mhurhangee/ep-ind-claims huggingface dataset:
A rotary compressor comprising: a cylinder comprising an inlet port and a vane slot, wherein the inlet port and the vane slot are disposed at an inner circumferential surface of the cylinder and are circumferentially spaced apart from each other; a roller disposed inside the cylinder, wherein a compression space is defined between the inner circumferential surface of the cylinder and an outer circumferential surface of the roller, and wherein the roller comprises a hinge groove at the outer circumferential surface of roller; a rotational shaft coupled to the roller; and a vane having one end slidingly coupled to the vane slot of the cylinder and another end rotatably coupled to the hinge groove of the roller; characterized in that at least one suction guide portion is provided at the outer circumferential surface of the roller in a recessed manner; wherein the suction guide portion comprises a first circumferential end and a second circumferential end, the first circumferential end located between the hinge groove and the second circumferential end; and wherein a shortest length between the circumferential ends (1415a, 1415b) of the suction guide portion is less than or equal to a diameter of the inlet port. a cylinder comprising an inlet port and a vane slot, wherein the inlet port and the vane slot are disposed at an inner circumferential surface of the cylinder and are circumferentially spaced apart from each other; a roller disposed inside the cylinder, wherein a compression space is defined between the inner circumferential surface of the cylinder and an outer circumferential surface of the roller, and wherein the roller comprises a hinge groove at the outer circumferential surface of roller; a rotational shaft coupled to the roller; and a vane having one end slidingly coupled to the vane slot of the cylinder and another end rotatably coupled to the hinge groove of the roller; characterized in that at least one suction guide portion is provided at the outer circumferential surface of the roller in a recessed manner; wherein the suction guide portion comprises a first circumferential end and a second circumferential end, the first circumferential end located between the hinge groove and the second circumferential end; and wherein a shortest length between the circumferential ends (1415a, 1415b) of the suction guide portion is less than or equal to a diameter of the inlet port.
An encryption device to generate searchable storage encrypted data, comprising: a random number generation unit for generating a random number; a data partition unit configured to partition data to be searched, which has a data structure that can be partitioned into N pieces of element data sequentially from first to Nth pieces; and an encryption unit configured, to generate, using the N pieces of element data obtained by partitioning, N sets from a first set in which first to Nth pieces of element data are sequentially arranged, a second set in which second to Nth pieces of element data are sequentially arranged, thereafter sequentially to an N-1th set in which N-1th to Nth pieces of element data are sequentially arranged, and an Nth set composed of an Nth piece of element data, and to encrypt each piece of element data included in each set with a first random number generated by the random number generation unit by one of a cipher block chaining mode which is a cryptographic mode capable of searchable encryption and a counter mode which is a cryptographic mode capable of searchable encryption. a random number generation unit for generating a random number; a data partition unit configured to partition data to be searched, which has a data structure that can be partitioned into N pieces of element data sequentially from first to Nth pieces; and an encryption unit configured, to generate, using the N pieces of element data obtained by partitioning, N sets from a first set in which first to Nth pieces of element data are sequentially arranged, a second set in which second to Nth pieces of element data are sequentially arranged, thereafter sequentially to an N-1th set in which N-1th to Nth pieces of element data are sequentially arranged, and an Nth set composed of an Nth piece of element data, and to encrypt each piece of element data included in each set with a first random number generated by the random number generation unit by one of a cipher block chaining mode which is a cryptographic mode capable of searchable encryption and a counter mode which is a cryptographic mode capable of searchable encryption. to generate, using the N pieces of element data obtained by partitioning, N sets from a first set in which first to Nth pieces of element data are sequentially arranged, a second set in which second to Nth pieces of element data are sequentially arranged, thereafter sequentially to an N-1th set in which N-1th to Nth pieces of element data are sequentially arranged, and an Nth set composed of an Nth piece of element data, and to encrypt each piece of element data included in each set with a first random number generated by the random number generation unit by one of a cipher block chaining mode which is a cryptographic mode capable of searchable encryption and a counter mode which is a cryptographic mode capable of searchable encryption.
A method in a wireless communication terminal that supports aggregated carrier access, the method comprising: receiving carrier control information for an anchor carrier; determining power headroom for the anchor carrier based on the carrier control information for the anchor carrier, determining power headroom for at least one additional carrier based on the carrier control information for the anchor carrier, and transmitting component carrier specific power headroom reports based on the first power headroom of the anchor carrier and the second power headroom of the at least one additional carrier. receiving carrier control information for an anchor carrier; determining power headroom for the anchor carrier based on the carrier control information for the anchor carrier, determining power headroom for at least one additional carrier based on the carrier control information for the anchor carrier, and transmitting component carrier specific power headroom reports based on the first power headroom of the anchor carrier and the second power headroom of the at least one additional carrier.
Structural system for the modular setup of racks (2; 20), comprising a set of elongate vertical supports, each having at least one axially extending row of holes, a set of frames, each having four struts (42, 43), of which two are connected to one another via a mounting corner piece, and a set of connectors, each designed to be introduced into a hole of one of the vertical supports and secured to one of the mounting corner pieces of one of the frames, wherein the structural system is configured such that, in an assembled state, at least one frame of the set of frames is secured to four vertical supports by its mounting corner pieces each via one connector of the set of connectors, each two neighboring vertical supports that are connected to one another via one of the struts (42, 43) of the at least one frame define a support plane, and the four struts (42, 43) of the at least one frame lie outside the support planes defined by the four vertical supports connected thereto such that the at least one frame can be projecting between two vertical supports and can be connected to other vertical supports. a set of elongate vertical supports, each having at least one axially extending row of holes, a set of frames, each having four struts (42, 43), of which two are connected to one another via a mounting corner piece, and a set of connectors, each designed to be introduced into a hole of one of the vertical supports and secured to one of the mounting corner pieces of one of the frames, wherein the structural system is configured such that, in an assembled state, at least one frame of the set of frames is secured to four vertical supports by its mounting corner pieces each via one connector of the set of connectors, each two neighboring vertical supports that are connected to one another via one of the struts (42, 43) of the at least one frame define a support plane, and the four struts (42, 43) of the at least one frame lie outside the support planes defined by the four vertical supports connected thereto such that the at least one frame can be projecting between two vertical supports and can be connected to other vertical supports.
A method of switching a communication device between an uplink communication path and a downlink communication path carried out by an RF circuit, the method comprising: measuring a power level of signals on at least one radio frequency for one of the uplink communication path and downlink communication path; and determining when to switch between the uplink communication path and the downlink communication path based on a comparison between the measured power level and a threshold power level; characterized in that: the method further comprises: after determining when to switch between the uplink communication path and the downlink communication path, performing a verification process; switching between the uplink communication path and the downlink communication path if the verification process succeeds; ignoring the determination when to switch if the verification process fails; and after switching for a first frame, determining when to switch for subsequent frames based on predictable timing of frames communicated via the RF circuit and switching between the uplink communication path and the downlink communication path for subsequent frames accordingly. measuring a power level of signals on at least one radio frequency for one of the uplink communication path and downlink communication path; and determining when to switch between the uplink communication path and the downlink communication path based on a comparison between the measured power level and a threshold power level; characterized in that: the method further comprises: after determining when to switch between the uplink communication path and the downlink communication path, performing a verification process; switching between the uplink communication path and the downlink communication path if the verification process succeeds; ignoring the determination when to switch if the verification process fails; and after switching for a first frame, determining when to switch for subsequent frames based on predictable timing of frames communicated via the RF circuit and switching between the uplink communication path and the downlink communication path for subsequent frames accordingly. the method further comprises: after determining when to switch between the uplink communication path and the downlink communication path, performing a verification process; switching between the uplink communication path and the downlink communication path if the verification process succeeds; ignoring the determination when to switch if the verification process fails; and after switching for a first frame, determining when to switch for subsequent frames based on predictable timing of frames communicated via the RF circuit and switching between the uplink communication path and the downlink communication path for subsequent frames accordingly. after determining when to switch between the uplink communication path and the downlink communication path, performing a verification process; switching between the uplink communication path and the downlink communication path if the verification process succeeds; ignoring the determination when to switch if the verification process fails; and
A process for manufacturing a light emitting device or a microlight emitting device (micro-LED) comprising the following steps: (a-1) applying a layer of a formulation comprising (i) a polymer containing a silazane repeating unit M 1, and (ii) at least one wavelength converting material to a LED precursor or a micro-LED precursor, wherein the LED or micro-LED precursor contains a primary light source; (a-2) precuring the layer on the LED or micro-LED precursor by exposure to radiation selected from UV light, visible light, or IR light; (b) curing the precured layers on the LED or micro-LED precursor by exposure to heat or radiation; wherein steps (a-1) and (a-2) are successively carried out two or more times before step (b) is carried out so that a LED or micro-LED precursor comprising two or more precured layers is obtained which is then subjected to the curing in step (b). (a-1) applying a layer of a formulation comprising (i) a polymer containing a silazane repeating unit M 1, and (ii) at least one wavelength converting material to a LED precursor or a micro-LED precursor, wherein the LED or micro-LED precursor contains a primary light source; (a-2) precuring the layer on the LED or micro-LED precursor by exposure to radiation selected from UV light, visible light, or IR light; (b) curing the precured layers on the LED or micro-LED precursor by exposure to heat or radiation;
A method of fabricating a transistor, comprising: forming a nitride-based semiconductor barrier layer on a nitride-based semiconductor channel layer; forming a protective layer on a gate region of the nitride-based semiconductor barrier layer; forming patterned ohmic contact metal regions on the barrier layer; annealing the patterned ohmic contact metal to provide first and second ohmic contacts, wherein the annealing is carried out with the protective layer on the gate region; removing the protective layer; and forming a gate contact on the gate region of the barrier layer. forming a nitride-based semiconductor barrier layer on a nitride-based semiconductor channel layer; forming a protective layer on a gate region of the nitride-based semiconductor barrier layer; forming patterned ohmic contact metal regions on the barrier layer; annealing the patterned ohmic contact metal to provide first and second ohmic contacts, wherein the annealing is carried out with the protective layer on the gate region; removing the protective layer; and forming a gate contact on the gate region of the barrier layer.
An inlet connector (10, 200, 300), characterized in that it comprises: a housing (110, 210, 310) defining a through hole extending in an axial direction, and a mounting portion (114, 214, 314) is provided at a first end (101, 201, 301) of the through hole; a bushing (120, 220, 320) being configured to be inserted from a second end (102, 202, 302) of the through hole, and the bushing (120, 220, 320) defines a cavity (121, 221, 321) therein; and a filter (130, 230, 330) comprising a body (131, 231, 331), a proximal end (132, 232, 332), and a distal end (133, 233, 333), characterized in that the proximal end (132, 232, 332) is configured to be fitted into the mounting portion (114, 214, 314), such that the body (131, 231, 331) and the distal end (133, 233, 333) are positioned within the cavity (121, 221, 321); wherein, one or more spacers (135, 137) are provided between the outer surface of the filter (130, 230, 330) and the inner surface of the bushing (120, 220, 320), such that the outer surface of the filter (130, 230, 330) is spaced from the inner surfaces of the bushing (120, 220, 320), wherein the one or more spacers (135, 137) are positioned adjacent to the distal end (133, 233, 333). a housing (110, 210, 310) defining a through hole extending in an axial direction, and a mounting portion (114, 214, 314) is provided at a first end (101, 201, 301) of the through hole; a bushing (120, 220, 320) being configured to be inserted from a second end (102, 202, 302) of the through hole, and the bushing (120, 220, 320) defines a cavity (121, 221, 321) therein; and a filter (130, 230, 330) comprising a body (131, 231, 331), a proximal end (132, 232, 332), and a distal end (133, 233, 333), characterized in that the proximal end (132, 232, 332) is configured to be fitted into the mounting portion (114, 214, 314), such that the body (131, 231, 331) and the distal end (133, 233, 333) are positioned within the cavity (121, 221, 321); wherein, one or more spacers (135, 137) are provided between the outer surface of the filter (130, 230, 330) and the inner surface of the bushing (120, 220, 320), such that the outer surface of the filter (130, 230, 330) is spaced from the inner surfaces of the bushing (120, 220, 320), wherein the one or more spacers (135, 137) are positioned adjacent to the distal end (133, 233, 333).
A method, the method comprises: setting, by a radio device, length for a channel reservation window such that the channel reservation window comprises a plurality of subframes; dividing the channel reservation window at least into a downlink part and an uplink part, wherein the downlink part comprises at least one or more subframes of the plurality of subframes and the uplink part comprises at least one or more other subframes of the plurality of subframes; determining a timing offset between the start of the downlink part and the start of the uplink part, wherein the timing offset is based at least partly on applied timing advance; and defining timings, within the channel reservation window, for at least one of a downlink clear channel assessment -process and an uplink clear channel assessment - process at least partly on the basis of the timing offset. setting, by a radio device, length for a channel reservation window such that the channel reservation window comprises a plurality of subframes; dividing the channel reservation window at least into a downlink part and an uplink part, wherein the downlink part comprises at least one or more subframes of the plurality of subframes and the uplink part comprises at least one or more other subframes of the plurality of subframes; determining a timing offset between the start of the downlink part and the start of the uplink part, wherein the timing offset is based at least partly on applied timing advance; and defining timings, within the channel reservation window, for at least one of a downlink clear channel assessment -process and an uplink clear channel assessment - process at least partly on the basis of the timing offset.
An apparatus comprising: a strap having a first end, a second end, a length between the first end and the second end, the strap having an elastic portion between and spaced apart from the first end and the second end; a first handle configured to be coupled to the strap on a first side of the elastic portion such that the first handle is spaced apart from the elastic portion; a second handle configured to be coupled to the strap on a second side of the elastic portion such that the second handle is spaced apart from the elastic portion; a first adjuster coupled to the strap between the elastic portion and the first end; a second adjuster coupled to the strap between the elastic portion and the second end; and one or more suspension members (38a, 38b), each configured to be coupled (i) to a respective one of the first and second adjusters (66, 70) and (ii) to a supporting structure, characterized in that each of the first and second adjusters (66, 70) is configured to slide relative to the strap to adjust a length of the strap between the adjuster (66, 70) and a respective one of the first and second ends (26, 30) such that each of the suspension member(s) (38a, 38b), when coupled to one of the first and second adjusters (66, 70), is configured to slide relative to the strap. a strap having a first end, a second end, a length between the first end and the second end, the strap having an elastic portion between and spaced apart from the first end and the second end; a first handle configured to be coupled to the strap on a first side of the elastic portion such that the first handle is spaced apart from the elastic portion; a second handle configured to be coupled to the strap on a second side of the elastic portion such that the second handle is spaced apart from the elastic portion; a first adjuster coupled to the strap between the elastic portion and the first end; a second adjuster coupled to the strap between the elastic portion and the second end; and one or more suspension members (38a, 38b), each configured to be coupled (i) to a respective one of the first and second adjusters (66, 70) and (ii) to a supporting structure, characterized in that each of the first and second adjusters (66, 70) is configured to slide relative to the strap to adjust a length of the strap between the adjuster (66, 70) and a respective one of the first and second ends (26, 30) such that each of the suspension member(s) (38a, 38b), when coupled to one of the first and second adjusters (66, 70), is configured to slide relative to the strap.
A method of installing a stator core in a power generator comprising: arranging a plurality of keybars inside a container, the plurality of keybars being capable of securing at least a portion of a stator core inside of said container; installing said portion of a stator core inside of said container; moving said container to said power generator; horizontally aligning said container with said power generator; and transferring said portion of a stator core from said container to said power generator. arranging a plurality of keybars inside a container, the plurality of keybars being capable of securing at least a portion of a stator core inside of said container; installing said portion of a stator core inside of said container; moving said container to said power generator; horizontally aligning said container with said power generator; and transferring said portion of a stator core from said container to said power generator.