mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting damage to a gas turbine engine, the method comprising: observing a thermal response of the gas turbine engine during a thermal transition occurring when the gas turbine engine transitions between an elevated temperature and a lesser temperature, wherein observing the thermal response is performed by an environmental capture device of a robotic assembly, wherein the environmental capture device is coupled to a platform of the robotic assembly that is configured to move through an environment containing the gas turbine engine, the platform being an autonomous or semi-autonomous platform; determining potential damage to the gas turbine engine based on the observed thermal response of the gas turbine engine; and generating an action in response to the determined potential damage to the gas turbine engine wherein determining the potential damage to the gas turbine engine comprises: determining one or more thermal gradients in the gas turbine engine during a cooling duration; comparing the one or more thermal gradients with one or more predetermined thermal gradient margins; and determining when the one or more thermal gradients is outside of the one or more predetermined thermal gradient margins. observing a thermal response of the gas turbine engine during a thermal transition occurring when the gas turbine engine transitions between an elevated temperature and a lesser temperature, wherein observing the thermal response is performed by an environmental capture device of a robotic assembly, wherein the environmental capture device is coupled to a platform of the robotic assembly that is configured to move through an environment containing the gas turbine engine, the platform being an autonomous or semi-autonomous platform; determining potential damage to the gas turbine engine based on the observed thermal response of the gas turbine engine; and generating an action in response to the determined potential damage to the gas turbine engine wherein determining the potential damage to the gas turbine engine comprises: determining one or more thermal gradients in the gas turbine engine during a cooling duration; comparing the one or more thermal gradients with one or more predetermined thermal gradient margins; and determining when the one or more thermal gradients is outside of the one or more predetermined thermal gradient margins. determining one or more thermal gradients in the gas turbine engine during a cooling duration; comparing the one or more thermal gradients with one or more predetermined thermal gradient margins; and determining when the one or more thermal gradients is outside of the one or more predetermined thermal gradient margins.
Pump group of a cooling circuit of a vehicle, comprising: - a valve group suitable to regulate the passage of a predefined quantity of cooling liquid in the cooling circuit; - a pump body having a housing compartment in which said valve group is extractably insertable; - an impeller that aspirates cooling liquid through an aspiration section and sends said cooling liquid under pressure to a delivery channel comprised in the pump body suitable to be fluidly connected to the cooling circuit; wherein the housing compartment is formed transversely to the delivery channel identifying, upstream of the valve group, at least one inlet delivery channel and, downstream of the valve group, outlet delivery channels; the pump group being characterized by the fact that the valve group extends along a main axis (Y-Y) and comprises: - an obturator group rotatable about said axis main (Y-Y), wherein the obturator group comprises a plurality of active portions, separated from each other, arranged axially side by side along the main axis (Y-Y) commandable in rotation, wherein the consecutive active portions (311, 312) are positioned angularly offset from each other with respect to said main axis (Y-Y), wherein the rotation of each active portion (311, 312) corresponds to the regulation of the passage of the cooling fluid towards a respective channel of the cooling system through the respective outlet delivery channel (621, 622); - at least one separation wall located between two consecutive active portions (311, 312) suitable to axially divide the intern of the valve group in distinct ducts, in such a way to divide predefined quantities of cooling liquid towards each active portion (311, 312). - a valve group suitable to regulate the passage of a predefined quantity of cooling liquid in the cooling circuit; - a pump body having a housing compartment in which said valve group is extractably insertable; - an impeller that aspirates cooling liquid through an aspiration section and sends said cooling liquid under pressure to a delivery channel comprised in the pump body suitable to be fluidly connected to the cooling circuit; - an obturator group rotatable about said axis main (Y-Y), wherein the obturator group comprises a plurality of active portions, separated from each other, arranged axially side by side along the main axis (Y-Y) commandable in rotation, wherein the consecutive active portions (311, 312) are positioned angularly offset from each other with respect to said main axis (Y-Y), wherein the rotation of each active portion (311, 312) corresponds to the regulation of the passage of the cooling fluid towards a respective channel of the cooling system through the respective outlet delivery channel (621, 622); - at least one separation wall located between two consecutive active portions (311, 312) suitable to axially divide the intern of the valve group in distinct ducts, in such a way to divide predefined quantities of cooling liquid towards each active portion (311, 312).
A wireless device (104 2) configured to communicate with a Radio Access Network, RAN, node (102 2) and a Core Network, CN, node, the wireless device comprising: a processor (118 2); and, a memory (120 2) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the wireless device is configured to receive, from the RAN node, control channels prior to accessing the RAN node; to estimate a downlink radio condition experienced by the wireless device based on a signal quality of the received control channels; to map the estimated downlink radio condition to one of a plurality of downlink Radio Coverage Category, RCC, values; to map the one downlink RCC value to a number of repeated downlink transmissions; to transmit, to the RAN node, a first message including the one downlink RCC value; and to receive, from the RAN node, a second message having the number of repeated downlink transmissions based on the one downlink RCC value, wherein the wireless device is characterized to transmit, toward the CN node, an updated downlink RCC value in a cell update, wherein the updated downlink RCC value is estimated at a predetermined time prior to a next occurrence of a paging group. a processor (118 2); and, a memory (120 2) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the wireless device is configured to receive, from the RAN node, control channels prior to accessing the RAN node; to estimate a downlink radio condition experienced by the wireless device based on a signal quality of the received control channels; to map the estimated downlink radio condition to one of a plurality of downlink Radio Coverage Category, RCC, values; to map the one downlink RCC value to a number of repeated downlink transmissions; to transmit, to the RAN node, a first message including the one downlink RCC value; and to receive, from the RAN node, a second message having the number of repeated downlink transmissions based on the one downlink RCC value, wherein the wireless device is characterized to transmit, toward the CN node, an updated downlink RCC value in a cell update, wherein the updated downlink RCC value is estimated at a predetermined time prior to a next occurrence of a paging group.
Machine for supplying containers, which comprises the following: • a hopper configured to contain a plurality of containers arranged randomly; • a transfer station; and • a first elevator that has first horizontal blades longitudinally, each of said first blades being configured to collect a first container from the hopper and lift the same in a horizontal position to the transfer station; and • a second elevator, parallel to the first elevator, that has second horizontal blades longitudinally, each of said second blades being configured to collect a second container from the hopper and lift the same in a horizontal position to the transfer station; said machine being characterized in that it comprises: • an alignment station configured to receive the first and second containers coming from the transfer station in a transverse position to the forward direction of said containers (101, 102), and supply the same horizontally in an aligned manner. • a hopper configured to contain a plurality of containers arranged randomly; • a transfer station; and • a first elevator that has first horizontal blades longitudinally, each of said first blades being configured to collect a first container from the hopper and lift the same in a horizontal position to the transfer station; and • a second elevator, parallel to the first elevator, that has second horizontal blades longitudinally, each of said second blades being configured to collect a second container from the hopper and lift the same in a horizontal position to the transfer station; • an alignment station configured to receive the first and second containers coming from the transfer station in a transverse position to the forward direction of said containers (101, 102), and supply the same horizontally in an aligned manner.
A method of providing data relating to an electrical device to a client device having a pixel resolution, comprising: receiving raw waveform data generated by a metering device in response to an event related to operation of the electrical device, the raw waveform data having a total number of data points and a waveform cycle time associated therewith; determining whether the raw waveform data should be decimated based on the total number of data points and the pixel resolution; responsive to determining that the raw waveform data should be decimated, determining a decimation interval using the pixel resolution and the waveform cycle time using the following formula: 1/(the pixel resolution/(the waveform cycle time * 2)), and generating decimated waveform data from the raw waveform data by, for each successive decimation interval of the raw waveform data from time zero and to the waveform cycle time, querying all data points in the subject decimation interval and determining and storing the maximum data point value in the interval, the minimum data point in the interval, and the corresponding times of these maximum and minimum data points; and sending the decimated waveform data to the client device. receiving raw waveform data generated by a metering device in response to an event related to operation of the electrical device, the raw waveform data having a total number of data points and a waveform cycle time associated therewith; determining whether the raw waveform data should be decimated based on the total number of data points and the pixel resolution; responsive to determining that the raw waveform data should be decimated, determining a decimation interval using the pixel resolution and the waveform cycle time using the following formula: 1/(the pixel resolution/(the waveform cycle time * 2)), and generating decimated waveform data from the raw waveform data by, for each successive decimation interval of the raw waveform data from time zero and to the waveform cycle time, querying all data points in the subject decimation interval and determining and storing the maximum data point value in the interval, the minimum data point in the interval, and the corresponding times of these maximum and minimum data points; and sending the decimated waveform data to the client device.
A method for service differentiation in a network sharing architecture for a mobile network wherein an Access Network AN is shared by different Service Providers SPs, said method comprising at least one step based on an identification of an SP by an SP identity that does not require this SP to own a PLMN-ld, for service differentiation in said AN, characterized by said SP identity being determined based on PCRF policies.
An integrated circuit device comprising: a first central processing unit including a digital signal processing engine; a plurality of contexts, each context comprising a CPU context comprising a plurality of registers (210, 214) and a DSP context, wherein the DSP context comprises control bits and a plurality of DSP registers (214, 220, 222, 230-240, 254, 256), characterized in that after a reset of the integrated circuit device the control bits of all DSP contexts are linked together such that data written to the control bits of a first active DSP context is written to respective control bits of all other DSP contexts and only after a context switch to one of the other DSP contexts and a modification of at least one of the control bits of the one of the other DSP contexts, the control bits of the one of the other DSP contexts is severed from a link to form independent control bits of a new active DSP context. a first central processing unit including a digital signal processing engine; a plurality of contexts, each context comprising a CPU context comprising a plurality of registers (210, 214) and a DSP context, wherein the DSP context comprises control bits and a plurality of DSP registers (214, 220, 222, 230-240, 254, 256), characterized in that after a reset of the integrated circuit device the control bits of all DSP contexts are linked together such that data written to the control bits of a first active DSP context is written to respective control bits of all other DSP contexts and only after a context switch to one of the other DSP contexts and a modification of at least one of the control bits of the one of the other DSP contexts, the control bits of the one of the other DSP contexts is severed from a link to form independent control bits of a new active DSP context.
A delivery system for local drug delivery to a target site of internal body tissue, comprising: a source electrode, wherein the source electrode comprises an array of probes terminating at different lengths and being independently powered such that the probes are capable of being variably controlled and adapted to be positioned proximate to a target site of internal body tissue, the source electrode further comprising a plurality of insulating members disposed about and between the array of probes so as to form cargo delivery zones and further comprising a patch member; a counter electrode in electrical communication with the source electrode, the counter electrode being configured to cooperate with the source electrode to form a localized electric field proximate to the target site, further wherein the counter electrode includes an ion selective membrane disposed at least partially thereabout for limiting interference of non-cargo ions with the cargo to be delivered to the target site; and a reservoir capable of interacting with the localized electric field, the reservoir being configured to carry a cargo capable of being delivered to the target site when exposed to the localized electric field formed between the source electrode and the counter electrode, further wherein the reservoir is remotely disposed from the source electrode, the reservoir and the source electrode being in fluid communication via a hollow conduit member to facilitate transfer of the cargo from the reservoir proximate to the source electrode. a source electrode, wherein the source electrode comprises an array of probes terminating at different lengths and being independently powered such that the probes are capable of being variably controlled and adapted to be positioned proximate to a target site of internal body tissue, the source electrode further comprising a plurality of insulating members disposed about and between the array of probes so as to form cargo delivery zones and further comprising a patch member; a counter electrode in electrical communication with the source electrode, the counter electrode being configured to cooperate with the source electrode to form a localized electric field proximate to the target site, further wherein the counter electrode includes an ion selective membrane disposed at least partially thereabout for limiting interference of non-cargo ions with the cargo to be delivered to the target site; and a reservoir capable of interacting with the localized electric field, the reservoir being configured to carry a cargo capable of being delivered to the target site when exposed to the localized electric field formed between the source electrode and the counter electrode, further wherein the reservoir is remotely disposed from the source electrode, the reservoir and the source electrode being in fluid communication via a hollow conduit member to facilitate transfer of the cargo from the reservoir proximate to the source electrode.
Hydraulically actuated working device having a hydraulic cylinder, a hydraulic piston which can be moved in the hydraulic cylinder, a drive device part which has a motor and a pump, and a hydraulic line leading to the hydraulic cylinder, wherein the drive device part forms a handle region, wherein a working head of the working device adjoins the working device part, characterised in that the handle region is separated from the working head by a radial collar consisting of electrically non-conductive material, which projects radially beyond the handle region or is separated from the working head by an axially extending tapered region adjoining the handle region on the working head side, wherein a radial projection protrusion (v) and an axial level of extension (e) of the tapered region correspond to a finger thickness or more and the tapering region is bounded at one end by the drive device part and axially at the other end by an electrically insulated radial portion of a wall section of the working head or the radial collar.
A method for predicting a deadlock situation for an automated vehicle, the deadlock situation being an exceptional traffic situation necessitating a change of an operational mode of the vehicle, the method comprising obtaining information related to a historical deadlock situation cause; determining historical context information for the historical deadlock situation cause; determining information indicative for the deadlock situation cause based on the information related to the historical context information; monitoring actual context information for information indicative for the deadlock situation; and predicting the deadlock situation based on the information indicative for the deadlock situation in the actual context information. obtaining information related to a historical deadlock situation cause; determining historical context information for the historical deadlock situation cause; determining information indicative for the deadlock situation cause based on the information related to the historical context information; monitoring actual context information for information indicative for the deadlock situation; and predicting the deadlock situation based on the information indicative for the deadlock situation in the actual context information.
A stacked inductance apparatus, comprising: a first layer including a first layer wire element extending around a center axis; a second layer including a second layer wire element comprising first and second wire sections (540, 545) disposed in parallel extending around the center axis, wherein the first wire section is configured to form a primary turn winding together with the first layer wire element; and a third layer including a third layer wire element extending around the center axis, the third layer wire element configured to form a secondary turn winding together with the second wire section of the second layer wire element, wherein the secondary turn winding is partially overlapping in a direction parallel to the center axis with the primary turn winding via the second wire section of the second layer wire element. a first layer including a first layer wire element extending around a center axis; a second layer including a second layer wire element comprising first and second wire sections (540, 545) disposed in parallel extending around the center axis, wherein the first wire section is configured to form a primary turn winding together with the first layer wire element; and a third layer including a third layer wire element extending around the center axis, the third layer wire element configured to form a secondary turn winding together with the second wire section of the second layer wire element, wherein the secondary turn winding is partially overlapping in a direction parallel to the center axis with the primary turn winding via the second wire section of the second layer wire element.
A method of maintaining a pipette tip column in a wet state, comprising the steps of: a) providing a pipette tip column, wherein the column comprises a packed bed of gel resin beads, and wherein at least 99% of the interstitial space is occupied by a water miscible solvent with a boiling point greater than 100°C; wherein the pipette tip comprises: i) a pipette tip column body having an open upper end, an open lower end, and an open channel between the upper and lower end of the column body; ii) a bottom frit bonded to and extending across the open channel; iii) a top frit bonded to and extending across the open channel between the bottom frit and the open upper end of the column body, wherein the top frit, bottom frit, and column body define a media chamber; iv) the packed bed of gel resin beads positioned inside the media chamber, b) storing the column so that it is open to ambient temperature, air pressure and humidity. a) providing a pipette tip column, wherein the column comprises a packed bed of gel resin beads, and wherein at least 99% of the interstitial space is occupied by a water miscible solvent with a boiling point greater than 100°C; wherein the pipette tip comprises: i) a pipette tip column body having an open upper end, an open lower end, and an open channel between the upper and lower end of the column body; ii) a bottom frit bonded to and extending across the open channel; iii) a top frit bonded to and extending across the open channel between the bottom frit and the open upper end of the column body, wherein the top frit, bottom frit, and column body define a media chamber; iv) the packed bed of gel resin beads positioned inside the media chamber, i) a pipette tip column body having an open upper end, an open lower end, and an open channel between the upper and lower end of the column body; ii) a bottom frit bonded to and extending across the open channel; iii) a top frit bonded to and extending across the open channel between the bottom frit and the open upper end of the column body, wherein the top frit, bottom frit, and column body define a media chamber; iv) the packed bed of gel resin beads positioned inside the media chamber, b) storing the column so that it is open to ambient temperature, air pressure and humidity.