mhurhangee/ep-ind-claims huggingface dataset:
A method of defining a search term in a viewer interface displayed on a display screen, the method comprising: displaying a first wheel of a plurality of characters (URAEI) in a display area of the viewer interface, the viewer interface including a further display area to display at least a portion of the search term (STAR), the further display area intersecting the display area at an intersection; based on an input of a directional key from a viewer, positioning a character of the first wheel of plurality of characters in the intersection of the display area with the further display area; based on the positioned character, selecting and displaying a second wheel of a plurality of characters in another display area adjacent to the display area, each of the plurality of characters of the second wheel being displayed as a predicted character available for following the positioned character within the search term; said plurality of characters of the second wheel being based on an algorithmic analysis of the preceding letter frequency and in conjunction with subsequential letter frequency in the terms stored in a dictionary; and in response to a selection of the character by the viewer, indicating the character as included in at least the portion of the search term within the further display area. displaying a first wheel of a plurality of characters (URAEI) in a display area of the viewer interface, the viewer interface including a further display area to display at least a portion of the search term (STAR), the further display area intersecting the display area at an intersection; based on an input of a directional key from a viewer, positioning a character of the first wheel of plurality of characters in the intersection of the display area with the further display area; based on the positioned character, selecting and displaying a second wheel of a plurality of characters in another display area adjacent to the display area, each of the plurality of characters of the second wheel being displayed as a predicted character available for following the positioned character within the search term; said plurality of characters of the second wheel being based on an algorithmic analysis of the preceding letter frequency and in conjunction with subsequential letter frequency in the terms stored in a dictionary; and in response to a selection of the character by the viewer, indicating the character as included in at least the portion of the search term within the further display area.
A method for wireless communication at user equipment, UE, comprising: receiving a first uplink configured grant configuration corresponding to a first value of a control resource set pool index; receiving a second uplink configured grant configuration corresponding to a second value of the control resource set pool index different from the first value of the control resource set pool index; and transmitting a first uplink transmission during a first uplink grant occasion according to the first uplink configured grant configuration and a second uplink transmission during a second uplink grant occasion according to the second uplink configured grant configuration, wherein both the first uplink transmission and the second uplink transmission correspond to a same transport block and hybrid automatic repeat request identifier. receiving a first uplink configured grant configuration corresponding to a first value of a control resource set pool index; receiving a second uplink configured grant configuration corresponding to a second value of the control resource set pool index different from the first value of the control resource set pool index; and transmitting a first uplink transmission during a first uplink grant occasion according to the first uplink configured grant configuration and a second uplink transmission during a second uplink grant occasion according to the second uplink configured grant configuration, wherein both the first uplink transmission and the second uplink transmission correspond to a same transport block and hybrid automatic repeat request identifier.
A computing system comprising a processor; a floating point unit (4, 14) and an integer unit within said processor, a translator unit arranged to receive subject code instructions including at least one instruction relating to a floating point operation, and in response to generate corresponding target code for execution on said processor, a floating point status unit within the translator arranged to generate floating point status information according to the received subject code instructions; and a floating point control unit within the translator unit arranged to receive the floating point status information from the floating point status unit, and in response to control the translator unit to generate either: target code for performing the floating point operations on the floating point unit; or target code for performing the floating point operations using a combination of the integer unit and the floating point unit; said computing system being characterized in that: the floating point status unit is arranged to generate floating point status information in accordance with the characteristics of a data structure associated with a subject floating point unit at the start of a basic block of target code; and said floating point control unit generates said target code for the whole of the basic block in both cases. the floating point status unit is arranged to generate floating point status information in accordance with the characteristics of a data structure associated with a subject floating point unit at the start of a basic block of target code; and said floating point control unit generates said target code for the whole of the basic block in both cases.
Method for defining and performing a service of a process module from a multiplicity of possible services of the process module, wherein the process module is connected up to other process modules to form a process line in which a chemical or pharmaceutical process can be performed, wherein the service is a process engineering function of the process, wherein the process module receives module input signals and outputs module output signals, and wherein the process module has a control unit for components of the process module that together are responsible for performing the service, the method comprising: - providing a state diagram having at least two states, including an initial state and a final state, for the service; - providing a selection option for the states from the state diagram, - providing a list of components of the process module that, as sensors, provide component input signals and/or that, as actuators, react to component output signals; - generating a respective first table for each selected state, the first table indicating a cause/effect association between the component input signals that are possible for the selected state and the component output signals that are possible for the selected state; - generating a second table for the service by using each of the first tables, the second table indicating a cause/effect association between the module input signals and the module output signals; - generating computer code, which contains information about the service of the process module, by using the second table, the information indicating how communication with the process module takes place and how the service is performed by the control unit; and - driving, by means of a superordinate process control unit, the control unit of the process module to retrieve the service by using the information. - providing a state diagram having at least two states, including an initial state and a final state, for the service; - providing a selection option for the states from the state diagram, - providing a list of components of the process module that, as sensors, provide component input signals and/or that, as actuators, react to component output signals; - generating a respective first table for each selected state, the first table indicating a cause/effect association between the component input signals that are possible for the selected state and the component output signals that are possible for the selected state; - generating a second table for the service by using each of the first tables, the second table indicating a cause/effect association between the module input signals and the module output signals; - generating computer code, which contains information about the service of the process module, by using the second table, the information indicating how communication with the process module takes place and how the service is performed by the control unit; and - driving, by means of a superordinate process control unit, the control unit of the process module to retrieve the service by using the information.
A method of controlling a gateway regarding the communication flow to be processed through said gateway by modifying parameters or settings of the gateway, which describe and/or define the functionality of the gateway, according to a request, said gateway being assigned to a first communication network, in particular a mobile radio network, wherein the first communication network comprises a media plane with at least one communication channel to which the gateway is linked, and a control plane, with at least one signaling channel to which a control device in form of an IP Multimedia Subsystem,IMS, is linked, said control device, which is located inside the first communication network and cannot be addressed from outside the network, being adapted to controlling the gateway, said method being characterized by the following steps: - inside a receiver device which is part of a machine-to-machine, M2M, platform, which is assigned to the first communication network receiving a request for controlling the gateway, said request comprising information to change or modify the gateway, said request being received from an external third party device, which is not directly connected with the gateway or the provider or operator of the gateway, - by use of an influence device which is also part of the machine-to-machine, M2M, platform, an which considers and particularly analyses the request, influencing the control device according to the request, - controlling by the influenced control device the gateway regarding the communication flow to be processed through said gateway. - inside a receiver device which is part of a machine-to-machine, M2M, platform, which is assigned to the first communication network receiving a request for controlling the gateway, said request comprising information to change or modify the gateway, said request being received from an external third party device, which is not directly connected with the gateway or the provider or operator of the gateway, - by use of an influence device which is also part of the machine-to-machine, M2M, platform, an which considers and particularly analyses the request, influencing the control device according to the request, - controlling by the influenced control device the gateway regarding the communication flow to be processed through said gateway.
A method for TDD operation in a communication system, comprising. operating in TDD mode in a frequency band allocated for FDD operation characterised in that the step of operating in TDD mode comprises; operating in TDD downlink mode in a first frequency band allocated for FDD uplink communication, operating an auxiliary downlink channel in TDD downlink-only mode in a second frequency band allocated for FDD downlink communication, and employing common signalling to control the downlink resource provided in the first and second frequency bands as a combined single downlink resource pool. operating in TDD downlink mode in a first frequency band allocated for FDD uplink communication, operating an auxiliary downlink channel in TDD downlink-only mode in a second frequency band allocated for FDD downlink communication, and employing common signalling to control the downlink resource provided in the first and second frequency bands as a combined single downlink resource pool.
A method of inferring a risk of developing, a diagnosis of, a stage of, a prognosis of, a progression of, or a degree of response to a putative neuroprotective agent for a synucleinopathy, wherein the method comprises: a) determining, from a blood sample from a subject that is enriched for CNS-derived microsomal particles, an alpha-synuclein profile comprising quantitative measures of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein to create a test dataset; and b) executing a model on the test dataset to infer a risk of developing, a diagnosis of, a stage of, a prognosis of, a progression of, or a degree of response to a putative neuroprotective agent for the synucleinopathy, wherein the model is obtained by: providing a training dataset comprising, for each of a plurality of subjects, values indicating state of a synucleinopathy or response to putative neuroprotective agent for a synucleinopathy, and quantitative measures of amounts of each of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein in a blood sample enriched for CNS-derived microsomal particles; and performing a statistical analysis on the training dataset to develop a model that infers the state of the synucleinopathy in an individual. a) determining, from a blood sample from a subject that is enriched for CNS-derived microsomal particles, an alpha-synuclein profile comprising quantitative measures of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein to create a test dataset; and b) executing a model on the test dataset to infer a risk of developing, a diagnosis of, a stage of, a prognosis of, a progression of, or a degree of response to a putative neuroprotective agent for the synucleinopathy, wherein the model is obtained by: providing a training dataset comprising, for each of a plurality of subjects, values indicating state of a synucleinopathy or response to putative neuroprotective agent for a synucleinopathy, and quantitative measures of amounts of each of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein in a blood sample enriched for CNS-derived microsomal particles; and performing a statistical analysis on the training dataset to develop a model that infers the state of the synucleinopathy in an individual. providing a training dataset comprising, for each of a plurality of subjects, values indicating state of a synucleinopathy or response to putative neuroprotective agent for a synucleinopathy, and quantitative measures of amounts of each of one or more oligomeric forms of alpha-synuclein and, optionally, a monomeric form of alpha-synuclein in a blood sample enriched for CNS-derived microsomal particles; and performing a statistical analysis on the training dataset to develop a model that infers the state of the synucleinopathy in an individual.
A data transfer method performed by a first integrated circuit, IC, device, wherein the first IC device is configured to be communicatively coupled through a communication link to a second IC device, said communication link configurable for compatibility with a plurality of types of physical interfaces, the method comprising: determining a type of physical interface for use for communicating between the first IC device and the second IC device; selecting an encoder from at least two encoders that encode data in different manners to generate encoded data consistent with the type of physical interface to be used for communicating between the first IC device and the second IC device; configuring a plurality of drivers (714, 728) to receive the encoded data from the selected encoder and to drive a plurality of connectors communicatively coupling the first IC device and the second IC device in accordance with the type of physical interface to be used for communicating between the first device and the second IC device; and characterized by controlling a plurality of switches to couple outputs of the selected encoder to the plurality of drivers, wherein the plurality of switches is configurable for a plurality of modes of operation and wherein in a first mode of operation, the plurality of switches is configured such that the plurality of drivers operates as differential line drivers and in a second mode of operation, the plurality of switches is configured such that the plurality of drivers operates as M-wire N-phase line drivers. determining a type of physical interface for use for communicating between the first IC device and the second IC device; selecting an encoder from at least two encoders that encode data in different manners to generate encoded data consistent with the type of physical interface to be used for communicating between the first IC device and the second IC device; configuring a plurality of drivers (714, 728) to receive the encoded data from the selected encoder and to drive a plurality of connectors communicatively coupling the first IC device and the second IC device in accordance with the type of physical interface to be used for communicating between the first device and the second IC device; and characterized by controlling a plurality of switches to couple outputs of the selected encoder to the plurality of drivers, wherein the plurality of switches is configurable for a plurality of modes of operation and wherein in a first mode of operation, the plurality of switches is configured such that the plurality of drivers operates as differential line drivers and in a second mode of operation, the plurality of switches is configured such that the plurality of drivers operates as M-wire N-phase line drivers.
A method for establishing a Wi-Fi display, WFD, session by a non-Wi-Fi display, Non-WFD, device in a Wi-Fi display network, the method comprising: transmitting, by said Non-WFD device, an offline source request message to a WFD source device for offline participation as a source, wherein the Non-WFD device is a Wi-Fi device; receiving, by said Non-WFD device, a response to the offline source request message from said WFD source device, wherein the response to the offline source request message is positive if said WFD source device is in an existing WFD session with a WFD sink device (102a, 102b), and the response to the offline source request message is negative if said WFD source device is not in the existing WFD session; if the response is positive, initiating, by said Non-WFD device, exchange and negotiation of WFD offline capability for offline participation with said WFD source device, establishing, by said Non-WFD device, a WFD offline session with said WFD source device, participating as an offline WFD source of content to send content from the Non-WFD device to the WFD sink device (102a, 102b) via the WFD source device without tearing down the existing WFD session of the Wi-Fi Display network, and transmitting, by said Non-WFD device, content to the WFD source device based on the established WFD offline session, wherein the content is outputted by the WFD sink device (102a, 102b), thereby enabling the Non-WFD device to indirectly communicate with the WFD sink device (102a, 102b); and if the response is negative, terminating, by said Non-WFD device, communication with the WFD source device. transmitting, by said Non-WFD device, an offline source request message to a WFD source device for offline participation as a source, wherein the Non-WFD device is a Wi-Fi device; receiving, by said Non-WFD device, a response to the offline source request message from said WFD source device, wherein the response to the offline source request message is positive if said WFD source device is in an existing WFD session with a WFD sink device (102a, 102b), and the response to the offline source request message is negative if said WFD source device is not in the existing WFD session; if the response is positive, initiating, by said Non-WFD device, exchange and negotiation of WFD offline capability for offline participation with said WFD source device, establishing, by said Non-WFD device, a WFD offline session with said WFD source device, participating as an offline WFD source of content to send content from the Non-WFD device to the WFD sink device (102a, 102b) via the WFD source device without tearing down the existing WFD session of the Wi-Fi Display network, and transmitting, by said Non-WFD device, content to the WFD source device based on the established WFD offline session, wherein the content is outputted by the WFD sink device (102a, 102b), thereby enabling the Non-WFD device to indirectly communicate with the WFD sink device (102a, 102b); and if the response is negative, terminating, by said Non-WFD device, communication with the WFD source device.
A conductive adhesive composition comprising: (i) a thermosetting resin, (ii) optionally, a film-forming resin, (iii) a conductive filler, and (iv) a chain extended epoxy prepared from the reaction of a poly-functional phenol with a combination of a poly-functional aromatic epoxy and a poly-functional aliphatic epoxy, in which the poly-functional aromatic epoxy is selected from the group consisting of: and in which n and m are numerals denoting repeating units. (i) a thermosetting resin, (ii) optionally, a film-forming resin, (iii) a conductive filler, and (iv) a chain extended epoxy prepared from the reaction of a poly-functional phenol with a combination of a poly-functional aromatic epoxy and a poly-functional aliphatic epoxy, in which the poly-functional aromatic epoxy is selected from the group consisting of: and in which n and m are numerals denoting repeating units.
A method for handling packet traffic by an overlay network node (202, 204, 206, 800), comprising: receiving a data path notification message from a peer node, the data path notification message including forwarding policy information; receiving a packet, the packet having a first overlay network address destination; determining that the first overlay network address destination maps to a plurality of underlay network addresses; selecting one of the plurality of underlay network addresses in accordance with the received forwarding policy information; and forwarding the packet to the selected underlay network address. receiving a data path notification message from a peer node, the data path notification message including forwarding policy information; receiving a packet, the packet having a first overlay network address destination; determining that the first overlay network address destination maps to a plurality of underlay network addresses; selecting one of the plurality of underlay network addresses in accordance with the received forwarding policy information; and forwarding the packet to the selected underlay network address.