mhurhangee/ep-ind-claims huggingface dataset:
A node device for a wireless sensor network, comprising: - a receiver for receiving transmissions from other nodes in said wireless sensor network, - a controller configured to selectively switch on said receiver according to a timetable known to said controller, and - a memory configured to store information about other nodes in said wireless sensor network; wherein said node device is configured to maintain synchronization with and receive beacon transmissions from another node in said wireless sensor network, said beacon transmissions conveying information related to controlling of network connections and data transfer between nodes, characterized in that said controller is configured to read from received beacon transmissions information about neighboring nodes from which said node device does not receive said beacon transmissions and with which said node device does not maintain synchronization, which information includes time information that describes timing of beacon transmissions from neighboring nodes from which said node device does not receive said beacon transmissions in relation to the timing of beacon transmissions from the node from which the node device received said beacon transmission including said time information, and to store such information into said memory, and said controller is configured to utilize such stored information to selectively switch on said receiver to attempt receiving a beacon transmission from such a neighboring node as a response to an observed failure or weakening in link quality in previously maintained synchronization. - a receiver for receiving transmissions from other nodes in said wireless sensor network, - a controller configured to selectively switch on said receiver according to a timetable known to said controller, and - a memory configured to store information about other nodes in said wireless sensor network;
A method of Secondary Cell, in the following referred to as SCell, release during handover comprising: configuring at least one SCell by a source eNB to a User Equipment, in the following referred to as UE, (502; 602); characterized by including information by the source eNB in a HandoverPreparationInformation message for a target eNB to control SCell release in the UE during handover (506; 606), wherein the information indicates SCell indexes of all SCells configured to the UE, thereby allowing the target eNB to include a sCellToReleaseList with all the SCells configured to the UE in a handover command (508; 608). configuring at least one SCell by a source eNB to a User Equipment, in the following referred to as UE, (502; 602); characterized by including information by the source eNB in a HandoverPreparationInformation message for a target eNB to control SCell release in the UE during handover (506; 606), wherein the information indicates SCell indexes of all SCells configured to the UE, thereby allowing the target eNB to include a sCellToReleaseList with all the SCells configured to the UE in a handover command (508; 608).
A method for collaborative editing of an electronic model of an engineering object within a design space, the method comprising: displaying a feature tree for an engineering object, the feature tree comprising a plurality of nodes that correspond to editable features of the engineering object; displaying a locking icon that enables a user to select and lock a selected feature, for editing by a specified user, via the feature tree, the locking icon adjacent to a node in the feature tree that corresponds to the selected feature; enabling the specified user to edit the selected feature; blocking access from other users to the selected feature; displaying a releasing icon that enables the user or the specified user to release the selected feature; and providing a collaborative interface for editing the electronic model, the collaborative interface displaying information comprising user names, names of regions currently being edited by users, and communication channel icons representing communication channels currently available for communication with the users, wherein the communication channel icons are selectable by the user to initiate communication over the corresponding communication channels. displaying a feature tree for an engineering object, the feature tree comprising a plurality of nodes that correspond to editable features of the engineering object; displaying a locking icon that enables a user to select and lock a selected feature, for editing by a specified user, via the feature tree, the locking icon adjacent to a node in the feature tree that corresponds to the selected feature; enabling the specified user to edit the selected feature; blocking access from other users to the selected feature; displaying a releasing icon that enables the user or the specified user to release the selected feature; and providing a collaborative interface for editing the electronic model, the collaborative interface displaying information comprising user names, names of regions currently being edited by users, and communication channel icons representing communication channels currently available for communication with the users, wherein the communication channel icons are selectable by the user to initiate communication over the corresponding communication channels.
A method of fabricating a semiconductor device (10, 32, 58, 84) comprising: providing a silicon carbide substrate (12; 34; 60) comprising a channel region (20; 46, 72); and providing a gate stack (18; 44, 70, 96) on the silicon carbide substrate over the channel region, the gate stack comprising a first alkaline earth metal containing layer (132, 138, 144, 150), an oxide layer (134, 140, 146, 152) over the first alkaline earth metal containing layer, and a second alkaline earth metal containing layer (136, 142, 148, 154) over the oxide layer; wherein providing the gate stack on the silicon carbide substrate over the channel region comprises: providing the first alkaline earth metal containing layer directly on the silicon carbide substrate over the channel region using wet chemistry such that the first alkaline earth metal containing layer is between the silicon carbide substrate and the oxide layer thereby enhancing the channel mobility of the semiconductor device. providing a silicon carbide substrate (12; 34; 60) comprising a channel region (20; 46, 72); and providing a gate stack (18; 44, 70, 96) on the silicon carbide substrate over the channel region, the gate stack comprising a first alkaline earth metal containing layer (132, 138, 144, 150), an oxide layer (134, 140, 146, 152) over the first alkaline earth metal containing layer, and a second alkaline earth metal containing layer (136, 142, 148, 154) over the oxide layer; wherein providing the gate stack on the silicon carbide substrate over the channel region comprises: providing the first alkaline earth metal containing layer directly on the silicon carbide substrate over the channel region using wet chemistry such that the first alkaline earth metal containing layer is between the silicon carbide substrate and the oxide layer thereby enhancing the channel mobility of the semiconductor device. providing the first alkaline earth metal containing layer directly on the silicon carbide substrate over the channel region using wet chemistry such that the first alkaline earth metal containing layer is between the silicon carbide substrate and the oxide layer thereby enhancing the channel mobility of the semiconductor device.
Abase station comprising: means for controlling communication in a communication area served by the base station, wherein the communication is performed via a plurality of directional beams each of which has a different respective beam identifier; means for transmitting system information and control information, for a communication device, using a specific single directional beam associated with the communication device; and means for transmitting at least one reference signal associated with the specific single directional beam, the at least one reference signal being based on an identifier associated with the specific single directional beam and a cell identifier associated with the communication area. means for controlling communication in a communication area served by the base station, wherein the communication is performed via a plurality of directional beams each of which has a different respective beam identifier; means for transmitting system information and control information, for a communication device, using a specific single directional beam associated with the communication device; and means for transmitting at least one reference signal associated with the specific single directional beam, the at least one reference signal being based on an identifier associated with the specific single directional beam and a cell identifier associated with the communication area.
Process for preparing an edible fat slurry comprising fat powder and oil, by mixing 2-30% by weight (on the total slurry) of a fat powder of a structuring fat and 70-98% by weight (on the total slurry) of edible oil, wherein said edible oil is provided as at least two separate oil phases: (a) 50-99% of an edible oil phase (a) comprising at least 30% soy bean oil, by weight on edible oil phase (a), (b) 1-50% of an edible oil phase (b) comprising at least 50% (by weight, on total oil phase (b)) of olive oil, said process comprising the steps of: - providing the fat powder; - providing oil phase (a); - combining the fat powder and oil phase (a) and mixing the fat powder and oil phase (a) in the mixing vessel to a fat slurry for a period of 1 to 30 minutes, during at least part of said mixing the pressure in the vessel is below 0.5 bar; - providing oil phase (b); - adding oil phase (b) to the slurry of fat powder and oil phase (a) followed by further mixing for 30 seconds to 10 minutes to provide the final slurry. (a) 50-99% of an edible oil phase (a) comprising at least 30% soy bean oil, by weight on edible oil phase (a), (b) 1-50% of an edible oil phase (b) comprising at least 50% (by weight, on total oil phase (b)) of olive oil, - providing the fat powder; - providing oil phase (a); - combining the fat powder and oil phase (a) and mixing the fat powder and oil phase (a) in the mixing vessel to a fat slurry for a period of 1 to 30 minutes, during at least part of said mixing the pressure in the vessel is below 0.5 bar; - providing oil phase (b); - adding oil phase (b) to the slurry of fat powder and oil phase (a) followed by further mixing for 30 seconds to 10 minutes to provide the final slurry.
A blockchain arrangement confiaured to distribute simultaneously at least one public transaction and/or a restricted transaction, wherein: the disposition includes a plurality of participating nodes and a plurality of validator nodes connected by a telecommunications network, a proponent participant node is configured to send the contents of a t x information transaction record to all the validator nodes together with the identifier of a particular preconfigured privacy group, the transaction record of information t x is encrypted by an encryption module of the sending participant node N p, the receiving validator node is configured to cover the transaction of information t x encrypted by means of a new transaction of information t x ', such that the t x ' information transaction is forced to maintain the same hash identifier as the t x information transaction. the disposition includes a plurality of participating nodes and a plurality of validator nodes connected by a telecommunications network, a proponent participant node is configured to send the contents of a t x information transaction record to all the validator nodes together with the identifier of a particular preconfigured privacy group, the transaction record of information t x is encrypted by an encryption module of the sending participant node N p, the receiving validator node is configured to cover the transaction of information t x encrypted by means of a new transaction of information t x ', such that the t x ' information transaction is forced to maintain the same hash identifier as the t x information transaction.
A laminate for making flexible packaging comprising: a substrate base layer; and a film layer at least partially releasably affixed to the substrate base layer via a pressure sensitive adhesive layer to form a laminate, the pressure sensitive adhesive layer comprising: at least one adhesive lane, characterized in that: the laminate further comprises at least one adhesive-free lane that extends continuously through the center of the laminate or to the left or right thereof; wherein the film layer is scored to form at least one pull tab which is disposed within the at least one adhesive-free lane, and to form at least one resealable flap continuous with the at least one pull tab; and wherein the substrate base layer is scored to form at least one opening which is disposed adjacent the at least one adhesive-free lane. a substrate base layer; and a film layer at least partially releasably affixed to the substrate base layer via a pressure sensitive adhesive layer to form a laminate, the pressure sensitive adhesive layer comprising: at least one adhesive lane, the laminate further comprises at least one adhesive-free lane that extends continuously through the center of the laminate or to the left or right thereof; wherein the film layer is scored to form at least one pull tab which is disposed within the at least one adhesive-free lane, and to form at least one resealable flap continuous with the at least one pull tab; and wherein the substrate base layer is scored to form at least one opening which is disposed adjacent the at least one adhesive-free lane.
A high breakdown voltage passive element, comprising: a substrate; a lower metal layer and upper metal layer stacked on the substrate; and an insulating unit formed between the lower metal layer and upper metal layer, the insulating unit having a first insulating film whose thermal expansion rate is lower than the thermal expansion rate of the substrate, and a second insulating film, formed on the first insulating film, whose thermal expansion rate is higher than the thermal expansion rate of the substrate. a substrate; a lower metal layer and upper metal layer stacked on the substrate; and an insulating unit formed between the lower metal layer and upper metal layer, the insulating unit having a first insulating film whose thermal expansion rate is lower than the thermal expansion rate of the substrate, and a second insulating film, formed on the first insulating film, whose thermal expansion rate is higher than the thermal expansion rate of the substrate.
A composition comprising a mixture that comprises: (i) a first polymer comprising methyl acrylate residues or ethyl acrylate residues in an amount of 15% to 25% by weight of the first polymer, maleic anhydride residues in an amount of 2% to 3.5% by weight of the first polymer, and ethylene residues; and (ii) a second polymer comprising butyl acrylate residues in an amount of 5% to 10% by weight of the second polymer, maleic anhydride residues in an amount of 3% to 4% by weight of the second polymer, and ethylene residues, and A) wherein an amount of the first polymer in the mixture is 60% to 90% by weight; or B) wherein an amount of the first polymer in the mixture is 50% to 70% by weight and the mixture additionally comprises a pigment-LDPE composition comprising 30% to 80% of pigment by weight. (i) a first polymer comprising methyl acrylate residues or ethyl acrylate residues in an amount of 15% to 25% by weight of the first polymer, maleic anhydride residues in an amount of 2% to 3.5% by weight of the first polymer, and ethylene residues; and (ii) a second polymer comprising butyl acrylate residues in an amount of 5% to 10% by weight of the second polymer, maleic anhydride residues in an amount of 3% to 4% by weight of the second polymer, and ethylene residues, and A) wherein an amount of the first polymer in the mixture is 60% to 90% by weight; or B) wherein an amount of the first polymer in the mixture is 50% to 70% by weight and the mixture additionally comprises a pigment-LDPE composition comprising 30% to 80% of pigment by weight. A) wherein an amount of the first polymer in the mixture is 60% to 90% by weight; or B) wherein an amount of the first polymer in the mixture is 50% to 70% by weight and the mixture additionally comprises a pigment-LDPE composition comprising 30% to 80% of pigment by weight.
A gas monitoring system comprising a gas-insulated switchgear, wherein the gas-insulated switch gear has at least two separated chambers (11, 12) which are filled with an insulating gas surrounding high or medium voltage components, further comprising a first sensor connected to the first chamber and a second sensor connected to the second chamber, both sensors (21, 22) adapted to measure a physical property of the insulating gas in their respective chambers (11, 12) over time, and characterised by comprising a computer unit adapted to calculate from the two sensor measurements in the two separate chambers (11, 12) a leakage rate of the insulating gas in one of the two chambers (11, 12), and in that an adaptive filter, in particular a Wiener filter, is used for calculation.
A method of preparing a solution comprising thrombin, the method comprising: precipitating fibrinogen from a liquid comprising platelet-poor plasma or whole blood; removing precipitated fibrinogen from the liquid by centrifugation or filtration to form a post-precipitation liquid; incubating the post-precipitation liquid with calcium and a plurality of beads to activate a portion of the post-precipitation liquid to generate thrombin; and sediment the beads, clot material and any remaining cellular material by centrifugation to form a pellet and separating a solution comprising thrombin therefrom by decanting. precipitating fibrinogen from a liquid comprising platelet-poor plasma or whole blood; removing precipitated fibrinogen from the liquid by centrifugation or filtration to form a post-precipitation liquid; incubating the post-precipitation liquid with calcium and a plurality of beads to activate a portion of the post-precipitation liquid to generate thrombin; and sediment the beads, clot material and any remaining cellular material by centrifugation to form a pellet and separating a solution comprising thrombin therefrom by decanting.
A method of controlling playback of speech-containing audio data on a computing device comprising a processor, said method being executed by the processor in the computing device and comprising: operating a media player on the computing device to play the audio data, detecting a user-initiated time-shift command to step forward or backward in the audio data, and after detecting the time-shift command at a current time (tc) in the audio data, identifying a starting point of a sentence in the audio data and operating the media player to play the audio data from the starting point. operating a media player on the computing device to play the audio data, detecting a user-initiated time-shift command to step forward or backward in the audio data, and after detecting the time-shift command at a current time (tc) in the audio data, identifying a starting point of a sentence in the audio data and operating the media player to play the audio data from the starting point.
A method for adapting to a vehicle configuration an image displayed on a monitor in a cab of the vehicle, the vehicle comprising a camera assembly comprising a supporting arm mounted on the cab and a camera arranged on said supporting arm, for providing a captured image of an area located rearwards and along a vehicle side (4, 31), the method comprising: - determining a vehicle configuration, namely if the vehicle is in a first configuration - with a trailer connected to the cab - or in a second configuration - with no trailer connected to the cab; characterized in that the method further comprises: - automatically processing the captured image, according to the determined vehicle configuration, to display on the monitor: - either a first image which corresponds to a part of the captured image defined by a first frame, in case the vehicle is in the first configuration; - or a second image which corresponds to a part of the captured image defined by a second frame, distinct from the first frame, in case the vehicle is in the second configuration. - determining a vehicle configuration, namely if the vehicle is in a first configuration - with a trailer connected to the cab - or in a second configuration - with no trailer connected to the cab; - automatically processing the captured image, according to the determined vehicle configuration, to display on the monitor: - either a first image which corresponds to a part of the captured image defined by a first frame, in case the vehicle is in the first configuration; - or a second image which corresponds to a part of the captured image defined by a second frame, distinct from the first frame, in case the vehicle is in the second configuration. - either a first image which corresponds to a part of the captured image defined by a first frame, in case the vehicle is in the first configuration; - or a second image which corresponds to a part of the captured image defined by a second frame, distinct from the first frame, in case the vehicle is in the second configuration.
Method for predicting a strength of an ultrasonic weld-joint of a wire-cable, comprising the steps of: providing a sample of a wire-cable containing an organic contaminant; determining a combined-weight of the wire-cable and the contaminant; removing the contaminant from a surface of the wire-cable using a heat-source; determining a weight of the wire-cable after the contaminant has been removed; determining a percentage-by-weight of the contaminant removed from the wire-cable based on a formula [(Mb-Ma)/Mb] ∗ 100, wherein Mb is the combined-weight of the wire-cable and the contaminant and Ma is the weight of the wire-cable; and characterized by determining whether the percentage-by-weight of the contaminant is less than a predetermined threshold, wherein said threshold correlates to the strength of the ultrasonic weld-joint. providing a sample of a wire-cable containing an organic contaminant; determining a combined-weight of the wire-cable and the contaminant; removing the contaminant from a surface of the wire-cable using a heat-source; determining a weight of the wire-cable after the contaminant has been removed; determining a percentage-by-weight of the contaminant removed from the wire-cable based on a formula [(Mb-Ma)/Mb] ∗ 100, wherein Mb is the combined-weight of the wire-cable and the contaminant and Ma is the weight of the wire-cable; and characterized by determining whether the percentage-by-weight of the contaminant is less than a predetermined threshold, wherein said threshold correlates to the strength of the ultrasonic weld-joint.
A corrosion and chip resistant powder coating composition comprising: - from 40 to 75 wt%, based on total weight of the composition, of one or more epoxy resins, wherein the one or more epoxy resins has an EEW from 700 to 1500; - greater than 15 wt%, based on total weight of the composition, of at least one reinforcing fiber, wherein the at least one reinforcing fiber is a glass fiber and wherein the amount of glass fiber is between 35 and 95 phr; and - from 0.1 wt% to 5 wt%, based on total weight of the composition, of at least one adhesion promoter. - from 40 to 75 wt%, based on total weight of the composition, of one or more epoxy resins, wherein the one or more epoxy resins has an EEW from 700 to 1500; - greater than 15 wt%, based on total weight of the composition, of at least one reinforcing fiber, wherein the at least one reinforcing fiber is a glass fiber and wherein the amount of glass fiber is between 35 and 95 phr; and - from 0.1 wt% to 5 wt%, based on total weight of the composition, of at least one adhesion promoter.