mhurhangee/ep-ind-claims huggingface dataset:
A box, comprising: a floor; at least two pairs of respectively opposing side walls (14a, 14b, 16a, 16b), wherein a first one of the side walls extends upwards from the floor in a vertical direction at least partially only by a retrieval height which is lower than the height of one or several of the remaining side walls (14a, 14b, 16a), to define a lateral opening with dimensions which enable an access to and the removal of products comprised in the box through the lateral opening; and an insert for being arranged on the floor, wherein the insert is implemented depending on the products to be received in the box, wherein the insert comprises a plurality of sleeves (22a, 22b) which are implemented such that they may hold bottles arranged in the box, characterized in that the sleeves (22a, 22b) comprise an outer boundary surface extending upwards in a vertical direction, its height varying along the outer circumference of the sleeve, and at least one sleeve in a first side surface area, which extends in parallel to a first side wall and secures a bottle towards the rear in a direction facing away from the first side wall, comprises a height lower than that of a second side surface area securing the bottle so as to not fall over in a direction parallel to the first side wall. a floor; at least two pairs of respectively opposing side walls (14a, 14b, 16a, 16b), wherein a first one of the side walls extends upwards from the floor in a vertical direction at least partially only by a retrieval height which is lower than the height of one or several of the remaining side walls (14a, 14b, 16a), to define a lateral opening with dimensions which enable an access to and the removal of products comprised in the box through the lateral opening; and an insert for being arranged on the floor, wherein the insert is implemented depending on the products to be received in the box, the sleeves (22a, 22b) comprise an outer boundary surface extending upwards in a vertical direction, its height varying along the outer circumference of the sleeve, and at least one sleeve in a first side surface area, which extends in parallel to a first side wall and secures a bottle towards the rear in a direction facing away from the first side wall, comprises a height lower than that of a second side surface area securing the bottle so as to not fall over in a direction parallel to the first side wall.
A replacement heart valve assembly comprising: a stent frame; a replacement valve, the replacement valve having a plurality of leaflets and a valve frame, the valve leaflets attached to the valve frame; a plurality of suspension struts attached to the stent frame and the valve frame, wherein the valve frame is suspended within the stent frame via the suspension struts; and a sealing member, the sealing member attached to the stent frame characterized in that the replacement heart valve assembly has a deployed configuration, wherein, in the deployed configuration, the stent frame is elliptical and the valve frame is circular. a stent frame; a replacement valve, the replacement valve having a plurality of leaflets and a valve frame, the valve leaflets attached to the valve frame; a plurality of suspension struts attached to the stent frame and the valve frame, wherein the valve frame is suspended within the stent frame via the suspension struts; and a sealing member, the sealing member attached to the stent frame characterized in that the replacement heart valve assembly has a deployed configuration, wherein, in the deployed configuration, the stent frame is elliptical and the valve frame is circular.
Convertible charge comprising an explosive charge, a first ignition device, a deformable insert and a holder with a multiplicity of explosive pellets arranged in a distributed manner, wherein the holder is arranged within the charge and almost perpendicular to the main axis of the charge, characterized - in that a further ignition device is arranged on the main axis of the charge and in the region of the holder, and - in that at a distance (a) of about one half to one calibre before the insert in the firing direction, a multiplicity of plate-shaped, outwardly inclined guiding devices are arranged on a holding device in an annular manner around the main axis. - in that a further ignition device is arranged on the main axis of the charge and in the region of the holder, and - in that at a distance (a) of about one half to one calibre before the insert in the firing direction, a multiplicity of plate-shaped, outwardly inclined guiding devices are arranged on a holding device in an annular manner around the main axis.
A method for determining a length of feedback response information, characterized by comprising: receiving, by a terminal, configuration signaling sent by a network-side device, the configuration signaling comprising an indication about a maximum transmission delay for feedback response information; dynamically determining, by the terminal, a hybrid automatic repeat request, HARQ, feedback timing; determining, by the terminal, a total number of bits of feedback response information to be transmitted according to the maximum transmission delay, wherein the maximum transmission delay is a maximum time interval between a time unit where downlink data is carried and a time unit where the feedback response information for the downlink data is carried; and sending, by the terminal to the network-side device, the feedback response information to be transmitted with the total number of bits. receiving, by a terminal, configuration signaling sent by a network-side device, the configuration signaling comprising an indication about a maximum transmission delay for feedback response information; dynamically determining, by the terminal, a hybrid automatic repeat request, HARQ, feedback timing; determining, by the terminal, a total number of bits of feedback response information to be transmitted according to the maximum transmission delay, wherein the maximum transmission delay is a maximum time interval between a time unit where downlink data is carried and a time unit where the feedback response information for the downlink data is carried; and sending, by the terminal to the network-side device, the feedback response information to be transmitted with the total number of bits.
An antibody or fragment thereof comprising: i) an immunoglobin heavy chain variable region, wherein the VH comprises the amino acid sequence as shown in SEQ ID NO:2; and an immunoglobin light chain variable region, wherein the VL comprises the amino acid sequence as shown in SEQ ID NO:4; ii) an immunoglobin heavy chain variable region, wherein the VH comprises the amino acid sequence as shown in SEQ ID NO: 6; and an immunoglobin light chain variable region, wherein the VL comprises the amino acid sequence as shown in SEQ ID NO: 8; or iii) an immunoglobin heavy chain variable region, wherein the VH comprises the amino acid sequence as shown in SEQ ID NO: 10; and an immunoglobin light chain variable region, wherein the VL comprises the amino acid sequence as shown in SEQ ID NO: 12. i) an immunoglobin heavy chain variable region, wherein the VH comprises the amino acid sequence as shown in SEQ ID NO:2; and an immunoglobin light chain variable region, wherein the VL comprises the amino acid sequence as shown in SEQ ID NO:4; ii) an immunoglobin heavy chain variable region, wherein the VH comprises the amino acid sequence as shown in SEQ ID NO: 6; and an immunoglobin light chain variable region, wherein the VL comprises the amino acid sequence as shown in SEQ ID NO: 8; or iii) an immunoglobin heavy chain variable region, wherein the VH comprises the amino acid sequence as shown in SEQ ID NO: 10; and an immunoglobin light chain variable region, wherein the VL comprises the amino acid sequence as shown in SEQ ID NO: 12.
An apparatus comprising: a transistor having a gate, a drain, and a source, wherein the drain is coupled to receive an alternating current, AC, power supply signal; a first component comprising a first diode coupled between an output node (VOUT) and the gate of the transistor, wherein the first component couples an output voltage from the output node to charge a gate-source capacitor (Cgs) during a first portion of the AC power supply signal; and a second component comprising a second diode coupled to the source of the transistor and the output node, wherein the second component causes the source of the transistor to follow the AC power supply signal until the transistor turns on, wherein the transistor is configured to turn on during a second portion of the AC power supply signal to send a charge to the output node, the charge used to power a circuit of a power supply. a transistor having a gate, a drain, and a source, wherein the drain is coupled to receive an alternating current, AC, power supply signal; a first component comprising a first diode coupled between an output node (VOUT) and the gate of the transistor, wherein the first component couples an output voltage from the output node to charge a gate-source capacitor (Cgs) during a first portion of the AC power supply signal; and a second component comprising a second diode coupled to the source of the transistor and the output node, wherein the second component causes the source of the transistor to follow the AC power supply signal until the transistor turns on, wherein the transistor is configured to turn on during a second portion of the AC power supply signal to send a charge to the output node, the charge used to power a circuit of a power supply.
An expanded polytetrafluoroethylene (ePTFE) membrane comprising: a matrix tensile strength of at least about 1000 MPa in the machine direction a matrix modulus of at least about 100 GPa at a temperature of 20°C; and a crystallinity index of at least about 94%, the matrix tensile strength, matrix modulus and crystallinity index being determined as indicated in the description. a matrix tensile strength of at least about 1000 MPa in the machine direction a matrix modulus of at least about 100 GPa at a temperature of 20°C; and a crystallinity index of at least about 94%, the matrix tensile strength, matrix modulus and crystallinity index being determined as indicated in the description.
Motor vehicle (15, 16), having a control device, a first sensor and a global positioning device, wherein the control device comprises a control unit and a data memory, wherein at least one item of information about an arrangement of an overhead line (45, 50) is stored in the data memory, wherein the control unit is connected to the first sensor and to the global positioning device, wherein the first sensor determines a position of the overhead line (45, 50) relative to the motor vehicle (15, 16) and provides the control unit with the relative position, wherein the global positioning device acquires a global position of the motor vehicle (15, 16) on the basis of data signals from different satellites and, on the basis of the acquired data signals, calculates a global position of the motor vehicle and provides the control unit with the global position, having a current collector with at least one contact strip (100, 105), at least one actuator (85, 90) and a supporting structure, wherein the actuator (85, 90) is coupled to the supporting structure, wherein the supporting structure bears the contact strip (100, 105) and is embodied to bring the contact strip (100, 105) into touching contact with the overhead line (45, 50), wherein the actuator (85, 90) is connected to the control unit, wherein the actuator (85, 90) is mechanically coupled to the supporting structure and is embodied to alter a contact strip position, wherein the control unit has a closed-loop control path, wherein the motor vehicle has a second sensor connected to the control unit, characterised in that the control unit, on the basis of the established relative position, the established global position and the information about the arrangement of the overhead line (45, 50), calculates a position of the motor vehicle, wherein the second sensor establishes a trajectory of the motor vehicle (15, 16) and provides the control unit with the established trajectory, wherein the control unit, on the basis of the position of the motor vehicle and the arrangement of the overhead line (45, 50), calculates a driving channel, wherein the driving channel maps an area, in which the motor vehicle can drive without departing from the lane (35, 40) of a road and the contact strips (100, 105) are in contact with the overhead line (45, 50), wherein the control unit compares the driving channel with the trajectory in a comparison, wherein, depending on the result of the comparison, the control unit provides a control signal, wherein the closed-loop control path is supplied with a section of the driving channel as a setpoint value, wherein the section lies directly in front of the motor vehicle, wherein the section is larger than a scanning range of the first sensor, wherein the closed-loop control path, on the basis of an actual value of the actuator (85, 90) and/or an actual value of the alignment of the contact strip (100, 105) relative to the overhead line (45, 50) activates the actuator (85, 90) by means of a further control signal.
A method for monitoring an operational characteristic of a data communication device within a network, the method comprising: Obtaining fine-grain samples of an operational characteristic of a data communication device, wherein the fine-grain samples are produced by sampling the operational characteristic of the data communication device at a fine-grain sample rate over a first sampling interval; Training a machine learning algorithm using the fine-grain samples of the operational characteristic of the data communication device, the fine-grain sample rate, and a coarse-grain sample rate that is less than the fine-grain sample rate; Obtaining coarse-grain samples of the operational characteristic of the data communication device, wherein the coarse-grain samples are produced by sampling the operational characteristic of the data communication device at the coarse-grain sample rate over a second sampling interval; and Using the machine learning algorithm to process the coarse-grain samples to produce accuracy-enhanced samples of the operational characteristic of the data communication device. Obtaining fine-grain samples of an operational characteristic of a data communication device, wherein the fine-grain samples are produced by sampling the operational characteristic of the data communication device at a fine-grain sample rate over a first sampling interval; Training a machine learning algorithm using the fine-grain samples of the operational characteristic of the data communication device, the fine-grain sample rate, and a coarse-grain sample rate that is less than the fine-grain sample rate; Obtaining coarse-grain samples of the operational characteristic of the data communication device, wherein the coarse-grain samples are produced by sampling the operational characteristic of the data communication device at the coarse-grain sample rate over a second sampling interval; and Using the machine learning algorithm to process the coarse-grain samples to produce accuracy-enhanced samples of the operational characteristic of the data communication device.
A stent comprising: a stent body defining a length and comprising a plurality of cells; each cell comprising two structural members (140a, 140b) extending in an undulating pattern; each structural member (140a,140b) comprising a plurality of cell segments defining a plurality of generally semi-circular arcuate nodes therebetween; wherein at least one node includes a non-constant radius of curvature, such that the inside edge of the node includes at least two distinct radii of curvature (R SA, R SB), and wherein the at least two distinct radii of curvature (R SA, R SB) are curved in a same direction, characterized in that the radius of curvature (R SA) of an inner edge of an apex of the node is smaller than the radius of curvature (R SB) of an inner edge located between the apex of the node and each adjacent cell segment. a stent body defining a length and comprising a plurality of cells; each cell comprising two structural members (140a, 140b) extending in an undulating pattern; each structural member (140a,140b) comprising a plurality of cell segments defining a plurality of generally semi-circular arcuate nodes therebetween; wherein at least one node includes a non-constant radius of curvature, such that the inside edge of the node includes at least two distinct radii of curvature (R SA, R SB), and wherein the at least two distinct radii of curvature (R SA, R SB) are curved in a same direction, characterized in that the radius of curvature (R SA) of an inner edge of an apex of the node is smaller than the radius of curvature (R SB) of an inner edge located between the apex of the node and each adjacent cell segment.
Method for the determination of output image data, wherein raw image data is acquired by an imaging sensor, after which it is further processed by a processing algorithm for quality improvement in order to determine the output image data, wherein the processing algorithm is parameterised by a plurality of processing parameters which are determined by training the processing algorithm by a plurality of training data sets as part of machine learning, wherein the training data sets each comprise an input image and a reference image, wherein as part of the machine learning, a measure for the deviation of processing images, which are determined by the application of the processing algorithm to the input image of a respective training data set, from the respective reference images, is minimised; characterised in that, for at least one of the training data sets, the image data of the reference image is recorded with a reference sensor (9, 14) and the image data of the input image is recorded with a comparison sensor (10, 15) rigidly coupled to the reference sensor (9, 14), wherein either the input image and the reference image display the same scene from the same perspective, or wherein the comparison sensor and the reference sensor use optical systems (16, 17) which are different from one another, wherein the detected image areas are displaced parallel to one another, wherein this is compensated in the context of the use and/or preparation of the training data sets by the input image and/or the reference image is cropped in such a way that the same imaging region is represented.
A method of determining a transmission resource block pool by a user equipment, UE, in device-to-device, D2D, communication, the method comprising: performing a frequency hopping for physical resource blocks, PRBs, in a resource block pool based on a predefined hopping pattern; indexing the frequency hopped resource blocks in the resource block pool; and mapping the indexed frequency hopped resource blocks to the PRBs, wherein the indexed frequency hopped resource blocks are arranged in ascending order of resource block indices, wherein the resource block pool is used to transmit D2D signals, and wherein the resource block pool includes a first resource region and a second resource region, wherein the first resource region is determined based on a first PRB of the resource block pool, and the second resource region is determined based on a last PRB of the resource block pool, and wherein the first and the last PRB is indicated by higher layer signaling. performing a frequency hopping for physical resource blocks, PRBs, in a resource block pool based on a predefined hopping pattern; indexing the frequency hopped resource blocks in the resource block pool; and mapping the indexed frequency hopped resource blocks to the PRBs, wherein the indexed frequency hopped resource blocks are arranged in ascending order of resource block indices, wherein the resource block pool is used to transmit D2D signals, and wherein the resource block pool includes a first resource region and a second resource region, wherein the first resource region is determined based on a first PRB of the resource block pool, and the second resource region is determined based on a last PRB of the resource block pool, and wherein the first and the last PRB is indicated by higher layer signaling.
A composition comprising a variant glucoamylase enzyme comprising an amino acid substitution in SEQ ID NO:1, wherein said amino acid substitution is selected from the group consisting of A111G, S14Q, K23N, K23R, K23Y, S30D, S30N, S30P, T31E, T31K, T31N, T31Q, A35L, S36R, S39A, L44I, T49K, T49R, S50E, S50I, S50N, S50Y, N51D, D53N, I69L, I69M, E83K, T98S, A117P, A117V, D118N, L119M, Q121A, Q121P, Y147W, C157W, Y179F, P186Y, Y197H, S250D, S250E, S250K, A262S, Q284H, I286A, T287N, T288H, A300L, A300Q, T309D, T309E, T309Q, L311V, A317K, L347K, T362A, S385L, S385Q, T388I, T388K, T388Y, T400K, N413S, A415D, A415F, A415N, A415S, A415T, A415W, A415Y, Q419P, Q423M, Q423P, S434T, G457N, G457P, T463F, F516L, L526F, S530E, S530G, T533K, A534L, S535E, S535G, S535K, S535T, T540A, T540S, V545L, Q547A, Q547H, F553Y, F555Y, I564V, K572E, V576I, V576L, G577R, T581I, T581K, V583F, V585P and S588Q, wherein said variant enzyme is at least 95% identical to SEQ ID NO:1, and wherein said variant glucoamylase enzyme has glucoamylase activity.
A method for determining an identification code stored in a radio frequency identification (RFID) tag in an environment containing a plurality of RFID tags, the method comprising: communicating, from an interrogator to the plurality of RFID tags, an interrogation signal comprising a first parameter to distinguish the interrogator from another interrogator and a second parameter to select a group of RFID tags from the plurality of RFID tags; communicating, from the interrogator to the plurality of RFID tags, return link configuration information; processing, within the RFID tag, the interrogation signal, including storing the first parameter for use in subsequent comparisons and comparing the second parameter to a value stored in the RFID tag to determine if the RFID tag is a member of the group; using the return link configuration information to select, within the RFID tag, one of a plurality of modulation types; and communicating, from the RFID tag to the interrogator, a reply signal modulated using the selected one of the plurality of modulation types. communicating, from an interrogator to the plurality of RFID tags, an interrogation signal comprising a first parameter to distinguish the interrogator from another interrogator and a second parameter to select a group of RFID tags from the plurality of RFID tags; communicating, from the interrogator to the plurality of RFID tags, return link configuration information; processing, within the RFID tag, the interrogation signal, including storing the first parameter for use in subsequent comparisons and comparing the second parameter to a value stored in the RFID tag to determine if the RFID tag is a member of the group; using the return link configuration information to select, within the RFID tag, one of a plurality of modulation types; and communicating, from the RFID tag to the interrogator, a reply signal modulated using the selected one of the plurality of modulation types.