mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE, configured to provide conditional physical uplink control channel, PUCCH, resource allocation in time division duplex, TDD, for a hybrid automatic retransmission re-quest-acknowledge, HARQ-ACK, transmission in a subframe n , having computer circuitry configured to: receive a downlink control channel within a prior specified subframe, wherein the prior specified subframe occurs in time before the subframe n ; recognize that a downlink control channel type received within the prior specified subframe is a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; characterized in that the computer circuitry is further configured to: determine a PUCCH resource for the HARQ ACK transmission using a lowest control channel element, CCE, index of the PDCCH when the received downlink control channel type is the PDCCH; and determine the PUCCH resource for the HARQ-ACK transmission using a lowest enhanced CCE, ECCE, index of the EPDCCH when the received downlink control channel type is the EPDCCH, wherein the PUCCH resource for a subframe n-k using the lowest ECCE index of an EPDCCH is determined using an integer m, where k ∈ K, where K includes a set of M elements { k 0 , k 1 ,... k M -1 } depending on the subframe n and an uplink/downlink, UL/DL, configuration, and where k m is a smallest value in K such that the UE detects an EPDCCH in a subframe n-k m . receive a downlink control channel within a prior specified subframe, wherein the prior specified subframe occurs in time before the subframe n ; recognize that a downlink control channel type received within the prior specified subframe is a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; characterized in that the computer circuitry is further configured to: determine a PUCCH resource for the HARQ ACK transmission using a lowest control channel element, CCE, index of the PDCCH when the received downlink control channel type is the PDCCH; and determine the PUCCH resource for the HARQ-ACK transmission using a lowest enhanced CCE, ECCE, index of the EPDCCH when the received downlink control channel type is the EPDCCH, wherein the PUCCH resource for a subframe n-k using the lowest ECCE index of an EPDCCH is determined using an integer m, where k ∈ K, where K includes a set of M elements { k 0 , k 1 ,... k M -1 } depending on the subframe n and an uplink/downlink, UL/DL, configuration, and where k m is a smallest value in K such that the UE detects an EPDCCH in a subframe n-k m .
Method of preparing a particulate refractory composition for use in the manufacture of foundry moulds and cores from spent foundry moulds or cores formed of refractory material and a binder containing water glass, the method comprising the following steps: - providing broken material from spent foundry moulds or cores or preparing broken material from spent foundry moulds or cores, wherein the broken material comprises particles and/or aggregates of particles of refractory material having hardened water glass binder on their surface, - mixing the broken material with particulate amorphous oxide comprising silicon dioxide in an amount of 85 % by weight or more, based on the total amount of the particulate amorphous oxide, to give a mixture and - subjecting the mixture to a heat treatment at a temperature of 400 °C or higher. - providing broken material from spent foundry moulds or cores or preparing broken material from spent foundry moulds or cores, wherein the broken material comprises particles and/or aggregates of particles of refractory material having hardened water glass binder on their surface, - mixing the broken material with particulate amorphous oxide comprising silicon dioxide in an amount of 85 % by weight or more, based on the total amount of the particulate amorphous oxide, to give a mixture and - subjecting the mixture to a heat treatment at a temperature of 400 °C or higher.
A master unit for a distributed antenna system , wherein the master unit is configured to: receive downlink signals provided by a first remote unit from downlink radio frequency, RF, signals received from a base station ; transmit the downlink signals received from the first remote unit to a second remote unit ; and instruct the first remote unit to establish a communication link with the base station in response to detecting a malfunction with respect to an additional communication link between the master unit and an additional base station . receive downlink signals provided by a first remote unit from downlink radio frequency, RF, signals received from a base station ; transmit the downlink signals received from the first remote unit to a second remote unit ; and instruct the first remote unit to establish a communication link with the base station in response to detecting a malfunction with respect to an additional communication link between the master unit and an additional base station .
A method of determining a transmission power of a transmitter , the method comprising: calculating, by a transmission power determining device, a sum power of the transmitter based on a total transmission power, an efficiency of a power amplifier, a power consumption of a baseband processing unit and a power consumption of a radio frequency front end; calculating, by the transmission power determining device, a channel capacity of the transmitter based on the total transmission power, a number of antennas of the transmitter, an interference, a number of receivers, a noise power and a bandwidth; determining, by the transmission power determining device, a transmission power of the transmitter using a first equation based on the sum power and the channel capacity, wherein the interference in the first equation is calculated as a constant; and determining, by the transmission power determining device, the transmission power of the transmitter using a second equation, different from the first equation, based on the sum power and the channel capacity, wherein the interference in the second equation is calculated as a function of the transmission power. calculating, by a transmission power determining device, a sum power of the transmitter based on a total transmission power, an efficiency of a power amplifier, a power consumption of a baseband processing unit and a power consumption of a radio frequency front end; calculating, by the transmission power determining device, a channel capacity of the transmitter based on the total transmission power, a number of antennas of the transmitter, an interference, a number of receivers, a noise power and a bandwidth; determining, by the transmission power determining device, a transmission power of the transmitter using a first equation based on the sum power and the channel capacity, wherein the interference in the first equation is calculated as a constant; and determining, by the transmission power determining device, the transmission power of the transmitter using a second equation, different from the first equation, based on the sum power and the channel capacity, wherein the interference in the second equation is calculated as a function of the transmission power.
A bracket configured for use with a medical article , the bracket comprising: a base having a longitudinal axis (A') and a first major surface ; a post coupled to the base and extending upwardly from the base in a direction generally normal to the first major surface of the base , the post configured to abut an external surface (S) of the medical article to inhibit at least longitudinal movement of the medical article when the medical article is coupled to the bracket ; and an arm coupled to the base and extending generally parallel to the first major surface of the base , the arm spaced a distance from the first major surface of the base to define a channel under the arm , the channel dimensioned to receive at least a portion of the medical article , the arm including a fixed end and a free end such that the arm is cantilevered, the arm configured to inhibit movement of the medical article in at least a direction that is generally normal to the first major surface of the base when the medical article is coupled to the bracket , wherein the arm extends generally laterally with respect to the longitudinal axis (A') of the base ; wherein the post and the arm are each fixed with respect to the base ; wherein the arm defines a lateral width W that extends from the fixed end of the arm to the free end of the arm ; and wherein the post is located within the lateral width W of the arm on the base . a base having a longitudinal axis (A') and a first major surface ; a post coupled to the base and extending upwardly from the base in a direction generally normal to the first major surface of the base , the post configured to abut an external surface (S) of the medical article to inhibit at least longitudinal movement of the medical article when the medical article is coupled to the bracket ; and an arm coupled to the base and extending generally parallel to the first major surface of the base , the arm spaced a distance from the first major surface of the base to define a channel under the arm , the channel dimensioned to receive at least a portion of the medical article , the arm including a fixed end and a free end such that the arm is cantilevered, the arm configured to inhibit movement of the medical article in at least a direction that is generally normal to the first major surface of the base when the medical article is coupled to the bracket , wherein the arm extends generally laterally with respect to the longitudinal axis (A') of the base ; wherein the post and the arm are each fixed with respect to the base ; wherein the arm defines a lateral width W that extends from the fixed end of the arm to the free end of the arm ; and wherein the post is located within the lateral width W of the arm on the base .
Extractor hood having at least one operating unit device , wherein the operating unit device has at least one outer housing fixed to the housing which is detachably connected to the extractor hood and has an open side for receiving at least a part of an inner housing , and at least one inner housing for receiving at least one part of an operating unit , wherein the inner housing is at least partially movably attached to the outer housing , that at least one operating unit with at least one actuating element for at least one function of the extractor hood is held on the inner housing at least partially, and wherein relative to the outer housing the inner housing can be brought into at least one idle state and at least one operating state, characterised in that the inner housing is displaceably connected to the outer housing , that in the connection between the inner housing and the outer housing at least one acceleration element is provided in the form of a spring element, and that the operating unit device is introduced in the underside of the extractor hood and in at least one operating position the operating unit protrudes at least partially over the underside of the extractor hood .
Process for manufacturing a shaped object through a winding process comprising the steps of - winding resin-containing fibers under tension to form a shaped fibrous object, - subjecting the shaped fibrous object to a curing step, characterised in that the resin in the resin-containing fibers comprises at least 50 wt.% of polyester derived from an aliphatic polyol with 2-15 carbon atoms and an aliphatic polycarboxylic acid with 3 to 15 carbon atoms, calculated on the polymer constituents of the resin. - winding resin-containing fibers under tension to form a shaped fibrous object, - subjecting the shaped fibrous object to a curing step,
A bit interleaving method for interleaving bits of a codeword generated based on a repeat-accumulate quasi-cyclic low-density parity check coding scheme, the bit interleaving method comprising: a parity interleaving step of permuting parity bits of the codeword such that the parity section of the codeword has a quasi-cyclic structure; a bit permutation step of applying a bit permutation process to the codeword after the parity interleaving step, the codeword being made up of N cyclic blocks each consisting of Q bits, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is not a multiple of M, the bit permutation rule defines the reordering of the bits of the codeword, such that the Q bits in each of N'=N-X cyclic blocks among the N cyclic blocks are each allocated to a bit of an identical bit index in Q constellation words and said Q constellation words are each made up of one bit from each of M different cyclic blocks, said M different cyclic blocks being common to said Q constellation words, where X is the remainder of N divided by M, and X cyclic blocks among the N cyclic blocks other than said N' cyclic blocks include a cyclic block corresponding to the parity section of the codeword. a parity interleaving step of permuting parity bits of the codeword such that the parity section of the codeword has a quasi-cyclic structure; a bit permutation step of applying a bit permutation process to the codeword after the parity interleaving step, the codeword being made up of N cyclic blocks each consisting of Q bits, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is not a multiple of M, the bit permutation rule defines the reordering of the bits of the codeword, such that the Q bits in each of N'=N-X cyclic blocks among the N cyclic blocks are each allocated to a bit of an identical bit index in Q constellation words and said Q constellation words are each made up of one bit from each of M different cyclic blocks, said M different cyclic blocks being common to said Q constellation words, where X is the remainder of N divided by M, and X cyclic blocks among the N cyclic blocks other than said N' cyclic blocks include a cyclic block corresponding to the parity section of the codeword.
A lighting apparatus, comprising: a light source plate ; multiple light modules placed on the light source plate , wherein each light module comprises a LED package and a lens , wherein the LED package comprises multiple sections, wherein at least a LED unit is placed in each section, wherein each section has a pair of corresponding LED electrodes ; and a driver electrically connected to the LED electrodes for supplying an adjustable ratio of separate driving currents to the LED electrodes to generate a required light parameter by mixing multiple lights emitted by the LED units disposed in the sections of the light modules , wherein the lens has multiple lens areas for guiding lights of different sections in each light module to generate a mixed light via the lens , wherein the light source plate has multiple grooves for placing multiple light strips , and the multiple light modules are placed on the light strips , furthermore comprising a light passing cover connected to the light source plate forming a container for enclosing the multiple light modules, wherein the light passing cover has multiple cover lenses corresponding to the multiple light strips. a light source plate ; multiple light modules placed on the light source plate , wherein each light module comprises a LED package and a lens , wherein the LED package comprises multiple sections, wherein at least a LED unit is placed in each section, wherein each section has a pair of corresponding LED electrodes ; and a driver electrically connected to the LED electrodes for supplying an adjustable ratio of separate driving currents to the LED electrodes to generate a required light parameter by mixing multiple lights emitted by the LED units disposed in the sections of the light modules , wherein the lens has multiple lens areas for guiding lights of different sections in each light module to generate a mixed light via the lens , wherein the light source plate has multiple grooves for placing multiple light strips , and the multiple light modules are placed on the light strips , furthermore comprising a light passing cover connected to the light source plate forming a container for enclosing the multiple light modules, wherein the light passing cover has multiple cover lenses corresponding to the multiple light strips.
A medical device having at least one device housing and having at least one area for displaying one or more pieces of information, wherein the area for displaying information is formed by a partial region of the device housing, wherein lamps are provided which are configured such that they illuminate the partial region of the device housing, and wherein provision is made that the illumination itself represents the displayed information or a part thereof, characterized in that the partial region is configured in the form of a depression of a surface of the device housing and the lamps are configured as an LED strip attached in the depression, with the depression having a parallel surface that is set back with respect to the outer side of the device and that is used as a projection surface.
Wind turbine including: a tower , a nacelle mounted on the tower , an electrical generator housed in the nacelle , a wind rotor rotatably coupled to the nacelle for rotating about a rotational axis (Y) and having at least one rotatable blade , two rotating shafts for connecting the wind rotor to the electrical generator , a shaft connector for rigidly connecting the two rotating shafts , wherein the shaft connector comprises: a hollow body , at least an inner flange protruding from the hollow body towards an axis of rotation (W) of the shaft connector , a respective plurality of removable connections , the inner flange being connectable to one of the two rotating shafts , by means of said respective plurality of removable connections , at least one hole provided on the hollow body for accessing the inner flange and the respective plurality of removable connections for mounting, inspection and maintenance. a tower , a nacelle mounted on the tower , an electrical generator housed in the nacelle , a wind rotor rotatably coupled to the nacelle for rotating about a rotational axis (Y) and having at least one rotatable blade , two rotating shafts for connecting the wind rotor to the electrical generator , a shaft connector for rigidly connecting the two rotating shafts , a hollow body , at least an inner flange protruding from the hollow body towards an axis of rotation (W) of the shaft connector , a respective plurality of removable connections , the inner flange being connectable to one of the two rotating shafts , by means of said respective plurality of removable connections , at least one hole provided on the hollow body for accessing the inner flange and the respective plurality of removable connections for mounting, inspection and maintenance.
A method for producing a spiral wound separation membrane element, comprising: a step for preparing a composite semipermeable membrane having a skin layer on the surface of a porous support; a step for forming on the skin layer a protective layer containing 35 mg/m 2 or more and 2000 mg/m 2 or less of an anionic polyvinyl alcohol to prepare a protective layer-equipped composite semipermeable membrane; a step for preparing an unwashed spiral wound separation membrane element using the protective layer-equipped composite semipermeable membrane; and a step for passing wash water through the unwashed spiral wound separation membrane element to remove the protective layer on the skin layer, wherein the skin layer contains a polyamide resin obtained by polymerizing a polyfunctional amine component and a polyfunctional acid halide component, and the anionic polyvinyl alcohol is a polyvinyl alcohol having a carboxyl group, a sulfonic acid group or a phosphoric acid group. a step for preparing a composite semipermeable membrane having a skin layer on the surface of a porous support; a step for forming on the skin layer a protective layer containing 35 mg/m 2 or more and 2000 mg/m 2 or less of an anionic polyvinyl alcohol to prepare a protective layer-equipped composite semipermeable membrane; a step for preparing an unwashed spiral wound separation membrane element using the protective layer-equipped composite semipermeable membrane; and a step for passing wash water through the unwashed spiral wound separation membrane element to remove the protective layer on the skin layer, wherein the skin layer contains a polyamide resin obtained by polymerizing a polyfunctional amine component and a polyfunctional acid halide component, and the anionic polyvinyl alcohol is a polyvinyl alcohol having a carboxyl group, a sulfonic acid group or a phosphoric acid group.
A heat welder for securing edges of adjacent geomembrane liner panels together, said geomembrane liner panels having conductive bottom surfaces and being overlapped along their edges with a first one of said panels on top of a second one of said panels, said welder comprising: a welder body having forward and rear ends and defining first and second slots with top and bottom walls extending between the welder body front and rear, wherein the first slot is open on one lateral side for receiving the first one of said panels and is substantially horizontally oriented at said lateral side, the second slot is below said first slot and open on the lateral side opposite the one side for receiving the overlapping edge of the second one of said panels and is substantially horizontally oriented at said lateral side, and said first and second slots merge at the body rear end ; a drive for moving the welder body forward; a heating unit between said first and second slots and forward of said merged first and second slots , said heating unit defining a portion of a bottom wall of the first slot ; and characterised by at least one projection extending partially into said first slot for engaging the conductive bottom surface of the first one of said panels to interrupt the conductive bottom surface along a line as it passes the projection ; wherein said merged first and second slots press together first and second liner panels to heat weld the first and second liner panels together along the line of the interrupted conductive bottom surface . a welder body having forward and rear ends and defining first and second slots with top and bottom walls extending between the welder body front and rear, wherein the first slot is open on one lateral side for receiving the first one of said panels and is substantially horizontally oriented at said lateral side, the second slot is below said first slot and open on the lateral side opposite the one side for receiving the overlapping edge of the second one of said panels and is substantially horizontally oriented at said lateral side, and said first and second slots merge at the body rear end ; a drive for moving the welder body forward; a heating unit between said first and second slots and forward of said merged first and second slots , said heating unit defining a portion of a bottom wall of the first slot ; and characterised by at least one projection extending partially into said first slot for engaging the conductive bottom surface of the first one of said panels to interrupt the conductive bottom surface along a line as it passes the projection ; wherein said merged first and second slots press together first and second liner panels to heat weld the first and second liner panels together along the line of the interrupted conductive bottom surface .