mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting data packets for a cooperative network comprising a source terminal, a recipient terminal and at least one relay terminal, the transmission channels between the source terminal and the destination terminal, on the one hand, and between the relay terminal and the destination terminal, on the other hand, being non-ergodic and block fading channels, the source terminal coding a data packet using a first convolutional coder for generating a first coded packet and transmitting it to the recipient terminal as well as to the relay terminal, the relay terminal receiving and decoding the first coded packet, interleaving the data of thus decoded packet and coding the interleaved data packet using a second convolutional coder for generating a second coded packet and transmitting it to said recipient terminal, the first and second convolutional coders forming a turbocoder distributed between the source terminal and the relay terminal, characterised in that: (a) the first convolutional coder is selected from a plurality of first predetermined convolutional coders, and/or (b) said second convolutional coder is selected from a plurality of second predetermined convolutional coders; the selection in (a) and/or (b) being performed from statistic of fading coefficients per block of the channel between the source terminal and the recipient terminal and/or the channel between the relay terminal and the recipient terminal. (a) the first convolutional coder is selected from a plurality of first predetermined convolutional coders, and/or (b) said second convolutional coder is selected from a plurality of second predetermined convolutional coders;
A circuit breaker heater-bimetal assembly, comprising: a housing having a first housing portion and a second housing portion spaced from the first housing portion; a support member spanning between the first and second housing portions; a heating element coupled to the support member, the heating element having a first portion extending from the support member in a first direction, and a second portion extending from the support member in a second direction; and a bimetal element coupled to the heating element and extending from the heating element in a third direction; characterised by a first pocket formed in the first housing portion, and a second pocket formed in the second housing portion; wherein the support member is received in the first pocket and the second pocket. a housing having a first housing portion and a second housing portion spaced from the first housing portion; a support member spanning between the first and second housing portions; a heating element coupled to the support member, the heating element having a first portion extending from the support member in a first direction, and a second portion extending from the support member in a second direction; and a bimetal element coupled to the heating element and extending from the heating element in a third direction; characterised by a first pocket formed in the first housing portion, and a second pocket formed in the second housing portion; wherein the support member is received in the first pocket and the second pocket.
A process comprising reacting formylbutadiene of formula B wherein R 1 is hydrogen, methyl, or ethyl; R 2 is hydrogen, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; R 3 is hydrogen, methyl, or ethyl; with a diene of formula C wherein R 4, R 5, R 6, R 7, R 8 and R 9 are independently selected from hydrogen, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; resulting in compounds of formulae (Ia) and (Ib) characterized in that in the presence of a methylenation catalyst and formalin the formylbutadiene of formula B is prepared in situ from an α,β-unsaturated aldehyde of formula A R 1 is hydrogen, methyl, or ethyl; R 2 is hydrogen, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; R 3 is hydrogen, methyl, or ethyl;
Transverse conveyor of an agricultural harvesting machine, in order to convey harvested crop in a conveying direction running transversely with respect to the direction of movement of the harvesting machine, with a transverse conveyor belt, with lateral deflecting pulleys (15, 16) on which the transverse conveyor belt is guided, wherein a lateral deflecting pulley (15, 16) is assigned a drive unit (17, 18), with the aid of which the transverse conveyor belt is drivable, characterized in that each of the lateral deflecting pulleys (15, 16) is assigned a respective drive unit (17, 18), and a first or upper strand of the transverse conveyor belt serves as a conveying strand and a second or lower strand of the transverse conveyor belt serves as a return strand, wherein, in both possible conveying directions of the transverse conveyor, both the conveying strand and the return strand are pulled by a first drive unit (17, 18) and pushed by a second drive unit (18, 17). with a transverse conveyor belt, with lateral deflecting pulleys (15, 16) on which the transverse conveyor belt is guided, wherein a lateral deflecting pulley (15, 16) is assigned a drive unit (17, 18), with the aid of which the transverse conveyor belt is drivable, characterized in that each of the lateral deflecting pulleys (15, 16) is assigned a respective drive unit (17, 18), and a first or upper strand of the transverse conveyor belt serves as a conveying strand and a second or lower strand of the transverse conveyor belt serves as a return strand, wherein, in both possible conveying directions of the transverse conveyor, both the conveying strand and the return strand are pulled by a first drive unit (17, 18) and pushed by a second drive unit (18, 17).
A management device comprising: a processor; and a memory on which is stored machine readable instructions that are to cause the processor to: receive, from a first node, a client request; and a response corresponding to the client request, wherein the first node is configured to generate the response by processing the client request by performing an operation that changes a state of a service, wherein operations that change the state of the service are operations that change data that the service accesses and/or that change the service itself, and wherein the state of the service is configured to change in response to the response being generated; generate an entry including the received client request and response; commit the generated entry into a journal; and send an acknowledgement of the received request and response to the first node after the generated entry is committed into the journal. a processor; and a memory on which is stored machine readable instructions that are to cause the processor to: receive, from a first node, a client request; and a response corresponding to the client request, wherein the first node is configured to generate the response by processing the client request by performing an operation that changes a state of a service, wherein operations that change the state of the service are operations that change data that the service accesses and/or that change the service itself, and wherein the state of the service is configured to change in response to the response being generated; generate an entry including the received client request and response; commit the generated entry into a journal; and send an acknowledgement of the received request and response to the first node after the generated entry is committed into the journal. receive, from a first node, a client request; and a response corresponding to the client request, wherein the first node is configured to generate the response by processing the client request by performing an operation that changes a state of a service, wherein operations that change the state of the service are operations that change data that the service accesses and/or that change the service itself, and wherein the state of the service is configured to change in response to the response being generated; a client request; and a response corresponding to the client request, wherein the first node is configured to generate the response by processing the client request by performing an operation that changes a state of a service, wherein operations that change the state of the service are operations that change data that the service accesses and/or that change the service itself, and wherein the state of the service is configured to change in response to the response being generated; generate an entry including the received client request and response; commit the generated entry into a journal; and send an acknowledgement of the received request and response to the first node after the generated entry is committed into the journal.
A cutting tool for use with a surgical handpiece, the handpiece including a drive shaft, the cutting tool comprising: an outer tubular member including a first magnet; and an inner tubular member including a second magnet, the inner tubular member slidably disposed within the outer tubular member, wherein a force is created between the first magnet and the second magnet when the inner tubular member is slidably disposed within the outer tubular member, and wherein the tool includes a means for reducing friction between the first magnet and the second magnet, wherein the means is located between the first magnet and the second magnet, characterised in that the means comprises a thrust washer an outer tubular member including a first magnet; and an inner tubular member including a second magnet, the inner tubular member slidably disposed within the outer tubular member, wherein a force is created between the first magnet and the second magnet when the inner tubular member is slidably disposed within the outer tubular member, and wherein the tool includes a means for reducing friction between the first magnet and the second magnet, wherein the means is located between the first magnet and the second magnet, characterised in that the means comprises a thrust washer
Composition comprising the viral NS3 protein from HCV or peptide fragments thereof having a length of at least 6 amino acid residues and the MARCH7 protein according to SEQ ID NO. 2 or as encoded by SEQ ID NO. 4 or peptide fragments thereof having a length of at least 6 amino acid residues, wherein the protein or peptide fragments of NS3 are capable of binding said MARCH7 protein.
A transmitter, comprising: a plurality of filters or a filter bank configured to pulse shape filter an IFFT processed data block using a non-orthogonal waveform to generate a transmit signal (S Tx) including data to be transmitted to a receiver of a multi carrier pulse shaped transmission system; and an inverse pulse shaping filter configured to inverse pulse shape filter a predefined signal pattern, wherein the transmitter is configured to include the inverse filtered predefined signal pattern (RS') into the IFFT processed data block prior to applying the IFFT processed data block to the plurality of filters or to the filter bank so that after the plurality of filters or the filter bank the non-pulse-shaped predefined signal pattern appears again in the transmit signal (S Tx). a plurality of filters or a filter bank configured to pulse shape filter an IFFT processed data block using a non-orthogonal waveform to generate a transmit signal (S Tx) including data to be transmitted to a receiver of a multi carrier pulse shaped transmission system; and an inverse pulse shaping filter configured to inverse pulse shape filter a predefined signal pattern, wherein the transmitter is configured to include the inverse filtered predefined signal pattern (RS') into the IFFT processed data block prior to applying the IFFT processed data block to the plurality of filters or to the filter bank so that after the plurality of filters or the filter bank the non-pulse-shaped predefined signal pattern appears again in the transmit signal (S Tx).
A non-transitory computer-readable medium comprising storage, logic, and data including a digital signature, the digital signature readable by a verifying entity to authenticate a product based on the digital signature, the data comprising: an indication of a schema (111; 212) for the data, wherein the schema specifies a layout of the data; identifiers (112; 213, 214, 215) comprising an indication of a vendor ID identifying an entity that generated the digital signature and an indication of a key ID identifying a cryptographic key used to generate the digital signature; and the digital signature (113; 216), the digital signature having been generated based on the schema (111; 212), the identifiers and a type of the data, wherein the type of the data prevents collisions between signatures generated for different types of products when the data to be signed might be identical were it not for the type and wherein the type of data is not stored on the non-transitory computer-readable medium; wherein the cryptographic key is a private key of an asymmetric key pair, so the digital signature is computed with the private key but can be verified by a public key of the asymmetric key pair and wherein the generation of the digital signature based on the type of the data provides a domain separation to prevent substitution of one type of product for another type of product. an indication of a schema (111; 212) for the data, wherein the schema specifies a layout of the data; identifiers (112; 213, 214, 215) comprising an indication of a vendor ID identifying an entity that generated the digital signature and an indication of a key ID identifying a cryptographic key used to generate the digital signature; and the digital signature (113; 216), the digital signature having been generated based on the schema (111; 212), the identifiers and a type of the data, wherein the type of the data prevents collisions between signatures generated for different types of products when the data to be signed might be identical were it not for the type and wherein the type of data is not stored on the non-transitory computer-readable medium; wherein the cryptographic key is a private key of an asymmetric key pair, so the digital signature is computed with the private key but can be verified by a public key of the asymmetric key pair and wherein the generation of the digital signature based on the type of the data provides a domain separation to prevent substitution of one type of product for another type of product.
A thin film transistor assembly, comprising: a thin film transistor, wherein the thin film transistor is an N-type thin film transistor; and a light shielding layer, arranged between a source electrode and a drain electrode of the thin film transistor and configured to block light from the exterior from illuminating an active layer of the thin film transistor, wherein the light shielding layer and the source electrode and the drain electrode of the thin film transistor are formed by the same layer with a same thickness and the same material; wherein doped ohmic contact areas are provided respectively at locations of the active layer and wherein the ohmic contact areas are electrically connected to the source electrode and the drain electrode; wherein lightly doped drain areas are further provided adjacent to the doped ohmic contact areas; wherein the thin film transistor further includes a pixel electrode and the doped ohmic contact areas are electrically connected to the source electrode and the drain electrode via the pixel electrode respectively; wherein the thin film transistor further includes a gate electrode over the active layer and an insulating layer covering the gate electrode, the insulating layer is provided with through holes and the pixel electrode is provided on the insulating layer and in the through holes, such that the pixel electrode electrically connects the doped ohmic contact areas to the source electrode and the drain electrode respectively through the through holes. a thin film transistor, wherein the thin film transistor is an N-type thin film transistor; and a light shielding layer, arranged between a source electrode and a drain electrode of the thin film transistor and configured to block light from the exterior from illuminating an active layer of the thin film transistor, wherein the light shielding layer and the source electrode and the drain electrode of the thin film transistor are formed by the same layer with a same thickness and the same material; wherein doped ohmic contact areas are provided respectively at locations of the active layer and wherein the ohmic contact areas are electrically connected to the source electrode and the drain electrode; wherein lightly doped drain areas are further provided adjacent to the doped ohmic contact areas; wherein the thin film transistor further includes a pixel electrode and the doped ohmic contact areas are electrically connected to the source electrode and the drain electrode via the pixel electrode respectively; wherein the thin film transistor further includes a gate electrode over the active layer and an insulating layer covering the gate electrode, the insulating layer is provided with through holes and the pixel electrode is provided on the insulating layer and in the through holes, such that the pixel electrode electrically connects the doped ohmic contact areas to the source electrode and the drain electrode respectively through the through holes.
A needle tip protector (10, 100) for an indwelling needle including a tubular peripheral wall and configured to cover a needle tip of the indwelling needle by being externally mounted about a needle hub of the indwelling needle and by being moved to a needle tip side, wherein at least one detent is formed in an inside covered with the tubular peripheral wall and is configured to be detained with the needle hub at a position in a movement of the protector (10, 100) to the needle tip side of the indwelling needle and to prevent backward movement of the protector (10, 100) to a proximal end side of the indwelling needle such that reexposure of the needle tip is prevented, and the detent is integrally molded with the tubular peripheral wall, an expansion part expanding radially outward is provided to a proximal end side of the tubular peripheral wall, and the detent is provided in the expansion part; characterized in that the expansion part has a roughly oval tube shape including small-diameter parts and large-diameter parts that are orthogonal to each other, the detent is provided in an inside covered with a peripheral wall of the large-diameter parts, and the peripheral wall of the large-diameter parts include a needle hub engager configured to receive the needle hub such that the needle tip of the indwelling needle is held in a protruding state.
Secukinumab for use in treating ankylosing spondylitis, characterized in that secukinumab is to be: a) subcutaneously administered to a patient in need thereof as five doses of 150 mg, each of the five doses being delivered weekly; wherein the first weekly dose is administered during week 0, and the second weekly dose is administered during week 1, and the third weekly dose is administered during week 2, and the fourth weekly dose is administered during week 3, and the fifth weekly dose is administered during week 4; and b) thereafter, a maintenance regimen is administered to the patient as a first dose during week 8 and every month thereafter. a) subcutaneously administered to a patient in need thereof as five doses of 150 mg, each of the five doses being delivered weekly; wherein the first weekly dose is administered during week 0, and the second weekly dose is administered during week 1, and the third weekly dose is administered during week 2, and the fourth weekly dose is administered during week 3, and the fifth weekly dose is administered during week 4; and b) thereafter, a maintenance regimen is administered to the patient as a first dose during week 8 and every month thereafter.
A method of forming a barbed medical device comprising the steps of: providing a blank workpiece; and forming at least one barb on the blank workpiece by: applying vibrational energy to a tool; bringing the tool and the blank workpiece into contact at an angle such that the tool cuts into the surface of the blank workpiece; and characterised by a motorized slide moving the blank work piece in a linear motion in an X-Y, X-Z or Y-Z plane with respect to the tool during formation of a cut and an advance slide moving the blank workpiece a predetermined increment after every cut. providing a blank workpiece; and forming at least one barb on the blank workpiece by: applying vibrational energy to a tool; bringing the tool and the blank workpiece into contact at an angle such that the tool cuts into the surface of the blank workpiece; and characterised by a motorized slide moving the blank work piece in a linear motion in an X-Y, X-Z or Y-Z plane with respect to the tool during formation of a cut and an advance slide moving the blank workpiece a predetermined increment after every cut. applying vibrational energy to a tool; bringing the tool and the blank workpiece into contact at an angle such that the tool cuts into the surface of the blank workpiece; and characterised by a motorized slide moving the blank work piece in a linear motion in an X-Y, X-Z or Y-Z plane with respect to the tool during formation of a cut and an advance slide moving the blank workpiece a predetermined increment after every cut.
A system for monitoring nerve activity in a subject comprising: a plurality of electrodes configured to engage a subject's skin; a signal detector configured to sample electrical signals detected proximate to the subject's skin by the plurality of electrodes; and a signal processor configured to: receive signal data corresponding to the electrical signals sampled by the signal detector; apply a filter to the signal data to generate filtered signal data, the filter configured to attenuate in the signal data at least frequencies corresponding to heart muscle activity during a heartbeat; identify a skin nerve activity using the filtered signal data; estimate a sympathetic nerve activity using predetermined correlations or relationships, stored in a memory, between the skin nerve activity and the sympathetic nerve activity; generate a report indicative of the estimated sympathetic nerve activity. a plurality of electrodes configured to engage a subject's skin; a signal detector configured to sample electrical signals detected proximate to the subject's skin by the plurality of electrodes; and a signal processor configured to: receive signal data corresponding to the electrical signals sampled by the signal detector; apply a filter to the signal data to generate filtered signal data, the filter configured to attenuate in the signal data at least frequencies corresponding to heart muscle activity during a heartbeat; identify a skin nerve activity using the filtered signal data; estimate a sympathetic nerve activity using predetermined correlations or relationships, stored in a memory, between the skin nerve activity and the sympathetic nerve activity; generate a report indicative of the estimated sympathetic nerve activity. receive signal data corresponding to the electrical signals sampled by the signal detector; apply a filter to the signal data to generate filtered signal data, the filter configured to attenuate in the signal data at least frequencies corresponding to heart muscle activity during a heartbeat; identify a skin nerve activity using the filtered signal data; estimate a sympathetic nerve activity using predetermined correlations or relationships, stored in a memory, between the skin nerve activity and the sympathetic nerve activity; generate a report indicative of the estimated sympathetic nerve activity.