mhurhangee/ep-ind-claims huggingface dataset:
A distributed query processing system (100, 200) for determining multiple distinct counts for values based on a key, the system comprising: a processing system that includes one or more processors; and a memory configured to store program code to be executed by the processing system, the program code being configured to: on receipt at the system of a query which specifies a dataset, access the dataset, the dataset including a first field, a second field, and a third field; combine the first field with the second field to generate a fourth field; generate a set of compound keys that includes two or more compound keys each comprised of a different combination of one of at least two identifiers for the first field and the second field with one of at least two values for the third field; assign a corresponding compound key of the set of compound keys to each value of the fourth field; determine a total number of unique values of the fourth field for each value in the third field, based at least in part on the set of compound keys, as the multiple distinct counts; and perform the query based on the multiple distinct counts. a processing system that includes one or more processors; and a memory configured to store program code to be executed by the processing system, the program code being configured to: on receipt at the system of a query which specifies a dataset, access the dataset, the dataset including a first field, a second field, and a third field; combine the first field with the second field to generate a fourth field; generate a set of compound keys that includes two or more compound keys each comprised of a different combination of one of at least two identifiers for the first field and the second field with one of at least two values for the third field; assign a corresponding compound key of the set of compound keys to each value of the fourth field; determine a total number of unique values of the fourth field for each value in the third field, based at least in part on the set of compound keys, as the multiple distinct counts; and perform the query based on the multiple distinct counts. on receipt at the system of a query which specifies a dataset, access the dataset, the dataset including a first field, a second field, and a third field; combine the first field with the second field to generate a fourth field; generate a set of compound keys that includes two or more compound keys each comprised of a different combination of one of at least two identifiers for the first field and the second field with one of at least two values for the third field; assign a corresponding compound key of the set of compound keys to each value of the fourth field; determine a total number of unique values of the fourth field for each value in the third field, based at least in part on the set of compound keys, as the multiple distinct counts; and perform the query based on the multiple distinct counts.
A device (20, 50) comprising: a substrate (21,51); a first III-V nitride layer (23-29,53-54) positioned over said substrate; an active layer (30,55) positioned over said first III-V nitride layer; a second III-V nitride layer (31,56) positioned over said active layer, wherein said first III-V nitride layer comprises a first portion (23,53) doped with a first dopant and a second Portion (24,54) doped with a second dopant different from the first dopant, and wherein the second portion positioned between the first portion and the active layer, CHARACTERIZED IN THAT the first dopant is chosen from a group consisting of germanium, tin, oxygen, and a combination thereof; and the second dopant is chosen from a group consisting of silicon, germanium, tin, oxygen, and a combination thereof; whereby stress is controlled and embrittlement of said first III-V nitride layer (23-29, 53-54) is minimized.
A method for dispensing, comprising: a) initiating a movement of a dispensing object (100, 200, 300) along a dispensing passage of a dispensing device, wherein the movement is initiated from a pre-set starting position; b) determining, by at least one displacement sensor (107, 407), a magnitude of a displacement of the dispensing object (100, 200, 300) along the dispensing passage based on remotely measuring, by the at least one displacement sensor (107, 407), at least one characteristic associated with the dispensing object (100, 200, 300) during the movement of the dispensing object (100, 200, 300) along the dispensing passage; c) generating at least one first indication by the at least one displacement sensor (107, 407) when the magnitude of the displacement is equal to or exceeds a pre-determined distance value; d) separating, based on the at least one first indication, a portion from the dispensing object (100, 200, 300) to form a remaining portion of the dispensing object (100, 200, 300) and a separated portion of the dispensing object (100, 200, 300), e) moving the remaining portion of the dispensing object (100, 200, 300) back to the pre-set starting position; and f) dispensing the separated portion of the dispensing object (100, 200, 300) from the dispensing device, characterised in that the at least one characteristic associated with the dispensing object (100, 200, 300) is determined based, at least in part, on registering, by the at least one displacement sensor (107, 407), at least one angle of displacement of at least one magnet attached to an idle roller (105, 205, 305) which is rotated by a surface of the dispensing object (100, 200, 300) during the movement of the dispensing object (100, 200, 300) along the dispensing passage. a) initiating a movement of a dispensing object (100, 200, 300) along a dispensing passage of a dispensing device, wherein the movement is initiated from a pre-set starting position; b) determining, by at least one displacement sensor (107, 407), a magnitude of a displacement of the dispensing object (100, 200, 300) along the dispensing passage based on remotely measuring, by the at least one displacement sensor (107, 407), at least one characteristic associated with the dispensing object (100, 200, 300) during the movement of the dispensing object (100, 200, 300) along the dispensing passage; c) generating at least one first indication by the at least one displacement sensor (107, 407) when the magnitude of the displacement is equal to or exceeds a pre-determined distance value; d) separating, based on the at least one first indication, a portion from the dispensing object (100, 200, 300) to form a remaining portion of the dispensing object (100, 200, 300) and a separated portion of the dispensing object (100, 200, 300), e) moving the remaining portion of the dispensing object (100, 200, 300) back to the pre-set starting position; and f) dispensing the separated portion of the dispensing object (100, 200, 300) from the dispensing device,
A method for reporting channel state information from a user equipment to a base station in a communication system, the method comprising the following steps performed by the user equipment: determining a first channel state information value from a first set of predefined channel state values, the number of the predefined channel state values of the first set representing a maximum number of bits for the channel state information reporting; determining a second channel state information value; preparing a channel state information message including a relative channel state information signaling the second channel state information value differentially to the first channel state information value, and transmitting the channel state information message to the base station, wherein the second channel state information value is determined from a second set of predetermined channel state values, the second set being larger than the first set, wherein the second channel state information value is not included in the first set. determining a first channel state information value from a first set of predefined channel state values, the number of the predefined channel state values of the first set representing a maximum number of bits for the channel state information reporting; determining a second channel state information value; preparing a channel state information message including a relative channel state information signaling the second channel state information value differentially to the first channel state information value, and transmitting the channel state information message to the base station, wherein the second channel state information value is determined from a second set of predetermined channel state values, the second set being larger than the first set, wherein the second channel state information value is not included in the first set.
A method for hybrid client-server data provision, comprising: initiating, by an application executed by a client device, a request for an item of content from a plurality of content providers by transmitting the request to a plurality of content provider software development kits, SDKs, integrated with the application; generating, by a plurality of request adaptors of the content provider SDKs, a plurality of processed requests based on the received request for the item of content for potential submission to the plurality of content provider servers; receiving, by an interceptor module of a mediation SDK integrated with the application, from the plurality of content provider SDKs, the plurality of processed requests; batching, by a consolidator module of the mediation SDK, the plurality of processed requests into a batch request, the batch request comprising content provider priority information; transmitting, by the mediation SDK, the batch request to a mediation server for mediation of the batch request to the plurality of content provider servers based on the content provider priority information; and receiving, by the mediation SDK from the mediation server, a single item of content selected by the mediation server, the item of content selected by the mediation server in response to the request for the item of content and after a determination by the mediation server that a timeout period for receiving a response from the content provider servers had expired, the item of content for display by the client device. initiating, by an application executed by a client device, a request for an item of content from a plurality of content providers by transmitting the request to a plurality of content provider software development kits, SDKs, integrated with the application; generating, by a plurality of request adaptors of the content provider SDKs, a plurality of processed requests based on the received request for the item of content for potential submission to the plurality of content provider servers; receiving, by an interceptor module of a mediation SDK integrated with the application, from the plurality of content provider SDKs, the plurality of processed requests; batching, by a consolidator module of the mediation SDK, the plurality of processed requests into a batch request, the batch request comprising content provider priority information; transmitting, by the mediation SDK, the batch request to a mediation server for mediation of the batch request to the plurality of content provider servers based on the content provider priority information; and receiving, by the mediation SDK from the mediation server, a single item of content selected by the mediation server, the item of content selected by the mediation server in response to the request for the item of content and after a determination by the mediation server that a timeout period for receiving a response from the content provider servers had expired, the item of content for display by the client device.
A process for the manufacturing of C-S-H seeds comprising the following steps: - (i) selecting one or more starting materials from industrial wastes and by- products comprising Ca and Si, wherein the industrial wastes and by-products are selected from the group consisting of fly ash, silica fume, ground granulated blast furnace slag, salt slag and acetylene lime slurry - (ii) mixing said starting materials with at least one doping agent selected from the group of salts and oxides containing one or more of the doping elements selected from the group consisting of B, P and mixtures thereof, in such a proportion that the molar ratio Ca: (Si + doping element) in the mixture ranges between 0.5 and 2.5 and the molar ratio of doping element: silicon is in the range of 0.01 to 0.5; - (iii) Combining the obtained mixture in (ii) with water so that the solid-water ratio by weight in the resulting mixture is equal to or larger than 0.2, and - (iv) subjecting the said resulting mixture to hydrothermal treatment at a temperature comprised between 25 and 350 °C and a pressure that is endogenous or is kept constant between 0.1 MPa and 50 MPa. - (i) selecting one or more starting materials from industrial wastes and by- products comprising Ca and Si, wherein the industrial wastes and by-products are selected from the group consisting of fly ash, silica fume, ground granulated blast furnace slag, salt slag and acetylene lime slurry - (ii) mixing said starting materials with at least one doping agent selected from the group of salts and oxides containing one or more of the doping elements selected from the group consisting of B, P and mixtures thereof, in such a proportion that the molar ratio Ca: (Si + doping element) in the mixture ranges between 0.5 and 2.5 and the molar ratio of doping element: silicon is in the range of 0.01 to 0.5; - (iii) Combining the obtained mixture in (ii) with water so that the solid-water ratio by weight in the resulting mixture is equal to or larger than 0.2, and - (iv) subjecting the said resulting mixture to hydrothermal treatment at a temperature comprised between 25 and 350 °C and a pressure that is endogenous or is kept constant between 0.1 MPa and 50 MPa.
Flat structure component, in particular an underfloor protection element, for a motor vehicle, in particular an electric vehicle, with a flat configured core element made of a first thermoplastic material, at least one lower and one upper cover layer (34a, 34b) made of a second fibre-reinforced thermoplastic material, wherein the cover layers (34a, 34b) are formed and bonded in a material fit to the core element, which is produced from an injection moulding compound located between the cover layers (34a, 34b) or a flow moulding compound located between the cover layers (34a, 34b), characterized in that the structure component has at least one peripheral region, which is formed only from a first plastic material and is configured as being of one piece with the core element located between the cover layers (34a, 34b), and that several passage openings are provided in the peripheral region, which are arranged such as to accommodate a connecting element, which is provided in order to secure the structure component to a vehicle body. a flat configured core element made of a first thermoplastic material, at least one lower and one upper cover layer (34a, 34b) made of a second fibre-reinforced thermoplastic material, wherein the cover layers (34a, 34b) are formed and bonded in a material fit to the core element, which is produced from an injection moulding compound located between the cover layers (34a, 34b) or a flow moulding compound located between the cover layers (34a, 34b), characterized in that the structure component has at least one peripheral region, which is formed only from a first plastic material and is configured as being of one piece with the core element located between the cover layers (34a, 34b), and that several passage openings are provided in the peripheral region, which are arranged such as to accommodate a connecting element, which is provided in order to secure the structure component to a vehicle body.
Torsional vibration damper, comprising: an outer housing, an inner part that is concentric relative to the outer housing, a plurality of chambers formed between the outer housing and the inner part, which are filled with a damping medium and are connected to one another through overflow channels, and a plurality of leaf spring configurations (16, 17, 16', 17'; 116, 117; 216, 217) that are arranged in the chambers and join the outer housing and the inner part in a torsionally flexible manner, characterized in that the leaf spring configurations (16, 17, 16', 17'; 116, 117; 216, 217) have machining-induced deflections and two leaf spring configurations with substantially similar deflections are each arranged in a chamber (13; 113). an outer housing, an inner part that is concentric relative to the outer housing, a plurality of chambers formed between the outer housing and the inner part, which are filled with a damping medium and are connected to one another through overflow channels, and a plurality of leaf spring configurations (16, 17, 16', 17'; 116, 117; 216, 217) that are arranged in the chambers and join the outer housing and the inner part in a torsionally flexible manner, characterized in that the leaf spring configurations (16, 17, 16', 17'; 116, 117; 216, 217) have machining-induced deflections and two leaf spring configurations with substantially similar deflections are each arranged in a chamber (13; 113).
A communication apparatus comprising: a plurality of antenna elements (21-1, 21-2,..., 21-N) capable of functioning as an adaptive array antenna by assigning weights to the antenna elements, and a processing circuitry (20-1. 20-2,..., 20-N, 25) configured to: generate a plurality of MAC frames to be transmitted by multiplexing; integrate at least two of the generated MAC frames into a single aggregated MAC frame as a PHY frame; perform padding on the PHY frame if the length of the PHY frame is shorter than the length of another PHY frame that is multiplexed to generate a plurality of PHY frames having the same length, and transmit the PHY frames in a multiplexed manner to more than one communication apparatuses (STA1, STA2, STA3), the multiplexed manner including weighting of the plurality of antenna elements (21-1, 21-2,..., 21-N), and receive more than one ACK frames transmitted in response to the frames from the more than one communication apparatuses. a plurality of antenna elements (21-1, 21-2,..., 21-N) capable of functioning as an adaptive array antenna by assigning weights to the antenna elements, and a processing circuitry (20-1. 20-2,..., 20-N, 25) configured to: generate a plurality of MAC frames to be transmitted by multiplexing; integrate at least two of the generated MAC frames into a single aggregated MAC frame as a PHY frame; perform padding on the PHY frame if the length of the PHY frame is shorter than the length of another PHY frame that is multiplexed to generate a plurality of PHY frames having the same length, and transmit the PHY frames in a multiplexed manner to more than one communication apparatuses (STA1, STA2, STA3), the multiplexed manner including weighting of the plurality of antenna elements (21-1, 21-2,..., 21-N), and receive more than one ACK frames transmitted in response to the frames from the more than one communication apparatuses. generate a plurality of MAC frames to be transmitted by multiplexing; integrate at least two of the generated MAC frames into a single aggregated MAC frame as a PHY frame; perform padding on the PHY frame if the length of the PHY frame is shorter than the length of another PHY frame that is multiplexed to generate a plurality of PHY frames having the same length, and transmit the PHY frames in a multiplexed manner to more than one communication apparatuses (STA1, STA2, STA3), the multiplexed manner including weighting of the plurality of antenna elements (21-1, 21-2,..., 21-N), and receive more than one ACK frames transmitted in response to the frames from the more than one communication apparatuses.
A pharmaceutical composition for oral administration comprising O-desmethyltramadol or a pharmaceutically acceptable salt thereof, wherein the O-desmethyltramadol is (1S, 2S)-O-desmethyltramadol, or a combination of both (1R, 2R)-O-desmethyltramadol and (1S, 2S)-O-desmethyltramadol, wherein the pharmaceutical composition is a sustained release oral dosage form, and wherein the sustained release oral dosage form has a dissolution rate in vitro selected from the group consisting of between 15 and 74% O- desmethyltramadol released after 1 hour; between 28 and 91% O-desmethyltramadol released after 2 hours; between 38 and 101% O-desmethyltramadol released after 3 hours; between 47 and 105% O- desmethyltramadol released after 4 hours; between 59 and 105% O-desmethyltramadol released after 6 hours; between 68 and 105% O-desmethyltramadol released after 8 hours; between 75 and 105% O-desmethyltramadol released after 10 hours; between 79 and 105% O-desmethyltramadol released after 12 hours; and 100% O-desmethyltramadol released after 24 hours, when measured using a USP Apparatus I Basket Method at 75 rpm in 900 ml 0.05 M phosphate buffer with a pH 7.2 at 37°C.
A method for producing steviol, comprising: contacting stevioside with a mixture of enzymes obtained from a selected GRAS strain of Aspergillus niger including pectinases, hemicellulases, β-D-glucosidase activities, β-glucopyranosidase and α-rhamnosidase activities and recovering the steviol, wherein the step of contacting stevioside with the enzyme preparation occurs in the presence of a live yeast culture in a culture medium, under conditions wherein steviol is produced in a culture medium. contacting stevioside with a mixture of enzymes obtained from a selected GRAS strain of Aspergillus niger including pectinases, hemicellulases, β-D-glucosidase activities, β-glucopyranosidase and α-rhamnosidase activities and recovering the steviol, wherein the step of contacting stevioside with the enzyme preparation occurs in the presence of a live yeast culture in a culture medium, under conditions wherein steviol is produced in a culture medium.