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IEEE1451 Family of Standards Ontology

Release 10/07/2023

This version:: http://www.iml.ubi.pt/2022/ieee1451
Latest version:: http://www.iml.ubi.pt/2022/ieee1451
Revision:: 0.7
Authors:: IML Laboratory - University of Beira Interior
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Cite as:: IML Laboratory - University of Beira Interior. IEEE1451 Family of Standards Ontology. Revision: 0.7. Retrieved from: http://www.iml.ubi.pt/2022/ieee1451

Ontology Specification Draft

Abstract

It includes the definition of the IEEE 1451 elements,TIM, TEDS formats, tim, and the NCAP. It is a set of common functionality for the family of IEEE 1451 smart transducer interface standards.

Introduction back to ToC

The IEEE 1451 Family of Standard ontology was developed to promote a semantic level of interoperability between network formed by transducers (sensor and actuator).

Namespace declarations

Table 1: Namespaces used in the document
ieee1451	<http://www.iml.ubi.pt/2022/ieee1451>
owl	<http://www.w3.org/2002/07/owl>
rdf	<http://www.w3.org/1999/02/22-rdf-syntax-ns>
terms	<http://purl.org/dc/terms>
xml	<http://www.w3.org/XML/1998/namespace>
xsd	<http://www.w3.org/2001/XMLSchema>
skos	<http://www.w3.org/2004/02/skos/core>
rdfs	<http://www.w3.org/2000/01/rdf-schema>
vann	<http://purl.org/vocab/vann>

IEEE1451 Family of Standards Ontology: Overview back to ToC

This ontology has the following classes and properties.

IEEE1451 Family of Standards Ontology: Description back to ToC

This is a placeholder text for the description of your ontology. The description should include an explanation and a diagram explaining how the classes are related, examples of usage, etc.

Cross-reference for IEEE1451 Family of Standards Ontology classes, object properties and data properties back to ToC

This section provides details for each class and property defined by IEEE1451 Family of Standards Ontology.

Classes

api
active
actuator
address
address group address
analog event sensor
any state
binary address
bit mapped address
buffered operation mode
calibration identification teds
calibration teds
clear status event register
command
command class
command complete
command dependent
command function
command teds
commands teds
common cmd
continous sampling event sensor
continous sampling mode
control groups
data transmission mode
data types
digital event sensor
discovery api
embeded
end user application specific teds
error code
error code source
event sensor
event sensor output
event sensor status
event time
free running with pre trigger
free running with pre trigger and with buffes enabled
free running with pre trigger without buffer enabled
free running without pre trigger
frequency response teds
geographic location teds
global
group
ieee1451 base port
ieee1451 base publisher port
ieee1451 base transducer block
ieee1451 block
ieee1451 compoment
ieee1451 dot2 transducer block
ieee1451 entity
ieee1451 ncapblock
ieee1451 parameter
ieee1451 parameter with update
ieee1451 physical parameter
ieee1451 publisher port
ieee1451 root
ieee1451 scalar parameter
ieee1451 service
ieee1451 subscriber port
ieee1451 transducer block
ieee1451.5
idle operation state
IEEE1451
IEEE1451.0
IEEE1451.1
immediate operation
initializate operation state
initialization
location and title teds
manufacture defined teds
measurement update
message
meta identification teds
meta teds
ncap
ncapmessage
only when command mode
operate operation state
operation states
phy teds
proxys
query teds
read data
read raw teds
read service request
read status condition register
read status event protocol
read status event register
read teds
replay message
reserved
run self test
sampling mode
send command
sensor
sleep
start command
start read data
start trigger
start write data
streaming data transmission mode
streaming when a buffer is full mode
streaming when at a fixed interval mode
teds
teds manager api
tim
tim active
tim address
tim discovery
tim sleep
tim state
tim status
text based teds
time between events
transducer
transducer access api
transducer channel
transducer channel address
transducer channel identification teds
transducer channel teds
transducer discovery
transducer manager api
transducher channel status
transfer function teds
transition reported
trigger
trigger initiated
uuid
units extension teds
update teds
update teds cache
UsersTransducerNameTEDS
vector groups
vitual teds
write data
write raw teds
write service request
write status event protocol
write teds
xdcr either
xdcr idle
xdcr operate

api^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#tim

has super-classes: IEEE1451.0 ^c
has sub-classes: discovery api ^c, error code ^c, teds manager api ^c, transducer access api ^c, transducer manager api ^c
is in domain of: api ^dp, returns error code ^op
is in range of: uses api ^op
is also defined as: data property

active^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Active

has super-classes: tim state ^c

actuator^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Actuator

A transducer that accepts a data sample or samples and converts them into an action. The action may be completely contained within the TIM or may change something outside of the TIM.

has super-classes: transducer ^c

address^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Address

Two levels of addressing are used in this standard. One level of addressing is associated with the physical layer implementation. The details of this address are covered in the members of the IEEE 1451 family that define the communications media. The Module Communications tim links this address to the “destId” with the discoverDestination call. This level of addressing allows messages (see Clause 6) to be sent between a TIM and an NCAP or between TIMs. The second level of addressing is the TransducerChannel number for a given TransducerChannel within the TIM. These 16 bit numbers are used in command messages as the Destination TransducerChannel number or in reply messages as a source TransducerChannel number. This level is used to specify to the TIM how the message should be directed or to tell the NCAP where it came from within the TIM.

has super-classes: IEEE1451.0 ^c
has sub-classes: address group address ^c, binary address ^c, bit mapped address ^c, global ^c, tim address ^c, transducer channel address ^c
is in range of: has address ^op, has components ^op

address group address^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#AddressGroupAddress

Commands issued to an AddressGroup shall be honored by all TransducerChannels that have been initialized as members of that AddressGroup. See the AddressGroup definition command for how to assign or clear an AddressGroup assignment. If the received command is not implemented by a TIM or TransducerChannel, the command shall be ignored and the command rejected bit shall be set in the TIM or TransducerChannel.

has super-classes: address ^c
is disjoint with: binary address ^c, bit mapped address ^c, tim address ^c, transducer channel address ^c

analog event sensor^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#AnalogEventSensor

has super-classes: event sensor ^c
is disjoint with: continous sampling event sensor ^c, digital event sensor ^c, event sensor output ^c, event sensor status ^c, event time ^c, streaming data transmission mode ^c, time between events ^c, transition reported ^c

any state^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#AnyState

has super-classes: command class ^c
is disjoint with: common cmd ^c, reserved ^c, tim active ^c, tim sleep ^c, xdcr either ^c, xdcr idle ^c, xdcr operate ^c

binary address^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#BinaryAddress

The two most significant bits are set to one, and the remaining 14 bits form a binary pattern identifying a single address group.

has super-classes: address ^c
is disjoint with: address group address ^c, bit mapped address ^c, tim address ^c, transducer channel address ^c

bit mapped address^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#BitMappedAddress

The most significant bit is set to one, the next most significant bit is zero, and at least one other bit is set to a one. The pattern in the two most significant bit is set to indicate that this is a group address. The other bit or bits identify the group(s).

has super-classes: address ^c
is disjoint with: address group address ^c, binary address ^c, tim address ^c, transducer channel address ^c

buffered operation mode^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#BufferedOperationMode

A sensor or actuator may be capable of being operated in buffered or non-buffered modes. In the buffered mode, one buffer is available to be read from a sensor or applied to an actuator output, whereas other buffers are available to be filled. A characteristic of a TransducerChannel operating in the buffered mode is that the data available to be read or applied are always the data that were available in a buffer before the previous trigger. In the non-buffered mode, only a single buffer is available to store a data set. The buffering capabilities of a given TransducerChannel are described by the Buffered attribute in the TransducerChannel TEDS. A sensor that is in the transducer idle state and before it is placed into the transducer operating state for the first time after initialization shall return 0 data octets to any Read TransducerChannel data-set segment command. If a buffered sensor has buffers that are full or partially full when it is returned to the transducer idle state, it shall return the contents of the oldest buffer on receipt of a Read TransducerChannel data-set segment command. Upon the receipt of subsequent Read TransducerChannel data-set segment commands, the contents of the remaining buffers shall be returned. After the contents of each buffer that had unread data in it when the TransducerChannel idle command was received have been read, the TransducerChannel or TransducerChannel proxy and shall return 0 data octets to subsequent Read TransducerChannel data-set segment commands. All buffers shall be cleared when the TransducerChannel transitions from the idle to the transducer operating state.

has super-classes: IEEE1451.0 ^c
is disjoint with: only when command mode ^c, streaming when a buffer is full mode ^c, streaming when at a fixed interval mode ^c

calibration identification teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CalibrationIdentificationTEDS

has super-classes: text based teds ^c
is disjoint with: commands teds ^c, geographic location teds ^c, location and title teds ^c, meta identification teds ^c, transducer channel identification teds ^c

calibration teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CalibrationTEDS

has super-classes: teds ^c
is in domain of: cal inrvl ^dp, calibration teds ^dp, coe blk ^dp, hi limit ^dp, i convert ^dp, low limit ^dp, lst cal dt ^dp, o convert ^dp, o error ^dp, s i convrt ^dp, xdr blk ^dp
is also defined as: data property

clear status event register^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ClearStatusEventRegister

has super-classes: command function ^c
is disjoint with: query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

command^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Command

Commands are divided into two categories, standard and manufacturer-defined. Regardless of the category, the command is divided into 2 octets. The most significant octet shall be used to define the class of the command. The least significant octet, called the function, shall identify the specific command within the class.

has super-classes: message ^c
has sub-classes: command class ^c, command dependent ^c, command function ^c

command class^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CommandClass

has super-classes: command ^c
has sub-classes: any state ^c, common cmd ^c, reserved ^c, tim active ^c, tim sleep ^c, xdcr either ^c, xdcr idle ^c, xdcr operate ^c

command complete^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CommandComplete

This method completes a non-blocking StartCommand operation. The format of input arguments is command dependent. The caller must make sure to use the correct data types for each input argument. This tim is corresponding to dArgs::UInt16 commandComplete().

has super-classes: transducer manager api ^c

command dependent^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CommandDependent

has super-classes: command ^c

command function^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CommandFunction

has super-classes: command ^c
has sub-classes: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

command teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CommandTEDS

has super-classes: teds ^c

commands teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CommandsTEDS

has super-classes: text based teds ^c
is disjoint with: calibration identification teds ^c, geographic location teds ^c, location and title teds ^c, meta identification teds ^c, transducer channel identification teds ^c

common cmd^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CommonCmd

has super-classes: command class ^c
is disjoint with: any state ^c, reserved ^c, tim active ^c, tim sleep ^c, xdcr either ^c, xdcr idle ^c, xdcr operate ^c

continous sampling event sensor^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ContinousSamplingEventSensor

has super-classes: event sensor ^c
is disjoint with: analog event sensor ^c, digital event sensor ^c, event sensor output ^c, event sensor status ^c, event time ^c, streaming data transmission mode ^c, time between events ^c, transition reported ^c

continous sampling mode^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ContinousSamplingMode

In the continuous sampling mode, a sensor shall begin to acquire samples and store them in one of its buffers when it receives an initial trigger. The operation shall be similar to the free-running without pre- trigger mode described in except that the TransducerChannel does not stop when a data set is acquired but switches to the next available buffer and continues to acquire data. Operating in this mode requires that the sensor have multiple buffers available for storing the data samples. Once all buffers are full, the data in the oldest buffer shall be discarded regardless of whether it has been transmitted to the NCAP and that buffer shall be used to store the data being acquired. If the streaming at a fixed interval transmission mode described in is being used, the sensor shall switch to an empty buffer at the start of a new transmission interval, regardless of whether the current buffer is full. However, if the number of samples acquired within a transmission interval is greater than the Max Data Repetitions from the TransducerChannel TEDS, then the data set shall be truncated at the Max Data Repetitions and the TransducerChannel Missed data or event bit shall be set. After an initial trigger, an event sensor operated in the continuous sampling mode shall detect a change in state at its input, store that state change for transmission, and continue to look for additional changes in its input state. This requires that the event sensor have multiple buffers and use them like a sensor uses buffers. If the streaming at a fixed interval transmission mode is being used, the TransducerChannel shall switch to an empty buffer at the start of a new transmission interval, regardless of whether the current buffer is full. In the continuous sampling mode, an actuator shall apply all data in its current buffer when the first trigger is received at a rate controlled by the TransducerChannel. Once all data in that buffer has been applied, it shall switch to the oldest filled buffer and continue applying the data. If another filled buffer is not available, the actuator shall take the action and controlled by the setting of the End-of- data-set operations attribute. If this action is to “recirculate,” the unit shall not look for a new filled buffer until it completes reapplying the current buffer. If that action is to “hold,” the unit shall switch to the new buffer as soon as it has been received and stored in memory. If an attempt is made to write data to this TransducerChannel and no empty buffers are available, the incoming data shall be ignored and the TransducerChannel Missed data or event bit shall be set.

has super-classes: sampling mode ^c
is disjoint with: free running with pre trigger ^c, free running with pre trigger and with buffes enabled ^c, free running with pre trigger without buffer enabled ^c, free running without pre trigger ^c, immediate operation ^c, trigger initiated ^c

control groups^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ControlGroups

ControlGroups are used to define collections of TransducerChannels when one TransducerChannel is the primary channel, and the remaining TransducerChannels in the group provide either additional information about the primary TransducerChannel or are used to control some aspect of the primary TransducerChannel. For example, a ControlGroup may be used to define up to three additional TransducerChannels associated with an analog event sensor. One is a sensor that is used to measure the analog input to the event sensor. The second is an actuator that is used to set the threshold for the event sensor. The third is an actuator that may be used to set the hysteresis for the event sensor.

has super-classes: group ^c

data transmission mode^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#DataTransmissionMode

has super-classes: IEEE1451.0 ^c
has sub-classes: only when command mode ^c, streaming when a buffer is full mode ^c, streaming when at a fixed interval mode ^c
is in range of: has components ^op, uses data transmission ^op

data types^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#DataTypes

All data types used throughout the remainder of this standard are defined in subordinate subclauses.

has super-classes: IEEE1451 ^c
is in range of: has components ^op

digital event sensor^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#DigitalEventSensor

has super-classes: event sensor ^c
is disjoint with: analog event sensor ^c, continous sampling event sensor ^c, event sensor output ^c, event sensor status ^c, event time ^c, streaming data transmission mode ^c, time between events ^c, transition reported ^c

discovery api^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Discoverytim

The Discovery tim focuses on discovering all of the available TIMs and TransducerChannels (transducers).

has super-classes: api ^c
has sub-classes: tim discovery ^c, transducer discovery ^c
is in domain of: channel ids ^dp, error code ^dp, tim discovery response ^dp, tim id ^dp, tim ids ^dp, transducer discovery response ^dp, transducer names ^dp

embeded^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Embeded

Embedded TransducerChannels are TransducerChannels whose functionality is completely contained within a TIM. An embedded TransducerChannel does not sense or control any function outside of the TIM. For example, embedded actuators may be used to set the threshold and hysteresis of an event sensor. An embedded digital event sensor may be set up to detect and report any change in the status within a TIM. Embedded TransducerChannels appear to the system as normal TransducerChannels. They respond to commands, have TEDS, and are counted when determining the number of TransducerChannels in a TIM.

has super-classes: transducer channel ^c
is disjoint with: group ^c, proxys ^c

end user application specific teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#EndUserApplicationSpecificTEDS

has super-classes: teds ^c
is in domain of: end user application specific teds ^dp, end user data ^dp
is also defined as: data property

error code^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ErrorCode

ErrorCode Enumeration

has super-classes: api ^c

error code source^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ErrorCodeSource

has super-classes: IEEE1451.0 ^c
is in domain of: error code source ^dp
is also defined as: data property

event sensor^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#EventSensor

A sensor that detects a change of state in the physical world. The fact that a change of state has occurred and/or instant in time of the change of state, not the state value, is the “measurement.”

has super-classes: transducer ^c
has sub-classes: analog event sensor ^c, continous sampling event sensor ^c, digital event sensor ^c, event sensor output ^c, event sensor status ^c, event time ^c, streaming data transmission mode ^c, time between events ^c, transition reported ^c

event sensor output^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#EventSensorOutput

has super-classes: event sensor ^c
is disjoint with: analog event sensor ^c, continous sampling event sensor ^c, digital event sensor ^c, event sensor status ^c, event time ^c, streaming data transmission mode ^c, time between events ^c, transition reported ^c

event sensor status^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#EventSensorStatus

has super-classes: event sensor ^c
is disjoint with: analog event sensor ^c, continous sampling event sensor ^c, digital event sensor ^c, event sensor output ^c, event time ^c, streaming data transmission mode ^c, time between events ^c, transition reported ^c

event time^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#EventTime

has super-classes: event sensor ^c
is disjoint with: analog event sensor ^c, continous sampling event sensor ^c, digital event sensor ^c, event sensor output ^c, event sensor status ^c, streaming data transmission mode ^c, time between events ^c, transition reported ^c

free running with pre trigger^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#FreeRunningWithPreTrigger

In the free-running sampling mode, a sensor is measuring some physical parameter autonomously and continuously when in the transducer operating state. The data being acquired and converted is stored until a trigger is received or the pre-trigger count is reached. After the number of samples that have been stored reaches the pre-trigger count, the next sample acquired shall cause the oldest sample to be discarded and the new sample shall be stored. Once a trigger has been received, the next sample converted is stored in the TIM as the next word in the data set. Consecutive samples are stored in the TIM until the entire data set is completed. The data set shall be complete when the number of samples equal to the data set size minus the pre-trigger count has been acquired after the trigger is received. The response to additional triggers before the operation started by the first trigger is complete . An actuator may not be operated in the free running with pre-trigger mode.

has super-classes: sampling mode ^c
is disjoint with: continous sampling mode ^c, free running with pre trigger and with buffes enabled ^c, free running with pre trigger without buffer enabled ^c, free running without pre trigger ^c, immediate operation ^c, trigger initiated ^c

free running with pre trigger and with buffes enabled^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#FreeRunningWithPreTriggerAndWithBuffesEnabled

When the data set is complete, the TransducerChannel shall switch to the next empty buffer and start acquiring data samples for the next data set. If no empty buffers are available, it shall discard any samples acquired until a buffer becomes available. A buffer shall be considered available after it has been read. The sampling operation of a TransducerChannel when in the transducer idle state is at the discretion of the manufacturer.

has super-classes: sampling mode ^c
is disjoint with: continous sampling mode ^c, free running with pre trigger ^c, free running with pre trigger without buffer enabled ^c, free running without pre trigger ^c, immediate operation ^c, trigger initiated ^c

free running with pre trigger without buffer enabled^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#FreeRunningWithPreTriggerWithoutBufferEnabled

When the data set is complete the TransducerChannel returns to discarding samples until the next trigger is received or the data set is read. After the data set is read, the TransducerChannel shall start storing samples again while waiting for another trigger. In this mode, the data set may only be read once. Subsequent reads before the next trigger will return 0 octets. The sampling operation of a TransducerChannel when in the transducer idle state is at the discretion of the manufacturer.

has super-classes: sampling mode ^c
is disjoint with: continous sampling mode ^c, free running with pre trigger ^c, free running with pre trigger and with buffes enabled ^c, free running without pre trigger ^c, immediate operation ^c, trigger initiated ^c

free running without pre trigger^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#FreeRunningWithoutPreTrigger

In the free-running sampling mode, a sensor is measuring some physical parameter autonomously and continuously when in the transducer operating state. The data being acquired and converted are discarded until a trigger is received. Once a trigger has been received, the next sample converted is stored in the TransducerChannel or TIM as the first word in the data set. Consecutive samples are stored until the entire data set is completed. At this point, the TransducerChannel returns to discarding samples until the next trigger is received. The sampling operation of a TransducerChannel when in the transducer idle state is at the discretion of the manufacturer. An actuator operating in the free-running sampling mode shall apply the data set received before the trigger in accordance with its End-of-data-set Operating mode.

has super-classes: sampling mode ^c
is disjoint with: continous sampling mode ^c, free running with pre trigger ^c, free running with pre trigger and with buffes enabled ^c, free running with pre trigger without buffer enabled ^c, immediate operation ^c, trigger initiated ^c

frequency response teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#FrequencyResponseTEDS

has super-classes: teds ^c
is in domain of: frequency response teds ^dp, points ^dp, ref amp ^dp, ref freq ^dp, ref phase ^dp
is also defined as: data property

geographic location teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#GeographicLocationTEDS

has super-classes: text based teds ^c
is disjoint with: calibration identification teds ^c, commands teds ^c, location and title teds ^c, meta identification teds ^c, transducer channel identification teds ^c

global^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Global

Global addressing is a special GroupAddress that pertains to all TransducerChannels on the TIM.

has super-classes: address ^c

group^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Group

Two types of TransducerChannel groups are defined in this standard. They are ControlGroups and VectorGroups. They are similar in implementation but are used for two different functions.

has super-classes: transducer channel ^c
has sub-classes: control groups ^c, vector groups ^c
is disjoint with: embeded ^c, proxys ^c

ieee1451 base port^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451BasePort

has super-classes: ieee1451 service ^c
has sub-classes: ieee1451 base publisher port ^c, ieee1451 subscriber port ^c

ieee1451 base publisher port^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451BasePublisherPort

has super-classes: ieee1451 base port ^c
has sub-classes: ieee1451 publisher port ^c

ieee1451 base transducer block^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451BaseTransducerBlock

The Base Transducer Block class shall be the root for the class hierarchy of all Transducer Block Objects.

has super-classes: ieee1451 block ^c
has sub-classes: ieee1451 dot2 transducer block ^c, ieee1451 transducer block ^c
is in range of: has ncapcomponents ^op

ieee1451 block^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451Block

The Block abstract class shall be the root for the class hierarchy of all Block Objects.

has super-classes: ieee1451 entity ^c
has sub-classes: ieee1451 base transducer block ^c, ieee1451 ncapblock ^c
is disjoint with: ieee1451 compoment ^c, ieee1451 service ^c

ieee1451 compoment^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451Compoment

The Component abstract class shall be the root for the class hierarchy of all Component Objects.

has super-classes: ieee1451 entity ^c
has sub-classes: ieee1451 parameter ^c
is in range of: has ncapcomponents ^op
is disjoint with: ieee1451 block ^c, ieee1451 service ^c

ieee1451 dot2 transducer block^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451Dot2TransducerBlock

has super-classes: ieee1451 base transducer block ^c

ieee1451 entity^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451Entity

The Entity abstract class shall be the root for the class hierarchy of all Objects deÀned by this standard that may be made visible over the network.

has super-classes: ieee1451 root ^c
has sub-classes: ieee1451 block ^c, ieee1451 compoment ^c, ieee1451 service ^c

ieee1451 ncapblock^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451NCAPBlock

The NCAP Block class provides resources and operations within an NCAP process to support Block, Service, and Component management. This support includes — Registration — Deregistration — Initialization and startup — Shutdown

has super-classes: ieee1451 block ^c
is in domain of: has ncapcomponents ^op, ncapblock ^dp

ieee1451 parameter^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451Parameter

has super-classes: ieee1451 compoment ^c
has sub-classes: ieee1451 parameter with update ^c

ieee1451 parameter with update^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451ParameterWithUpdate

has super-classes: ieee1451 parameter ^c
has sub-classes: ieee1451 physical parameter ^c

ieee1451 physical parameter^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451PhysicalParameter

has super-classes: ieee1451 parameter with update ^c
has sub-classes: ieee1451 scalar parameter ^c

ieee1451 publisher port^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451PublisherPort

has super-classes: ieee1451 base publisher port ^c

ieee1451 root^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451Root

The Root abstract class shall be the root for the class hierarchy of all objects deÀned by this standard.

has super-classes: ncap ^c
has sub-classes: ieee1451 entity ^c

ieee1451 scalar parameter^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451ScalarParameter

has super-classes: ieee1451 physical parameter ^c

ieee1451 service^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451Service

The Service abstract class shall be the root for the class hierarchy of all Service Objects. The Service classes represent Object types used to support communication and other aspects of block functionality.

has super-classes: ieee1451 entity ^c
has sub-classes: ieee1451 base port ^c
is in range of: has ncapcomponents ^op
is disjoint with: ieee1451 block ^c, ieee1451 compoment ^c

ieee1451 subscriber port^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451SubscriberPort

has super-classes: ieee1451 base port ^c

ieee1451 transducer block^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451TransducerBlock

has super-classes: ieee1451 base transducer block ^c

ieee1451.5^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IEEE1451.5

IEEE Standard for a Smart Transducer Interface for Sensors and Actuators— Wireless Communication Protocols and Transducer Electronic Data Sheet (TEDS) Formats. This standard introduces the concept of a Wireless Transducer Interface Module (WTIM), connected wirelessly over an approved radio Communication Module to a Network-Capable Application Processor (NCAP) Service Module. The IEEE 1451.5 approved radios (Dot5AR) are IEEE 802.11TM, IEEE 802.15.4TM, IEEE BluetoothTM, and IEEE ZigBeeTM technologies. A WTIM is a module that contains a Dot5ApprovedRadio, signal conditioning, analog-to-digital, and/or digital-to-analog conversion and in many cases the transducers (sensors and actuators). A WTIM may range in complexity from a single sensor or actuator plus radio to units containing many transducers plus radio. Although the WTIM contains a Dot5AR for wireless communication, the NCAP in-turn contains a similar radio to complete the wireless communication link between NCAP and WTIM. This specification for this standard focuses on the communication modules that connect the WTIM and NCAP using the Dot5AR protocols.

has super-classes: IEEE1451 ^c
has sub-classes: phy teds ^c

idle operation state^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#IdleOperationState

has super-classes: operation states ^c
is disjoint with: initializate operation state ^c, operate operation state ^c

IEEE1451^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ieee1451

has sub-classes: IEEE1451.0 ^c, IEEE1451.1 ^c, data types ^c, ieee1451.5 ^c, ncapmessage ^c

IEEE1451.0^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ieee1451.0

IEEE Standard for a Smart Transducer Interface for Sensors and Actuators— Common Functions, Communication Protocols, and Transducer Electronic Data Sheet (TEDS) Formats

has super-classes: IEEE1451 ^c
has sub-classes: api ^c, address ^c, buffered operation mode ^c, data transmission mode ^c, error code source ^c, message ^c, replay message ^c, sampling mode ^c, teds ^c, tim ^c, transducer ^c, transducer channel ^c, transducher channel status ^c, uuid ^c, vitual teds ^c

IEEE1451.1^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ieee1451.1

has super-classes: IEEE1451 ^c
has sub-classes: ncap ^c

immediate operation^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ImmediateOperation

A sensor in this sampling mode will immediately acquire a data set and transmit it as a response to a Read TransducerChannel data-set segment command. The receipt of the Read TransducerChannel data-set segment command will function as a trigger. An actuator in this sampling mode will immediately apply the data-set received from a write TransducerChannel data-set segment command. The receipt of the write TransducerChannel data-set segment command will function as a trigger.

has super-classes: sampling mode ^c
is disjoint with: continous sampling mode ^c, free running with pre trigger ^c, free running with pre trigger and with buffes enabled ^c, free running with pre trigger without buffer enabled ^c, free running without pre trigger ^c, trigger initiated ^c

initializate operation state^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#InitializateOperationState

has super-classes: operation states ^c
is disjoint with: idle operation state ^c, operate operation state ^c

initialization^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Initialization

has super-classes: tim state ^c

location and title teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#LocationAndTitleTEDS

has super-classes: text based teds ^c
is disjoint with: calibration identification teds ^c, commands teds ^c, geographic location teds ^c, meta identification teds ^c, transducer channel identification teds ^c

manufacture defined teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ManufactureDefinedTEDS

Manufacturer-defined TEDS may be in any format required by the manufacturer’s application software. A generic system shall not attempt to parse these TEDS or to interpret their content in any manner. Unless the TEDS is text based as determined by the response to the Query TEDS command, the system shall simply read these TEDS and shall pass the contents to the application that called it. If the TEDS is text based, it shall conform to the structure defined. For a manufacturer-defined TEDS that is being sent to the TIM, the system shall take the information, apply the length field and checksum fields, and transmit it to the TIM.

has super-classes: teds ^c

measurement update^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#MeasurementUpdate

In this tim, the non-blocking read initiated by a StartReadData call is completed, retrieving transducer data of specified transducer of specified TIM on the specified NCAP (host). This tim is corresponding to the Args::UInt16 measurementUpdate().

has super-classes: transducer access api ^c

message^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Message

has super-classes: IEEE1451.0 ^c
has sub-classes: command ^c
is in domain of: command class ^dp, command dependent ^dp, command function ^dp, destination transducer channel least significant ^dp, destination transducer channel most significant ^dp, length least significant ^dp, length most significant ^dp, message ^dp
is in range of: has message ^op
is also defined as: data property

meta identification teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#MetaIdentificationTEDS

has super-classes: text based teds ^c
is disjoint with: calibration identification teds ^c, commands teds ^c, geographic location teds ^c, location and title teds ^c, transducer channel identification teds ^c

meta teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#MetaTEDS

has super-classes: teds ^c
is in domain of: cGroup ^dp, geo loc ^dp, max chan ^dp, meta teds ^dp, o hold off ^dp, proxies ^dp, s hold off ^dp, test time ^dp, uuid ^dp, v group ^dp
is in range of: has mandatory teds ^op
is also defined as: data property

ncap^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAP

has super-classes: IEEE1451.1 ^c
has sub-classes: ieee1451 root ^c
is in domain of: has ncapmessages ^op, ncap ^dp, send messages ^op, uses api ^op
is in range of: returns error code ^op
is also defined as: data property

ncapmessage^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAPMessage

has super-classes: IEEE1451 ^c
is in range of: has ncapmessages ^op
is also defined as: data property

only when command mode^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#OnlyWhenCommandMode

When in the Only when commanded mode, a TransducerChannel shall only transmit a data set in response to a Read TransducerChannel data-set segment command.

has super-classes: data transmission mode ^c
is disjoint with: buffered operation mode ^c, streaming when a buffer is full mode ^c, streaming when at a fixed interval mode ^c

operate operation state^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#OperateOperationState

has super-classes: operation states ^c
is disjoint with: idle operation state ^c, initializate operation state ^c

operation states^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#OperationStates

has super-classes: transducer channel ^c
has sub-classes: idle operation state ^c, initializate operation state ^c, operate operation state ^c

phy teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#PHYTEDS

has super-classes: ieee1451.5 ^c, teds ^c
is in domain of: authent ^dp, battery ^dp, encrypt ^dp, max b p s ^dp, max c dev ^dp, max key l ^dp, max r dev ^dp, max retry ^dp, max s d u ^dp, max xact ^dp, min a lat ^dp, min key l ^dp, min t lat ^dp, phy teds ^dp, radio ^dp, radio ver ^dp
is in range of: has mandatory teds ^op
is also defined as: data property

proxys^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Proxys

A TransducerChannel proxy is an artificial construct used to combine the outputs of multiple sensors or the input to multiple actuators into a single structure. A TransducerChannel proxy has a TransducerChannel number and may be read or written, but it does not have the other characteristics of a TransducerChannel. This means that a proxy does not have a TransducerChannel TEDS, a Calibration TEDS, a Transfer Function TEDS, or a Frequency Response TEDS. The TransducerChannel proxies that exist in a TIM are defined in the Meta-TEDS. Like any other transducer, a TransducerChannel proxy is permanently assigned a TransducerChannel number by the manufacturer. Thus, a proxy may be addressed in a manner consistent with all other TransducerChannels implemented on the TIM. A proxy shall not represent a collection of incompatible transducer types. In other words, a proxy represents a group of sensors or a group of actuators but shall not represent a group containing both transducer types. Reading or writing the data from the individual members of a proxy may be allowed or disallowed at the manufacturer’s discretion. If the manufacturer chooses to disallow reading or writing the individual members of a proxy, then the receipt of one of those commands shall set the appropriate TransducerChannel command rejected bit in the status word.

has super-classes: transducer channel ^c
is disjoint with: embeded ^c, group ^c

query teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#QueryTEDS

has super-classes: command function ^c
is disjoint with: clear status event register ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

read data^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadData

This tim supports retrieving transducer data from a TransducerChannel with a specified channelId on the TIM specified by a timId on a specified NCAP (host). This tim is corresponding to the Args::UInt16 readData()

has super-classes: transducer access api ^c

read raw teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadRawTEDS

This tim supports retrieving rawTEDS data from a selected TransducerChannel or from a TIM on a specified NCAP (host). This method will read the desired TEDS block from the TIM bypassing the TEDS Cache in the NCAP. The TEDS cache is not updated. This tim is corresponding to the Args::UInt16 readRawTeds(). For the purposes of this tim, all TEDS are binary structures. In order to encode these structures in a specified format, it is necessary to encode them as text. To accomplish this, all TEDS contents shall be encoded using the Base64 encoding described in 6.8 of RFC 2045.

has super-classes: teds manager api ^c

read service request^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadServiceRequest

has super-classes: command function ^c
is disjoint with: clear status event register ^c, query teds ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

read status condition register^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadStatusConditionRegister

has super-classes: command function ^c
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

read status event protocol^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadStatusEventProtocol

has super-classes: command function ^c
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

read status event register^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadStatusEventRegister

has super-classes: command function ^c
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

read teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadTEDS

This tim supports retrieving TEDS data associated with a specified TransducerChannel or TIM from a specified NCAP (host). This method will read the desired TEDS block from the TEDS Cache. If the TEDS is not available from the cache, it will read the TEDS from the TIM. This tim is corresponding to the Args::UInt16 readTeds().

has super-classes: command function ^c, teds manager api ^c
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

replay message^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReplayMessage

has super-classes: IEEE1451.0 ^c
is in domain of: dependent octets ^dp, replay message ^dp, success/fail ^dp
is also defined as: data property

reserved^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Reserved

has super-classes: command class ^c, command function ^c
is disjoint with: any state ^c, common cmd ^c, tim active ^c, tim sleep ^c, xdcr either ^c, xdcr idle ^c, xdcr operate ^c, clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

run self test^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#RunSelfTest

has super-classes: command function ^c
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, update teds ^c, write service request ^c, write status event protocol ^c, write teds ^c

sampling mode^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#SamplingMode

A sensor or actuator may be operated in one of five sampling modes. The sampling modes have different relationships between the trigger and the sampling of the data by a sensor or the application of a sample to the output of an actuator. The mode or modes that a TransducerChannel is capable of operating in is defined by the attributes given in the TransducerChannel TEDS.

has super-classes: IEEE1451.0 ^c
has sub-classes: continous sampling mode ^c, free running with pre trigger ^c, free running with pre trigger and with buffes enabled ^c, free running with pre trigger without buffer enabled ^c, free running without pre trigger ^c, immediate operation ^c, trigger initiated ^c
is in range of: uses sampling modes ^op

send command^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#SendCommand

This method will perform a blocking operation. The format of input and output arguments are command dependent. The caller must make sure to use the correct data types for each input argument. This tim is corresponding to the Args::UInt16 sendCommand().

has super-classes: transducer manager api ^c

sensor^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Sensor

A sensor shall measure some physical parameter and return digital data representing that parameter. On the receipt of a trigger, if triggering is enabled, the sensor shall start the collection and storing of a data set within the TIM. The timing of the individual samples in the data set shall be controlled by the TIM and is a function of the operating mode of the sensor. A sensor, in the transducer operating state, shall respond to a Read TransducerChannel data-set segment command by returning the appropriate data set. If a new data set is not available, the TransducerChannel shall respond with the same data that were returned on the previous Read TransducerChannel data-set segment command.

has super-classes: transducer ^c

sleep^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Sleep

has super-classes: tim state ^c

start command^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StartCommand

This method starts a non-blocking operation. The format of input arguments are command dependent. The caller must make sure to use the correct data types for each input argument. This tim is corresponding to the Args::UInt16 startCommand(). The returned ArgumentArray is completed by calling CompleteCommand tim.

has super-classes: transducer manager api ^c

start read data^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StartReadData

This tim supports starting to retrieve transducer data of specified transducer of specified TIM of specified NCAP (host). This method begins a non-blocking read of the specified TransducerChannels. This tim is corresponding to the Args::UInt16 startReadData(). The transducer data to be transferred are completed by calling the MeasurementUpdate tim.

has super-classes: transducer access api ^c

start trigger^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StartTrigger

This method performs a non-blocking trigger on the specified TransducerChannel or TransducerChannels. The user is responsible for determining when the command completes by sending a SendCommand call with the ReadStatusEventRegister command specified, and checking for the DataProcessed bit to be asserted. This tim is corresponding to the Args::UInt16 startTrigger()

has super-classes: transducer manager api ^c

start write data^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StartWriteData

In this tim, writing transducer data for the specified transducer of the specified TIM on the specified NCAP (host). This method performs a non-blocking write of the specified TransducerChannel. The user is responsible for determining when the command completes by sending a SendCommand call with the ReadStatusEventRegister command specified and checking for the DataProcessed bit to be asserted. This tim corresponds to the Args::UInt16 startWriteData().

has super-classes: transducer access api ^c

streaming data transmission mode^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StreamingDataTransmissionMode

has super-classes: event sensor ^c
is disjoint with: analog event sensor ^c, continous sampling event sensor ^c, digital event sensor ^c, event sensor output ^c, event sensor status ^c, event time ^c, time between events ^c, transition reported ^c

streaming when a buffer is full mode^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StreamingWhenABufferIsFullMode

When in the Streaming when a buffer is full mode, a sensor or event sensor shall transmit a data set as soon as a complete data set has been acquired. An actuator does not stream data, so it may not be operated in this mode. The equivalent operating mode for an actuator is the Continuous sampling mode.

has super-classes: data transmission mode ^c
is disjoint with: buffered operation mode ^c, only when command mode ^c, streaming when at a fixed interval mode ^c

streaming when at a fixed interval mode^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StreamingWhenAtAFixedIntervalMode

When in the Streaming at a fixed interval mode, a TransducerChannel shall transmit a data set or partial data set at regular, fixed intervals. When operated in this mode, the TransducerChannel data repetitions shall not be used to determine the number of samples in a data set. The number of samples in a data set shall be determined from the sampling rate and the periodic transmission interval. However, if the number of samples acquired within a transmission interval is greater than the Maximum data repetitions from the TransducerChannel TEDS , then the data set shall be truncated at the Maximum data repetitions and the TransducerChannel hardware error bit shall be set.

has super-classes: data transmission mode ^c
is disjoint with: buffered operation mode ^c, only when command mode ^c, streaming when a buffer is full mode ^c

teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TEDS

has super-classes: IEEE1451.0 ^c
has sub-classes: UsersTransducerNameTEDS ^c, calibration teds ^c, command teds ^c, end user application specific teds ^c, frequency response teds ^c, manufacture defined teds ^c, meta teds ^c, phy teds ^c, text based teds ^c, transducer channel teds ^c, transfer function teds ^c, units extension teds ^c
is in domain of: checksum ^dp, data block ^dp, is stored in ^op, teds ^dp, teds length ^dp, teds i d ^dp
is in range of: has components ^op, has teds ^op
is also defined as: data property

teds manager api^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TEDSManagertim

The TEDS Access tim includes ReadTEDS for reading TEDS and WriteTEDS for writing TEDS.

has super-classes: api ^c
has sub-classes: read raw teds ^c, read teds ^c, update teds cache ^c, write raw teds ^c, write teds ^c
is in domain of: error code ^dp, read raw teds response ^dp, read teds response ^dp, teds ^dp, teds type ^dp, tim id ^dp, update teds response ^dp, write raw teds response ^dp, write teds response ^dp

tim^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIM

A Transducer Interface Module (TIM) and a network capable application processor (NCAP) connected by a media specified by another member of the IEEE 1451 family of standards. A TIM is a module that contains the interface, signal conditioning, analog-to-digital and/or digital-to-analog conversion and, in many cases, the transducer. A TIM may range in complexity from a single sensor or actuator to units containing many transducers (sensors and actuators). An NCAP is the hardware and software that provides the gateway function between the TIMs and the user network or host processor. Another member of the standards family provides the communications interface between an NCAP or host processor and one or more TIMs. Three types of transducers are recognized by this standard. They are sensors, event sensors, and actuators. A transducer is denoted “smart” in this context because of three features: — It is described by a machine-readable Transducer Electronic Data Sheet (TEDS). — The control and data associated with the transducer are digital. — Triggering, status, and control are provided to support the proper functioning of the transducer. A TIM is a module that contains the TEDS, logic to implement the transducer interface, the transducer(s) or connection to the transducer(s), and any signal conversion or signal conditioning.

has super-classes: IEEE1451.0 ^c
has sub-classes: tim state ^c, tim status ^c
is in domain of: has address ^op, has components ^op, has message ^op, has transducer ^op, has uuid ^op, tim states ^op, uses data transmission ^op, uses sampling modes ^op
is in range of: send messages ^op
is disjoint with: vitual teds ^c

tim active^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMActive

has super-classes: command class ^c
is disjoint with: any state ^c, common cmd ^c, reserved ^c, tim sleep ^c, xdcr either ^c, xdcr idle ^c, xdcr operate ^c

tim address^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMAddress

An address within the message of zero indicates that the message is intended for the TIM and not an individual TransducerChannel.

has super-classes: address ^c
is disjoint with: address group address ^c, binary address ^c, bit mapped address ^c, transducer channel address ^c

tim discovery^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMDiscovery

This tim supports reporting the timIds of all TIMs connected to a given NCAP (host). This tim corresponds to Args::UInt16 reportTims().

has super-classes: discovery api ^c

tim sleep^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMSleep

has super-classes: command class ^c
is disjoint with: any state ^c, common cmd ^c, reserved ^c, tim active ^c, xdcr either ^c, xdcr idle ^c, xdcr operate ^c

tim state^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMState

has super-classes: tim ^c
has sub-classes: active ^c, initialization ^c, sleep ^c
is in range of: has components ^op

tim status^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMStatus

has super-classes: tim ^c
is in domain of: tim status ^dp
is in range of: has components ^op, tim states ^op
is also defined as: data property

text based teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TextBasedTEDS

has super-classes: teds ^c
has sub-classes: calibration identification teds ^c, commands teds ^c, geographic location teds ^c, location and title teds ^c, meta identification teds ^c, transducer channel identification teds ^c
is in domain of: dir block ^dp, num lang ^dp, sub sum ^dp, text based teds ^dp, x m l sum ^dp, x m l text ^dp
is also defined as: data property

time between events^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TimeBetweenEvents

has super-classes: event sensor ^c
is disjoint with: analog event sensor ^c, continous sampling event sensor ^c, digital event sensor ^c, event sensor output ^c, event sensor status ^c, event time ^c, streaming data transmission mode ^c, transition reported ^c

transducer^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Transducer

A device that converts energy from one domain into another. The device may be either a sensor or an actuator.

has super-classes: IEEE1451.0 ^c
has sub-classes: actuator ^c, event sensor ^c, sensor ^c
is in range of: has components ^op, has transducer ^op

transducer access api^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerAccesstim

The Transducer Access tim focuses on reading and writing transducers (sensors and actuators) or TransducerChannels.

has super-classes: api ^c
has sub-classes: measurement update ^c, read data ^c, start read data ^c, start write data ^c, write data ^c
is in domain of: channel id ^dp, error code ^dp, measurement update response ^dp, read data response ^dp, start read data response ^dp, start write data response ^dp, tim id ^dp, transducer data ^dp, transducer data ^dp, transducer id ^dp, write data response ^dp

transducer channel^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerChannel

A transducer and all of the signal conditioning and conversion components associated with that transducer.

has super-classes: IEEE1451.0 ^c
has sub-classes: embeded ^c, group ^c, operation states ^c, proxys ^c
is in domain of: transducher channel states ^op

transducer channel address^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerChannelAddress

An address with the most significant bit set to zero. The remaining 15 bits identify the TransducerChannel for which the message is intended.

has super-classes: address ^c
is disjoint with: address group address ^c, binary address ^c, bit mapped address ^c, tim address ^c

transducer channel identification teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerChannelIdentificationTEDS

has super-classes: text based teds ^c
is disjoint with: calibration identification teds ^c, commands teds ^c, geographic location teds ^c, location and title teds ^c, meta identification teds ^c

transducer channel teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerChannelTEDS

has super-classes: teds ^c
is in domain of: Direction angles ^dp, Event sensor options ^dp, act halt ^dp, buffered ^dp, cal key ^dp, chan type ^dp, data set ^dp, data xmit ^dp, directon ^dp, edge rpt ^dp, end of set ^dp, inPropDl ^dp, out prop d ^dp, phy units ^dp, r delay t ^dp, r setup t ^dp, s period ^dp, sample ^dp, sampling ^dp, t s error ^dp, time src ^dp, transducer channel teds ^dp, update t ^dp, w setup t ^dp, warm up t ^dp
is in range of: has mandatory teds ^op
is also defined as: data property

transducer discovery^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerDiscovery

This tim supports reporting channelIds of all transducer available in the specified TIM of the specified NCAP (host). This retrieves the transducer list and names for this TIM. This information is retrieved from the cached TEDS in the NCAP. This tim corresponds to the interface Args::UInt16 reportChannels().

has super-classes: discovery api ^c

transducer manager api^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerManagertim

This tim contains four tims. The SendCommand and StartCommand tims allow the system to send commands directly to a TransducerChannel or TIM. Trigger and StartTrigger tims are used to send triggers to a TransducerChannel or group of TransducerChannels on the same NCAP.

has super-classes: api ^c
has sub-classes: command complete ^c, send command ^c, start command ^c, start trigger ^c, trigger ^c
is in domain of: channel id ^dp, command complete response ^dp, error code ^dp, out args ^dp, send command response ^dp, start command response ^dp, start trigger response ^dp, tim id ^dp, trigger response ^dp

transducher channel status^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducherChannelStatus

has super-classes: IEEE1451.0 ^c
is in domain of: transducer channel status ^dp
is in range of: transducher channel states ^op

transfer function teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransferFunctionTEDS

has super-classes: teds ^c
is in domain of: c r slop ^dp, complex p ^dp, complex p f ^dp, complex p q ^dp, complex z ^dp, complex z f ^dp, complex z q ^dp, d coeff ^dp, depend p ^dp, depend z ^dp, n coeff ^dp, one pole ^dp, one z z pol ^dp, one zero ^dp, pole zero ^dp, ref freq ^dp, sample t ^dp, transfer function teds ^dp, zero pole ^dp
is also defined as: data property

transition reported^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransitionReported

has super-classes: event sensor ^c
is disjoint with: analog event sensor ^c, continous sampling event sensor ^c, digital event sensor ^c, event sensor output ^c, event sensor status ^c, event time ^c, streaming data transmission mode ^c, time between events ^c

trigger^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Trigger

This method performs a blocking trigger on the specified TransducerChannel or group of TransducerChannels. This tim is corresponding to the Args::UInt16 trigger().

has super-classes: transducer manager api ^c

trigger initiated^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TriggerInitiated

In the trigger-initiated sampling mode, a sensor shall begin acquiring a data set immediately upon receipt of a trigger. An actuator shall start outputting a data set immediately upon receipt of a trigger. Sample processing continues until all samples in the data set are processed at a rate determined by the TIM and then stops.

has super-classes: sampling mode ^c
is disjoint with: continous sampling mode ^c, free running with pre trigger ^c, free running with pre trigger and with buffes enabled ^c, free running with pre trigger without buffer enabled ^c, free running without pre trigger ^c, immediate operation ^c

uuid^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#UUID

has super-classes: IEEE1451.0 ^c
is in range of: has components ^op, has uuid ^op

units extension teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#UnitsExtensionTEDS

has super-classes: teds ^c

update teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#UpdateTEDS

has super-classes: command function ^c
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, write service request ^c, write status event protocol ^c, write teds ^c

update teds cache^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#UpdateTEDSCache

In this tim, updating the TEDS cache of the specified TransducerChannel or TIM of specified NCAP (host). This tim will update the TEDS cache. The TEDS checksum will be read from the TIM and compared with the cached TEDS checksum. If the checksums differ, the TEDS will be read from the TIM and stored in the cache. This tim corresponds to the Args::UInt16 updateTedsCache.

has super-classes: teds manager api ^c

UsersTransducerNameTEDS^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#User'sTransducerNameTEDS

has super-classes: teds ^c
is in domain of: UsersTransducerNameTEDS ^dp, format ^dp, t c name ^dp
is in range of: has mandatory teds ^op
is also defined as: data property

vector groups^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#VectorGroups

VectorGroups are used to define relationships between TransducerChannels within a single multichannel TIM that imply a display or mathematical relationship between the TransducerChannels. For example, they may be used to identify the relationships between the components of a three-axis accelerometer. VectorGroups are used by the software in the NCAP or host processor to group the outputs of the individual TransducerChannels into vectors for display or computational purposes.

has super-classes: group ^c

vitual teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#VitualTEDS

A TEDS that is stored permanently in a location other than the TIM.

has super-classes: IEEE1451.0 ^c
is in range of: send messages ^op
is disjoint with: tim ^c

write data^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#WriteData

In this tim, writing transducer data of specified transducer of specified TIM of specified NCAP (host). This method performs a blocking write of the specified TransducerChannels or transducers. This tim is corresponding to the Args::UInt16 writeData().

has super-classes: transducer access api ^c

write raw teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#WriteRawTEDS

In this tim, writing rawTEDS data of specified transducer of specified TIM of specified NCAP (host). This method will write the desired TEDS block to the TIM bypassing the TEDS cache. The provided TEDS information is encoded in “tuple” form in an OctetArray. This tim is corresponding to the Args::UInt16 writeRawTeds(): For the purposes of this tim, all TEDS are binary structures. In order to encode these structures in a specified format, it is necessary to encode them as text. To accomplish this, all TEDS contents shall be encoded using the Base64 encoding described in 6.8 of RFC 2045.

has super-classes: teds manager api ^c

write service request^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#WriteServiceRequest

has super-classes: command function ^c
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write status event protocol ^c, write teds ^c

write status event protocol^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#WriteStatusEventProtocol

has super-classes: command function ^c
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write teds ^c

write teds^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#WriteTEDS

This tim is used when writing TEDS to a specified TransducerChannel or TIM of the specified NCAP (host). This method will write the desired TEDS block to the TIM. The TEDS cache is also updated if the write succeeds. The provided TEDS information is encoded in an ArgumentArray. This tim corresponds to the Args::UInt16 writeTeds().

has super-classes: command function ^c, teds manager api ^c
is in domain of: teds id ^dp
is disjoint with: clear status event register ^c, query teds ^c, read service request ^c, read status condition register ^c, read status event protocol ^c, read status event register ^c, read teds ^c, reserved ^c, run self test ^c, update teds ^c, write service request ^c, write status event protocol ^c

xdcr either^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#XdcrEither

has super-classes: command class ^c
is disjoint with: any state ^c, common cmd ^c, reserved ^c, tim active ^c, tim sleep ^c, xdcr idle ^c, xdcr operate ^c

xdcr idle^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#XdcrIdle

has super-classes: command class ^c
is disjoint with: any state ^c, common cmd ^c, reserved ^c, tim active ^c, tim sleep ^c, xdcr either ^c, xdcr operate ^c

xdcr operate^c back to ToC or Class ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#XdcrOperate

has super-classes: command class ^c
is disjoint with: any state ^c, common cmd ^c, reserved ^c, tim active ^c, tim sleep ^c, xdcr either ^c, xdcr idle ^c

Object Properties

has address
has components
has mandatory teds
has message
has ncapcomponents
has ncapmessages
has states
has teds
has transducer
has uuid
is stored in
returns error code
send messages
tim states
transducher channel states
uses api
uses data transmission
uses sampling modes

has address^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasAddress

has super-properties: has components ^op
has domain: tim ^c
has range: address ^c

has components^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasComponents

has sub-properties: has address ^op, has mandatory teds ^op, has message ^op, has transducer ^op, has uuid ^op, uses data transmission ^op, uses sampling modes ^op
has domain: tim ^c
has range: address ^c; data transmission mode ^c; data types ^c; teds ^c; tim state ^c; tim status ^c; transducer ^c; uuid ^c

has mandatory teds^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasMandatoryTEDS

has super-properties: has components ^op
has domain: tim ^c or vitual teds ^c
has range: meta teds ^c; phy teds ^c; transducer channel teds ^c; UsersTransducerNameTEDS ^c

has message^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasMessage

has super-properties: has components ^op
has domain: tim ^c
has range: message ^c

has ncapcomponents^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasNCAPComponents

has domain: ieee1451 ncapblock ^c
has range: ieee1451 base transducer block ^c; ieee1451 compoment ^c; ieee1451 service ^c

has ncapmessages^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasNCAPMessages

has domain: ncap ^c
has range: ncapmessage ^c

has states^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasStates

has super-properties: top object property
has sub-properties: tim states ^op, transducher channel states ^op

has teds^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasTEDS

The TIM and Virtual TEDS can have the TEDS stored inside of them.

has characteristics: functional

has domain: tim ^c or vitual teds ^c
has range: teds ^c
is inverse of: is stored in ^op

has transducer^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasTransducer

has super-properties: has components ^op
has domain: tim ^c
has range: transducer ^c

has uuid^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hasUUID

has super-properties: has components ^op
has domain: tim ^c
has range: uuid ^c

is stored in^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#isStoredIn

has domain: teds ^c
has range: tim ^c or vitual teds ^c
is inverse of: has teds ^op

returns error code^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#returnsErrorCode

has super-properties: top object property
has domain: api ^c
has range: ncap ^c

send messages^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sendMessages

NCAP send messages to the TIM

has domain: ncap ^c
has range: tim ^c; vitual teds ^c

tim states^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMStates

has characteristics: functional

has super-properties: has states ^op
has domain: tim ^c
has range: tim status ^c

transducher channel states^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducherChannelStates

has characteristics: functional

has super-properties: has states ^op
has domain: transducer channel ^c
has range: transducher channel status ^c

uses api^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#usestim

has characteristics: functional

has super-properties: top object property
has domain: ncap ^c
has range: api ^c

uses data transmission^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#usesDataTransmission

has super-properties: has components ^op
has domain: tim ^c
has range: data transmission mode ^c

uses sampling modes^op back to ToC or Object Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#usesSamplingModes

has super-properties: has components ^op
has domain: tim ^c
has range: sampling mode ^c

Data Properties

api
act halt
amperes
authent
battery
block manufacture i d
block model number
block software version
buffered
c r slop
cal inrvl
cal key
calibration teds
candelas
cGroup
chan num
chan type
channel id
channel ids
checksum
coe blk
command class
command complete response
command dependent
command function
complex p
complex p f
complex p q
complex z
complex z f
complex z q
current value
d coeff
dat model
data block
data set
data xmit
depend p
depend z
dependent octets
destination transducer channel least significant
destination transducer channel most significant
dir block
Direction angles
directon
edge rpt
encrypt
end of set
end user application specific teds
end user data
error code
error code source
Event sensor options
format
frequency response teds
geo loc
grp type
hi limit
i convert
inPropDl
kelvins
kilogram
previous value
length least significant
length most significant
loc enum
low limit
lst cal dt
m range
max b p s
max c dev
max chan
max key l
max r dev
max retry
max s d u
max xact
measurement update response
mem list
message
meta teds
meters
min a lat
min key l
min t lat
mod lenth
moles
ncap
ncapblock
ncapmanufacture i d
ncapmessage
ncapmodel number
ncapo s version
ncapserial number
n coeff
num lang
o convert
o error
o hold off
one pole
one z z pol
one zero
organiz
out args
out prop d
phy teds
phy units
points
pole zero
pre trigg
proxies
r delay t
r setup t
radians
radio
radio ver
read data response
read raw teds response
read teds response
ref amp
ref freq
ref phase
repeats
replay message
s default
s hold off
s i convrt
s origin
s period
s units
samp mode
sample
sample t
sampling
seconds
self test
send command response
sig bits
start command response
start read data response
start trigger response
start write data response
step size
ster rad
sub sum
success/fail
t c name
teds
teds length
tim discovery response
tim status
t s error
teds
teds i d
teds id
teds type
test time
text based teds
tim id
tim ids
time src
timestamp
transducer channel status
transducer channel teds
transducer data
transducer data
transducer discovery response
transducer id
transducer names
transfer function teds
trigger response
unit
unit type
units ext
update t
update teds response
UsersTransducerNameTEDS
uuid
v group
value
w setup t
warm up t
write data response
write raw teds response
write teds response
x m l sum
x m l text
xdr blk
zero pole

api^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#tim

has sub-properties: command complete response ^dp, error code source ^dp, measurement update response ^dp, read data response ^dp, read raw teds response ^dp, read teds response ^dp, send command response ^dp, start command response ^dp, start read data response ^dp, start trigger response ^dp, start write data response ^dp, tim discovery response ^dp, transducer discovery response ^dp, trigger response ^dp, update teds response ^dp, write data response ^dp, write raw teds response ^dp, write teds response ^dp
has domain: api ^c
is also defined as: class

act halt^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#actHalt

Actuator-halt attribute

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

amperes^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#amperes

The exponent for Amperes

has super-properties: phy units ^dp
has range: uint8

authent^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#authent

Authentication

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: boolean

battery^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#battery

Device is battery powered

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint8

block manufacture i d^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#BlockManufactureID

Argument value shall identify the manufacturer of the Block. The specification of manufacturer identification is outside the scope of this standard.

has super-properties: ncapblock ^dp
has range: string

block model number^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#BlockModelNumber

Argument value shall be an identifier assigned by the manufacturer to distinguish different implementations of the class by the manufacturer. The scope of BlockModelNumber instances shall be the BlockManufacturerID. The specification of BlockModelNumber instances shall be the responsibility of the manufacturer and is outside the scope of this standard.

has super-properties: ncapblock ^dp
has range: string

block software version^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#BlockSoftwareVersion

Argument value shall be an identifier assigned by the manufacturer to distinguish different implementations of the model by the manufacturer. The scope of BlockSoftwareVersion shall be the BlockModelNumber. The specification of BlockSoftwareVersion instances shall be the responsibility of the manufacturer and is outside the scope of this standard.

has super-properties: ncapblock ^dp
has range: string

buffered^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#buffered

Buffered attribute

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

c r slop^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#cRSlop

Constant Relative Slope

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

cal inrvl^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#calInrvl

Calibration interval

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: time duration

cal key^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#calKey

Calibration key

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

calibration teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CalibrationTEDS

has super-properties: teds ^dp
has sub-properties: cal inrvl ^dp, coe blk ^dp, hi limit ^dp, i convert ^dp, low limit ^dp, lst cal dt ^dp, o convert ^dp, o error ^dp, s i convrt ^dp, xdr blk ^dp
has domain: calibration teds ^c
is also defined as: class

candelas^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#candelas

The exponent for Candelas

has super-properties: phy units ^dp
has range: uint8

cGroup^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#cGGroup

ControlGroup

has super-properties: meta teds ^dp
has sub-properties: grp type ^dp, mem list ^dp
has domain: meta teds ^c

chan num^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#chanNum

TransducerChannel number of the TransducerChannel proxy

has super-properties: proxies ^dp
has range: uint16

chan type^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#chanType

TransducerChannel type key

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

channel id^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#channelId

has super-properties: read data response ^dp, read raw teds response ^dp, read teds response ^dp, send command response ^dp, start command response ^dp, start read data response ^dp, start trigger response ^dp, start write data response ^dp, trigger response ^dp, update teds response ^dp, write data response ^dp, write raw teds response ^dp
has domain: transducer access api ^c; transducer manager api ^c
has range: uint16

channel ids^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#channelIds

has super-properties: transducer discovery response ^dp
has domain: discovery api ^c
has range: uint16 array

checksum^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#checksum

The checksum shall be the one’s complement of the sum (modulo 216) of all preceding octets, including the initial TEDS length field and the entire TEDS data block. The checksum calculation excludes the checksum field. TotalOctets − 2∑i=1 checksum = 0xFFFF − TEDSOctet(i) (4) The one’s complement of the sum N is (216– 1) – N. The checksum may be calculated by taking the hex value 0xFFFF minus the sum from the first octet to the octet before the checksum as shown in Equation (4). Another way to calculate the ones complement value of a number is by inverting the number’s digits. NOTE—Computing the checksum starts with adding the individual octets while keeping the sum in a 16 bit number. If the 16 bit number overflows, ignore the overflow and keep only the lower 16 bits. Take the logical (one’s) complement of the resulting 16 bit number.

has super-properties: teds ^dp
has domain: teds ^c
has range: uint16

coe blk^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#coeBlk

Multinomial coefficient

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: float32 array

command class^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#commandClass

has super-properties: message ^dp
has domain: message ^c
has range: octet

command complete response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#CommandCompleteResponse

has super-properties: api ^dp
has sub-properties: error code ^dp, out args ^dp, tim id ^dp, transducer id ^dp
has domain: transducer manager api ^c

command dependent^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#commandDependent

has super-properties: message ^dp
has domain: message ^c
has range: octet

command function^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#commandFunction

has super-properties: message ^dp
has domain: message ^c
has range: octet

complex p^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#complexP

Complex pole

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

complex p f^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#complexPF

Complex pole frequency

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

complex p q^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#complexPQ

Complex pole quality factor

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

complex z^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#complexZ

Complex zero

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

complex z f^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#complexZF

Complex zero frequency

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

complex z q^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#complexZQ

Complex zero quality factor

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

current value^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#currentValue

Current value to communicate

has super-properties: ncapmessage ^dp
has range: float32

d coeff^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dCoeff

Denominator coefficients (B0, B1, ... Bm)

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32 array

dat model^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#datModel

Data model

has super-properties: sample ^dp
has range: uint8

data block^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dataBlock

This structure contains the information that is stored in a specific TEDS. The fields that comprise this structure are different for each TEDS type. All TEDS prepared by a transducer manufacturer use a Type/Length/Value (TLV) data structure. In the case of text-based TEDS, this Type/Length/Value (TLV) ata structure is used to provide a directory to give access into different sections of the text portion of the TEDS that uses XML for the information content.

has super-properties: teds ^dp
has domain: teds ^c
has range: octet array

data set^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dataSet

has super-properties: transducer channel teds ^dp
has sub-properties: pre trigg ^dp, repeats ^dp, s origin ^dp, s units ^dp, step size ^dp
has domain: transducer channel teds ^c
has range: uint8

data xmit^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dataXmit

Data transmission attribute

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

depend p^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dependP

Single pole dependent on a zero TF_SPm (x)

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

depend z^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dependZ

Single zero dependent on a pole TF_SZm (x)

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

dependent octets^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dependentOctets

has super-properties: replay message ^dp
has domain: replay message ^c
has range: octet array

destination transducer channel least significant^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#destinationTransducerChannelLeastSignificant

has super-properties: message ^dp
has domain: message ^c
has range: octet

destination transducer channel most significant^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#destinationTransducerChannelMostSignificant

has super-properties: message ^dp
has domain: message ^c
has range: octet

dir block^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dirBlock

Language block description This block is repeated N times

has super-properties: text based teds ^dp
has domain: text based teds ^c
has range: uint32

Direction angles^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#dAngles

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

directon^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#direction

Sensitivity direction

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

edge rpt^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#edgeRpt

Edge-to-report attribute

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

encrypt^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#encrypt

Encryption

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint16

end of set^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#endOfSet

End-of-data-set operation attribute

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

end user application specific teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#EndUserApplicationSpecificTEDS

has super-properties: teds ^dp
has sub-properties: end user data ^dp
has domain: end user application specific teds ^c
is also defined as: class

end user data^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#endUserData

The contents of the data block are up to the user and are not defined in this standard.

has super-properties: end user application specific teds ^dp
has domain: end user application specific teds ^c
has range: string

error code^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#errorCode

All error codes are represented as UInt16 quantities. Five entities are involved in a communication transaction: the local IEEE 1451.0 layer, the local IEEE 1451.X layer, the remote IEEE 1451.X layer, the remote IEEE 1451.0 layer, and the remote application layer. The error code source is encoded in the upper 3 bits. The error code enumeration is encoded in the lower bits. Bits are numbered from most significant to least significant bit 15 to bit 0.

has super-properties: command complete response ^dp, measurement update response ^dp, read data response ^dp, read raw teds response ^dp, read teds response ^dp, send command response ^dp, start command response ^dp, start read data response ^dp, start trigger response ^dp, start write data response ^dp, tim discovery response ^dp, transducer discovery response ^dp, trigger response ^dp, update teds response ^dp, write data response ^dp, write raw teds response ^dp, write teds response ^dp
has domain: discovery api ^c; teds manager api ^c; transducer access api ^c; transducer manager api ^c
has range: uint16 or ({ "CLOSE_ON_LOCKED_RESOURCE" , "FATAL_TEDS_ERROR" , "ILLEGAL_MODE" , "INVALID_COMMID" , "LOCKED_RESOURCE" , "LOCK_BROKEN" , "MCAST_NOT_SUPPORTED" , "MEMORY" , "MEMORY_RESOURCE_EXCEEDED" , "NETWORK_CORRUPTION" , "NETWORK_FAILURE" , "NETWORK_RESOURCE_EXCEEDED" , "NOT_GROUP_MEMBER" , "NO_ERROR" , "QOS_FAILURE" , "TIMEOUT" , "UNKNOWN_DESTID" , "UNKNOWN_GROUPID" , "UNKNOWN_MODULEID" , "UNKNOWN_MSGID" })

error code source^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ErrorCodeSource

has super-properties: api ^dp
has domain: error code source ^c
has range: uint16 or ({ "LOCAL_1451_0_LAYER" , "LOCAL_1451_X_LAYER" , "REMOTE_1451_0_LAYER" , "REMOTE_1451_X_LAYER" , "REMOTE_APPLICATION_LAYER" })
is also defined as: class

Event sensor options^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#eSOpetion

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

format^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#format

Format description of this TEDS

has super-properties: UsersTransducerNameTEDS ^dp
has domain: UsersTransducerNameTEDS ^c
has range: uint8

frequency response teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#FrequencyResponseTEDS

has super-properties: teds ^dp
has sub-properties: points ^dp, ref amp ^dp, ref freq ^dp, ref phase ^dp
has domain: frequency response teds ^c
is also defined as: class

geo loc^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#geoLoc

Specialized VectorGroup for geographic location

has super-properties: meta teds ^dp
has sub-properties: grp type ^dp, loc enum ^dp, mem list ^dp
has domain: meta teds ^c
has range: uint16 array

grp type^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#grpType

ControlGroup type

has super-properties: cGroup ^dp, geo loc ^dp, v group ^dp
has range: uint8

hi limit^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#hiLimit

Operational upper range limit

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: float32

i convert^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#iConvert

Pre-conversion operation

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: uint8

inPropDl^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#inPropD

Incoming propagation delay through the data transport logic

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

kelvins^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#kelvins

The exponent for Kelvins

has super-properties: phy units ^dp
has range: uint8

kilogram^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#kilogram

The exponent for Kilograms

has super-properties: phy units ^dp
has range: uint8

previous value^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#previousValue

Last value reported

has super-properties: ncapmessage ^dp
has range: float32

length least significant^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#lengthLeastSignificant

has super-properties: message ^dp, replay message ^dp
has domain: message ^c
has range: octet

length most significant^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#lengthMostSignificant

has super-properties: message ^dp, replay message ^dp
has domain: message ^c
has range: octet

loc enum^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#locEnum

An enumeration defining how location information is provided

has super-properties: geo loc ^dp
has range: uint8

low limit^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#lowLimit

Operational lower range limit

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: float32

lst cal dt^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#lstCalDt

Last calibration date-time

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: time instance

m range^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#mRange

has super-properties: transducer channel teds ^dp
has range: uint8

max b p s^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#maxBPS

Max data throughput

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint32

max c dev^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#maxCDev

Max Connected Devices

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint16

max chan^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#maxChan

Number of implemented TransducerChannels

has super-properties: meta teds ^dp
has domain: meta teds ^c
has range: uint16

max key l^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#maxKeyL

Max Key Length

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint16

max r dev^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#maxRDev

Max Registred Devices

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint16

max retry^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#maxRetry

Maximum Retries before Disconnect

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint16

max s d u^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#maxSDU

Max SDU Size

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint16

max xact^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#maxXact

Max Simultaneous Transactions

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint8

measurement update response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#MeasurementUpdateResponse

has super-properties: api ^dp
has sub-properties: error code ^dp, tim id ^dp, transducer data ^dp, transducer id ^dp
has domain: transducer access api ^c

mem list^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#memList

ControlGroup member list

has super-properties: cGroup ^dp, geo loc ^dp, v group ^dp
has range: uint16 array

message^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#Message

has sub-properties: command class ^dp, command dependent ^dp, command function ^dp, destination transducer channel least significant ^dp, destination transducer channel most significant ^dp, length least significant ^dp, length most significant ^dp
has domain: message ^c
is also defined as: class

meta teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#MetaTEDS

has super-properties: teds ^dp
has sub-properties: cGroup ^dp, geo loc ^dp, max chan ^dp, o hold off ^dp, proxies ^dp, s hold off ^dp, test time ^dp, uuid ^dp, v group ^dp
has domain: meta teds ^c
is also defined as: class

meters^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#meters

The exponent for Meters

has super-properties: phy units ^dp
has range: uint8

min a lat^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#minALat

Min Access Latency

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint32

min key l^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#minKeyL

Min Key Length

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint16

min t lat^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#minTLat

Min Transmit Latency

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint32

mod lenth^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#modLenth

Data model length

has super-properties: sample ^dp
has range: uint8

moles^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#moles

The exponent for Moles

has super-properties: phy units ^dp
has range: uint8

ncap^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAP

has sub-properties: ncapblock ^dp
has domain: ncap ^c
is also defined as: class

ncapblock^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAPBlock

has super-properties: ncap ^dp
has sub-properties: block manufacture i d ^dp, block model number ^dp, block software version ^dp, ncapmanufacture i d ^dp, ncapmodel number ^dp, ncapo s version ^dp, ncapserial number ^dp
has domain: ieee1451 ncapblock ^c

ncapmanufacture i d^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAPManufactureID

Argument value shall identify the manufacturer of the NCAP. The specification of manufacturer identification is outside the scope of this standard.

has super-properties: ncapblock ^dp
has range: string

ncapmessage^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAPMessage

has super-properties: top data property
has sub-properties: current value ^dp, previous value ^dp, timestamp ^dp, unit ^dp, value ^dp
is also defined as: class

ncapmodel number^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAPModelNumber

Argument value shall be an identifier assigned by the manufacturer to distinguish different NCAP implementations of the manufacturer. The scope of NCAP model numbers shall be the NcapManufacturerId. The specification of NcapModelNumber instances shall be the responsibility of the manufacturer and is outside the scope of this standard.

has super-properties: ncapblock ^dp
has range: string

ncapo s version^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAPOSVersion

Argument value shall be an identifier assigned by the manufacturer to specify the operating system used by the NCAP. The specification of NCAPOSVersion values shall be the responsibility of the manufacturer and is outside the scope of this standard.

has super-properties: ncapblock ^dp
has range: string

ncapserial number^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#NCAPSerialNumber

Argument value shall be an identifier assigned by the manufacturer to distinguish different instances of NCAP implementations of the manufacturer. The scope of NCAP serial numbers shall be the NCAPModelNumber. The specification of NCAP serial numbers shall be the responsibility of the manufacturer and is outside the scope of this standard.

has super-properties: ncapblock ^dp
has range: string

n coeff^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#nCoeff

Numerator coefficients (A0, A1, ... An)

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32 array

num lang^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#numLang

If this field is omitted, the NCAP shall assume that only one language is present. This field contains a number identifying the number of languages in the TEDS.

has super-properties: text based teds ^dp
has domain: text based teds ^c
has range: uint8

o convert^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#oConvert

Post-conversion operation

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: uint8

o error^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#oError

Operational uncertainty

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: float32

o hold off^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#oHoldOff

Operational time-out

has super-properties: meta teds ^dp
has domain: meta teds ^c
has range: float32

one pole^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#onePole

Single pole TF_SP

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

one z z pol^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#oneZZPol

Single zero at zero and a single pole

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

one zero^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#oneZero

Single zero TF_SZ

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

organiz^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#organiz

TransducerChannel proxy data-set organization

has super-properties: proxies ^dp
has range: uint8

out args^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#outArgs

Returned output arguments.

has super-properties: command complete response ^dp, send command response ^dp
has domain: transducer manager api ^c

out prop d^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#outPropD

Outgoing propagation delay through the data transport logic

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

phy teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#PHYTEDS

has super-properties: teds ^dp
has sub-properties: authent ^dp, battery ^dp, encrypt ^dp, max b p s ^dp, max c dev ^dp, max key l ^dp, max r dev ^dp, max retry ^dp, max s d u ^dp, max xact ^dp, min a lat ^dp, min key l ^dp, min t lat ^dp, radio ^dp, radio ver ^dp
has domain: phy teds ^c
is also defined as: class

phy units^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#phyUnits

Physical Units

has super-properties: transducer channel teds ^dp
has sub-properties: amperes ^dp, candelas ^dp, kelvins ^dp, kilogram ^dp, meters ^dp, moles ^dp, radians ^dp, seconds ^dp, ster rad ^dp, unit type ^dp, units ext ^dp
has domain: transducer channel teds ^c
has range: octet array

points^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#points

Points in the table

has super-properties: frequency response teds ^dp
has domain: frequency response teds ^c
has range: float32 array

pole zero^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#poleZero

Single pole with a dependent zero

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

pre trigg^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#preTrigg

Maximum pre-trigger samples

has super-properties: data set ^dp
has range: uint16

proxies^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#proxies

This field is required for TIMs that implement TransducerChannel proxies. This field is omitted if no TransducerChannel proxies exist in this transducer module.

has super-properties: meta teds ^dp
has sub-properties: chan num ^dp, organiz ^dp
has domain: meta teds ^c
has range: uint16 array

r delay t^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#rDelayT

TransducerChannel read delay time

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

r setup t^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#rSetupT

TransducerChannel read setup time

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

radians^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#radians

The exponent for Radians

has super-properties: phy units ^dp
has range: uint8

radio^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#radio

Radio Type

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint32

radio ver^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#radioVer

Radio Version

has super-properties: phy teds ^dp
has domain: phy teds ^c
has range: uint16

read data response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadDataResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, tim id ^dp, transducer data ^dp
has domain: transducer access api ^c

read raw teds response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadRawTEDSResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, teds ^dp, teds type ^dp, tim id ^dp
has domain: teds manager api ^c

read teds response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReadTEDSResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, teds ^dp, teds type ^dp, tim id ^dp
has domain: teds manager api ^c

ref amp^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#refAmp

Test amplitude

has super-properties: frequency response teds ^dp
has domain: frequency response teds ^c
has range: float32

ref freq^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#refFreq

Reference frequency

has super-properties: frequency response teds ^dp, transfer function teds ^dp
has domain: frequency response teds ^c; transfer function teds ^c
has range: float32

ref phase^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#refPhase

Phase at the reference frequency

has super-properties: frequency response teds ^dp
has domain: frequency response teds ^c
has range: float32

repeats^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#repeats

Maximum data repetitions

has super-properties: data set ^dp
has range: uint16

replay message^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#ReplayMessage

has sub-properties: dependent octets ^dp, length least significant ^dp, length most significant ^dp, success/fail ^dp
has domain: replay message ^c
is also defined as: class

s default^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sDefault

Default sampling mode

has super-properties: sampling ^dp
has range: uint8

s hold off^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sHoldOff

Slow-access time-out

has super-properties: meta teds ^dp
has domain: meta teds ^c
has range: float32

s i convrt^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sIConvrt

SI units conversion constants

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: float32

s origin^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sOrigin

Series origin

has super-properties: data set ^dp
has range: float32

s period^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sPeriod

TransducerChannel sampling period

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

s units^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sUnits

Series units

has super-properties: data set ^dp
has range: octet array

samp mode^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sampMode

Sampling mode capability

has super-properties: sampling ^dp
has range: uint8

sample^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sample

has super-properties: transducer channel teds ^dp
has sub-properties: dat model ^dp, mod lenth ^dp, sig bits ^dp
has domain: transducer channel teds ^c
has range: int

sample t^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sampleT

Sample/Delay Time

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

sampling^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sampling

Sampling attribute

has super-properties: transducer channel teds ^dp
has sub-properties: s default ^dp, samp mode ^dp
has domain: transducer channel teds ^c
has range: uint8

seconds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#seconds

The exponent for Seconds

has super-properties: phy units ^dp
has range: uint8

self test^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#selfTest

has super-properties: transducer channel teds ^dp
has range: uint8

send command response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#SendCommandResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, out args ^dp, tim id ^dp
has domain: transducer manager api ^c

sig bits^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sigBits

has super-properties: sample ^dp
has range: uint16

start command response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StartCommandResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, tim id ^dp
has domain: transducer manager api ^c

start read data response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StartReadDataResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, tim id ^dp
has domain: transducer access api ^c

start trigger response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StartTriggerResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, tim id ^dp
has domain: transducer manager api ^c

start write data response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#StartWriteDataResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, tim id ^dp
has domain: transducer access api ^c

step size^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#stepSize

Series increment

has super-properties: data set ^dp
has range: float32

ster rad^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sterRad

The exponent for Steradians

has super-properties: phy units ^dp
has range: uint8

sub sum^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#subSum

has super-properties: text based teds ^dp
has domain: text based teds ^c
has range: uint16

success/fail^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#sucess/fail

has super-properties: replay message ^dp
has domain: replay message ^c
has range: octet

t c name^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#tCName

TIM or TransducerChannel Name

has super-properties: UsersTransducerNameTEDS ^dp
has domain: UsersTransducerNameTEDS ^c
has range: string

teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TEDS

has sub-properties: UsersTransducerNameTEDS ^dp, calibration teds ^dp, checksum ^dp, data block ^dp, end user application specific teds ^dp, frequency response teds ^dp, meta teds ^dp, phy teds ^dp, teds length ^dp, teds i d ^dp, text based teds ^dp, transducer channel teds ^dp, transfer function teds ^dp
has domain: teds ^c
is also defined as: class

teds length^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TEDSLength

The TEDS length is the total number of octets in the TEDS data block plus the 2 octets in the checksum.

has super-properties: teds ^dp
has domain: teds ^c
has range: uint32

tim discovery response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMDiscoveryResponse

has super-properties: api ^dp
has sub-properties: error code ^dp, tim ids ^dp
has domain: discovery api ^c

tim status^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TIMStatus

has super-properties: top data property
has domain: tim status ^c
has range: octet or ({ "Busy" , "Command rejected" , "Consumables exhausted" , "Corrections disabled" , "Data available/data processed" , "Data over range/under range" , "Data/event" , "Failed calibration" , "Failed self-test" , "Hardware error" , "Invalid command" , "Missed data/event" , "Not operational" , "Protocol error" , "Reserved" , "Service request" , "TEDS changed" })
is also defined as: class

t s error^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#tSError

Trigger-to-sample delay uncertainty

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#teds

has super-properties: read raw teds response ^dp, read teds response ^dp
has domain: teds manager api ^c
has range: string array

teds i d^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#tedsID

The TEDS Identifier consists of the four fields shown in Table 41 and is standard for all TEDS. This field is always the first one in the TEDS. The Tuple Length for this field is assumed to be one. The contents are as follows: -IEEE 1451 standards family number (0 for this standard) -TEDS class -Version number -Tuple length

has super-properties: teds ^dp
has domain: teds ^c
has range: uint8

teds id^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#tedsId

has super-properties: write teds response ^dp
has domain: write teds ^c

teds type^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#tedsType

has super-properties: read raw teds response ^dp, read teds response ^dp, update teds response ^dp, write raw teds response ^dp, write teds response ^dp
has domain: teds manager api ^c
has range: uint8

test time^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#testTime

Self-Test Time

has super-properties: meta teds ^dp, transducer channel teds ^dp
has domain: meta teds ^c
has range: float32

text based teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TextBasedTEDS

has super-properties: teds ^dp
has sub-properties: dir block ^dp, num lang ^dp, sub sum ^dp, x m l sum ^dp, x m l text ^dp
has domain: text based teds ^c
is also defined as: class

tim id^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#timId

The timId of specified TIM

has super-properties: command complete response ^dp, measurement update response ^dp, read data response ^dp, read raw teds response ^dp, read teds response ^dp, send command response ^dp, start command response ^dp, start read data response ^dp, start trigger response ^dp, start write data response ^dp, transducer discovery response ^dp, trigger response ^dp, update teds response ^dp, write data response ^dp, write raw teds response ^dp, write teds response ^dp
has domain: discovery api ^c; teds manager api ^c; transducer access api ^c; transducer manager api ^c
has range: uint16

tim ids^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#timIds

has super-properties: tim discovery response ^dp
has domain: discovery api ^c
has range: uint16 array

time src^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#timeSrc

Source for the time of sample

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: uint8

timestamp^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#timestamp

timestamp for the message

has super-properties: ncapmessage ^dp
has range: string

transducer channel status^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerChannelStatus

There are two types of status registers. Both are 32 bits wide. One register is called the Condition register. It may be read using the Read Status-Condition Register command. It contains the current state of the attributes being reported. The second register is the event register, and it is true if the condition register has been true since the last time the status-event register was cleared. It may be read using the Read Status-Event Register command. Some bits in the status-event register represent actual events, such as command errors. In this case, the condition register should always be zero for that bit, as the model would show that the condition occurred and was immediately cleared. Both Status registers shall be implemented for the TIM and for each implemented TransducerChannel in a TIM. The returned status-event for the TIM represents the state of the TIM as a whole. In many cases, a bit in the TIM status-event represents the logical OR of corresponding bits in all implemented TransducerChannels. Each bit in the status-event register represents the presence or absence of a particular event occurrence. A one in the appropriate bit position shall represent the presence of a condition or that an event has occurred since status was last read or cleared. Each status-event register is used in conjunction with an associated service request mask to control which status bits will be used to generate a service request. Status bits defined by this standard. Some status bits are reserved for future versions of this standard. Some bits are optional, and the TIM manufacturer may choose not to implement them. Bits designated as “open to manufacturers” may be used to report conditions not represented by bits that are already defined. New bit definitions in the TIM status-event registers shall reflect conditions within the TIM as a whole. Status bits labeled “reserved,” and unimplemented “optional” and “open to manufacturers” status bits, shall be reported as zero when read.

has domain: transducher channel status ^c
has range: octet or ({ "Busy" , "Command rejected" , "Corrections disabled" , "Data available/data processed" , "Data over range/under range" , "Data/event" , "Failed calibration" , "Failed self-test" , "Hardware error" , "Invalid command" , "Missed data/event" , "Not operational" , "Not-the-first-read-of-this-data-set" , "Reserved" , "Service request" , "TEDS changed" })

transducer channel teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerChannelTEDS

has super-properties: teds ^dp
has sub-properties: Direction angles ^dp, Event sensor options ^dp, act halt ^dp, buffered ^dp, cal key ^dp, chan type ^dp, data set ^dp, data xmit ^dp, directon ^dp, edge rpt ^dp, end of set ^dp, inPropDl ^dp, m range ^dp, out prop d ^dp, phy units ^dp, r delay t ^dp, r setup t ^dp, s period ^dp, sample ^dp, sampling ^dp, self test ^dp, t s error ^dp, test time ^dp, time src ^dp, update t ^dp, w setup t ^dp, warm up t ^dp
has domain: transducer channel teds ^c
is also defined as: class

transducer data^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerData

has super-properties: read data response ^dp
has domain: transducer access api ^c
has range: string array

transducer data^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#transducerData

has super-properties: measurement update response ^dp
has domain: transducer access api ^c
has range: string array

transducer discovery response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerDiscoveryResponse

has super-properties: api ^dp
has sub-properties: channel ids ^dp, error code ^dp, tim id ^dp, transducer names ^dp
has domain: discovery api ^c

transducer id^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#transducerId

The channelId of the specified TransducerChannelChannel

has super-properties: command complete response ^dp, measurement update response ^dp
has domain: transducer access api ^c
has range: uint16

transducer names^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransducerNames

has super-properties: transducer discovery response ^dp
has domain: discovery api ^c
has range: string array

transfer function teds^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TransferFunctionTEDS

has super-properties: teds ^dp
has sub-properties: c r slop ^dp, complex p ^dp, complex p f ^dp, complex p q ^dp, complex z ^dp, complex z f ^dp, complex z q ^dp, d coeff ^dp, depend p ^dp, depend z ^dp, n coeff ^dp, one pole ^dp, one z z pol ^dp, one zero ^dp, pole zero ^dp, ref freq ^dp, sample t ^dp, zero pole ^dp
has domain: transfer function teds ^c
is also defined as: class

trigger response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#TriggerResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, tim id ^dp
has domain: transducer manager api ^c

unit^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#unit

Unit

has super-properties: ncapmessage ^dp
has range: string

unit type^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#unitType

Physical Units interpretation enumeration

has super-properties: phy units ^dp
has range: uint8

units ext^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#unitsExt

TEDS access code for units extension

has super-properties: phy units ^dp
has range: uint8

update t^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#updateT

TransducerChannel update time

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

update teds response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#UpdateTEDSResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, teds type ^dp, tim id ^dp
has domain: teds manager api ^c

UsersTransducerNameTEDS^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#User'sTransducerNameTEDS

has super-properties: teds ^dp
has sub-properties: format ^dp, t c name ^dp
has domain: UsersTransducerNameTEDS ^c
is also defined as: class

uuid^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#uuid

has super-properties: meta teds ^dp
has domain: meta teds ^c
has range

v group^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#vGroup

This field is required for TIMs that implement VectorGroups. This field is omitted if no VectorGroups exist in this transducer module. VectorGroups identify the relationships between the data sets within a transducer module as shown in Table 45. The VectorGroup definition is a hierarchical structure with the following subfields: Group type Member list In Table 45, the Enumeration column contains the value that will be placed in the group type field to identify the particular VectorGroup that is being defined. The function column defines the function of each TransducerChannel in the group. The member list is a list of the TransducerChannel numbers for the Transducers that perform each function. The numbers in the member list order column define the order in which the TransducerChannel numbers shall be listed. The member list is an ordered array, and no elements may be omitted. If a TransducerChannel is not required, then the TransducerChannel number for that function shall be zero.

has super-properties: meta teds ^dp
has sub-properties: grp type ^dp, mem list ^dp
has domain: meta teds ^c
has range: uint16 array

value^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#value

has super-properties: ncapmessage ^dp
has range: float32

w setup t^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#wSetupT

TransducerChannel write setup time

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

warm up t^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#warmUpT

ransducerChannel warm-up time

has super-properties: transducer channel teds ^dp
has domain: transducer channel teds ^c
has range: float32

write data response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#WriteDataResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, tim id ^dp
has domain: transducer access api ^c

write raw teds response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#WriteRawTEDSResponse

has super-properties: api ^dp
has sub-properties: channel id ^dp, error code ^dp, teds type ^dp, tim id ^dp
has domain: teds manager api ^c

write teds response^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#WriteTEDSResponse

has super-properties: api ^dp
has sub-properties: error code ^dp, teds id ^dp, teds type ^dp, tim id ^dp
has domain: teds manager api ^c

x m l sum^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#XMLSum

Text block checksum

has super-properties: text based teds ^dp
has domain: text based teds ^c
has range: uint16

x m l text^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#XMLText

This field is required. If this field is omitted, the NCAP shall report a fatal TEDS error. This field contains the information to be displayed by an XML-savvy application. A proposed schema for all text-based TEDS used in IEEE Std 1451.2-1997 or described in this standard.

has super-properties: text based teds ^dp
has domain: text based teds ^c
has range: string

xdr blk^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#xdrBlk

This field is required if the general conversion method is used. This field and field 22 or field 20 shall be provided. If field 20 or 21 and 22 are not provided, the NCAP shall report a fatal TEDS error. If field type 20 is included, fields 21 and 22 shall be omitted. This field describes all of the constants except the calibration coefficients required for a single TransducerChannel that is part of the correction process. It consists of the following subfields: Element number Correction input TransducerChannel Correction input TransducerChannel key TransducerChannel degree Segment boundary values table Segment offset values table If multiple TransducerChannels provide inputs to the correction process for the TransducerChannel to which this Calibration TEDSapplies, then each of these input TransducerChannels shall have a TransducerChannel Description in this Calibration TEDS.

has super-properties: calibration teds ^dp
has domain: calibration teds ^c
has range: uint8

zero pole^dp back to ToC or Data Property ToC

IRI: http://www.iml.ubi.pt/2022/ieee1451#zeroPole

Single zero with a dependant pole

has super-properties: transfer function teds ^dp
has domain: transfer function teds ^c
has range: float32

Legend back to ToC

^c: Classes
^op: Object Properties
^dp: Data Properties

!--REFERENCES SECTION-->

References back to ToC

da Rocha, Helbert, Antonio Espirito-Santo, and Reza Abrishambaf. "Semantic interoperability in the industry 4.0 using the IEEE 1451 standard." IECON 2020 The 46th Annual Conference of the IEEE Industrial Electronics Society. IEEE, 2020.

Acknowledgments back to ToC

Developed by IML Laboratory-2022, supported by Project “INDTECH 4.0 – New Technologies for Intelligent Foundation”, project grant No. POCI-01-0247-FEDER-026653

The authors would like to thank Silvio Peroni for developing LODE, a Live OWL Documentation Environment and Daniel Garijo for developing Widoco

IEEE1451 Family of Standards Ontology

Release 10/07/2023

Abstract

Introduction back to ToC

Namespace declarations

IEEE1451 Family of Standards Ontology: Overview back to ToC

Classes

Object Properties

Data Properties

IEEE1451 Family of Standards Ontology: Description back to ToC

Cross-reference for IEEE1451 Family of Standards Ontology classes, object properties and data properties back to ToC

Classes

apic back to ToC or Class ToC

activec back to ToC or Class ToC

actuatorc back to ToC or Class ToC

addressc back to ToC or Class ToC

address group addressc back to ToC or Class ToC

analog event sensorc back to ToC or Class ToC

any statec back to ToC or Class ToC

binary addressc back to ToC or Class ToC

bit mapped addressc back to ToC or Class ToC

buffered operation modec back to ToC or Class ToC

calibration identification tedsc back to ToC or Class ToC

calibration tedsc back to ToC or Class ToC

clear status event registerc back to ToC or Class ToC

commandc back to ToC or Class ToC

command classc back to ToC or Class ToC

command completec back to ToC or Class ToC

command dependentc back to ToC or Class ToC

command functionc back to ToC or Class ToC

command tedsc back to ToC or Class ToC

commands tedsc back to ToC or Class ToC

common cmdc back to ToC or Class ToC

continous sampling event sensorc back to ToC or Class ToC

continous sampling modec back to ToC or Class ToC

control groupsc back to ToC or Class ToC

data transmission modec back to ToC or Class ToC

data typesc back to ToC or Class ToC

digital event sensorc back to ToC or Class ToC

discovery apic back to ToC or Class ToC

embededc back to ToC or Class ToC

end user application specific tedsc back to ToC or Class ToC

error codec back to ToC or Class ToC

error code sourcec back to ToC or Class ToC

event sensorc back to ToC or Class ToC

event sensor outputc back to ToC or Class ToC

event sensor statusc back to ToC or Class ToC

event timec back to ToC or Class ToC

free running with pre triggerc back to ToC or Class ToC

free running with pre trigger and with buffes enabledc back to ToC or Class ToC

free running with pre trigger without buffer enabledc back to ToC or Class ToC

free running without pre triggerc back to ToC or Class ToC

frequency response tedsc back to ToC or Class ToC

geographic location tedsc back to ToC or Class ToC

globalc back to ToC or Class ToC

groupc back to ToC or Class ToC

ieee1451 base portc back to ToC or Class ToC

ieee1451 base publisher portc back to ToC or Class ToC

ieee1451 base transducer blockc back to ToC or Class ToC

ieee1451 blockc back to ToC or Class ToC

ieee1451 compomentc back to ToC or Class ToC

ieee1451 dot2 transducer blockc back to ToC or Class ToC

ieee1451 entityc back to ToC or Class ToC

ieee1451 ncapblockc back to ToC or Class ToC

ieee1451 parameterc back to ToC or Class ToC

ieee1451 parameter with updatec back to ToC or Class ToC

ieee1451 physical parameterc back to ToC or Class ToC

ieee1451 publisher portc back to ToC or Class ToC

ieee1451 rootc back to ToC or Class ToC

ieee1451 scalar parameterc back to ToC or Class ToC

ieee1451 servicec back to ToC or Class ToC

ieee1451 subscriber portc back to ToC or Class ToC

ieee1451 transducer blockc back to ToC or Class ToC

ieee1451.5c back to ToC or Class ToC

idle operation statec back to ToC or Class ToC

IEEE1451c back to ToC or Class ToC

IEEE1451.0c back to ToC or Class ToC

IEEE1451.1c back to ToC or Class ToC

immediate operationc back to ToC or Class ToC

initializate operation statec back to ToC or Class ToC

api^c back to ToC or Class ToC

active^c back to ToC or Class ToC

actuator^c back to ToC or Class ToC

address^c back to ToC or Class ToC

address group address^c back to ToC or Class ToC

analog event sensor^c back to ToC or Class ToC

any state^c back to ToC or Class ToC

binary address^c back to ToC or Class ToC

bit mapped address^c back to ToC or Class ToC

buffered operation mode^c back to ToC or Class ToC

calibration identification teds^c back to ToC or Class ToC

calibration teds^c back to ToC or Class ToC

clear status event register^c back to ToC or Class ToC

command^c back to ToC or Class ToC

command class^c back to ToC or Class ToC

command complete^c back to ToC or Class ToC

command dependent^c back to ToC or Class ToC

command function^c back to ToC or Class ToC

command teds^c back to ToC or Class ToC

commands teds^c back to ToC or Class ToC

common cmd^c back to ToC or Class ToC

continous sampling event sensor^c back to ToC or Class ToC

continous sampling mode^c back to ToC or Class ToC

control groups^c back to ToC or Class ToC

data transmission mode^c back to ToC or Class ToC

data types^c back to ToC or Class ToC

digital event sensor^c back to ToC or Class ToC

discovery api^c back to ToC or Class ToC

embeded^c back to ToC or Class ToC

end user application specific teds^c back to ToC or Class ToC

error code^c back to ToC or Class ToC

error code source^c back to ToC or Class ToC

event sensor^c back to ToC or Class ToC

event sensor output^c back to ToC or Class ToC

event sensor status^c back to ToC or Class ToC

event time^c back to ToC or Class ToC

free running with pre trigger^c back to ToC or Class ToC

free running with pre trigger and with buffes enabled^c back to ToC or Class ToC

free running with pre trigger without buffer enabled^c back to ToC or Class ToC

free running without pre trigger^c back to ToC or Class ToC

frequency response teds^c back to ToC or Class ToC

geographic location teds^c back to ToC or Class ToC

global^c back to ToC or Class ToC

group^c back to ToC or Class ToC

ieee1451 base port^c back to ToC or Class ToC

ieee1451 base publisher port^c back to ToC or Class ToC

ieee1451 base transducer block^c back to ToC or Class ToC

ieee1451 block^c back to ToC or Class ToC

ieee1451 compoment^c back to ToC or Class ToC

ieee1451 dot2 transducer block^c back to ToC or Class ToC

ieee1451 entity^c back to ToC or Class ToC

ieee1451 ncapblock^c back to ToC or Class ToC

ieee1451 parameter^c back to ToC or Class ToC

ieee1451 parameter with update^c back to ToC or Class ToC

ieee1451 physical parameter^c back to ToC or Class ToC

ieee1451 publisher port^c back to ToC or Class ToC

ieee1451 root^c back to ToC or Class ToC

ieee1451 scalar parameter^c back to ToC or Class ToC

ieee1451 service^c back to ToC or Class ToC

ieee1451 subscriber port^c back to ToC or Class ToC

ieee1451 transducer block^c back to ToC or Class ToC

ieee1451.5^c back to ToC or Class ToC

idle operation state^c back to ToC or Class ToC

IEEE1451^c back to ToC or Class ToC

IEEE1451.0^c back to ToC or Class ToC

IEEE1451.1^c back to ToC or Class ToC

immediate operation^c back to ToC or Class ToC

initializate operation state^c back to ToC or Class ToC

initialization^c back to ToC or Class ToC

location and title teds^c back to ToC or Class ToC

manufacture defined teds^c back to ToC or Class ToC

measurement update^c back to ToC or Class ToC

message^c back to ToC or Class ToC

meta identification teds^c back to ToC or Class ToC

meta teds^c back to ToC or Class ToC

ncap^c back to ToC or Class ToC

ncapmessage^c back to ToC or Class ToC

only when command mode^c back to ToC or Class ToC

operate operation state^c back to ToC or Class ToC

operation states^c back to ToC or Class ToC