mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a distributed computing infrastructure, comprising a plurality of client systems (A - K), and a plurality of physical datacentres (X, Y, Z) having physical data-processing resources organised to operate as a plurality of virtual datacentres , each virtual datacentre being configured with a respective set of service capabilities, the method comprising the steps of analysing a demand profile for each client system and allocating each client system to be handled by one of the virtual datacentres according to the service capabilities of the respective physical datacentres so that each client system is allocated to a single physical datacentre for the set of all its service capabilities currently comprised in its demand profile, wherein the demand profile specifies the type and capacity of each virtual datacentre component to be included in the datacentre service to be delivered and wherein in the event of changes to the demand profiles of one or more client systems, the client system allocations are re-mapped to existing service capabilities of the virtual datacentres so that each client system is allocated to a single physical datacentre for the set of all its service capabilities currently comprised in its demand profile, and routing and signalling instructions are transmitted to elements of the distributed infrastructure to configure interactions between the client systems and the virtual datacentres.
An electrical switching device , comprising: an outer housing ; and internal operational components within said outer housing , the internal operational components including a solenoid , an internal housing in said outer housing surrounding at least some of said internal operational components including the solenoid ; the internal housing comprising a first material, a sealing material within said outer housing and capable of forming a hermetic seal within said outer housing , wherein said sealing material contacts said internal housing , the electrical switching device characterized by : - an outer core and a top core disposed in the internal housing , the outer core and the top core surrounding the solenoid and forming a magnetic circuit whereby the outer core comprises a second material different from the first material, and and wherein said first material of the internal housing has a coefficient of thermal expansion (CTE) that substantially matches the coefficient of thermal expansion of said sealing material .
Method for producing multilayer noise barrier panels, comprising the steps of making the two layers in a single session from fresh concrete applying slipform construction technology, where one of the layers is a conventional gravel concrete layer comprising reinforcement , while the second layer is a wood concrete layer , laying during a pre-profiling operation a wood concrete on the gravel concrete layer at a height exceeding the final height and the profile outline of the noise barrier panel by 10-15%, characterised by producing the final panel height and profile by means of periodically distancing, for short intervals, the profiling plates adapted to form the upper profiled portion of the wood concrete layer of the noise barrier panel from the wood concrete surface, where the profiling plate is only partially distanced from the wood concrete material by the periodical motion of the profiling plate , the amplitude of periodic distancing being the greatest in the area near the forward edge of the profiling plate with respect to the direction of travel , said amplitude gradually decreasing rearward therefrom.
A personalized medical device intended for correction of defects for clefts of the face and palate comprising a hard tissue replacement and a soft tissue replacement, wherein the hard tissue replacement is a hard core of biocompatible thermoplastic material and the soft tissue replacement is a biocompatible elastic substance characterized in that biocompatible thermoplastic material for the non-implantable device is polypropylene sulfone and biocompatible thermoplastic material for the implantable device is a synthetic osseointegratable non-resorbable material which are polyaryl ketones or polyaryl ketones in combination with ceramics or polyaryl ketones in combination with ceramics and with a reinforcement; whereby biocompatible elastic substance for the non-implantable device is based on silicone or polyurethane.
A method for classifying network devices of an electrical network , the electrical network comprising a feeder, a substation, a plurality of transformers, and a plurality of meters, wherein the network devices comprise the plurality of transformers and the plurality of meters, wherein each of the plurality of transformers is configured to provide power obtained from a phase of the feeder to one or more of the plurality of meters, the method comprising: under control of one or more processors configured with executable instructions: obtaining voltage measurement data from the network devices; calculating voltage change data using the obtained voltage measurement data obtained from the network devices, wherein voltage changes of the voltage change data are differences determined between sequential voltage measurements; excluding voltage change data having a magnitude greater than a threshold value from among the calculated voltage change data; configuring an initial classification of the network devices; and iteratively updating the initial classification according to a clustering technique acting on the calculated voltage change data for the network devices, thereby segregating the network devices according to electrical phase, wherein the iterative updating comprises: reclassifying at least some network devices based on the calculated voltage change data, to thereby cluster network devices having similar calculated voltage changes at similar times. obtaining voltage measurement data from the network devices; calculating voltage change data using the obtained voltage measurement data obtained from the network devices, wherein voltage changes of the voltage change data are differences determined between sequential voltage measurements; excluding voltage change data having a magnitude greater than a threshold value from among the calculated voltage change data; configuring an initial classification of the network devices; and iteratively updating the initial classification according to a clustering technique acting on the calculated voltage change data for the network devices, thereby segregating the network devices according to electrical phase, wherein the iterative updating comprises: reclassifying at least some network devices based on the calculated voltage change data, to thereby cluster network devices having similar calculated voltage changes at similar times.
A wind turbine blade with a leading edge protection system , wherein: the leading edge protection system comprises a shell portion , a surface of the shell portion forms part of an outer surface of the blade, the shell portion includes at least one cavity integrally formed inside a material of the shell portion , and the at least one cavity is a closed cavity filled with a shock absorbing medium and/or the at least one cavity is filled with a shock absorbing material ; wherein the at least one closed cavity is filled with a gaseous medium characterised in that the leading edge protection system includes means to inflate the at least one cavity .
Method of handling of a liquid drug formulation, comprising a step of providing a first primary container and coating the inner surface of the first primary container to be exposed to the formulation with a barrier layer to prevent or at least limiting any escape of material from the inner surface of the first primary container, a step of providing a second primary container different than the first primary container and coating the inner surface of the second primary container to be exposed to the formulation with a barrier layer to prevent or at least limit any escape of material from the inner surface of the second primary container, wherein the barrier layer coating the inner surface of the second primary container has the same material composition as the barrier layer coating the inner surface of the first primary container, and a step of transition from handling the formulation filled in the first primary container at a first handling phase to handling the formulation filled in the second primary container at a subsequent handling phase so as the formulation exhibits with the second primary container the same kind of interaction as with the first primary container; wherein the first primary container and the second primary container have a respective closure element whose inner surface to be exposed to the formulation is coated with a barrier layer having the same material composition and wherein the first primary container has different shape and/or different material composition than the second primary container, wherein the barrier layer is applied by applying on the inner surface of the primary container a layer of adhesion primer, then a layer of silicone oil on the layer of adhesion primer, then by treating the coated inner surface with an argon plasma to achieve crosslinking of part of the silicone oil layer.
A method in a network node of mapping one or more Downlink Control Information, DCI, messages onto available Resource Element, RE, groups for transmitting to a wireless device , wherein the one or more DCI messages are processed by the network node , the network node and the wireless device being adapted to be comprised in a wireless communications network , the method comprising: mapping the one or more processed messages onto the available RE groups, according to indexing information comprised in the one or more DCI messages, and to a precalculated mapping table, wherein the precalculated mapping table is calculated prior to obtaining the one or more DCI messages to be mapped, wherein according to the indexing information, a quadruplet is assigned a certain index in the mapping table, wherein the certain index in the mapping table corresponds to a particular location in the available RE groups, wherein the available RE groups comprises one or more RE groups in one or more Orthogonal Frequency Division Multiplexing, OFDM, symbols, and wherein each RE group in each OFDM symbol corresponds to a different index in the mapping table, wherein the mapping is performed using a frequency-first algorithm, whereby the mapping is to available RE groups units, and the mapping is done, for each OFDM symbol, by frequency carrier, in a determined order.
A battery module , comprising: - a housing comprising a lid; - a battery cell disposed in the housing and comprising a battery cell terminal and a battery cell vent , wherein the battery cell terminal and the battery cell vent are on an end of the battery cell , and the battery cell vent is configured to exhaust battery cell effluent into the housing; - a printed circuit board disposed in the housing, wherein the printed circuit board is positioned in an immediate vent direction of the battery cell effluent; - a vent shield channel positioned between the battery cell vent and the printed circuit board along the immediate vent direction of the battery cell effluent, wherein the printed circuit board is integrated with the vent shield channel and the vent shield channel is configured to block the battery cell effluent from contacting the printed circuit board and to redirect the battery cell effluent along a desired vent path (68, 160; and - a module vent fluidly coupled to the desired vent path and configured to direct the battery cell effluent out of the battery module , wherein the vent shield channel forms a sealed chamber between the battery cell vent and the vent shield channel . - a housing comprising a lid; - a battery cell disposed in the housing and comprising a battery cell terminal and a battery cell vent , wherein the battery cell terminal and the battery cell vent are on an end of the battery cell , and the battery cell vent is configured to exhaust battery cell effluent into the housing; - a printed circuit board disposed in the housing, wherein the printed circuit board is positioned in an immediate vent direction of the battery cell effluent; - a vent shield channel positioned between the battery cell vent and the printed circuit board along the immediate vent direction of the battery cell effluent, wherein the printed circuit board is integrated with the vent shield channel and the vent shield channel is configured to block the battery cell effluent from contacting the printed circuit board and to redirect the battery cell effluent along a desired vent path (68, 160; and - a module vent fluidly coupled to the desired vent path and configured to direct the battery cell effluent out of the battery module ,
An electrodynamic apparatus comprising: a first arm extending in a first direction; a second arm supported by the first arm; a linear actuator that is provided in the first arm or the second arm and moves the second arm along the first direction with respect to the first arm; a support extending in a second direction that is different from the first direction and supporting the first arm; and a rotating mechanism that rotates the support about an axis of rotation parallel to the second direction, wherein the first arm includes a power transmission antenna , the second arm includes a power reception antenna , the power transmission antenna supplies electric power to the power reception antenna wirelessly, the power reception antenna supplies the supplied electric power to a load electrically connected to the power reception antenna, and a control circuit that is adapted to control the linear actuator and the rotating mechanism, wherein in rotating the support, the control circuit is adapted to control the linear actuator to move the center of gravity of the second arm to the axis of rotation first, and then to control the rotating mechanism to rotate the support a first arm extending in a first direction; a second arm supported by the first arm; a linear actuator that is provided in the first arm or the second arm and moves the second arm along the first direction with respect to the first arm; a support extending in a second direction that is different from the first direction and supporting the first arm; and a rotating mechanism that rotates the support about an axis of rotation parallel to the second direction, wherein the first arm includes a power transmission antenna , the second arm includes a power reception antenna , the power transmission antenna supplies electric power to the power reception antenna wirelessly, the power reception antenna supplies the supplied electric power to a load electrically connected to the power reception antenna, and a control circuit that is adapted to control the linear actuator and the rotating mechanism, wherein in rotating the support, the control circuit is adapted to control the linear actuator to move the center of gravity of the second arm to the axis of rotation first, and then to control the rotating mechanism to rotate the support
A prosthetic connector system for use with a prosthetic socket having a distal part , the prosthetic connector system comprising: a plate defining a plurality of holes and attachable to the distal part of the prosthetic socket; a component removably attachable to the plate via the holes and arranged for connecting a prosthesis to the prosthetic socket, characterized in that the plate defines an outer periphery having an asymmetrical configuration contoured to substantially correspond to at least a portion of an outer periphery of the component when the component is attached to the plate in a plurality of positions via the plurality of holes , except a central pair of holes among the plurality of holes and arranged to provide a single position for the component relative to the distal part of the prosthetic socket when the plate is in four different orientations on the distal part of the prosthetic socket. a plate defining a plurality of holes and attachable to the distal part of the prosthetic socket; a component removably attachable to the plate via the holes and arranged for connecting a prosthesis to the prosthetic socket, characterized in that the plate defines an outer periphery having an asymmetrical configuration contoured to substantially correspond to at least a portion of an outer periphery of the component when the component is attached to the plate in a plurality of positions via the plurality of holes , except a central pair of holes among the plurality of holes and arranged to provide a single position for the component relative to the distal part of the prosthetic socket when the plate is in four different orientations on the distal part of the prosthetic socket.
A method for positioning a turnstile of a revolving door assembly , with - the turnstile , - an evaluation unit , and - an electrical drive , with - a stator and - a rotor , wherein the rotor can be disposed coaxially to an axis of rotation of the turnstile and can be connected to the turnstile for direct gearless driving, and the method is characterized by the steps of: - determining (S100) a preset stop position of the door leaf , - controlling (S200) the stator with a first electrical signal, by means of which the door leaf comes to a standstill at the preset stop position , - determining (S300) a deviation of the current position of the door leaf from the preset stop position , and - controlling (S400) the stator with a second electrical signal, by means of which the door leaf returns back into the preset stop position . - the turnstile , - an evaluation unit , and - an electrical drive , with - a stator and - a rotor , - a stator and - a rotor , - determining (S100) a preset stop position of the door leaf , - controlling (S200) the stator with a first electrical signal, by means of which the door leaf comes to a standstill at the preset stop position , - determining (S300) a deviation of the current position of the door leaf from the preset stop position , and - controlling (S400) the stator with a second electrical signal, by means of which the door leaf returns back into the preset stop position .
An apparatus, comprising: a stack of silicon wafers (202-1, 202-N); a plurality of first apertures (214-1, 214-N), each first aperture (214-1, 214-N) formed to extend through the stack of silicon wafers (202-1, 202-N), each first aperture (214-1, 214-N) being configured to receive a respective one of a plurality of first optical fibers (206-1, 206-N) directed along a first axis perpendicular to a plane formed by the stack of silicon wafers (202-1, 202-N); a groove formed between two wafers of the stack of silicon wafers (202-1, 202-N), the groove being configured to receive a second optical fiber and a third optical fiber , the second and third optical fibers being directed along a second axis in the plane formed by the stack of silicon wafers (202-1, 202-N); a plurality of optical elements (210-1, 210-N), each optical element (210-1, 210-N) being positioned at an intersection between the groove and a respective first aperture (214-1, 214-N), such that each optical element (210-1, 210-N) is positioned to: focus a first light beam from the respective first optical fiber (206-1, 206-N) along the first axis; and focus a second light beam from the second optical fiber into the third optical fiber along the second axis, thereby coupling a beam path between the second optical fiber and the third optical fiber . a stack of silicon wafers (202-1, 202-N); a plurality of first apertures (214-1, 214-N), each first aperture (214-1, 214-N) formed to extend through the stack of silicon wafers (202-1, 202-N), each first aperture (214-1, 214-N) being configured to receive a respective one of a plurality of first optical fibers (206-1, 206-N) directed along a first axis perpendicular to a plane formed by the stack of silicon wafers (202-1, 202-N); a groove formed between two wafers of the stack of silicon wafers (202-1, 202-N), the groove being configured to receive a second optical fiber and a third optical fiber , the second and third optical fibers being directed along a second axis in the plane formed by the stack of silicon wafers (202-1, 202-N); a plurality of optical elements (210-1, 210-N), each optical element (210-1, 210-N) being positioned at an intersection between the groove and a respective first aperture (214-1, 214-N), such that each optical element (210-1, 210-N) is positioned to: focus a first light beam from the respective first optical fiber (206-1, 206-N) along the first axis; and focus a second light beam from the second optical fiber into the third optical fiber along the second axis, thereby coupling a beam path between the second optical fiber and the third optical fiber . focus a first light beam from the respective first optical fiber (206-1, 206-N) along the first axis; and focus a second light beam from the second optical fiber into the third optical fiber along the second axis, thereby coupling a beam path between the second optical fiber and the third optical fiber .
A lens-free device for imaging one or more objects , the lens-free device comprising: a light source positioned for illuminating at least one object and comprising a plurality of light emitters positioned and configured to create a controlled, quasi-planar light wavefront for performing large-area lens-free imaging; a detector positioned for recording interference patterns of the illuminated at least one object ; characterized in that each light emitter is a micro-structured through-hole , the micro-structured through-hole being fabricated in and extending completely through a slab of material suitable for propagating light such that slab-based illumination of the light emitters is obtained. a light source positioned for illuminating at least one object and comprising a plurality of light emitters positioned and configured to create a controlled, quasi-planar light wavefront for performing large-area lens-free imaging; a detector positioned for recording interference patterns of the illuminated at least one object ; characterized in that each light emitter is a micro-structured through-hole , the micro-structured through-hole being fabricated in and extending completely through a slab of material suitable for propagating light such that slab-based illumination of the light emitters is obtained.
A balloon shoulder assembly (118; 202; 302; 1100; 1300; 1500; 1600; 1700) for a balloon catheter (100; 200), comprising: a proximal balloon shoulder (120; 208; 308; 802; 1002; 1102;, 1302; 1502; 1602; 1702) including a proximal collar portion (216; 316; 806; 1006; 1108) that extends radially outward from a proximal shaft portion, relative to a central axis of the balloon shoulder assembly (118; ... 1700); and a distal balloon shoulder (122; 212; 312; 804; 902; 1004; 1104; 1304; 1504; 1604; 1704) including a distal collar portion (222; 322; 1022; 1116) that extends radially outward from a distal shaft portion (224; 324), wherein each of the proximal balloon shoulder (120; ... 1702) and the distal balloon shoulder (122; ... 1704) are hollow and comprise a compressible, blow molded material and are configured to be positioned within and support an inflatable, main balloon of the balloon catheter (100; 200). a proximal balloon shoulder (120; 208; 308; 802; 1002; 1102;, 1302; 1502; 1602; 1702) including a proximal collar portion (216; 316; 806; 1006; 1108) that extends radially outward from a proximal shaft portion, relative to a central axis of the balloon shoulder assembly (118; ... 1700); and a distal balloon shoulder (122; 212; 312; 804; 902; 1004; 1104; 1304; 1504; 1604; 1704) including a distal collar portion (222; 322; 1022; 1116) that extends radially outward from a distal shaft portion (224; 324), wherein each of the proximal balloon shoulder (120; ... 1702) and the distal balloon shoulder (122; ... 1704) are hollow and comprise a compressible, blow molded material and are configured to be positioned within and support an inflatable, main balloon of the balloon catheter (100; 200).