mhurhangee/patent-ind-claim-en huggingface dataset:
A portable studio apparatus comprising: a first body part forming a bottom surface; a second body part coupled to one end of the first body part and foldably or unfoldably connected to the first body part ; a third body part foldably or unfoldably connected to the second body part at an opposite side of a portion of the second body part at which the second body part is connected to the first body part ; characterized in that the apparatus further comprises a fourth body part (400 foldably connected to the third body part at an opposite side of a portion of the third body part at which the third body part is connected to the second body part ; a pair of sub-body parts provided at both ends of first body part and the fourth body part in a direction orthogonal to an axis extending in a connection direction of the first body part to the fourth body part (100, 200, 300 and 400), and foldably or unfoldably connected to the first body part and the fourth body part , wherein, in a photographing mode, the first body part to the fourth body part (100, 200, 300 and 400) are folded at an angle larger than a right angle with respect to each other, and the sub-body parts formed on an identical side are fixedly connected to each other, such that folded body parts (100-400) and connected sub-body parts for enclosing an accommodation space, excluding at least an open front side provided between an opposite side of a portion of the first body part at which the first body part is connected to the second body part and an opposite side of a portion of the fourth body part at which the fourth body part is connected to the third body part for allowing photographing of a subject, placed within the accommodation space, and in a portable mode after the photographing mode is terminated, the first body part to the fourth body part (100, 200, 300 and 400) are folded to be stacked on top of each other, and the sub-body parts are folded to overlap with a region at which the first body part to the fourth body part (100, 200, 300 and 400) overlap with each other, which allows the portable studio apparatus to be carried and stored in a form of a plate.
An inkjet printhead mounted on an inkjet printhead mounting surface of a frame, the frame including a pair of positioning shafts disposed upright on the inkjet printhead mounting surface, comprising a support to support a nozzle-formed member including a plurality of nozzles to eject ink, wherein the support includes a pair of projections at both ends of the support in a longitudinal direction, the projections being formed integrally with the support; one of the projections includes a first surface and a second surface , and the other of the projections includes a contact surface ; when the first surface and the second surface of the one of projections are brought into contact with one of the positioning shafts of the frame , and the contact surface of the other of the projections is brought into contact with the other of the positioning shafts , the inkjet printhead is positioned at a first position; a positioning member including two touch surfaces is attached to one of the projections , the two touch surfaces forming a V shape; the positioning member has a screw insertion hole for insertion of a screw ; the projection to which the positioning member is to be attached has a screw receiving hole into which the screw is to be screwed; the positioning member is attached to the projection in such a way that the screw is inserted through the screw insertion hole of the positioning member and is screwed into the screw receiving hole of the projection ; the screw insertion hole has a diameter which is larger than that of the screw , which creates clearances around the screw , whereby an attachment position of the positioning member with respect to the projection is selectable within a range of the clearances; whereby the positioning member touches the one of positioning shafts (i) in such a way that the two touch surfaces of the positioning member are brought into contact with the one of the positioning shafts , or (ii) in such a way that one of the touch surfaces of the positioning member and the second surface of the projection are brought into contact with the one of the positioning shafts , or (iii) in such a way that the other one of the touch surfaces of the positioning member and the first surface of the projection are brought into contact with the one of the positioning shafts to allow the inkjet printhead to be positioned at a position different from the first position when the inkjet printhead is at a predetermined mounting position on the frame .
A method for receiving a downlink control signal by a user equipment, UE, in a 3GPP LTE-A wireless communication system, comprising: monitoring a plurality of Enhanced Physical Downlink Control Channel, EPDCCH, candidates in an EPDCCH set to decode an EPDCCH transmitted from a downlink serving base station, BS; and receiving a Physical Downlink Shared Channel, PDSCH, corresponding to the decoded EPDCCH, characterized in that : the EPDCCH candidates have a minimum aggregation level of 2 if both a downlink, DL, bandwidth includes at least 25 resource blocks, RBs, and downlink control information, DCI, format is one of DCI formats 2, 2A, 2B, 2C and 2D. monitoring a plurality of Enhanced Physical Downlink Control Channel, EPDCCH, candidates in an EPDCCH set to decode an EPDCCH transmitted from a downlink serving base station, BS; and receiving a Physical Downlink Shared Channel, PDSCH, corresponding to the decoded EPDCCH, characterized in that : the EPDCCH candidates have a minimum aggregation level of 2 if both a downlink, DL, bandwidth includes at least 25 resource blocks, RBs, and downlink control information, DCI, format is one of DCI formats 2, 2A, 2B, 2C and 2D.
A magnetron assembly comprising: a plurality of magnets ; and a yoke configured to hold the plurality of magnets in four prows ; wherein the plurality of magnets is arranged in the yoke so as to form a pattern of magnets comprising two outer rows and two inner rows , wherein the outer rows are longer than the inner rows, and wherein the outer rows substantially surround the perimeter of the inner rows; additional end magnets which are placed at the ends of the pattern of magnets between the two outer rows , said additional end magnets being displaced collinearly with the inner rows, wherein the magnets which form the inner rows have a first polarity, and the additional end magnets and the magnets which form the outer rows have a second polarity opposite to the first polarity; wherein the outer rows are substantially parallel to one another; and wherein the outer and the inner rows of the plurality of magnets are laterally offset from each other so as to form a step at each end of the pattern of magnets. a plurality of magnets ; and a yoke configured to hold the plurality of magnets in four prows ; wherein the plurality of magnets is arranged in the yoke so as to form a pattern of magnets comprising two outer rows and two inner rows , wherein the outer rows are longer than the inner rows, and wherein the outer rows substantially surround the perimeter of the inner rows; additional end magnets which are placed at the ends of the pattern of magnets between the two outer rows , said additional end magnets being displaced collinearly with the inner rows, wherein the magnets which form the inner rows have a first polarity, and the additional end magnets and the magnets which form the outer rows have a second polarity opposite to the first polarity; wherein the outer rows are substantially parallel to one another; and wherein the outer and the inner rows of the plurality of magnets are laterally offset from each other so as to form a step at each end of the pattern of magnets.
A device for manufacturing a chopped fiber bundle comprising a cutter roll provided with one or more disk blades on a circumference of a roll core having a center axis coinciding with a rotation axis of the roll core and a nip roll provided in parallel with the rotation axis of the roll core , to feed a reinforcing fiber yarn to be continuously cut between the nip roll and the cutter roll , further comprising a rotary drive mechanism for rotating the cutter roll and at least one of: - a reciprocating drive mechanism for reciprocating the cutter roll along the rotation axis of the roll core ; - a traverse guide , which leads the reinforcing fiber yarn and runs in approximately-parallel with the rotation axis of the nip roll or the cutter roll ; and - a bobbin on the outermost surface of which the reinforcing fiber yarn is wound obliquely to the center axis of the bobbin , and the reinforcing fiber yarn pulled out from the bobbin is introduced to the cutter roll in a manner of transferring to the nip roll , so that reinforcing fiber yarn approaches obliquely to circumferential direction of nip roll . - a reciprocating drive mechanism for reciprocating the cutter roll along the rotation axis of the roll core ; - a traverse guide , which leads the reinforcing fiber yarn and runs in approximately-parallel with the rotation axis of the nip roll or the cutter roll ; and - a bobbin on the outermost surface of which the reinforcing fiber yarn is wound obliquely to the center axis of the bobbin , and the reinforcing fiber yarn pulled out from the bobbin is introduced to the cutter roll in a manner of transferring to the nip roll , so that reinforcing fiber yarn approaches obliquely to circumferential direction of nip roll .
A miniature antenna filter, comprising: a plurality of dielectric layers; a first ground plane on one side of the plurality of dielectric layers; a second ground plane on an opposite side of the plurality of dielectric layers and parallel to the first ground plane ; one of the first and second ground planes providing an input port and one of the first and second ground planes providing an output port ; two parallel strip line resonators lying in a first plane parallel to, and between, the first and second ground planes, the two parallel strip line resonators having a gap there between; and a coupling plate in proximity to the gap, grounded at one edge and lying in a second plane, the second plane parallel to the first plane and lying between the first plane and one of the first and second ground planes , the coupling plate having a center line being aligned with a center line of the gap between the two parallel strip line resonators , the coupling plate configured to provide inductive coupling between the two parallel strip line resonators separated by the gap. a plurality of dielectric layers; a first ground plane on one side of the plurality of dielectric layers; a second ground plane on an opposite side of the plurality of dielectric layers and parallel to the first ground plane ; one of the first and second ground planes providing an input port and one of the first and second ground planes providing an output port ; two parallel strip line resonators lying in a first plane parallel to, and between, the first and second ground planes, the two parallel strip line resonators having a gap there between; and a coupling plate in proximity to the gap, grounded at one edge and lying in a second plane, the second plane parallel to the first plane and lying between the first plane and one of the first and second ground planes , the coupling plate having a center line being aligned with a center line of the gap between the two parallel strip line resonators , the coupling plate configured to provide inductive coupling between the two parallel strip line resonators separated by the gap.
A display device comprising: a display panel ; a module cover at a rear of the display panel , the module cover being coupled to the display panel ; a plate at a rear of the module cover ; an adhesive member attached to at least a part of a front surface of the plate ; a bracket between the module cover and the plate , the bracket being attached to the adhesive member ; and a coupling unit between the module cover and the bracket , the coupling unit fixing the module cover to the bracket , wherein the coupling unit includes a fixing pin on a front surface of the bracket , and a fastening hole on a rear surface of the module cover , the fastening hole being coupled to the fixing pin ; characterised in that the bracket includes an opening penetrating a portion of the bracket and a pipe wall protruding toward a front of the bracket around the opening; the fixing pin includes a pin neck facing the front surface of the bracket , and a pin head extended from the pin neck and spaced apart from the pin neck toward the front of the bracket ; the pin neck is positioned outside the pipe wall , wherein a front end of the pipe wall is bent and is positioned between the pin head and the pin neck . a display panel ; a module cover at a rear of the display panel , the module cover being coupled to the display panel ; a plate at a rear of the module cover ; an adhesive member attached to at least a part of a front surface of the plate ; a bracket between the module cover and the plate , the bracket being attached to the adhesive member ; and a coupling unit between the module cover and the bracket , the coupling unit fixing the module cover to the bracket , wherein the coupling unit includes a fixing pin on a front surface of the bracket , and a fastening hole on a rear surface of the module cover , the fastening hole being coupled to the fixing pin ; the bracket includes an opening penetrating a portion of the bracket and a pipe wall protruding toward a front of the bracket around the opening; the fixing pin includes a pin neck facing the front surface of the bracket , and a pin head extended from the pin neck and spaced apart from the pin neck toward the front of the bracket ; the pin neck is positioned outside the pipe wall , wherein a front end of the pipe wall is bent and is positioned between the pin head and the pin neck .
Key blank for use in producing a coded key for a cylinder lock, the key blank comprising a flat longitudinal blade for insertion into a cylinder lock, the blade comprising a first substantially planar face for being machined with a row of cylinder lock coding recesses for cooperating with pins of the cylinder lock, the blade having a longitudinal (Z) axis, a lateral (Y) axis and a thickness (X) axis, wherein the key blank further comprises: a first longitudinal concavity , referred to hereafter as a valley, machined into the first face and extending along the longitudinal axis (Z) of the blade and along a majority of the length of the blade , the valley comprising two lateral flanks forming opposite sides of the valley and meeting at their lower edges, the valley having a run-in region at a tip of the blade forming a progressive thinning of the blade profile at an entrance to the valley , the or each flank comprising a functional surface inclined at an angle (φ) of between 10° and 30°, or preferably between 14° and 22°, to the first face , and wherein the flank has a width of between 1.2 mm and 5 mm, or preferably between 2 mm and 3.5 mm, measured along the lateral (Y) axis of the blade and wherein the valley has a width of between 20% and 80%, or preferably between 25% and 75%, of the width of the blade and a depth of between 0.4 mm and 1.0 mm, or preferably between 0.5 mm and 0.8 mm, measured along the thickness (X) axis of the blade .
A method of optimizing user plane function, UPF, module selection for a data path in 5G Core network operation serving a user equipment, UE, comprising: registering, by each of a plurality of UPF modules, the each respective UPF module with a network repository function, NRF, module ; updating, by each of the plurality of UPF modules, the NRF module with information regarding the each respective UPF module's present load; sending, by a session management function, SMF, module , a request to the NRF module for discovery of optimal data path between a radio access network, RAN, and a packet data unit session anchor, PSA, for serving a present region of the UE; and determining, by the NRF module, the optimal data path between the RAN and the PSA, for serving the present region of the UE. registering, by each of a plurality of UPF modules, the each respective UPF module with a network repository function, NRF, module ; updating, by each of the plurality of UPF modules, the NRF module with information regarding the each respective UPF module's present load; sending, by a session management function, SMF, module , a request to the NRF module for discovery of optimal data path between a radio access network, RAN, and a packet data unit session anchor, PSA, for serving a present region of the UE; and determining, by the NRF module, the optimal data path between the RAN and the PSA, for serving the present region of the UE.
A method of manufacturing a cylindrical cargo container , the method comprising: providing a plurality of rigid panels , each panel comprising a cylinder segment; forming a cylindrical shell from the panels ; forming at least one collar conformably encircling the cylindrical shell ; constricting the at least one collar to compress longitudinal joints formed at abutting edges of pairs of adjacent panels ; moving respective joints of pairs of panels to a lower position , and welding respective inside seams of the joints when at the lower position . providing a plurality of rigid panels , each panel comprising a cylinder segment; forming a cylindrical shell from the panels ; forming at least one collar conformably encircling the cylindrical shell ; constricting the at least one collar to compress longitudinal joints formed at abutting edges of pairs of adjacent panels ; moving respective joints of pairs of panels to a lower position , and welding respective inside seams of the joints when at the lower position .
A method for wireless communication at a base station or user equipment, the method comprising: identifying a frequency hopping pattern comprising a plurality of hopping frequencies, the plurality of hopping frequencies comprising an anchor channel frequency and a set of non-anchor channel frequencies; determining a probability for occupying the anchor channel frequency within a hopping interval, wherein the probability for occupying the anchor channel frequency is greater than a probability for occupying a non-anchor channel frequency of the set of non-anchor channel frequencies; and performing a plurality of transmissions over the plurality of hopping frequencies during the hopping interval based at least in part on the frequency hopping pattern, wherein the plurality of transmissions comprise a first number of discovery reference signal, DRS, transmissions sent on the anchor channel frequency and a second number of non-synchronization transmissions sent on each non-anchor channel frequency, wherein the DRS transmissions are only sent on the anchor channel frequency, the first number being greater than or equal to the second number. identifying a frequency hopping pattern comprising a plurality of hopping frequencies, the plurality of hopping frequencies comprising an anchor channel frequency and a set of non-anchor channel frequencies; determining a probability for occupying the anchor channel frequency within a hopping interval, wherein the probability for occupying the anchor channel frequency is greater than a probability for occupying a non-anchor channel frequency of the set of non-anchor channel frequencies; and performing a plurality of transmissions over the plurality of hopping frequencies during the hopping interval based at least in part on the frequency hopping pattern, wherein the plurality of transmissions comprise a first number of discovery reference signal, DRS, transmissions sent on the anchor channel frequency and a second number of non-synchronization transmissions sent on each non-anchor channel frequency, wherein the DRS transmissions are only sent on the anchor channel frequency, the first number being greater than or equal to the second number.
A method of receiving a Physical Downlink Control Channel, PDCCH, performed by a user equipment, UE, for Remaining Minimum System Information, RMSI, in a wireless communication system, comprising: receiving (S2001) an SS/PBCH block including an synchronization signal, SS, and a Physical Broadcasting Channel, PBCH; obtaining (S2003) information related to a Control resource set, CORESET, for the PDCCH via the PBCH; and receiving (S2007) the PDCCH within the CORESET based on the information, wherein the information includes an offset for informing the UE of a frequency position of a lowest resource block, RB, of the CORESET based on a frequency position of a lowest RB of the SS/PBCH, wherein available values for the offset are defined based on subcarrier spacing of the SS/PBCH block and a minimum channel bandwidth, and wherein an index of a frame including a first start slot of an occurrence of a monitoring window for the CORESET related to the SS/PBCH block when it has an index #2n is different from an index of a frame including a second starting slot of a consecutive occurrence of the monitoring window of the CORESET related to the SS/PBCH block when it has an index #2n+1 , wherein the CORESETs of the two different SS/PBCH blocks are transmitted periodically and alternating. receiving (S2001) an SS/PBCH block including an synchronization signal, SS, and a Physical Broadcasting Channel, PBCH; obtaining (S2003) information related to a Control resource set, CORESET, for the PDCCH via the PBCH; and receiving (S2007) the PDCCH within the CORESET based on the information, wherein the information includes an offset for informing the UE of a frequency position of a lowest resource block, RB, of the CORESET based on a frequency position of a lowest RB of the SS/PBCH, wherein available values for the offset are defined based on subcarrier spacing of the SS/PBCH block and a minimum channel bandwidth, and wherein an index of a frame including a first start slot of an occurrence of a monitoring window for the CORESET related to the SS/PBCH block when it has an index #2n is different from an index of a frame including a second starting slot of a consecutive occurrence of the monitoring window of the CORESET related to the SS/PBCH block when it has an index #2n+1 , wherein the CORESETs of the two different SS/PBCH blocks are transmitted periodically and alternating.