mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting a physical downlink control channel, PDCCH, signal by a user equipment in a wireless communication system, the method comprising: receiving configurations for a plurality of search space sets from a base station; determining, based on a monitoring periodicity of each of the plurality of search space sets, search space sets for which the user equipment should monitor a PDCCH signal for a unit length of time; and attempting blind-detection for only a part of PDCCH candidates which are selected from the determined search space sets when a number of PDCCH candidates and a number of control channel elements (CCEs) included in the determined search space sets exceed a maximum number of candidates or a maximum number of CCEs, respectively; whereby in the selection of the PDCCH candidates for attempting the blind-detection: PDCCH candidates from a common search space, CSS, set are prioritized over PDCCH candidates from user-specific search space, USS, sets among the determined search space sets; and PDCCH candidates from a lower indexed-USS set is prioritized over PDCCH candidates from a higher indexed-USS set. receiving configurations for a plurality of search space sets from a base station; determining, based on a monitoring periodicity of each of the plurality of search space sets, search space sets for which the user equipment should monitor a PDCCH signal for a unit length of time; and attempting blind-detection for only a part of PDCCH candidates which are selected from the determined search space sets when a number of PDCCH candidates and a number of control channel elements (CCEs) included in the determined search space sets exceed a maximum number of candidates or a maximum number of CCEs, respectively; whereby in the selection of the PDCCH candidates for attempting the blind-detection: PDCCH candidates from a common search space, CSS, set are prioritized over PDCCH candidates from user-specific search space, USS, sets among the determined search space sets; and PDCCH candidates from a lower indexed-USS set is prioritized over PDCCH candidates from a higher indexed-USS set. PDCCH candidates from a common search space, CSS, set are prioritized over PDCCH candidates from user-specific search space, USS, sets among the determined search space sets; and PDCCH candidates from a lower indexed-USS set is prioritized over PDCCH candidates from a higher indexed-USS set.
Sealing device for the edge region of a movable wing (1, 22, 54) of a door or window, with a sealing strip (4, 67) which can be moved relative to the wing (1, 22, 54), wherein movement of the sealing strip (4, 67) can be driven by a driving mechanism which, for its part, can be driven by movement of a release part which accompanies the wing relative to the wing (1, 22, 54), wherein the release part is movable and guided on the wing (1, 22, 54), wherein the release part is formed in two parts as a pair consisting of an outer release part (8, 20, 39, 60) and an inner release part (9, 21, 36, 40, 62), wherein the outer release part (8, 20, 39, 60) is movable by an adjustable distance through closing movement of the wing (1, 22, 54) to relative motion in relation to the wing (1, 22, 54), wherein the inner and outer release parts are movement-coupled via an elastic spring (10, 24, 41, 61) acting between them, and wherein, by movement of the inner release part (9, 21, 36, 40, 62), the drive mechanism can be driven such that it moves the sealing strip (4, 67) into the sealing position, wherein the inner release part (9, 21, 36, 40, 62) can be locked by a locking mechanism (11, 25, 35, 38) against movement relative to the wing (1, 22, 54) and this lock can be released by movement of a locking release part (16, 33, 50, 66) relative to the wing (1, 22, 54) into a switching position, wherein the movement of the locking release part (16, 33, 50, 66) relative to the wing (1, 22, 54) into the switching position can be triggered by the closing movement of the wing (1, 22, 54) and is adjustable regarding at which position of the wing (1, 22, 54) the switching position is reached, characterised in that it can be set separately from the other, by which distance the outer release part (8, 20, 39, 60) can be moved, and in which position of the wing (1, 22, 54) the lock for the mobility of the inner release part (9, 21, 36, 40, 62) is released
A method of processing a starch comprising saccharifying a starch liquefact or a maltodextrin by contacting a Pseudomonas saccharophila amylase variant and a pullulanase to the starch liquefact or the maltodextrin to form a saccharide syrup, wherein the PS4 variant has at least 80% amino acid sequence identity to a naturally occurring PS4 having an amino acid sequence of SEQ ID NO: 2 and has amino acid deletions, additions, insertions, or substitutions compared to the amino acid sequence of SEQ ID NO: 2, or comprises up to 25 amino acid deletions, additions, insertions, or substitutions compared to the amino acid sequence of SEQ ID NO: 2, and wherein the pullulanase comprises an amino acid sequence having at least about 80% amino acid sequence identity to SEQ ID NO: 6, wherein the saccharide syrup comprises at least about 54% by weight maltotetraose based on total saccharide content.
A mobile drive unit for transporting inventory, comprising: a drive module, the drive module operable to position the mobile drive unit underneath an inventory holder; and a docking head operable to couple to the inventory holder when the mobile drive unit is positioned beneath the inventory holder; wherein the drive module is operable to move the mobile drive unit; wherein the mobile drive unit includes a sensor operable to detect completion of at least a portion of docking of the docking head to the inventory holder; and wherein the drive module is operable to move the inventory holder in response to completion, detected by the sensor, of the docking of the docking head to the inventory holder. a drive module, the drive module operable to position the mobile drive unit underneath an inventory holder; and a docking head operable to couple to the inventory holder when the mobile drive unit is positioned beneath the inventory holder; wherein the drive module is operable to move the mobile drive unit; wherein the mobile drive unit includes a sensor operable to detect completion of at least a portion of docking of the docking head to the inventory holder; and wherein the drive module is operable to move the inventory holder in response to completion, detected by the sensor, of the docking of the docking head to the inventory holder.
Radar sensor, comprising a transmission path to generate and transmit a transmission signal, a reception path to receive reception signals reflected at a target, an antenna array (105, 200) with a number of antenna elements (106.1-106.8, 201.1-201.8) arranged in a linear manner in relation to one another, said array being arranged either in the transmission path as a transmission antenna array or in the reception path as a reception antenna array, and a switching unit (108, 202) which is designed to connect the antenna elements (106.1-106.8, 201.1-201.8) individually to an assigned transmission or reception unit (109, 203) of the radar sensor one after another according to a predefined switching sequence, wherein the switching sequence according to which the antenna elements (106.1-106.8, 201.1-201.8) are successively connected to the transmission or reception unit (109, 203) differs from the spatial sequence of the antenna elements (106.1-106.8, 201.1-201.8) in the antenna array (105, 200), wherein each of the reception signals assigned to the antenna elements (106.1-106.8, 201.1-201.8) according to the switching sequence has a phase which comprises a phase contribution caused by the angular position of the target and a phase contribution caused by the speed of the target, characterized in that the switching sequence is defined in such a way that the phase contributions caused by the speed of the target change sign from one antenna element to a neighboring antenna element along the arrangement of the antenna elements (106.1-106.8, 201.1-201.8).
An arc chamber assembly for a direct current circuit breaker, said circuit breaker including a number of pairs of separable contacts, each pair of separable contacts including a fixed contact assembly, said arc chamber assembly comprising: a fixed contact having a generally planar upper surface, wherein said fixed contact has a width; an arc chamber housing assembly and a number of conductive members; said arc chamber housing assembly including a number of support members and a number of magnetic members (84A, 84C), each magnetic member (84A, 84C) having a generally horizontal lower surface (140, 144); each magnetic member (84A, 84C) coupled to a support member; wherein said support members position each said magnetic member lower surface (140, 144) below said fixed contact upper surface; said arc chamber assembly characterised in that said number of conductive members includes an arc runner assembly; said arc runner assembly includes a number of conductive plates; said arc runner conductive plates are disposed adjacent to, and in electrical communication with, said fixed contact; and said arc runner assembly has a width that is greater than the width of said fixed contact. a fixed contact having a generally planar upper surface, wherein said fixed contact has a width; an arc chamber housing assembly and a number of conductive members; said arc chamber housing assembly including a number of support members and a number of magnetic members (84A, 84C), each magnetic member (84A, 84C) having a generally horizontal lower surface (140, 144); each magnetic member (84A, 84C) coupled to a support member; wherein said support members position each said magnetic member lower surface (140, 144) below said fixed contact upper surface; said arc chamber assembly characterised in that said number of conductive members includes an arc runner assembly; said arc runner assembly includes a number of conductive plates; said arc runner conductive plates are disposed adjacent to, and in electrical communication with, said fixed contact; and said arc runner assembly has a width that is greater than the width of said fixed contact.
A method of wireless communication for acknowledging receipt of a packet, wherein acknowledgement, ACK, messages are transmitted from an access terminal to an access point using Spatial Division Multiple Access, SDMA, or Orthogonal Frequency Multiple Access, OFDMA, the method comprising: determining that the packet has been received successfully; and generating an acknowledgment, ACK, message upon the determination that the packet is received successfully, wherein the ACK message includes a unique identifier comprising a Medium Access Control, MAC, layer identifier that identifies the access terminal used to receive the packet. determining that the packet has been received successfully; and generating an acknowledgment, ACK, message upon the determination that the packet is received successfully, wherein the ACK message includes a unique identifier comprising a Medium Access Control, MAC, layer identifier that identifies the access terminal used to receive the packet.
An adaptive equalization filter adapted for compensating waveform distortion in each of a first polarization and a second polarization extracted by a coherent receiver from an optical signal by comprising: a first filter extracting a horizontal polarization component from the first polarization; a second filter extracting a vertical polarization component from the first polarization; a third filter extracting a horizontal polarization component from the second polarization; a fourth filter extracting a vertical polarization component from the second polarization; a fifth filter receiving a horizontal polarization component extracted by the first filter and a horizontal polarization component extracted by the third filter, and outputting a horizontal polarization component to which waveform distortion compensation is applied; and a sixth filter receiving a vertical polarization component extracted by the second filter and a vertical polarization component extracted by the fourth filter, and outputting a vertical polarization component to which waveform distortion compensation is applied, wherein each of the first to fourth filters is a finite impulse response filter having one tap, and each of the fifth and sixth filters is a finite impulse response filter having less than 46 taps, and characterized in that each of filter coefficients in the first to sixth filters is updated on a basis of constant modulus algorithm. a first filter extracting a horizontal polarization component from the first polarization; a second filter extracting a vertical polarization component from the first polarization; a third filter extracting a horizontal polarization component from the second polarization; a fourth filter extracting a vertical polarization component from the second polarization; a fifth filter receiving a horizontal polarization component extracted by the first filter and a horizontal polarization component extracted by the third filter, and outputting a horizontal polarization component to which waveform distortion compensation is applied; and a sixth filter receiving a vertical polarization component extracted by the second filter and a vertical polarization component extracted by the fourth filter, and outputting a vertical polarization component to which waveform distortion compensation is applied, wherein each of the first to fourth filters is a finite impulse response filter having one tap, and each of the fifth and sixth filters is a finite impulse response filter having less than 46 taps, and characterized in that each of filter coefficients in the first to sixth filters is updated on a basis of constant modulus algorithm.
Spark plug comprising - a central electrode which extends along a longitudinal axis of the spark plug and has at least one first sparking surface, and - an earth electrode having at least one second sparking surface, - wherein the first sparking surface is arranged opposite the second sparking surface, so that a spark can be produced between the first sparking surface and the second sparking surface, - wherein the central electrode can be rotated coaxially to the longitudinal axis in relation to the earth electrode, and/or the earth electrode can be rotated coaxially to the longitudinal axis in relation to the central electrode, and - wherein the first sparking surface and the second sparking surface are inclined in such a way that a distance can be established between the first sparking surface and the second sparking surface by rotating the central electrode in relation to the earth electrode and/or rotating the earth electrode in relation to the central electrode, characterized - in that the first sparking surface and the second sparking surface are inclined at an angle (a) relative to a plane, wherein the longitudinal axis lies in the plane and the plane centrally intersects the respective sparking surface (6, 8), and wherein the angle (α) lies between 5° and 90°. - a central electrode which extends along a longitudinal axis of the spark plug and has at least one first sparking surface, and - an earth electrode having at least one second sparking surface, - wherein the first sparking surface is arranged opposite the second sparking surface, so that a spark can be produced between the first sparking surface and the second sparking surface, - wherein the central electrode can be rotated coaxially to the longitudinal axis in relation to the earth electrode, and/or the earth electrode can be rotated coaxially to the longitudinal axis in relation to the central electrode, and - wherein the first sparking surface and the second sparking surface are inclined in such a way that a distance can be established between the first sparking surface and the second sparking surface by rotating the central electrode in relation to the earth electrode and/or rotating the earth electrode in relation to the central electrode, characterized - in that the first sparking surface and the second sparking surface are inclined at an angle (a) relative to a plane, wherein the longitudinal axis lies in the plane and the plane centrally intersects the respective sparking surface (6, 8), and wherein the angle (α) lies between 5° and 90°.
A DC plasma torch comprising: an electrically conductive cathode and an electrically conductive anode spaced apart from one another to form a gap therebetween; swirl bush at least partially located within the gap and comprising a channel adapted to permit, in use, a gas to flow through the gap; and characterised in that the torch further comprises a ceramic element interposed between any one or more of: the cathode and the swirl bush; and the anode and the swirl bush, and wherein swirl bush is metal and the ceramic element is a ceramic coating of the swirl bush.
A surface wave applicator for plasma production, including: - an electrically conductive coaxial assembly, consisting of a central core and of an outer tubular conductor surrounding the central core and separated therefrom by an annular volume for propagation of an electromagnetic wave, and - a dielectric tube inserted, at the end of said coaxial assembly, into said annular volume for propagation of the electromagnetic wave, said applicator being characterized in that the dielectric tube extends beyond the exit plane of the applicator for a length at least equal to twice the outer diameter of said tube, so that the electromagnetic wave propagating in the coaxial assembly is introduced into the section of said dielectric tube in the longitudinal direction of said tube so as to produce a surface wave plasma along the portion of the dielectric tube the inner wall and/or the outer wall whereof is in contact with a plasma gas. - an electrically conductive coaxial assembly, consisting of a central core and of an outer tubular conductor surrounding the central core and separated therefrom by an annular volume for propagation of an electromagnetic wave, and - a dielectric tube inserted, at the end of said coaxial assembly, into said annular volume for propagation of the electromagnetic wave,
A graphite carbon composite material obtained by mixing a graphite material comprising graphite particles each formed of an optical anisotropic structure, an optical isotropic structure and voids and satisfying the following conditions and: when ten square regions with a side of 100 μm are randomly selected from a cross-section of a molding made of the graphite material, in cross-sections of the graphite particles appearing in the regions, a total area (x) of the optical anisotropic structure, a total area (y) of the optical isotropic structure, and a total area (z) of the voids satisfy the following relationship: x: y: z = 50 − 97:3 − 50:0 − 10, and x + y + z = 100 in cross-sections of the randomly selected 100 particles, a maximum value of a length of a long-side portion of optical anisotropic structure domains is defined as Lmax and an average particle diameter based on a volume measured by laser diffraction method is defined as L ave, L max /L ave ≤0.5; and a carbon material on the way to a graphitized structure of easily-graphitizable carbon which is a material satisfying the condition of 0.1<IA/IB<0.9 in which IA is the peak intensity of a peak A assigned to the plane in the vicinity of 2θ = 44° and IB is the peak intensity assigned to the plane in the vicinity of 2θ = 42°, by the X-ray powder diffraction method using Cu-Kα ray as a target. when ten square regions with a side of 100 μm are randomly selected from a cross-section of a molding made of the graphite material, in cross-sections of the graphite particles appearing in the regions, a total area (x) of the optical anisotropic structure, a total area (y) of the optical isotropic structure, and a total area (z) of the voids satisfy the following relationship: x: y: z = 50 − 97:3 − 50:0 − 10, and x + y + z = 100 in cross-sections of the randomly selected 100 particles, a maximum value of a length of a long-side portion of optical anisotropic structure domains is defined as Lmax and an average particle diameter based on a volume measured by laser diffraction method is defined as L ave, L max /L ave ≤0.5;
A non-surgical tele-operation control method comprising: receiving a first manipulation command to move a distal end effector of a manipulator arm to a desired first position within a workspace, the manipulator arm extending between a proximal base and the distal end effector; calculating a joint movement of one or more joints of a master control corresponding to calculated movement of a plurality of joints (J1, J2, J3, J4, J5, J6) of the manipulator arm using inverse kinematics of the manipulator arm; and locking at least one joint of the plurality of joints (J1, J2, J3, J4, J5, J6) when the at least one joint is at a joint range-of-motion, ROM, limit of the at least one joint, wherein locking the at least one joint comprises modifying an input variable within the inverse kinematics, wherein the input variable corresponds to movement of the at least one joint within the workspace; characterised in that the method further comprises: emulating a virtual spring between the master control and the distal end effector; and providing a constraint to the inverse kinematics of the manipulator arm that adheres to conservation of energy so that energy stored in the virtual spring on the master control is minimized. receiving a first manipulation command to move a distal end effector of a manipulator arm to a desired first position within a workspace, the manipulator arm extending between a proximal base and the distal end effector; calculating a joint movement of one or more joints of a master control corresponding to calculated movement of a plurality of joints (J1, J2, J3, J4, J5, J6) of the manipulator arm using inverse kinematics of the manipulator arm; and locking at least one joint of the plurality of joints (J1, J2, J3, J4, J5, J6) when the at least one joint is at a joint range-of-motion, ROM, limit of the at least one joint, wherein locking the at least one joint comprises modifying an input variable within the inverse kinematics, wherein the input variable corresponds to movement of the at least one joint within the workspace; characterised in that the method further comprises: emulating a virtual spring between the master control and the distal end effector; and providing a constraint to the inverse kinematics of the manipulator arm that adheres to conservation of energy so that energy stored in the virtual spring on the master control is minimized. emulating a virtual spring between the master control and the distal end effector; and providing a constraint to the inverse kinematics of the manipulator arm that adheres to conservation of energy so that energy stored in the virtual spring on the master control is minimized.
A housing unit for a heating apparatus with two heating circuits, one for the room heating and one for the service water heating, with a pump housing which on the suction side comprises a chamber, into which two return conduits (12, 13) run out, which by way of a switch member (34, 35) arranged therein, can be alternately shut off with respect to the suction side of the pump, characterised in that the return conduits (12, 13) in the region of their passage through the chamber wall enclose an angle a between 60° and 210°.