mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a cellular multiple-input and multiple-output, MIMO, system, the cellular MIMO system comprising a first device having an antenna array comprising a plurality of antennas, and a second device comprising at least two antennas (32, 33), the method comprising: - broadcasting a same uplink pilot signal (301, 302) from each antenna of the at least two antennas (32, 33) of the second device using a single pilot signal resource, - receiving, at the antenna array of the first device, a signal resulting from transmission of the same uplink pilot signal (301, 302) from each antenna of the at least two antennas (32, 33) of the second device, - determining, at the first device, a first set of first device receiving parameters for the antenna array depending on the received same uplink pilot signal (301, 302), - sending from each antenna of the at least two antennas (32, 33) of the second device a corresponding uplink pilot signal (303, 304) of a plurality of uplink pilot signals, wherein the plurality of uplink pilot signals are orthogonal to each other, - receiving the plurality of uplink pilot signals (303, 304) at the antenna array of the first device using the first set of first device receiving parameters, and - determining, at the first device, for each received uplink pilot signal (303, 304) of the plurality of uplink pilot signals a corresponding second set of first device receiving parameters for the antenna array depending on the plurality of received orthogonal uplink pilot signals (303, 304). - broadcasting a same uplink pilot signal (301, 302) from each antenna of the at least two antennas (32, 33) of the second device using a single pilot signal resource, - receiving, at the antenna array of the first device, a signal resulting from transmission of the same uplink pilot signal (301, 302) from each antenna of the at least two antennas (32, 33) of the second device, - determining, at the first device, a first set of first device receiving parameters for the antenna array depending on the received same uplink pilot signal (301, 302), - sending from each antenna of the at least two antennas (32, 33) of the second device a corresponding uplink pilot signal (303, 304) of a plurality of uplink pilot signals, wherein the plurality of uplink pilot signals are orthogonal to each other, - receiving the plurality of uplink pilot signals (303, 304) at the antenna array of the first device using the first set of first device receiving parameters, and - determining, at the first device, for each received uplink pilot signal (303, 304) of the plurality of uplink pilot signals a corresponding second set of first device receiving parameters for the antenna array depending on the plurality of received orthogonal uplink pilot signals (303, 304).
A process for preparing a packaging insert comprising a plurality of individual pockets each shaped to fit an elongate element, each pocket having a hexagonal cross section, the process comprising: (i) providing a first web having a series of parallel grooves with a three-sided polygonal cross section; (ii) providing a second web having a series of parallel grooves with a three-sided polygonal cross section; and, (iii) arranging the first web and the second web to provide a series of parallel individual pockets (1711, 1712) having a hexagonal cross section; characterised in that the process further comprises providing one or more further webs having a series of parallel grooves with a three-sided polygonal cross section and arranging the one or more further webs with the first web or the second web to provide a further series of individual pockets. (i) providing a first web having a series of parallel grooves with a three-sided polygonal cross section; (ii) providing a second web having a series of parallel grooves with a three-sided polygonal cross section; and, (iii) arranging the first web and the second web to provide a series of parallel individual pockets (1711, 1712) having a hexagonal cross section;
Method for encoding an image (ICj) divided into blocks, said image containing two regions (Z1, Z2) defined before said image is encoded, said regions being distinct, and said encoding method being characterized in that it implements the following: - only if the current block (B u) belongs to one of said regions of the image: • encoding (C6a-C8a) the current block using a prediction, the current block being predicted using a previously encoded then decoded block, located in the other region of the image, the blocks of said other region having been previously encoded then decoded, • encoding (C100a) an information item (ibc_flag) which indicates whether or not a certain prediction mode was used to predict the current block, - for any decoded block which belongs to the other of said regions of the image, storing (C101b) the decoded-block data. - only if the current block (B u) belongs to one of said regions of the image: • encoding (C6a-C8a) the current block using a prediction, the current block being predicted using a previously encoded then decoded block, located in the other region of the image, the blocks of said other region having been previously encoded then decoded, • encoding (C100a) an information item (ibc_flag) which indicates whether or not a certain prediction mode was used to predict the current block, • encoding (C6a-C8a) the current block using a prediction, the current block being predicted using a previously encoded then decoded block, located in the other region of the image, the blocks of said other region having been previously encoded then decoded, • encoding (C100a) an information item (ibc_flag) which indicates whether or not a certain prediction mode was used to predict the current block, - for any decoded block which belongs to the other of said regions of the image, storing (C101b) the decoded-block data.
An apparatus for an exhaust mixing structure extending from an end of a jet engine nacelle nozzle; comprising: a body including a first wall and a second wall; at least one appending structure extending from an end of the body and comprising a first skin having a proximal end and a second skin coupled at a proximal end to an edge portion of the second wall, a distal end of the first skin connected to a distal end of the second skin; and at least one actuator positioned between the first and second walls, the actuator comprising at least one shape memory alloy tendon, comprising an SMA wire adapted to constrict when activated characterized by said proximal end of said first skin being movably positioned between the first and second walls and said SMA wire being activated to move the first skin so as to bend the appending structure from a first position to a second position. a body including a first wall and a second wall; at least one appending structure extending from an end of the body and comprising a first skin having a proximal end and a second skin coupled at a proximal end to an edge portion of the second wall, a distal end of the first skin connected to a distal end of the second skin; and at least one actuator positioned between the first and second walls, the actuator comprising at least one shape memory alloy tendon, comprising an SMA wire adapted to constrict when activated characterized by said proximal end of said first skin being movably positioned between the first and second walls and said SMA wire being activated to move the first skin so as to bend the appending structure from a first position to a second position.
An abutment for a dental implant, with an apical end and with a coronal end arranged opposite the apical end in the longitudinal direction, which abutment has, in the area of the apical end, an insert portion which is designed to be received by an opening of the dental implant and which has an anti-rotation segment comprising at least one anti-rotation element which is designed to cooperate with a corresponding mating anti-rotation element of the dental implant and comprising a groove (18', 18") which, from the edge of the anti-rotation segment directed toward the apical end, extends in the coronal longitudinal direction along a groove portion with a substantially constant groove width, wherein the groove (18', 18") is continuously widened in a transition portion adjoining the groove portion, in order to merge into a bevel (24', 24") in a bevel portion adjoining the transition portion.
A method of automatically detecting the presence of a disconnected high voltage cable condition in a hybrid electric vehicle powered by a high voltage energy storage system, before said high voltage energy storage system supplies power to the hybrid electric vehicle for propelling the vehicle, the method comprising: using a controller, rotating an electrical motor generator at a first speed to produce a test voltage on a high voltage generator cable (113, 115, 117) connecting the electrical motor generator to an inverter in the hybrid electric vehicle, said electrical motor generator being mechanically connected to and rotated by a mechanical motive device included in the hybrid electric vehicle; using the controller, receiving a first voltage measured at a first terminal (160, 162) of the inverter; and using the controller, comparing said first voltage to the test voltage to determine whether the high voltage generator cable (113, 115, 117) is properly connected between the electrical motor generator and the inverter. using a controller, rotating an electrical motor generator at a first speed to produce a test voltage on a high voltage generator cable (113, 115, 117) connecting the electrical motor generator to an inverter in the hybrid electric vehicle, said electrical motor generator being mechanically connected to and rotated by a mechanical motive device included in the hybrid electric vehicle; using the controller, receiving a first voltage measured at a first terminal (160, 162) of the inverter; and using the controller, comparing said first voltage to the test voltage to determine whether the high voltage generator cable (113, 115, 117) is properly connected between the electrical motor generator and the inverter.
A secondary stage sample separation device for separating at least a portion of a fluidic sample, wherein the secondary stage sample separation device comprises: a fluidic interface configured for forming a detachable, fluidic coupling between a primary stage sample separation device and the secondary stage sample separation device so that the fluidic sample separated by the primary stage sample separation device is fluidically suppliable to the secondary stage sample separation device via the fluidic interface for further separation; a pressure reduction mechanism configured for reducing pressure at the fluidic interface at least in the event of an overpressure or of an excessive pressure increase, wherein the pressure reduction mechanism is arranged downstream of the fluidic interface and upstream of a modulator valve of the secondary stage sample separation device. a fluidic interface configured for forming a detachable, fluidic coupling between a primary stage sample separation device and the secondary stage sample separation device so that the fluidic sample separated by the primary stage sample separation device is fluidically suppliable to the secondary stage sample separation device via the fluidic interface for further separation; a pressure reduction mechanism configured for reducing pressure at the fluidic interface at least in the event of an overpressure or of an excessive pressure increase, wherein the pressure reduction mechanism is arranged downstream of the fluidic interface and upstream of a modulator valve of the secondary stage sample separation device.
An antisense compound according to the following formula: mCes Aeo Ges Geo Aes Tds Ads mCds Ads Tds Tds Tds mCds Tds Ads mCeo Aes Geo mCes Te (nucleobase sequence of SEQ ID NO: 725) wherein, A = an adenine, mC = a 5-methylcytosine, G = a guanine, T = a thymine, e = a 2'-O-methoxyethylribose modified sugar, d = a 2'-deoxyribose sugar, s = a phosphorothioate internucleoside linkage, and o = a phosphodiester internucleoside linkage; or a pharmaceutically acceptable salt thereof. A = an adenine, mC = a 5-methylcytosine, G = a guanine, T = a thymine, e = a 2'-O-methoxyethylribose modified sugar, d = a 2'-deoxyribose sugar, s = a phosphorothioate internucleoside linkage, and o = a phosphodiester internucleoside linkage;
A method comprising: maintaining at a network element (14, 110) a flow table, wherein the flow table comprises a plurality of flow table entries and wherein each of the flow table entries corresponds to one of a plurality of active data flows in a network; subsequent to receipt at the network element of a data packet of one of the active flows, characterizing the one of the active flows as a large flow or a short flow, using values contained in the flow table entry corresponding to the one of the active flows; and processing the received packet in accordance with the characterization, the processing comprising: reducing an interrupt coalescence, IC, parameter if the one of the flows is a short flow, wherein a low IC parameter value corresponds to reduced consolidation of CPU interrupts and a high IC parameter value corresponds to increased consolidation of CPU interrupts; and increasing the IC parameter if the one of the flows is a large flow. maintaining at a network element (14, 110) a flow table, wherein the flow table comprises a plurality of flow table entries and wherein each of the flow table entries corresponds to one of a plurality of active data flows in a network; subsequent to receipt at the network element of a data packet of one of the active flows, characterizing the one of the active flows as a large flow or a short flow, using values contained in the flow table entry corresponding to the one of the active flows; and processing the received packet in accordance with the characterization, the processing comprising: reducing an interrupt coalescence, IC, parameter if the one of the flows is a short flow, wherein a low IC parameter value corresponds to reduced consolidation of CPU interrupts and a high IC parameter value corresponds to increased consolidation of CPU interrupts; and increasing the IC parameter if the one of the flows is a large flow. reducing an interrupt coalescence, IC, parameter if the one of the flows is a short flow, wherein a low IC parameter value corresponds to reduced consolidation of CPU interrupts and a high IC parameter value corresponds to increased consolidation of CPU interrupts; and increasing the IC parameter if the one of the flows is a large flow.
Modular plug connector consisting of a metal housing, an electrically insulating retaining frame, and at least one plug connector module inserted into the retaining frame, wherein the retaining frame is arranged in the housing, and wherein the at least one plug connector module is made from a metal or at least electrically conductive material, forms a plug side and a connection side, and at least one electrical contact is accommodated in the plug connector module, wherein the modular plug connector has a grounding means which connects the at least one plug connector module electrically to the housing, characterized in that the grounding means is formed from a flat fastening flange (4.1) on which a spring arm (4.2) is integrally formed, wherein the fastening flange (4.1) of the grounding means is fastened on the connection side of the plug connector module, and wherein the spring arm (4.2) of the grounding means is in touching contact with the housing.
Burner holder for a burner of a melting vat, comprising a holding section for fastening the burner, a mounting section for fastening the holder to a melting vat or a vat element which is assigned to the melting vat, and two parallel crank mechanisms which are arranged in parallel and via which the holding section is connected to the mounting section and can be moved via said parallel crank mechanisms relative to the mounting section, wherein each of the parallel crank mechanisms has four struts (9, 10, 11, 12) which can be pivoted relative to one another and of which two first struts (11, 12) are mounted pivotably on the mounting section and two second struts (9, 10) are mounted pivotably on the holding section, wherein the two parallel crank mechanisms which are arranged in parallel are connected to one another at least partially via the respective pivot pins (19, 20, 21) which connect the respective struts (9, 10, 11, 12) and about which the struts can be pivoted, and wherein the burner holder comprises an actuating element for the automatic adjustment of the parallel crank mechanisms, characterized in that the actuating element is fastened on one side on the mounting section and on the other side on a pivot pin, via which two struts (10, 12) are connected to one another pivotably.
A method performed by a remote unit, the method comprising: receiving at least one DL transmission within a DL association set; determining a number of HARQ-ACK bits required for HARQ-ACK feedback corresponding to the DL association set; receiving a positive integer Z; generating: a first HARQ-ACK codebook comprising HARQ-ACK information bits in response to determining that the number of HARQ-ACK bits required for HARQ-ACK feedback corresponding to the DL association set is not larger than Z; or a second HARQ-ACK codebook comprising HARQ-ACK information bits for the DL association set in response to determining that the number of HARQ-ACK bits required for HARQ-ACK feedback corresponding to the DL association set is larger than Z, wherein the second HARQ-ACK codebook is a semi-static HARQ-ACK codebook; and transmitting: the first generated HARQ-ACK codebook on a first resource that acknowledges the at least one DL transmission within the DL association set; or the second generated HARQ-ACK codebook on a second resource that acknowledges the at least one DL transmission within the DL association set. receiving at least one DL transmission within a DL association set; determining a number of HARQ-ACK bits required for HARQ-ACK feedback corresponding to the DL association set; receiving a positive integer Z; generating: a first HARQ-ACK codebook comprising HARQ-ACK information bits in response to determining that the number of HARQ-ACK bits required for HARQ-ACK feedback corresponding to the DL association set is not larger than Z; or a second HARQ-ACK codebook comprising HARQ-ACK information bits for the DL association set in response to determining that the number of HARQ-ACK bits required for HARQ-ACK feedback corresponding to the DL association set is larger than Z, wherein the second HARQ-ACK codebook is a semi-static HARQ-ACK codebook; and a first HARQ-ACK codebook comprising HARQ-ACK information bits in response to determining that the number of HARQ-ACK bits required for HARQ-ACK feedback corresponding to the DL association set is not larger than Z; or a second HARQ-ACK codebook comprising HARQ-ACK information bits for the DL association set in response to determining that the number of HARQ-ACK bits required for HARQ-ACK feedback corresponding to the DL association set is larger than Z, wherein the second HARQ-ACK codebook is a semi-static HARQ-ACK codebook; and transmitting: the first generated HARQ-ACK codebook on a first resource that acknowledges the at least one DL transmission within the DL association set; or the second generated HARQ-ACK codebook on a second resource that acknowledges the at least one DL transmission within the DL association set. the first generated HARQ-ACK codebook on a first resource that acknowledges the at least one DL transmission within the DL association set; or the second generated HARQ-ACK codebook on a second resource that acknowledges the at least one DL transmission within the DL association set.
Shelter for pool consisting of one or several roof modules (M1, M2, M3) mobile or otherwise controlling access to the pool, the roof modules are formed of a frame of strips supporting a coverage, said frame comprising a pair of cross beams (100a, 100b) arranged above the pool and spaced by crossmembers, with the coverage comprising one or several panels positioned in rabbets provided on the strips (100a, 100b) of said beams, at least one roof module being discoverable via at least one sliding plate formed by a panel able to slide in at least one slide formed by grooves of a pair of strips and arranged facing on a pair of strips in order to allow the panel to change position and as such create an opening, the edges of the sliding panel (400 and 500) cooperating with said strips forming a slide (300a and 300b) are provided with a strip forming slip pads (510a and 410a), said slip pads (410a, 510a) adopt: - a first longitudinal side comprising a reception rabbet (511a and 411a) of the edge of the panel (500 and 400) forming the door, CHARACTERISED BY THE FACT THAT - a second side of said slip pads takes the shape of a flat strip (512a and 412a) with a protruding edge (513a and 413a) authorising the longitudinal sliding in the strips (300a and 300b) forming a slide while ensuring lateral restraint, - said strips (300a, 300b) forming the slide are arranged, over the entire width of the pool, with two superposed grooves (310a, 320a), - and the wall of the coverage of the roof module receiving said slide is formed from at least two sliding panels (400, 500) each one guided in one, lower or upper, of the two grooves (310a, 320a) of said strips, on either side of the shelter, in such a way that the opening of said discoverable roof module can be effective on each side of said shelter, CHARACTERISED BY THE FACT THAT the two superposed grooves (310a, 320a) forming the slide of the discoverable roof module are arranged in two strips (300a, 300b) arranged between the two strips (100a, 100b) of said cross beams of the frame of said roof module. - a first longitudinal side comprising a reception rabbet (511a and 411a) of the edge of the panel (500 and 400) forming the door, CHARACTERISED BY THE FACT THAT - a second side of said slip pads takes the shape of a flat strip (512a and 412a) with a protruding edge (513a and 413a) authorising the longitudinal sliding in the strips (300a and 300b) forming a slide while ensuring lateral restraint, - said strips (300a, 300b) forming the slide are arranged, over the entire width of the pool, with two superposed grooves (310a, 320a), - and the wall of the coverage of the roof module receiving said slide is formed from at least two sliding panels (400, 500) each one guided in one, lower or upper, of the two grooves (310a, 320a) of said strips, on either side of the shelter,