real"]:
continue
if win:
cond = cat + " > 0 AND " + cat + " <= " + str(conf["close_limit"])
else:
cond = cat + " >= -" + str(conf["close_limit"]) + " AND " + cat + " < 0"
query = "SELECT COUNT(*) FROM tmp_stats"
query += " WHERE " + cond + " AND team_id = tmp.team_id"
sql += self.apply_alias(cat, ", (" + query + ")")
sql += " FROM tmp_stats AS tmp"
sql += " JOIN team t ON(tmp.team_id = t.team_id)"
sql += " GROUP BY tmp.team_id"
return sql
def standings(self, sql, filename):
self.c.execute(sql)
results = "\t".join(map(lambda x: str(x[0]), self.c.description)) + "\n"
for row in self.c.fetchall():
results += "\t".join(map(str, row)) + "\n"
self.c.execute(self.stats_avg_query())
results += "\n" + "\t".join(map(str, self.c.fetchone())) + "\n"
self.save_data(results, filename)
def close_standings(self, filename):
wins = self.con.execute(self.close_diff_win_query())
losses = self.con.execute(self.close_diff_win_query(False))
results = "\t".join(map(lambda x: str(x[0]), wins.description))
results += "\tTotal\tPct\n"
while True:
win = wins.fetchone()
loss = losses.fetchone()
if win is None:
break
results += win[0]
total_win = 0
total_loss = 0
for cat, W in OrderedDict(win).items():
if cat in self.cats_conf:
results += '\t="%d-%d"' % (W, loss[cat])
total_win += W
total_loss += loss[cat]
results += '\t="%d-%d"' % (total_win, total_loss)
if total_win + total_loss == 0:
results += '\n'
else:
results += '\t%.2f\n' % (total_win / (total_win + total_loss))
results += "\nMargin"
for cat, conf in self.cats_conf.items():
if conf["real"]:
results += "\t%s" % str(conf["close_limit"])
self.save_data(results, filename)
def median_standings(self, filename):
self.create_median_table()
self.create_median_table(False)
sql = "SELECT t.label AS Team"
wins = []
losses = []
for cat, conf in self.cats_conf.items():
if not conf["real"]:
continue
win = "SUM(W.%s) / MAX(W.week)" % cat
loss = "SUM(L.%s) / MAX(W.week)" % cat
expr = "printf('=\"%%d-%%d\"', %s, %s)" % (win, loss)
sql += ", " + self.apply_alias(cat, expr)
wins.append(win)
losses.append(loss)
wins_expr = " + ".join(wins)
losses_expr = " + ".join(losses)
sql += ", printf('=\"%%d-%%d\"', %s, %s) AS Total" % (wins_expr, losses_expr)
sql += ", round((%s) / (%s + %s + 0.0), 3) AS Pct" % (wins_expr, wins_expr, losses_expr)
sql += " FROM tmp_medium_stats_W W JOIN team t USING (team_id)"
sql += " JOIN tmp_medium_stats_L L USING (team_id)"
sql += " GROUP BY W.team_id"
sql += " ORDER BY Pct DESC"
print(sql)
self.c.execute(sql)
results = "\t".join(map(lambda x: str(x[0]), self.c.description)) + "\n"
for row in self.c.fetchall():
results += "\t".join(map(str, row)) + "\n"
self.save_data(results, filename)
def value_standings(self, sql, filename):
# Diff par rapport à la moyenne de la league
avg = self.c.execute(self.stats_avg_query()).fetchone()
results = self.con.execute(sql)
min = {}
max = {}
data = []
while(True):
stats = results.fetchone()
if stats is None:
break
stats = OrderedDict(stats)
# Calculate min and max values
for cat, value in stats.items():
if cat not in min:
min[cat] = value
elif value < min[cat]:
min[cat] = value
if cat not in max:
max[cat] = value
elif value > max[cat]:
max[cat] = value
data.append(stats)
# Second pass to calculate variations
variations = []
for stats in data:
total = 0
for cat, value in stats.items():
if cat == "Team":
continue
if value > avg[cat]:
value = 1 - (max[cat] - value) / (max[cat] - avg[cat])
elif value < avg[cat]:
value = (value - min[cat]) / (avg[cat] - min[cat]) - 1
else:
value = 0
if cat in ["ERA", "WHIP"]:
value = 0 - value
total += value
stats[cat] = "%.2f" % value
stats["total"] = "%.2f" % total
variations.append(stats)
results = "\t".join(map(lambda x: str(x[0]), results.description)) + "\tTotal\n"
# Order by total value
def getTotal(item):
return float(item["total"])
variations = sorted(variations, key=getTotal, reverse=True)
for stats in variations:
results += "\t".join(stats.values()) + "\n"
self.save_data(results, filename)
def calculate_stats_ratio(self):
avg = self.calculate_row(self.c.execute(self.stats_avg_query()).fetchone(), False)
R = avg["R"]
del avg["R"]
ratio = {}
for cat, value in avg.items():
ratio[cat] = R / value
ratio["R"] = 1
print(ratio)
return ratio
from __future__ import division
import numpy as np
import time
from drive import Drive
drive = Drive('/dev/ttyACM0')
last_odom = [0, 0, 0, 0]
ID = 1
while True:
# ODOM TEST:
odom, timestamp = drive.get_odom()
if not np.allclose(odom, last_odom):
last_odom = odom
print np.round(odom, 2)
time.sleep(10 / 1000)
# MOTOR TEST:
# val = 15
# rest = 1
# print "forward"
# drive.set_effort([val+10, val])
# time.sleep(rest)
self.ui = raw_input(self.prompt).split()
self.drive.echo(False)
if not self.ui: continue
# make ints out of int arguements
if self.ui[0] != "cd":
for i, v in enumerate(self.ui):
try:
self.ui[i] = int(v)
except:
pass
#print(self.ui)
try:
#get function by name, then pull out first element in the self.options.
#This is where the function is
function = self.options[self.ui[0]][0]
except:
print("command unknown")
function = None
if function: function()
if __name__ == '__main__':
drive = Drive()
cli = CLI(drive)
cli.run()
display = Display(config)
arm = UArm(serial.Serial(port=args.device, baudrate=115200, timeout=config.serial_port_timeout), config)
if arm.connect():
log.info("Detected UArm on device {}".format(args.device))
else:
log.fatal("Could not connect to UArm using device '{}'".format(args.device))
storage_path = args.storage_path
capture_id = args.capture_id
log.info("Using storage '{}'".format(storage_path))
vision = Vision(config)
drive = Drive("/dev/cdrom", storage_path)
calibration_markers = None
with open(args.calibration_markers_file, 'r') as f:
calibration_markers = json.load(f)
log.info("Calibration data loaded from '{}': {}".format(args.calibration_markers_file, calibration_markers))
log.info("Starting capture")
log.info("Picking up disk from source tray")
display.msg("PICKUP SRC TRAY")
# Pickup disk
cd_pickedup = arm.pickup_object(config.src_tray_pos, config.src_tray_z_min)
if not cd_pickedup:
def DriveService():
return Drive(credentials['client_id'], credentials['client_secret'])
class Volume:
def __init__(self):
self.currentDrive = None
self.rootDirectory = None
self.blocksAvailability = None
def format(self, name):
thisDrive = Drive(name)
thisDrive.format()
thisDrive.write_block(0, "+" + "-" * 127 + ("f:" + " " * 9 + "0000:" + "000 " * 12) * 6)
global availableBlocksList
availableBlocksList = ['+'] + ['-' for x in range(127)]
global availableBlockIndices
availableBlockIndices = list(range(1, 128))
self.currentDrive = thisDrive
self.rootDirectory = Directory(self.currentDrive, None, 0, None, None) #drive, fileNum, parentBlockNum, parent, name
self.blocksAvailability = thisDrive.read_block(0)[:127]
def mkfile(self, path):
try:
nodes = path.strip('/').split('/')
lastNode = self.rootDirectory
for node in nodes[:-1]:
lastNode = lastNode.getChild(node)
except:
print("Um there is some problem with your input")
lastNode.addFile(nodes[-1])
def mkdir(self, path):
try:
nodes = path.strip('/').split('/')
lastNode = self.rootDirectory
for node in nodes[:-1]:
lastNode = lastNode.getChild(node)
except:
print("Um there is some problem with your input")
lastNode.addDirectory(nodes[-1])
def reconnect(self, name):
self.currentDrive = Drive(name)
self.rootDirectory = Directory(self.currentDrive, None, 0, None, name)
self.currentDrive.reconnect()
self.blocksAvailability = self.currentDrive.read_block(0)[:127]
def append(self, path, data):
try:
nodes = path.strip('/').split('/')
lastNode = self.rootDirectory
for node in nodes:
lastNode = lastNode.getChild(node)
except:
print("Um there is some problem with your input")
lastNode.appendData(data)
def ls(self, path):
try:
nodes = path.strip('/').split('/')
lastNode = self.rootDirectory
for node in nodes:
if node != "":
lastNode = lastNode.getChild(node)
lastNode.list()
except:
print("Um there is some problem with your input")
def print(self, path):
try:
nodes = path.strip('/').split('/')
lastNode = self.rootDirectory
for node in nodes:
if node != "":
lastNode = lastNode.getChild(node)
lastNode.print()
except:
print("Um there is some problem with your input")
def delfile(self, path):
try:
nodes = path.strip('/').split('/')
lastNode = self.rootDirectory
for node in nodes:
if node != "":
lastNode = lastNode.getChild(node)
lastNode.delete()
except:
print("Um there is some problem with your input")
def deldir(self, path):
try:
nodes = path.strip('/').split('/')
lastNode = self.rootDirectory
for node in nodes:
if node != "":
lastNode = lastNode.getChild(node)
lastNode.delete()
except:
print("Um there is some problem with your input")
def get_system_drive(self):
system_drive = os.getenv('SystemDrive')
system_drive = Drive(system_drive)
log.debug('system_drive=%s' % system_drive)
return system_drive
def reconnect(self, name):
self.currentDrive = Drive(name)
self.rootDirectory = Directory(self.currentDrive, None, 0, None, name)
self.currentDrive.reconnect()
self.blocksAvailability = self.currentDrive.read_block(0)[:127]