mhurhangee/ep-ind-claims huggingface dataset:
A method of managing power of an electronic device, the method comprising: obtaining operation information related to an operation from among operations performed by the electronic device, the operation being recognizable to a user via a product of hardware processing performed by hardware included in the electronic device; obtaining load information related to a load generated by the operation; and performing power management on the hardware included in the electronic device based on the operation information and the load information, wherein the operation information comprises a number of frames generated by the hardware per unit time, and wherein the performing of the power management comprises modifying an operating property of the hardware by adjusting at least one of an operating voltage and an operating frequency of the hardware, the method characterized by: the load information comprising a load type determined according to a type of an application being executed by the electronic device; the operation information comprising the number of frames generated by the hardware per unit time as a result of executing a graphics-related operation of the application, and wherein the power management is further performed according to the load type, wherein the load type determines whether the power management is focused more on performance or more on power consumption. obtaining operation information related to an operation from among operations performed by the electronic device, the operation being recognizable to a user via a product of hardware processing performed by hardware included in the electronic device; obtaining load information related to a load generated by the operation; and performing power management on the hardware included in the electronic device based on the operation information and the load information, wherein the operation information comprises a number of frames generated by the hardware per unit time, and wherein the performing of the power management comprises modifying an operating property of the hardware by adjusting at least one of an operating voltage and an operating frequency of the hardware, the method characterized by: the load information comprising a load type determined according to a type of an application being executed by the electronic device; the operation information comprising the number of frames generated by the hardware per unit time as a result of executing a graphics-related operation of the application, and wherein the power management is further performed according to the load type, the load information comprising a load type determined according to a type of an application being executed by the electronic device; the operation information comprising the number of frames generated by the hardware per unit time as a result of executing a graphics-related operation of the application, and wherein the power management is further performed according to the load type,
A composition comprising: (a) a source of sulfite; and (b) a lipase variant of a parent lipase, wherein said variant has improved stability in the presence of a source sulfite as compared to the parent lipase, wherein the composition comprises a set of substitutions selected from the group consisting of: N33K F51V E96V K98E E210K L259F; N33K F51V S85K K98E; N33K F51V K98E E210V; P250V; N33K F51V E87T K98E E210K I252W L259F; N33K F51V L93K K98E; S83T I86P G91A N92D E96L L97P K98Q; N33K F51V N92K K98E; N33K A40E F51V K98E; N33K F51V E87V K98E; Q15R N33K F51V K98E; N33K F51V E87L K98E; N33K F51V K98E L264P; N33K A40Q F51V K98E; N33K F51V K98E L264W; E210R; N33K F51V E56K L69R K98E I196V; Q4K N33K F51V K98E; N33K F51V G91T K98E; N33K A38L F51V K98E; V2K N33K F51V E56K L69R K98E V230R; N33K F51V G91V K98E; N33K F51V E56K L69R E96T K98E; N33K F51V K98E T189D; N33K F51V K98E R125Q; N33K A40I F51V K98E; N33K F51V K98E K223T; R27D A38G E96D A111D K163G S254D T256P; N33K F51V K98E R133Q; N33K F51V L69C K98E; N33K F51V G91A K98E; N33K F51V G91F K98E; N33K F51V K98E S216P; N33K A40G F51V K98E; N33K F51V K98E N251G; N33K F51V G91Y K98E; N33K F51V K98E V154L; G23S N33K F51V K98E; N33K F51V K98E R108K; E1H N33K F51V K98E; N33K F51V K98E S170T; G23T N33K F51V K98E; N33K F51V K98E T267V; N33K F51V K98E H135Y; N33K F51V K98E L269D; F51V E87K K98E E210Q L227G; N33K F51V K98E T267L; N33K F51V K98E R139M; R27D N33K F51V K98E; N33K F51V K98E N162G; N33K E210R; N33K F51V L69R E96V K98E E210K F211W; N33K F51V K98E N251G; R27D N33K F51V K98E; G23H N33K F51V K98E; N33K F51V E96T K98E E210K; N33K E87K; N33K F51V E96D K98E E210K; N33K F51V K98E L264E; N33K F51V L69R E96V K98E E210K F211W; N33K F51V E56K K98E K163P V176L E210K Y220F L227G; F51V E210K; V2K N33K F51V L227G; N33K F51V K98I; N33K F51V K98E E210K F211W L259F; F51V E56K L69R G91A N92D E96L K98Q; N33K F51V E56K L69R K98E I196V; F51V E96T K98E E210K; N33K F51V K98E E210K F211W I252W; F51V E87K K98I; N33K F51V K98E N101D K163P E210K; F51V N101D E210K; F51V E96D K98E E210K; N33K F51V K98E V176L E210K L227G; N33K F51V E96T K98E E210K F211W; N33K F51V E56K L69R E96D K98E; N33K F51V E56K L69R K98E T267L; N33K F51V K98E N101D; N33K F51V E56K L69R K98E A180D; N33K F51V E56K L69R E96D K98E; and N33K F51V E56K L69R K98E D165N.
An organic light emitting display (OLED) apparatus comprising: a reflective anode and a transparent cathode facing each other; a first stack including a first light-emitting layer between the reflective anode and the transparent cathode; a second stack including a second light-emitting layer between the first stack and the transparent cathode; a third stack including a third light-emitting layer between the second stack and the transparent cathode; a first charge generation layer between the first stack and the second stack; and a second charge generation layer between the second stack and the third stack, wherein a thickness of the first charge generation layer is larger than a thickness of the second charge generation layer, characterized in that the first charge generation layer includes a first N-type charge generation layer and a first P-type charge generation layer, and a thickness of the first N-type charge generation layer is larger than a thickness of the first P-type charge generation layer; and that the thickness of the first charge generation layer is 1.4 times to 1.6 times the thickness of the second charge generation layer. a reflective anode and a transparent cathode facing each other; a first stack including a first light-emitting layer between the reflective anode and the transparent cathode; a second stack including a second light-emitting layer between the first stack and the transparent cathode; a third stack including a third light-emitting layer between the second stack and the transparent cathode; a first charge generation layer between the first stack and the second stack; and a second charge generation layer between the second stack and the third stack, wherein a thickness of the first charge generation layer is larger than a thickness of the second charge generation layer, characterized in that the first charge generation layer includes a first N-type charge generation layer and a first P-type charge generation layer, and a thickness of the first N-type charge generation layer is larger than a thickness of the first P-type charge generation layer; and that the thickness of the first charge generation layer is 1.4 times to 1.6 times the thickness of the second charge generation layer.
A method of forming a random fiber web using a pneumatic fiber feeding system, the method comprising: providing a plurality of moveable apparatuses including a lickerin and a feeder, the lickerin configured to remove a plurality of fibers from a fibrous mat delivered to adjacent the lickerin by the feeder; doffing the plurality of fibers from the lickerin at a doffing location within the system; communicating an air supply to entrain the plurality of fibers with the air supply after the doffing; controlling the air supply within a flow path between the lickerin and a collector, wherein controlling the air supply within the flow path comprises a dynamic air control mechanism, and wherein the dynamic air control mechanism comprises an extended doffer bar rotatable within a chamber of the pneumatic fiber feeding system, and wherein rotation of the extended doffer bar causes the air supply to change from a first air flow pattern within the chamber to a second air flow pattern within the chamber; and collecting the plurality of fibers from the air supply on a collector to form the random fiber web. providing a plurality of moveable apparatuses including a lickerin and a feeder, the lickerin configured to remove a plurality of fibers from a fibrous mat delivered to adjacent the lickerin by the feeder; doffing the plurality of fibers from the lickerin at a doffing location within the system; communicating an air supply to entrain the plurality of fibers with the air supply after the doffing; controlling the air supply within a flow path between the lickerin and a collector, wherein controlling the air supply within the flow path comprises a dynamic air control mechanism, and wherein the dynamic air control mechanism comprises an extended doffer bar rotatable within a chamber of the pneumatic fiber feeding system, and wherein rotation of the extended doffer bar causes the air supply to change from a first air flow pattern within the chamber to a second air flow pattern within the chamber; and collecting the plurality of fibers from the air supply on a collector to form the random fiber web.
A harness protector (1, 1A) comprising: a protector body comprising a substantially tabular-shaped bottom-plate section on which a wire harness is placed and a substantially tabular-shaped holding plate section that is integrally and rotatably formed on one side of the bottom-plate section and crushes the wire harness into an oblate cross-section shape with the wire harness being interposed between the holding plate section and the bottom-plate section, and a tying band adapted to anchor the holding plate section onto the bottom-plate section in a state where the holding plate section crushes the wire harness into the oblate cross-section shape; characterized in that the holding plate section is provided with a first movement restraint projection that breaks into a contacting surface of the wire harness to thus restrain axial movement of the wire harness. a protector body comprising a substantially tabular-shaped bottom-plate section on which a wire harness is placed and a substantially tabular-shaped holding plate section that is integrally and rotatably formed on one side of the bottom-plate section and crushes the wire harness into an oblate cross-section shape with the wire harness being interposed between the holding plate section and the bottom-plate section, and a tying band adapted to anchor the holding plate section onto the bottom-plate section in a state where the holding plate section crushes the wire harness into the oblate cross-section shape; characterized in that the holding plate section is provided with a first movement restraint projection that breaks into a contacting surface of the wire harness to thus restrain axial movement of the wire harness.
Solid oxide electrolysis cell stack comprising a plurality of stacked cell units, each cell unit comprises a cell layer comprising an active cell area, and an interconnect layer comprising an interconnect, one interconnect layer separates one cell layer from the adjacent cell layer in the cell stack, each interconnect layer has a fuel side with at least one fuel inlet and a fuel inlet active cell area, and at least one fuel outlet and a fuel outlet active cell area and an oxy side; wherein the fuel inlet active cell area is at least 50% larger than the fuel outlet active cell area.
A receiver for receiving one or more Alamouti encoded first signals during a first transmission period and for receiving one or more Alamouti encoded second signals during a second transmission period. the first signals being based on a first symbol transmitted on a first transmit path during said first transmission period and a second symbol transmitted on a second transmit path during said first transmission period, the second signals being based on a third symbol (-S2*) transmitted on said first transmit path during said second transmission period and a fourth symbol (S1*) transmitted on said second transmit path during said second transmission period, whereby said first symbol and said fourth symbol (S1*) carry the same information, said second symbol and said third symbol (-S2*) carry the same information, the information carried by each of said first and fourth symbols (S1, S1*) corresponds to a first input symbol and the information carried by each of said second and third symbols (S2, -S2*) corresponds to a second input symbol, characterized by a decoder comprising a channel estimator adapted to determine whether said first and second signals are transmitted correctly, whereby. in case that both said first and said second signals are transmitted correctly, said decoder decodes said two input symbols (S1, S2) based on both said first and said second signals, and, otherwise based only on correctly received ones of said first signals. a first symbol transmitted on a first transmit path during said first transmission period and a second symbol transmitted on a second transmit path during said first transmission period, a third symbol (-S2*) transmitted on said first transmit path during said second transmission period and a fourth symbol (S1*) transmitted on said second transmit path during said second transmission period, whereby said first symbol and said fourth symbol (S1*) carry the same information, said second symbol and said third symbol (-S2*) carry the same information, the information carried by each of said first and fourth symbols (S1, S1*) corresponds to a first input symbol and the information carried by each of said second and third symbols (S2, -S2*) corresponds to a second input symbol, characterized by a decoder comprising a channel estimator adapted to determine whether said first and second signals are transmitted correctly, whereby. in case that both said first and said second signals are transmitted correctly, said decoder decodes said two input symbols (S1, S2) based on both said first and said second signals, and, otherwise based only on correctly received ones of said first signals.
A wireless telecommunications system comprising a first terminal device and a second terminal device operable to communicate with one another in a synchronised device-to-device manner, wherein the second terminal device is operable to selectively achieve synchronisation for communicating with the first terminal device using synchronisation signalling transmitted by the first terminal device or synchronisation signalling transmitted by another network entity operating in the wireless telecommunications system, wherein the first terminal device is configured to selectively transmit synchronisation signalling with a predefined characteristic to indicate the synchronisation signalling transmitted by the first terminal device is high priority synchronisation signalling and the second terminal device should seek to achieve synchronisation with the first terminal device using the high priority synchronisation signalling rather than synchronisation signalling transmitted by the other network entity, and wherein the second terminal device is configured to seek to achieve synchronisation using synchronisation signalling transmitted by the other network entity in preference to synchronisation signalling transmitted by the first terminal device, unless the second terminal device detects synchronisation signalling transmitted by the first terminal device is associated with a predefined characteristic which indicates the synchronisation signalling transmitted by the first terminal device is high priority synchronisation signalling, in which case the second terminal device is configured to seek to achieve synchronisation using synchronisation signalling transmitted by the first terminal device in preference to synchronisation signalling transmitted by the other network entity.
A monoepoxy compound represented by the following Formula: (wherein R 1 to R 6 are each independently selected from the group consisting of a hydrogen atom, an alkyl group, and an alkoxy group).
A method for communicating within a communication system (105, 155) that includes a plurality of communication channels operable to communicate bits of information in a high power mode of operation and operable to communicate bits of information in a low power mode of operation, characterized in that the method comprises, for the low power mode of operation, selectively allocating power to a channel in the plurality of communication channels based on channel use during the high power mode of operation of the respective channel, allocating, in the low power mode, the power to the channel to a minimized power so that a resulting signal-to-noise ratio is sufficient to monitor the noise in the channel, wherein in the high power mode the channel communicates bits of information and in the low power mode the channel does not communicate bits of information.
An electrical connector comprising: a connector body having mating and loading ends (104, 106) and being configured to receive a modular plug at the mating end; and a contact sub-assembly held by the connector body, the contact sub-assembly comprising an array of mating conductors configured to engage plug contacts of the modular plug at mating interfaces proximate to the mating end, the mating conductors transmitting a signal current along an interconnection path between the mating and loading ends (104, 106), the contact sub-assembly further comprising a plurality ofopen-ended conductors (233, 236, 241, 248) electrically connected to corresponding mating conductors, the open-ended conductors (233, 236, 241, 248) being electrically parallel to the interconnection path of the array of mating conductors and generating crosstalk compensation as the signal current is transmitted through the mating conductors, wherein the open-ended conductors (233, 236, 241, 248) include first and second open-ended conductors (236, 248), and characterised in that: the first open-ended conductor is electrically connected to a mating conductor proximate to the mating end; the second open-ended conductor is electrically connected to a mating conductor proximate to the loading end; and the first open-ended conductor is capacitively coupled to the second open-ended conductor. a connector body having mating and loading ends (104, 106) and being configured to receive a modular plug at the mating end; and a contact sub-assembly held by the connector body, the contact sub-assembly comprising an array of mating conductors configured to engage plug contacts of the modular plug at mating interfaces proximate to the mating end, the mating conductors transmitting a signal current along an interconnection path between the mating and loading ends (104, 106), the contact sub-assembly further comprising a plurality ofopen-ended conductors (233, 236, 241, 248) electrically connected to corresponding mating conductors, the open-ended conductors (233, 236, 241, 248) being electrically parallel to the interconnection path of the array of mating conductors and generating crosstalk compensation as the signal current is transmitted through the mating conductors, wherein the open-ended conductors (233, 236, 241, 248) include first and second open-ended conductors (236, 248), and characterised in that: the first open-ended conductor is electrically connected to a mating conductor proximate to the mating end; the second open-ended conductor is electrically connected to a mating conductor proximate to the loading end; and the first open-ended conductor is capacitively coupled to the second open-ended conductor. the first open-ended conductor is electrically connected to a mating conductor proximate to the mating end; the second open-ended conductor is electrically connected to a mating conductor proximate to the loading end; and the first open-ended conductor is capacitively coupled to the second open-ended conductor.
A system comprising: an auditory prosthesis configured to provide stimulation to a recipient to cause auditory percepts based on a current map; and one or more processors configured to: receive an indication from the recipient regarding a quality of stimulation; modify the current map based on the quality of stimulation; determining a difference between the modified current map and a target map; and responsive the difference failing to satisfy a threshold, generate a clinician event. an auditory prosthesis configured to provide stimulation to a recipient to cause auditory percepts based on a current map; and one or more processors configured to: receive an indication from the recipient regarding a quality of stimulation; modify the current map based on the quality of stimulation; determining a difference between the modified current map and a target map; and responsive the difference failing to satisfy a threshold, generate a clinician event. receive an indication from the recipient regarding a quality of stimulation; modify the current map based on the quality of stimulation; determining a difference between the modified current map and a target map; and responsive the difference failing to satisfy a threshold, generate a clinician event.
A method, comprising: determining a plurality of audio objects that are present in input audio content in one or more frames, wherein the plurality of audio objects comprises N objects audio objects, N objects > 2; determining a plurality of output clusters that are present in output audio content in the one or more frames, the plurality of audio objects in the input audio content being converted to the plurality of output clusters in the output audio content, wherein the plurality of output clusters comprises N clusters output clusters, N objects > N clusters > 1; and computing one or more spatial error metrics based at least in part on positional metadata of the plurality of audio objects and positional metadata of the plurality of output clusters, wherein the one or more spatial error metrics are at least in part dependent on object importance; wherein the method is performed by one or more computing devices. determining a plurality of audio objects that are present in input audio content in one or more frames, wherein the plurality of audio objects comprises N objects audio objects, N objects > 2; determining a plurality of output clusters that are present in output audio content in the one or more frames, the plurality of audio objects in the input audio content being converted to the plurality of output clusters in the output audio content, wherein the plurality of output clusters comprises N clusters output clusters, N objects > N clusters > 1; and computing one or more spatial error metrics based at least in part on positional metadata of the plurality of audio objects and positional metadata of the plurality of output clusters, wherein the one or more spatial error metrics are at least in part dependent on object importance; wherein the method is performed by one or more computing devices.