mhurhangee/patent-ind-claim-en huggingface dataset:
A processor for computing at least one convolution layer of a spiking convolutional neural network, in response to an input event, the convolutional neural network comprising at least one convolution kernel comprising weight coefficients and represented by a convolution matrix in a coordinate system of given dimensions, each convolution layer comprising at least one output map comprising a set of output neurons that are connected to input neurons of at least one portion of an input map of the neural network, characterized in that it comprises at least one convolution module configured to compute said at least one convolution layer, each convolution module comprising a set of elementary processing units for computing the internal value of the convolution layer neurons that are triggered by said input event, and at least one neuron value memory for storing the computed internal values of the neurons, the input event being defined by an input address in said coordinate system, said input address comprising the coordinates of the input event on the input map, each elementary processing unit being associated with coordinates corresponding to the coordinates of the weight coefficient associated with said convolution matrix in said coordinate system, each convolution module being configured to map the weight coefficients of the kernel with at least some of the elementary processing units of the module in parallel, and in that each convolution module is configured to compute, for each input event and for each elementary processing unit , one or more storage addresses for the internal values of the neurones computed on the basis of the input event and of at least one parameter of the convolution layer to be processed, each elementary processing unit being able to select a storage address from said computed storage addresses for storing the internal values of the neurons computed by said processing unit in a neuron value memory as a function of the coordinates of said processing unit in said coordinate system.
Vapour extraction apparatus with at least one steam-conducting plate and at least one illumination facility , which comprises at least one light source , wherein the vapour extraction apparatus has a suction opening , via which air is drawn in downwards and the at least one steam-conducting plate is arranged adjacently to the suction opening and wherein the steam-conducting plate , which represents a surface element that conducts the air, which is drawn through a fan inside the vapour extraction apparatus, to the suction opening of the vapour extraction apparatus, represents a light conductor, the illumination facility faces towards the steam-conducting plate , characterised in that a reflection surface is embodied on at least one part of an edge of the steam-conducting plate , which faces away from the illumination facility , so that the light conducted through the steam-conducting plate is directed in a particular direction in a targeted manner, and that an optical element for introducing light via the edge of the steam-conducting plate that faces towards the illumination facility is arranged between the illumination facility and the steam-conducting plate .
Modular extendable trolley including: - a front module of a loading and unloading floor, - a rear module of the loading and unloading floor, - a connection module between the front module and the rear module , - four wheels for the movement of the trolley, - a drawbar to give direction to the trolley, wherein the front module and said rear module of the loading and unloading floor comprise extensible side portions (1', 1 ", 2', 2") and said connection module comprises a longitudinal portion extendable to vary the dimensions of the trolley itself, characterized in including: a tow hook for hooking an additional trolley into a train of trolleys, wherein the extensible side portions (1 ', 1 ", 2', 2") are made by an articulated system positioned inside the front module and the rear module of the loading and unloading floor, and wherein the articulated system comprises a plurality of crank elements and a plurality of mechanisms (8") articulated together. - a front module of a loading and unloading floor, - a rear module of the loading and unloading floor, - a connection module between the front module and the rear module , - four wheels for the movement of the trolley, - a drawbar to give direction to the trolley, wherein the front module and said rear module of the loading and unloading floor comprise extensible side portions (1', 1 ", 2', 2") and said connection module comprises a longitudinal portion extendable to vary the dimensions of the trolley itself, characterized in including: a tow hook for hooking an additional trolley into a train of trolleys, wherein the extensible side portions (1 ', 1 ", 2', 2") are made by an articulated system positioned inside the front module and the rear module of the loading and unloading floor, and wherein the articulated system comprises a plurality of crank elements and a plurality of mechanisms (8") articulated together. a tow hook for hooking an additional trolley into a train of trolleys, wherein the extensible side portions (1 ', 1 ", 2', 2") are made by an articulated system positioned inside the front module and the rear module of the loading and unloading floor, and wherein the articulated system comprises a plurality of crank elements and a plurality of mechanisms (8") articulated together.
A thermal management system comprising: a housing having an interior space; a heat-generating component disposed within the interior space; a heat exchanger; and a working fluid liquid disposed within the interior space such that the heat-generating component is in direct contact with, and partially immersed up to fully immersed in, the working fluid; wherein the working fluid comprises a Fischer-Tropsch derived base fluid; an antioxidant additive and an anti-static additive, wherein the thermal management system is constructed such that a constant cyclical flow of working fluid is maintained across the one or more heat-generating components, on to the heat exchanger and then back to the heat-generating component. a housing having an interior space; a heat-generating component disposed within the interior space; a heat exchanger; and a working fluid liquid disposed within the interior space such that the heat-generating component is in direct contact with, and partially immersed up to fully immersed in, the working fluid;
An endless industrial belt or sleeve comprising: a polymeric material in the form of a ribbon comprising a first longitudinal edge surface having a first edge profile, and a second longitudinal edge surface having a second edge profile, said polymeric material being spirally wound in a plurality of turns such that the first longitudinal edge surface of said polymeric material abuts said second longitudinal edge surface of an adjacent spiral turn of said polymeric material, thereby forming a gap therebetween; and a filler material inserted in said gap, wherein said filler material is configured as a profiled rod, and wherein a cross-sectional shape and dimension of said filler material corresponds to the cross-sectional shape and dimension of said gap, wherein said first and second edge profiles are adapted to accept said filler material , said first and second edge profiles including a shape adapted to accept the filler material, optionally wherein said filler material and/or said edge surfaces is at least partially melted and bonded using IR radiation, laser, or ultrasonic energy. a polymeric material in the form of a ribbon comprising a first longitudinal edge surface having a first edge profile, and a second longitudinal edge surface having a second edge profile, said polymeric material being spirally wound in a plurality of turns such that the first longitudinal edge surface of said polymeric material abuts said second longitudinal edge surface of an adjacent spiral turn of said polymeric material, thereby forming a gap therebetween; and a first longitudinal edge surface having a first edge profile, and a second longitudinal edge surface having a second edge profile, said polymeric material being spirally wound in a plurality of turns such that the first longitudinal edge surface of said polymeric material abuts said second longitudinal edge surface of an adjacent spiral turn of said polymeric material, thereby forming a gap therebetween; and a filler material inserted in said gap, wherein said filler material is configured as a profiled rod, and wherein a cross-sectional shape and dimension of said filler material corresponds to the cross-sectional shape and dimension of said gap, wherein said first and second edge profiles are adapted to accept said filler material , said first and second edge profiles including a shape adapted to accept the filler material, optionally wherein said filler material and/or said edge surfaces is at least partially melted and bonded using IR radiation, laser, or ultrasonic energy.
Braking system for bicycles, having a hydraulic brake device , having a filling apparatus for the brake device, the brake device including a master system filled with hydraulic fluid and a brake apparatus hydraulically connected thereto, the braking system having a compensating container and a filling and venting opening which is designed for releasable connecting a venting and filling tool with a piston-cylinder assembly, the compensating container and the filling and venting opening being arranged on the master system and the filling and venting opening being arranged on the top side of the master system , and a sealing plug for closing the filling and venting opening being provided, characterized in that the filling and venting opening has an insertion portion with a receiving cone , and in that the sealing plug has a matching outer cone.
A composition comprising: (a) a plurality of intact bacterially-derived minicells having intact cell walls, wherein the plurality of minicells maintain lipopolysaccharide and polypeptide structures derived from parental bacterial cells on the minicell surfaces, and wherein the minicells are loaded with a therapeutically effective amount of a small molecule drug, and (b) a pharmaceutically acceptable carrier therefor. (a) a plurality of intact bacterially-derived minicells having intact cell walls, wherein the plurality of minicells maintain lipopolysaccharide and polypeptide structures derived from parental bacterial cells on the minicell surfaces, and wherein the minicells are loaded with a therapeutically effective amount of a small molecule drug, and (b) a pharmaceutically acceptable carrier therefor.
A radio terminal (1; 12) adapted to perform radio communication with a base station , comprising: a communicator (1a; 21) adapted to perform discontinuous reception, DRX, in a DRX cycle, the DRX cycle including an active time for performing, by the radio terminal (1; 12), radio measurement and monitoring of a paging signal, and the communicator also being adapted to receive information related to the DRX cycle by a Non-Access Stratum, NAS, Attach Accept message of a NAS Attach procedure, the information notifying a period when the measurement/monitoring of the paging signal should be performed next; and a controller (1b; 22) adapted to control, according to the information, the communicator (1a; 21) so as to not perform the radio measurement and the monitoring during a first DRX cycle but to perform the radio measurement and the monitoring during a second DRX cycle different from the first DRX cycle, wherein the controller (1b; 22) is adapted to control the communicator to configure the second DRX cycle following the first DRX cycle; wherein the controller (1a; 21) is further adapted to perform the radio measurement and the monitoring within each DRX cycle after detecting an event having occurred in an application layer in the radio terminal (1; 12) for transmitting uplink data of the radio terminal (1; 12). a communicator (1a; 21) adapted to perform discontinuous reception, DRX, in a DRX cycle, the DRX cycle including an active time for performing, by the radio terminal (1; 12), radio measurement and monitoring of a paging signal, and the communicator also being adapted to receive information related to the DRX cycle by a Non-Access Stratum, NAS, Attach Accept message of a NAS Attach procedure, the information notifying a period when the measurement/monitoring of the paging signal should be performed next; and a controller (1b; 22) adapted to control, according to the information, the communicator (1a; 21) so as to not perform the radio measurement and the monitoring during a first DRX cycle but to perform the radio measurement and the monitoring during a second DRX cycle different from the first DRX cycle, wherein the controller (1b; 22) is adapted to control the communicator to configure the second DRX cycle following the first DRX cycle; wherein the controller (1a; 21) is further adapted to perform the radio measurement and the monitoring within each DRX cycle after detecting an event having occurred in an application layer in the radio terminal (1; 12) for transmitting uplink data of the radio terminal (1; 12).
A method performed by a scheduling entity for transmitting downlink control information, DCI, carrying a downlink grant or an uplink grant, comprising: detecting a reference length based on an effective length of a downlink, DL, grant DCI and an effective length of an uplink, UL, grant DCI; calculating a length difference based on the effective DL grant DCI length and the effective UL grant DCI length; setting a length of a dynamic length padding field in at least one of the DL grant DCI or the UL grant DCI equal to the calculated length difference such that the lengths of the DL grant DCI and UL grant DCI are both equal to the reference length; inserting padding bits in the dynamic length padding field of the at least one of the DL grant DCI or the UL grant DCI; encoding the at least one of the DL grant DCI or the UL grant DCI; and transmitting at least one of the encoded DL grant DCI or the encoded UL grant DCI to a scheduled entity. detecting a reference length based on an effective length of a downlink, DL, grant DCI and an effective length of an uplink, UL, grant DCI; calculating a length difference based on the effective DL grant DCI length and the effective UL grant DCI length; setting a length of a dynamic length padding field in at least one of the DL grant DCI or the UL grant DCI equal to the calculated length difference such that the lengths of the DL grant DCI and UL grant DCI are both equal to the reference length; inserting padding bits in the dynamic length padding field of the at least one of the DL grant DCI or the UL grant DCI; encoding the at least one of the DL grant DCI or the UL grant DCI; and transmitting at least one of the encoded DL grant DCI or the encoded UL grant DCI to a scheduled entity.
Hose coupling for a hydrant, wherein the hose coupling comprises a ventilation device , wherein the ventilation device comprises a non-return valve , which is accommodated in a receptacle incorporated into an outer flange of the hose coupling , wherein the ventilation device further comprises a ventilation path between the receptacle and, in the assembled state, the interior of the hydrant, characterized in that the ventilation path comprises a first path extending in the external flange between the receptacle and an external thread of the hose coupling , and a second path adjoining the first path , the second path being formed as a recess incorporated in the external thread of the hose coupling in the axial direction thereof or the second path being formed as a longitudinal bore within the material of the outer edge of the hose coupling.
A system for correcting network planning data, the system comprising: a planning repository comprising information on network traffic, network element locations, and network element connectivity; a service repository of a wireless network comprising a plurality of call trace records, the plurality of call trace records comprising any network measure of service usage or service activity for voice and/or data traffic; and an information processing system comprising a processor and a memory device coupled to the processor in communication with the planning repository and with the service repository of the wireless network , the memory device containing a set of instructions that, when executed by the processor, cause the processor to: receive at least one of the plurality of call trace records from the service repository of the wireless network ; and compare information in the at least one call trace record with corresponding information stored in the planning repository to identify one or more errors in the information stored in the planning repository , wherein the set of instructions that cause the processor to identify one or more errors further cause the processor to identify one or more network elements having uncalibrated media latency based on timing advance information. a planning repository comprising information on network traffic, network element locations, and network element connectivity; a service repository of a wireless network comprising a plurality of call trace records, the plurality of call trace records comprising any network measure of service usage or service activity for voice and/or data traffic; and an information processing system comprising a processor and a memory device coupled to the processor in communication with the planning repository and with the service repository of the wireless network , the memory device containing a set of instructions that, when executed by the processor, cause the processor to: receive at least one of the plurality of call trace records from the service repository of the wireless network ; and compare information in the at least one call trace record with corresponding information stored in the planning repository to identify one or more errors in the information stored in the planning repository , wherein the set of instructions that cause the processor to identify one or more errors further cause the processor to identify one or more network elements having uncalibrated media latency based on timing advance information. receive at least one of the plurality of call trace records from the service repository of the wireless network ; and compare information in the at least one call trace record with corresponding information stored in the planning repository to identify one or more errors in the information stored in the planning repository , wherein the set of instructions that cause the processor to identify one or more errors further cause the processor to identify one or more network elements having uncalibrated media latency based on timing advance information.
A method of treating thermal bridges between a floor (1; 101) with pre-slabs, and a wall (2; 102) adjacent to the floor, the method being characterised in that it comprises the following steps: fitting, in the vicinity of a portion of the wall, substantially at the level where a compression slab (9; 109) of the floor must be cast, thermal insulation elements 6; 106; 206; 306) and structural connection elements (7; 107; 207; 307) of the floor so as to arrange alternately a thermal insulation element and a structural connection element along the portion of the wall, each thermal insulation element comprising a block of thermally insulating material, a lower portion of the block of thermally insulating material comprising a tab (50; 150; 250; 350) forming a longitudinal extension of said lower portion, and each structural connection element comprising at least reinforcements (29; 129), each structural connection element being arranged along the wall such that a first portion of the reinforcements of said structural connection element is positioned above the portion of the wall and a second portion of said reinforcements is positioned at the level of the future compression slab, the tab receiving the structural connection element (7; 107; 207; 307), casting concrete to extend the portion of the wall such that the first portion of the reinforcements is embedded in the concrete of the wall extension, and casting the concrete to form the compression slab of the floor such that the remainder of said reinforcements, and in particular the second portion of the reinforcements, is embedded in the concrete of the floor. fitting, in the vicinity of a portion of the wall, substantially at the level where a compression slab (9; 109) of the floor must be cast, thermal insulation elements 6; 106; 206; 306) and structural connection elements (7; 107; 207; 307) of the floor so as to arrange alternately a thermal insulation element and a structural connection element along the portion of the wall, each thermal insulation element comprising a block of thermally insulating material, a lower portion of the block of thermally insulating material comprising a tab (50; 150; 250; 350) forming a longitudinal extension of said lower portion, and each structural connection element comprising at least reinforcements (29; 129), each structural connection element being arranged along the wall such that a first portion of the reinforcements of said structural connection element is positioned above the portion of the wall and a second portion of said reinforcements is positioned at the level of the future compression slab, the tab receiving the structural connection element (7; 107; 207; 307), casting concrete to extend the portion of the wall such that the first portion of the reinforcements is embedded in the concrete of the wall extension, and casting the concrete to form the compression slab of the floor such that the remainder of said reinforcements, and in particular the second portion of the reinforcements, is embedded in the concrete of the floor.
A regenerative thermal oxidizer comprising: at least a first transfer chamber and at least a second transfer chamber , wherein the first transfer chamber comprises a first bed and the second transfer chamber comprises a second bed ; at least one reaction chamber in fluid flow communication with the first transfer chamber and with the second transfer chamber , wherein waste gas is introducible into the regenerative thermal oxidizer to flow through the first bed to the reaction chamber or to flow through the second bed to the reaction chamber ; one or more first oxygen-containing gas inlet for introducing oxygen-containing gas into the regenerative thermal oxidizer positioned between at least a portion of the first bed and at least a portion of the reaction chamber ; characterized by one or more second oxygen-containing gas inlet for introducing oxygen-containing gas into the regenerative thermal oxidizer positioned between at least a portion of the second bed and at least a portion of the reaction chamber . at least a first transfer chamber and at least a second transfer chamber , wherein the first transfer chamber comprises a first bed and the second transfer chamber comprises a second bed ; at least one reaction chamber in fluid flow communication with the first transfer chamber and with the second transfer chamber , wherein waste gas is introducible into the regenerative thermal oxidizer to flow through the first bed to the reaction chamber or to flow through the second bed to the reaction chamber ; one or more first oxygen-containing gas inlet for introducing oxygen-containing gas into the regenerative thermal oxidizer positioned between at least a portion of the first bed and at least a portion of the reaction chamber ; characterized by one or more second oxygen-containing gas inlet for introducing oxygen-containing gas into the regenerative thermal oxidizer positioned between at least a portion of the second bed and at least a portion of the reaction chamber .