RelativeValueInACurrentRange = Struct(
"relative_value" /
DefaultCountValidator(Int8ul, rounding=1, resolution=0.5),
"minimum_current" /
DefaultCountValidator(Int16ul, rounding=2, resolution=0.01),
"maximum_current" /
DefaultCountValidator(Int16ul, rounding=2, resolution=0.01))
# voltage
Voltage = Struct("voltage" /
DefaultCountValidator(Int16ul, resolution=1 / 64), )
AverageVoltage = Struct(
"voltage_value" / DefaultCountValidator(Int16ul, resolution=1 / 64),
"sensing_duration" / TimeExponential8, Probe(this))
VoltageRange = Struct(
"minimum_voltage_value" /
DefaultCountValidator(Int16ul, resolution=1 / 64),
"typical_voltage_value" /
DefaultCountValidator(Int16ul, resolution=1 / 64),
"maximum_voltage_value" /
DefaultCountValidator(Int16ul, resolution=1 / 64),
)
VoltageStatistics = Struct(
"average_voltage_value" /
DefaultCountValidator(Int16ul, resolution=1 / 64),
"standard_deviation_voltage_value" /
DefaultCountValidator(Int16ul, resolution=1 / 64),
"droprelic": actions.droprelic,
"gatherpoint": actions.gatherpoint,
"townbell": actions.townbell,
"resign": actions.resign,
"tribute": actions.tribute,
"queue": actions.queue,
"multiqueue": actions.multiqueue,
"research": actions.research,
"sell": actions.sell,
"buy": actions.buy,
"backtowork": actions.backtowork,
"postgame": actions.postgame
}, default=Struct(
"unk_action"/Computed(lambda ctx: ctx._.type),
"bytes"/Bytes(lambda ctx: ctx._._.length - 1),
Probe()
))),
Padding(4)
)
# Action - length followed by data.
action = "action"/Struct(
"length"/Int32ul,
action_data
)
# Synchronization.
sync = "sync"/Struct(
"time_increment"/Int32ul,