mhurhangee/ep-ind-claims huggingface dataset:
A specimen machining device for machining a specimen by irradiating the specimen with an ion beam, the specimen machining device comprising: an ion source for irradiating the specimen with the ion beam; a shielding member disposed on the specimen to block the ion beam; a specimen stage for holding the specimen; a camera for photographing the specimen; a coaxial illumination device for irradiating the specimen with illumination light along the optical axis of the camera; a transmission illumination device for transmissively illuminating the specimen; and a processing unit for determining whether to terminate the machining based on an image photographed by the camera, the processing unit performing processing for: acquiring the image; acquiring information indicating a target machined width; extracting from the image the two inclined surfaces formed by the machining using the fact that only the two inclined surfaces are dark due to the coaxial illumination; measuring a machined width on the acquired image, the machined width being a distance in a direction perpendicular to both the ion beam and the illumination light, between the two inclined surfaces; and terminating the machining when the measured machined width equals or exceeds the target machined width. an ion source for irradiating the specimen with the ion beam; a shielding member disposed on the specimen to block the ion beam; a specimen stage for holding the specimen; a camera for photographing the specimen; a coaxial illumination device for irradiating the specimen with illumination light along the optical axis of the camera; a transmission illumination device for transmissively illuminating the specimen; and a processing unit for determining whether to terminate the machining based on an image photographed by the camera, the processing unit performing processing for: acquiring the image; acquiring information indicating a target machined width; extracting from the image the two inclined surfaces formed by the machining using the fact that only the two inclined surfaces are dark due to the coaxial illumination; measuring a machined width on the acquired image, the machined width being a distance in a direction perpendicular to both the ion beam and the illumination light, between the two inclined surfaces; and terminating the machining when the measured machined width equals or exceeds the target machined width. acquiring the image; acquiring information indicating a target machined width; extracting from the image the two inclined surfaces formed by the machining using the fact that only the two inclined surfaces are dark due to the coaxial illumination; measuring a machined width on the acquired image, the machined width being a distance in a direction perpendicular to both the ion beam and the illumination light, between the two inclined surfaces; and terminating the machining when the measured machined width equals or exceeds the target machined width.
A sensor system comprising a sensor device for remote monitoring of a waste container, the sensor device comprising: one or more sensors for sensing an amount of waste and an environment within the waste container; a data processing unit for processing sensor signals generated by the one or more sensors indicative of the amount of waste in the waste container and the environment within the waste container; a communication interface coupled to the data processing unit for enabling the sensor device to communicate information corresponding to the sensor signals to a remote location relative to the sensor device; and a powering unit to power up the sensor device; characterized in that, the sensor system further comprises one or more spacing elements, a heat reflecting layer and a mounting arrangement for mounting the sensor device to an underside surface of an upper lid of the waste container in a spaced apart manner by placing the one or more spacing elements in combination with the heat reflecting layer arranged between the sensor device and the upper lid of the waste container so as to provide a thermal barrier between an underside surface of the waste container lid and an external surface of the sensor device. one or more sensors for sensing an amount of waste and an environment within the waste container; a data processing unit for processing sensor signals generated by the one or more sensors indicative of the amount of waste in the waste container and the environment within the waste container; a communication interface coupled to the data processing unit for enabling the sensor device to communicate information corresponding to the sensor signals to a remote location relative to the sensor device; and a powering unit to power up the sensor device;
A fixation device comprising a shaft rotatable about a longitudinal axis with a first cutter at a first, distal end; a guide body on the shaft shaped to taper outwardly towards the first end of the shaft; an elongate sleeve (73,88) disposed surroundingly about the shaft to be rotatable separately from the shaft and translatable in a longitudinal direction relative to the shaft, wherein an upper portion of the sleeve at or about a second end comprises an anchoring structure having one or more reaction surfaces adapted in use with the fixation device in situ in a substrate to engage with the substrate; a flareable end formation at a first, distal end of the elongate sleeve comprising one or more second cutters; the guide body and flareable end formation being arranged so that urging the sleeve towards the first end over the guide body flares the end formation outward from the shaft; a tensioning mechanism (91,92) associated with a second end of the sleeve operable selectively to urge the shaft relative to the sleeve back towards the second end; characterised in that the sleeve is provided in two parts comprising a distal part and a proximal part, the two parts being axially spaced by a torque coupling by means of which they are co-rotatable as the sleeve is driven into a substrate, but which torque coupling is adapted to allow relative translation of the two parts to reduce their axial spacing as an axial load is applied.
A capsule formulation comprising: an encapsulated material comprising {[(1 R,2 R)-2-[4-(4-cyanophenyl)-1,3-thiazol-2-yl]-1-(2,4-difluorophenyl)-1-(1 H -1,2,4-tria zol-1-ylmethyl)propyl]oxylmethyl dihydrogen phosphate or a pharmacologically acceptable salt thereof, or a solvate of any of the foregoing; and a capsule shell not comprising gelatin. an encapsulated material comprising {[(1 R,2 R)-2-[4-(4-cyanophenyl)-1,3-thiazol-2-yl]-1-(2,4-difluorophenyl)-1-(1 H -1,2,4-tria zol-1-ylmethyl)propyl]oxylmethyl dihydrogen phosphate or a pharmacologically acceptable salt thereof, or a solvate of any of the foregoing; and a capsule shell not comprising gelatin.
A method for monitoring and/or controlling the transport and/or processing of a plurality of products, wherein: - each of the products has associated therewith a reference, - the products are consecutively conveyed by a transport device, preferably spaced apart from each other, along a transport direction, and - are guided, by the transport device, past at least one detection device (1, 1') that captures the reference and communicates a message associated with the reference to a processing unit, characterized in that - a plurality of messages of references of the products are combined to form a message packet during a delay period, and - the message packet is communicated to the processing unit upon expiration of the delay period. - each of the products has associated therewith a reference, - the products are consecutively conveyed by a transport device, preferably spaced apart from each other, along a transport direction, and - are guided, by the transport device, past at least one detection device (1, 1') that captures the reference and communicates a message associated with the reference to a processing unit, characterized in that - a plurality of messages of references of the products are combined to form a message packet during a delay period, and - the message packet is communicated to the processing unit upon expiration of the delay period.
Steering control unit, wherein the steering control unit is designed to receive input signals (M H, FAS) from at least one sensor for sensing a steering requirement of a motor vehicle driver and from at least one driver assistance system (10, 11), wherein the steering control unit is further designed to generate an actuating signal for power electronics, the actuating signal being made up of two components (K1, K2), wherein the steering control unit is designed in such a way that the first component is ascertained from the input signal (M H) of the at least one sensor, the signals of the driver assistance system (10, 11) having no influence on the first component, and the second component is ascertained from the input signals of the at least one driver assistance system (10, 11), the signals of the sensor being taken into consideration in the second component, characterized in that the steering control unit is designed in such a way that the second component is ascertained in a steering feel replication unit, the steering control unit is designed in such a way that the second component is made up of at least two subcomponents (SK1, SK2), a first subcomponent being ascertained in a steering feel replication unit and a second subcomponent being ascertained in a bypass characteristic curve unit. the steering control unit is designed in such a way that the first component is ascertained from the input signal (M H) of the at least one sensor, the signals of the driver assistance system (10, 11) having no influence on the first component, and the second component is ascertained from the input signals of the at least one driver assistance system (10, 11), the signals of the sensor being taken into consideration in the second component, characterized in that the steering control unit is designed in such a way that the second component is ascertained in a steering feel replication unit, the steering control unit is designed in such a way that the second component is made up of at least two subcomponents (SK1, SK2), a first subcomponent being ascertained in a steering feel replication unit and a second subcomponent being ascertained in a bypass characteristic curve unit.
Use of carbon black for reducing the shrinkage of a polyolefin composition to below 0.9%, wherein the polyolefin composition comprises a) a polyolefin polymer, b) carbon black in an amount of from 0.05 to 2 wt.% based on the total weight of the polyolefin composition wherein the shrinkage is measured according to the specification. a) a polyolefin polymer, b) carbon black in an amount of from 0.05 to 2 wt.% based on the total weight of the polyolefin composition
A method for operating a user equipment (410, 420, 430), UE, in a wireless network, the method comprising: waking up from an inactive state before an on-duration of a discontinuous reception, DRX, cycle; after waking up, performing beam training before the on-duration; and receiving signals through a beam determined by the beam training during the on-duration. waking up from an inactive state before an on-duration of a discontinuous reception, DRX, cycle; after waking up, performing beam training before the on-duration; and receiving signals through a beam determined by the beam training during the on-duration.
A storage apparatus, comprising: a door, configured to be slidably coupled to a back panel of a vehicle body; and a support structure, connected to the door, configured to be unfolded or folded in conjunction with movement of the door and to support the door, characterized in that the door includes an edge panel, a door panel, and a guide block, wherein the edge panel is configured to be rotatably support a first support panel of the support structure, wherein the door panel is rotatably coupled to the edge panel, and wherein the guide block is configured to be coupled to the edge panel and slidably disposed on the back panel of the vehicle body. a door, configured to be slidably coupled to a back panel of a vehicle body; and a support structure, connected to the door, configured to be unfolded or folded in conjunction with movement of the door and to support the door, characterized in that the door includes an edge panel, a door panel, and a guide block, wherein the edge panel is configured to be rotatably support a first support panel of the support structure, wherein the door panel is rotatably coupled to the edge panel, and wherein the guide block is configured to be coupled to the edge panel and slidably disposed on the back panel of the vehicle body.
A motor driving apparatus comprising: an inverter to convert DC voltage into AC voltage and to output the AC voltage to a motor; an output voltage detection unit to detect output voltage applied to the motor; an output current detection unit to detect output current flowing in the motor; and an inverter controller configured to control the inverter based on the detected output current and the detected output voltage, and characterized in that: wherein during a starting operation of the motor, the inverter controller is configured to supply not constant level current but current, which is proportional to the back electromotive force induced from motor, wherein the direction of the current is opposite to the back electromotive force, to the motor, wherein the rotor of the motor is aligned more rapidly in a case in which the current corresponding to the direction opposite to the back electromotive force is supplied to the motor than in a case in which the constant level current is supplied to the motor. an inverter to convert DC voltage into AC voltage and to output the AC voltage to a motor; an output voltage detection unit to detect output voltage applied to the motor; an output current detection unit to detect output current flowing in the motor; and an inverter controller configured to control the inverter based on the detected output current and the detected output voltage, and characterized in that: wherein during a starting operation of the motor, the inverter controller is configured to supply not constant level current but current, which is proportional to the back electromotive force induced from motor, wherein the direction of the current is opposite to the back electromotive force, to the motor, wherein the rotor of the motor is aligned more rapidly in a case in which the current corresponding to the direction opposite to the back electromotive force is supplied to the motor than in a case in which the constant level current is supplied to the motor. wherein during a starting operation of the motor, the inverter controller is configured to supply not constant level current but current, which is proportional to the back electromotive force induced from motor, wherein the direction of the current is opposite to the back electromotive force, to the motor, wherein the rotor of the motor is aligned more rapidly in a case in which the current corresponding to the direction opposite to the back electromotive force is supplied to the motor than in a case in which the constant level current is supplied to the motor.
Process for forming flexible bags, the bag comprising a first wall and a second wall superposed over the first wall, the walls (21, 22) being connected to each other along their longitudinal edges by two gussets, whereby successively: > the bag is closed to form a closed end of the bag opposite to the open end, > at a predetermined distance from the closed end of the bag the first wall is gripped by the lower grippers mounted on a lower support and the second wall by the upper grippers mounted on an upper support and the walls are separated by means of the grippers (41, 51), > the second wall is released by the upper grippers and the closed end is folded by the folding device on to the second wall forming a first crease extending on to the first wall between the lower grippers, a second crease extending on to the second wall, and a third crease entering into the second wall symmetrically with the end of the bag with respect to the second crease, thus making the bottom delimited between the first and second creases (281, 282), > the process being characterised by the fact that when the grippers (41, 51) are separated, a side is formed on the gussets extending from one wall to the other (21, 22) between the ends of the first crease and the ends of the second crease. > the bag is closed to form a closed end of the bag opposite to the open end, > at a predetermined distance from the closed end of the bag the first wall is gripped by the lower grippers mounted on a lower support and the second wall by the upper grippers mounted on an upper support and the walls are separated by means of the grippers (41, 51), > the second wall is released by the upper grippers and the closed end is folded by the folding device on to the second wall forming a first crease extending on to the first wall between the lower grippers, a second crease extending on to the second wall, and a third crease entering into the second wall symmetrically with the end of the bag with respect to the second crease, thus making the bottom delimited between the first and second creases (281, 282), > the process being characterised by the fact that when the grippers (41, 51) are separated, a side is formed on the gussets extending from one wall to the other (21, 22) between the ends of the first crease and the ends of the second crease.
A data transmission apparatus, wherein the data transmission apparatus is applied to a base station and comprises: an information configuration unit, configured to determine configuration information of a physical uplink control channel, PUCCH, and configuration information of an uplink sounding reference signal, SRS, wherein the configuration information of the PUCCH indicates a frequency-domain resource for transmitting the PUCCH, the configuration information of the SRS indicates a frequency-domain resource for transmitting the SRS, a frequency-domain resource for transmitting the PUCCH and a frequency-domain resource for transmitting the SRS in a same subframe are different, the PUCCH is mapped to a last symbol of the subframe, and the SRS is mapped to the last symbol of the subframe; a data sending unit, configured to send the configuration information of the PUCCH and the configuration information of the SRS to user equipment, UE, in a cell; a first subcarrier receiving unit, configured to receive, according to the configuration information of the PUCCH, a subcarrier that carries the PUCCH and that is sent by the UE; a first demodulation unit, configured to demodulate the subcarrier that carries the PUCCH to obtain the PUCCH; a second subcarrier receiving unit, configured to receive, according to the configuration information of the SRS, a subcarrier that carries the SRS and that is sent by the UE; and a second demodulation unit, configured to demodulate the subcarrier that carries the SRS to obtain the SRS. an information configuration unit, configured to determine configuration information of a physical uplink control channel, PUCCH, and configuration information of an uplink sounding reference signal, SRS, wherein the configuration information of the PUCCH indicates a frequency-domain resource for transmitting the PUCCH, the configuration information of the SRS indicates a frequency-domain resource for transmitting the SRS, a frequency-domain resource for transmitting the PUCCH and a frequency-domain resource for transmitting the SRS in a same subframe are different, the PUCCH is mapped to a last symbol of the subframe, and the SRS is mapped to the last symbol of the subframe; a data sending unit, configured to send the configuration information of the PUCCH and the configuration information of the SRS to user equipment, UE, in a cell; a first subcarrier receiving unit, configured to receive, according to the configuration information of the PUCCH, a subcarrier that carries the PUCCH and that is sent by the UE; a first demodulation unit, configured to demodulate the subcarrier that carries the PUCCH to obtain the PUCCH; a second subcarrier receiving unit, configured to receive, according to the configuration information of the SRS, a subcarrier that carries the SRS and that is sent by the UE; and a second demodulation unit, configured to demodulate the subcarrier that carries the SRS to obtain the SRS.
A method of increasing the nuclease resistance of a dsRNA and minimizing the overall number of modifications, the method comprising the steps of: (a) identifying in the nucleotide sequences of the sense strand as well as the antisense strand of the dsRNA all occurrences of the dinucleotides 5'-ua-3', 5'-ca-3', 5'-ug-3', 5'-uu-3', 5'-cc-3', 5'-uc-3' and 5'-cu-3'; and (b) replacing the 5'-uridines and/or 5'-cytidines in all occurrences of one or two of the dinucleotides identified in (a) with 2'-modified uridines and/or cytidines, respectively, wherein in all occurrences of 5'-uu-3', the 5'-most uridine is replaced, and in all occurrences of 5'-cc-3' the 5'-most cytidine is replaced, wherein said antisense strand comprises a nucleotide sequence which is 18 to 30 nucleotides in length and complementary to said sense strand. (a) identifying in the nucleotide sequences of the sense strand as well as the antisense strand of the dsRNA all occurrences of the dinucleotides 5'-ua-3', 5'-ca-3', 5'-ug-3', 5'-uu-3', 5'-cc-3', 5'-uc-3' and 5'-cu-3'; and (b) replacing the 5'-uridines and/or 5'-cytidines in all occurrences of one or two of the dinucleotides identified in (a) with 2'-modified uridines and/or cytidines, respectively, wherein in all occurrences of 5'-uu-3', the 5'-most uridine is replaced, and in all occurrences of 5'-cc-3' the 5'-most cytidine is replaced, wherein said antisense strand comprises a nucleotide sequence which is 18 to 30 nucleotides in length and complementary to said sense strand.
Tank for liquid, in particular of a turbomachine such as an aircraft turbojet engine, the tank comprising an external wall with an internal surface and an external surface; an inner chamber for containing the liquid from the tank and delimited by the inner surface of the outer wall; a liquid level measurement system; characterized in that the measurement system comprises: - a submersible portion along the internal surface of the external wall; - a clearance separating the submersible portion from the internal surface; and - a detector of liquid configured to emit a signal towards the submersible portion through the clearance, said signal being configured to be modified in the event of the presence of liquid in the clearance. - a submersible portion along the internal surface of the external wall; - a clearance separating the submersible portion from the internal surface; and - a detector of liquid configured to emit a signal towards the submersible portion through the clearance, said signal being configured to be modified in the event of the presence of liquid in the clearance.
Method for mounting a fiber composite component in the force flow of a clamping connection, having the step of: - heating the fiber composite, at least in an assembly region, characterized in that the following further steps are provided: - locally compressing the heated fiber composite in the assembly region so that the fiber composite settles to a predetermined degree, and - clamping the component of fiber composite in the assembly region. - heating the fiber composite, at least in an assembly region, - locally compressing the heated fiber composite in the assembly region so that the fiber composite settles to a predetermined degree, and - clamping the component of fiber composite in the assembly region.