mhurhangee/ep-ind-claims huggingface dataset:
A memory cell, comprising: a vertical channel coupled at a first end to a capacitor and at a second end to a first source/drain region the vertical channel comprising at least one nanorod wherein each nanorod includes a vertical transport region of semiconductor material, the semiconductor material of the vertical transport region having a substantially circular cross-section having a diameter of about 0.5 nm to about 15 nm providing a band gap energy increased from its native band gap energy in bulk form, the semiconductor material contacting and extending vertically from the first source/drain region, wherein the first source/drain region and the vertical transport region each comprise a SiC or a SiGeC layer, a dielectric (206A, 306A, 406) surrounding the at least one nanorod and a field electrode (208B, 308A, 408) coupled to the vertical transport region using the dielectric, the field electrode being a gate conductor (208B, 308A, 408) a vertical channel coupled at a first end to a capacitor and at a second end to a first source/drain region the vertical channel comprising at least one nanorod wherein each nanorod includes a vertical transport region of semiconductor material, the semiconductor material of the vertical transport region having a substantially circular cross-section having a diameter of about 0.5 nm to about 15 nm providing a band gap energy increased from its native band gap energy in bulk form, the semiconductor material contacting and extending vertically from the first source/drain region, wherein the first source/drain region and the vertical transport region each comprise a SiC or a SiGeC layer, a dielectric (206A, 306A, 406) surrounding the at least one nanorod and a field electrode (208B, 308A, 408) coupled to the vertical transport region using the dielectric, the field electrode being a gate conductor (208B, 308A, 408)
Brake shoe, having a lining carrier with an upper side (4.1) and a friction lining which is fixed to the lining carrier by means of at least one pin, and it being possible for the friction lining to be worn as far as a wear limit, characterized in that the pin protrudes into the friction lining as far as below the wear limit, with the result that the at least one pin remains below a friction face (6.1) of the friction lining at least in the case of a friction lining which is not completely worn, and in that the at least one pin is pressed into the lining carrier from the upper side (4.1) of the lining carrier plate.
Picking-up device, in particular a pick-up, for an agricultural working machine, comprising a picking-up rotor and a wheel, the picking-up rotor being provided for picking up crops from the ground, the wheel being arranged on the side of the picking-up rotor, the wheel being arranged on a support arm which is articulated to a frame of the picking-up device by means of a stationary guide element, the wheel being automatically and reversibly adjustable from a working position, in which the wheel is provided for guiding the picking-up device over the ground and in which the picking-up device has a working width, into a transport position, in which the picking-up device has a smaller transport than the working width, the picking-up device being height-adjustable in the working position of the wheel by means of an actuator, the wheel being designed to be adjustable from the working position into the transport position along a spatial path, the actuator being configured both for height adjustment of the picking-up device and for automatic wheel adjustment of the wheel from the working position into the transport position, characterised in that the stationary guide element is a joint having at least two degrees of freedom.
Method for the supercritical-phase chromatography of a product P, that includes, continuously and in the order listed: - a pumping operation for a supercritical fluid, - an injection operation for at least one sample of the product P in at least one chromatography column, - an operation for detection, and - an operation for the collection of fractions, characterized in that it includes: - a first routing between an analytical path and a preparatory path, said first routing occurring prior to the operation for pumping the supercritical fluid, the said analytical and preparatory paths each including its own supercritical fluid pumping operations, the analytical path comprising a low-pressure pump and the preparatory path comprising a high-pressure pump and the said analytical and preparatory paths each including its own injection (5a, 5b) operations, the analytical path comprising at least a column and the preparatory path comprising at least a column; - a second routing at the convergence point of the analytical and preparatory paths upstream of a collection system; - a regulation of the column outlet pressure using a back-pressure regulator, placed downstream of the convergence point and upstream of the collection system; - a final collection operation by the collection system common to the analytical and preparatory paths. - a pumping operation for a supercritical fluid, - an injection operation for at least one sample of the product P in at least one chromatography column, - an operation for detection, and - an operation for the collection of fractions, - a first routing between an analytical path and a preparatory path, said first routing occurring prior to the operation for pumping the supercritical fluid, the said analytical and preparatory paths each including its own supercritical fluid pumping operations, the analytical path comprising a low-pressure pump and the preparatory path comprising a high-pressure pump and the said analytical and preparatory paths each including its own injection (5a, 5b) operations, the analytical path comprising at least a column and the preparatory path comprising at least a column; - a second routing at the convergence point of the analytical and preparatory paths upstream of a collection system; - a regulation of the column outlet pressure using a back-pressure regulator, placed downstream of the convergence point and upstream of the collection system; - a final collection operation by the collection system common to the analytical and preparatory paths.
Motor-vehicle headlamp comprising a plurality of optical modules each comprising at least one light source, said device being able to emit at least two beams containing cutoffs that are different, said device comprising: - a first optical module able to generate a first beam containing a cutoff that is substantially flat, - a second optical module able to generate a second beam containing a cutoff that is at least partially oblique, at least one of the overall beams (Fg) emitted by said lighting device being the superposition of at least two of said beams (F1, F2) emitted by the optical modules (M1, M2); characterized in that one of the optical modules (M1, M2, M3, M4) at least has a beam orientation that is adjustable with respect to the others along at least one axis, via movement of the module or of at least one of its components and in that the height of the beam emitted by the optical module is adjustable. - a first optical module able to generate a first beam containing a cutoff that is substantially flat, - a second optical module able to generate a second beam containing a cutoff that is at least partially oblique,
An apparatus for providing a call session control function, said apparatus having a first mode in which said apparatus provides a serving call session control function characterised in that the apparatus has a second mode in which said apparatus provides an outbound proxy function adapted for causing routing of an application server originated session to another network, wherein said modes are selected in response to information of a public service identity used as session originator in an initial request received by said apparatus from the application server.
A method performed by a transmitting device in a wireless communication system, the method comprising: obtaining a plurality of radio link control, RLC, data protocol data units, PDUs, in an RLC entity; generating an automatic repeat request, ARQ, PDU corresponding to an RLC data PDU set including the plurality of RLC data PDUs based on a resource allocation in the RLC entity; transmitting, from a medium access control, MAC, layer, a first MAC PDU including the RLC data PDU set and the ARQ PDU to a receiving device through a lower layer; and receiving a status PDU associated with the RLC data PDU set when a certain condition is satisfied, wherein the status PDU is generated based on receiving condition information indicating a receiving condition for at least one RLC data PDU set in a receiving window and a state variable updated for the RLC data PDU set corresponding to the plurality of RLC data PDUs based on the ARQ PDU, wherein the ARQ PDU comprises information for processing an operation related to the RLC data PDU set, wherein the first MAC PDU comprises a MAC sub PDU comprising the ARQ PDU and a MAC sub header concatenated with the ARQ PDU, and the MAC sub PDU is located in the first portion of the first MAC PDU. obtaining a plurality of radio link control, RLC, data protocol data units, PDUs, in an RLC entity; generating an automatic repeat request, ARQ, PDU corresponding to an RLC data PDU set including the plurality of RLC data PDUs based on a resource allocation in the RLC entity; transmitting, from a medium access control, MAC, layer, a first MAC PDU including the RLC data PDU set and the ARQ PDU to a receiving device through a lower layer; and receiving a status PDU associated with the RLC data PDU set when a certain condition is satisfied, wherein the status PDU is generated based on receiving condition information indicating a receiving condition for at least one RLC data PDU set in a receiving window and a state variable updated for the RLC data PDU set corresponding to the plurality of RLC data PDUs based on the ARQ PDU, wherein the ARQ PDU comprises information for processing an operation related to the RLC data PDU set, wherein the first MAC PDU comprises a MAC sub PDU comprising the ARQ PDU and a MAC sub header concatenated with the ARQ PDU, and the MAC sub PDU is located in the first portion of the first MAC PDU.
An electrical holder (10; 310) for at least a camera module which comprises a photosensitive chip (30; 330), comprising: a main body (11; 311); and a circuit arrangement (12; 313) integrated within said main body, wherein said circuit arrangement (12; 313) is arranged for electrically connecting to the photosensitive chip (30; 330), and wherein the photosensitive chip (30; 330) is suitable for being arranged inside the electrical holder and is positioned within the electrical holder; characterized in that said circuit arrangement (12; 313) comprises a plurality of electrical elements (121; 3132) and a plurality of electrical conductors (122; 3131), wherein said electrical conductors are electrically connected with said electrical elements, wherein said electrical elements are embedded in said main body; and wherein a plurality of motor conductive members (133; 3122) are provided on the top surface of the main body (11; 311), which can be electrically connected with a motor (50; 350) of the camera module. a main body (11; 311); and a circuit arrangement (12; 313) integrated within said main body, wherein said circuit arrangement (12; 313) is arranged for electrically connecting to the photosensitive chip (30; 330), and wherein the photosensitive chip (30; 330) is suitable for being arranged inside the electrical holder and is positioned within the electrical holder; characterized in that said circuit arrangement (12; 313) comprises a plurality of electrical elements (121; 3132) and a plurality of electrical conductors (122; 3131), wherein said electrical conductors are electrically connected with said electrical elements, wherein said electrical elements are embedded in said main body; and wherein a plurality of motor conductive members (133; 3122) are provided on the top surface of the main body (11; 311), which can be electrically connected with a motor (50; 350) of the camera module.
Method for producing a sensor housing which has at least one housing shell and multiple seals (7, 8, 9) which are arranged on the housing shell and which are of closed encircling form, wherein, during the formation of the seals (7, 8, 9), in each case two of the seals (7, 8, 9) are connected to one another by way of a connecting web (12, 13) which is formed in unipartite fashion and materially integrally with the seals (7, 8, 9) having the steps: - providing the housing shell, - placing the housing shell into a casting mold such that multiple seal-receiving channels which are of closed form in a circumferential direction are formed, wherein in each case two of the seal-receiving channels are connected to one another in terms of flow by way of an overflow channel, - introducing a casting material via a single one of the seal-receiving channels at an injection point, until all of the seal-receiving channels are filled with the casting material, in order to form the seals (7, 8, 9) in all of the seal-receiving channels, characterized in that an overflow chamber is formed in addition to the seal-receiving channels, wherein that one of the seal-receiving channels which is arranged furthest downstream as viewed in the flow direction of the casting material is connected in terms of flow via a further overflow channel to the overflow chamber. - providing the housing shell, - placing the housing shell into a casting mold such that multiple seal-receiving channels which are of closed form in a circumferential direction are formed, wherein in each case two of the seal-receiving channels are connected to one another in terms of flow by way of an overflow channel, - introducing a casting material via a single one of the seal-receiving channels at an injection point, until all of the seal-receiving channels are filled with the casting material, in order to form the seals (7, 8, 9) in all of the seal-receiving channels,
A method for generating a light appearance image in the interior of a motor vehicle (K1, K2), wherein the light appearance image is generated at least in dependence on operating conditions (B1-B6) of the motor vehicle (K1, K2) acting as a trigger (TAA, TBB, TCC) and/or environmental parameters in the environment of the motor vehicle (K1, K2), wherein the light appearance image is generated at least in the area of the cockpit of the motor vehicle (K1, K2) in the form of a horizontally aligned, linear animation (A1-A29), wherein the light appearance image extends at least over a large part of the width of the cockpit or moves at least along a large part of the width of the cockpit, the light appearance image is generated as a visual accompaniment of a voice input (SE1, SE2) of a vehicle occupant and optionally a vehicle-side voice output (SA1-SA3), characterized in that the light appearance image is generated in front of the occupant of the vehicle and after generation is moved towards the vehicle occupant, who makes or has made the voice input (SE1, SE2), wherein the operating condition (B1-B6) acting as a trigger (TAA, TBB, TCC) comes from a vehicle-side voice recognition system.
A method for determining a Generator of a Generative Adversarial Network, GAN, for post-processing of an audio signal, wherein the Generator includes an encoder stage and a decoder stage, wherein the encoder stage and the decoder stage each include a plurality of layers (2, 3, 4, 5, 7, 8, 9) with one or more filters in each layer, wherein each filter includes one or more weights, and wherein a bottleneck layer of the encoder stage of the Generator maps to a coded audio feature space between the encoder stage and the decoder stage, wherein the method includes the steps of: (a) pruning one or more layers of the encoder stage and/or the decoder stage adjacent to the bottleneck layer based on a set of sensitivity parameters that indicate thresholds for the pruning; and (b) pruning the bottleneck layer of the encoder stage based on the set of sensitivity parameters, wherein the pruning includes zeroing one or more weights based on the set of sensitivity parameters, and wherein the set of sensitivity parameters is chosen such that an increase in sparsity of the bottleneck layer is less than the increase in sparsity of either of the one or more pruned layers of the encoder stage and/or the decoder stage. (a) pruning one or more layers of the encoder stage and/or the decoder stage adjacent to the bottleneck layer based on a set of sensitivity parameters that indicate thresholds for the pruning; and (b) pruning the bottleneck layer of the encoder stage based on the set of sensitivity parameters, wherein the pruning includes zeroing one or more weights based on the set of sensitivity parameters, and wherein the set of sensitivity parameters is chosen such that an increase in sparsity of the bottleneck layer is less than the increase in sparsity of either of the one or more pruned layers of the encoder stage and/or the decoder stage.
A composition comprising a nonlinear saccharide conjugate that comprises a saccharide selected from a polysaccharide and an oligosaccharide, wherein the saccharide linked to at least two carrier peptides, wherein: the at least two carrier peptides comprise at least one T-cell epitope and have no conformational B-cell epitopes, at least one of the at least two peptides is internally linked to the saccharide and at least one of the at least two peptides comprise a PV1 (peptide derived from the VP1 protein of poliovirus type 1). T-cell epitope. the at least two carrier peptides comprise at least one T-cell epitope and have no conformational B-cell epitopes, at least one of the at least two peptides is internally linked to the saccharide and at least one of the at least two peptides comprise a PV1 (peptide derived from the VP1 protein of poliovirus type 1). T-cell epitope.
A media processing system arranged to process image receiving media under predetermined physical conditions, the system comprising scheduling means configured to schedule jobs to be processed using image receiving media from one or more input bins in the system and to calculate predicted timings at which the image receiving media will have to be ready for processing and to indicate the predicted timings on a user interface, the system further comprising a buffer in which a supply of image receiving media that has been received from a first environment is kept in a specified second environment before being processed, wherein the buffer is distinct from the input bins and comprises a local media store from which the image receiving media are to be transferred to one or more of the input bins from which they will be supplied for being processed, and wherein the scheduling means is further configured to calculate an acclimatization time required for the image receiving media to acquire said predetermined physical conditions by being kept in the second environment in the buffer, and to calculate and indicate on the user interface a predicted timing as to prompt a user at which time the image receiving media should be present in the buffer at the latest in view of the calculated acclimatization time.
Device for determining its location within a predetermined space using a location determination system, the location determination system comprising at least two speakers and the device, wherein each speaker is configured to produce a unique predetermined, possibly ultrasonic, sound in said space,wherein the device comprises:- at least two microphones (5-1, 5-2, 5-3, 5-4) with a mutual interspacing, each configured to receive sound and each comprising an output for providing a signal corresponding to the sound received;- a memory configured to store for each speaker a fingerprint corresponding to the unique predetermined sound and information relating to a location of that speaker; and- a processor connected to the outputs, characterized in that the processor is configured to:- determine, for each sound, based on a comparison of signals received from the outputs with fingerprints retrieved from the memory, a difference between arrival times of the sound at each microphone (5-1, 5-2, 5-3, 5-4) for each pair of said at least two microphones (5-1, 5-2, 5-3, 5-4), and-determine, based on the differences in arrival time, an orientation of the device with respect to each one of the speakers, and to perform multiangulation based on the information relating to the speaker locations to determine the location of the device in the space.
A metering pump having - a hydraulic drive for supplying a hydraulic fluid under pressure, - a housing, - an oscillating piston, which is accommodated in the housing in such a way that at least a first and a second hydraulic chamber (9-1, 9-2) and a first and a second delivery chamber are formed, - wherein the oscillating piston has at least a first driving surface in the first hydraulic chamber and at least a second driving surface in the second hydraulic chamber, and the hydraulic chambers (9-1, 9-2) communicate with the hydraulic drive, thus enabling the oscillating piston to be moved backward and forward between a first and a second position by the hydraulic fluid, - wherein, during the movement from the first to the second position, the volume of the first delivery chamber is enlarged and the volume of the second delivery chamber is reduced and, during the movement from the second to the first position, the volume of the second delivery chamber is enlarged and the volume of the first delivery chamber is reduced characterized by - an adjusting device, which is coupled to the oscillating piston in such a way that the movement of the oscillating piston can be limited in such a way that different minimum and/or maximum volumes can be set for at least one of the delivery chambers (6-1, 6-2), - wherein the adjusting device comprises at least one stop piston (23-1, 23-2), which limits the space in the delivery chamber (6-1, 6-2) which is assigned to the stop piston (23-1, 23-2). - a hydraulic drive for supplying a hydraulic fluid under pressure, - a housing, - an oscillating piston, which is accommodated in the housing in such a way that at least a first and a second hydraulic chamber (9-1, 9-2) and a first and a second delivery chamber are formed, - wherein the oscillating piston has at least a first driving surface in the first hydraulic chamber and at least a second driving surface in the second hydraulic chamber, and the hydraulic chambers (9-1, 9-2) communicate with the hydraulic drive, thus enabling the oscillating piston to be moved backward and forward between a first and a second position by the hydraulic fluid, - wherein, during the movement from the first to the second position, the volume of the first delivery chamber is enlarged and the volume of the second delivery chamber is reduced and, during the movement from the second to the first position, the volume of the second delivery chamber is enlarged and the volume of the first delivery chamber is reduced - an adjusting device, which is coupled to the oscillating piston in such a way that the movement of the oscillating piston can be limited in such a way that different minimum and/or maximum volumes can be set for at least one of the delivery chambers (6-1, 6-2), - wherein the adjusting device comprises at least one stop piston (23-1, 23-2), which limits the space in the delivery chamber (6-1, 6-2) which is assigned to the stop piston (23-1, 23-2).