mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic currency verification head comprising: a magnetoresistive sensor chip ; and a separate magnetic bias unit disposed on the side of the magnetoresistive sensor chip away from a magnetic currency verification head detection surface , wherein the magnetoresistive sensor chip comprises a gradiometric bridge circuit wherein the bridge arms are magnetic sensor elements, and the sensitive direction of the magnetic sensor elements is parallel to the magnetic currency verification head detection surface ; characterized in that said magnetic bias unit has a recessed structure, and in that the magnetic bias unit comprises a rectangular permanent magnet and a rectangular-ring-shaped pole-piece composed of high permeability magnetic material, wherein the recessed structure is arranged such that the magnetic bias field generated by the magnetic bias unit in the direction parallel to the magnetic currency verification head detection surface is small thereby enabling the magnetic sensor elements to operate in their linear range. a magnetoresistive sensor chip ; and a separate magnetic bias unit disposed on the side of the magnetoresistive sensor chip away from a magnetic currency verification head detection surface , wherein the magnetoresistive sensor chip comprises a gradiometric bridge circuit wherein the bridge arms are magnetic sensor elements, and the sensitive direction of the magnetic sensor elements is parallel to the magnetic currency verification head detection surface ; characterized in that said magnetic bias unit has a recessed structure, and in that the magnetic bias unit comprises a rectangular permanent magnet and a rectangular-ring-shaped pole-piece composed of high permeability magnetic material, wherein the recessed structure is arranged such that the magnetic bias field generated by the magnetic bias unit in the direction parallel to the magnetic currency verification head detection surface is small thereby enabling the magnetic sensor elements to operate in their linear range.
A signal processing device , adapted to filter signals coming from a sensor and transfer the signals to a control device , and the signal processing device comprising: a data acquiring element , periodically acquiring the signals coming from the sensor , so as to obtain the signals of a time series, i.e. time series signals; a filter element , filtering the time series signals acquired by the data acquiring element according to frequencies; a transfer element , transferring the time series signals filtered by the filter element to the control device ; and a filter parameter determination element , performing frequency analysis to the time series signals within a pre-specified interval, i.e. a specified interval to determine a filter parameter of the filter element , wherein the filter element executes the filtering operation by using the filter parameter determined by the filter parameter determination element , a sensor data sending element , sending sensor data representing the signals of the time series coming from the sensor to an external device , characterized in that the external device has a specification accepting element accepting specification of the specified interval from a user; and a specified interval acquiring element , acquiring the specified interval specified based on the sensor data from the external device , wherein the filter parameter determination element uses the time series signals within the specified interval acquired by the specified interval acquiring element to determine the filter parameter. a data acquiring element , periodically acquiring the signals coming from the sensor , so as to obtain the signals of a time series, i.e. time series signals; a filter element , filtering the time series signals acquired by the data acquiring element according to frequencies; a transfer element , transferring the time series signals filtered by the filter element to the control device ; and a filter parameter determination element , performing frequency analysis to the time series signals within a pre-specified interval, i.e. a specified interval to determine a filter parameter of the filter element , wherein the filter element executes the filtering operation by using the filter parameter determined by the filter parameter determination element , a sensor data sending element , sending sensor data representing the signals of the time series coming from the sensor to an external device , characterized in that the external device has a specification accepting element accepting specification of the specified interval from a user; and a specified interval acquiring element , acquiring the specified interval specified based on the sensor data from the external device , wherein the filter parameter determination element uses the time series signals within the specified interval acquired by the specified interval acquiring element to determine the filter parameter.
A system for providing reduced pressure to a tissue site, the system comprising: a delivery lumen fluidly coupled to the tissue site; a reduced-pressure source fluidly coupled to the delivery lumen ; a first measurement lumen fluidly coupled to the tissue site; a first pressure sensor fluidly coupled to the first measurement lumen ; a first valve fluidly coupled to the first measurement lumen ; a second measurement lumen fluidly coupled to the tissue site; a second pressure sensor fluidly coupled to the second measurement lumen ; a second valve fluidly coupled to the second measurement lumen ; and a controller coupled to the reduced-pressure source , the first pressure sensor , the first valve , the second pressure sensor , and the second valve , the controller configured to: receive data from the first pressure sensor and the second pressure sensor indicative of pressure at the tissue site; compare data from the first pressure sensor and the second pressure sensor , open the first valve if a response time of the first pressure sensor is greater than a response time of the second pressure sensor ; and operate the reduced-pressure source based on the data from the second pressure sensor if the response time of the first pressure sensor is greater than the response time of the second pressure sensor . a delivery lumen fluidly coupled to the tissue site; a reduced-pressure source fluidly coupled to the delivery lumen ; a first measurement lumen fluidly coupled to the tissue site; a first pressure sensor fluidly coupled to the first measurement lumen ; a first valve fluidly coupled to the first measurement lumen ; a second measurement lumen fluidly coupled to the tissue site; a second pressure sensor fluidly coupled to the second measurement lumen ; a second valve fluidly coupled to the second measurement lumen ; and a controller coupled to the reduced-pressure source , the first pressure sensor , the first valve , the second pressure sensor , and the second valve , the controller configured to: receive data from the first pressure sensor and the second pressure sensor indicative of pressure at the tissue site; compare data from the first pressure sensor and the second pressure sensor , open the first valve if a response time of the first pressure sensor is greater than a response time of the second pressure sensor ; and operate the reduced-pressure source based on the data from the second pressure sensor if the response time of the first pressure sensor is greater than the response time of the second pressure sensor . receive data from the first pressure sensor and the second pressure sensor indicative of pressure at the tissue site; compare data from the first pressure sensor and the second pressure sensor , open the first valve if a response time of the first pressure sensor is greater than a response time of the second pressure sensor ; and operate the reduced-pressure source based on the data from the second pressure sensor if the response time of the first pressure sensor is greater than the response time of the second pressure sensor .
A gas turbine engine comprising: a compressor section ; a combustor fluidly connected downstream from the compressor section ; a turbine section fluidly connected downstream from the combustor and including high and low pressure turbine sections; a vane pack arranged in one of the compressor or turbine sections , the vane pack including a reinforcement ring secured around an annular arrangement of vane segments secured to one another circumferentially and characterised in that : the reinforcement ring extends proud of an axial end of the vanes to an end , the end interleaving with an adjacent rotating component to provide a seal, wherein the reinforcement ring is secured to the vanes by a braze or a weld; and wherein the rotating component is an aft stage blade comprising a blade platform, the aft stage blade including a pocket , the reinforcement ring providing an annular lip, the lip arranged at least partially in the pocket radially beneath the blade platform to provide the seal. a compressor section ; a combustor fluidly connected downstream from the compressor section ; a turbine section fluidly connected downstream from the combustor and including high and low pressure turbine sections; a vane pack arranged in one of the compressor or turbine sections , the vane pack including a reinforcement ring secured around an annular arrangement of vane segments secured to one another circumferentially and characterised in that : the reinforcement ring extends proud of an axial end of the vanes to an end , the end interleaving with an adjacent rotating component to provide a seal, wherein the reinforcement ring is secured to the vanes by a braze or a weld; and wherein the rotating component is an aft stage blade comprising a blade platform, the aft stage blade including a pocket , the reinforcement ring providing an annular lip, the lip arranged at least partially in the pocket radially beneath the blade platform to provide the seal. the reinforcement ring extends proud of an axial end of the vanes to an end , the end interleaving with an adjacent rotating component to provide a seal, wherein the reinforcement ring is secured to the vanes by a braze or a weld; and wherein the rotating component is an aft stage blade comprising a blade platform, the aft stage blade including a pocket , the reinforcement ring providing an annular lip, the lip arranged at least partially in the pocket radially beneath the blade platform to provide the seal.
Laminated glazing for a light air vehicle consisting of at least - a transparent structural plastic sheet which covers the entire surface of the glazing, - a transparent protective plastic sheet which covers the entire surface of the glazing, - a so-called interlayer adhesive which binds the structural plastic sheet and the protective plastic sheet, - a glass which is covered with a conductive layer having a heating function incorporated within the adhesive and which covers a fraction at most equal to 66% of the surface area of the glazing which contains the main viewing zone. - a transparent structural plastic sheet which covers the entire surface of the glazing, - a transparent protective plastic sheet which covers the entire surface of the glazing, - a so-called interlayer adhesive which binds the structural plastic sheet and the protective plastic sheet, - a glass which is covered with a conductive layer having a heating function incorporated within the adhesive and which covers a fraction at most equal to 66% of the surface area of the glazing which contains the main viewing zone.
A tripeptide consisting of Leu-Arg-Ala.
A Type 1 interferon alpha protein that binds to a Type I interferon multisubunit signalling receptor, the protein comprising: i. an amino acid sequence provided by SEQ ID NO: 18; or ii. an amino acid sequence provided by SEQ ID NO: 18 having two or more amino acid substitutions selected from the group consisting of L30A, R145A, M149A, E59A, H58A, and R150A. i. an amino acid sequence provided by SEQ ID NO: 18; or ii. an amino acid sequence provided by SEQ ID NO: 18 having two or more amino acid substitutions selected from the group consisting of L30A, R145A, M149A, E59A, H58A, and R150A.
Method of forming injectable polymeric microspheres loaded with therapeutic agent, comprising: a. exposing porous polymeric microspheres to an organic solvent comprising a dissolved therapeutic agent thereby creating microspheres loaded with therapeutic agent, b. separating the microspheres loaded with therapeutic agent from the organic solvent, c. washing the microspheres loaded with therapeutic agent with water, and d. drying the washed microspheres, preferably wherein the porous polymeric microspheres have pores having a size of between 2 and 50 micrometers, more preferably between 3 and 8 micrometers, even more preferably between 5 and 10 micrometers. a. exposing porous polymeric microspheres to an organic solvent comprising a dissolved therapeutic agent thereby creating microspheres loaded with therapeutic agent, b. separating the microspheres loaded with therapeutic agent from the organic solvent, c. washing the microspheres loaded with therapeutic agent with water, and d. drying the washed microspheres, preferably wherein the porous polymeric microspheres have pores having a size of between 2 and 50 micrometers, more preferably between 3 and 8 micrometers, even more preferably between 5 and 10 micrometers.
A compound represented by Chemical Formula 1 below: In Chemical Formula 1, L 1 and L 2 are bonded at positions 1 and 2 of naphthalene, or bonded at positions 2 and 1 of naphthalene, L 1 is phenylene, L 2 is a bond; a substituted or unsubstituted C 6-60 arylene; or a substituted or unsubstituted C 2-60 heteroarylene containing at least one of O, N, Si and S, Ar 1 and Ar 2 are each independently a substituted or unsubstituted C 6-60 aryl; or a substituted or unsubstituted C 2-60 heteroaryl containing at least one of O, N, Si and S, and Ar 3 is any one selected from the group consisting of: L 1 and L 2 are bonded at positions 1 and 2 of naphthalene, or bonded at positions 2 and 1 of naphthalene, L 1 is phenylene, L 2 is a bond; a substituted or unsubstituted C 6-60 arylene; or a substituted or unsubstituted C 2-60 heteroarylene containing at least one of O, N, Si and S, Ar 1 and Ar 2 are each independently a substituted or unsubstituted C 6-60 aryl; or a substituted or unsubstituted C 2-60 heteroaryl containing at least one of O, N, Si and S, and Ar 3 is any one selected from the group consisting of:
Printed heating device comprising heating circuit elements: printed bus bars ; printed tracks ; further comprising: printed connections between the heating circuit elements; a flexible substrate, characterised in that : the bus bars are made of materials with sheet resistivities comprised between 0.197 and 1.57 Ohm/sq/mm (5 and 40 mOhm/sq/mil); the printed tracks are made of materials with sheet resistivities comprised between 394 and 3940 Ohm/sq/mm (10 and 100 Ohm/sq/mil); the flexible substrate is a mesh coated with a polymeric film. printed bus bars ; printed tracks ; printed connections between the heating circuit elements; a flexible substrate, the bus bars are made of materials with sheet resistivities comprised between 0.197 and 1.57 Ohm/sq/mm (5 and 40 mOhm/sq/mil); the printed tracks are made of materials with sheet resistivities comprised between 394 and 3940 Ohm/sq/mm (10 and 100 Ohm/sq/mil); the flexible substrate is a mesh coated with a polymeric film.
An apparatus for supplying material to an additive manufacturing platform , the apparatus comprising: a rotatable delivery module comprising: a vane ; and a plurality of distribution elements ; wherein the rotatable delivery module is controllable to rotate the vane to a supply position to enable material to be supplied to an additive manufacturing platform from the vane, wherein the vane and the plurality of distribution elements are arranged such that during the rotation: the vane provides a dose amount of material from a material supply module for supply to an additive manufacturing platform; and at least one of the plurality of distribution elements distributes material within the material supply module so that the vane supplies a substantially uniform dose of material along the length of the vane to the additive manufacturing platform. a rotatable delivery module comprising: a vane ; and a plurality of distribution elements ; a vane ; and a plurality of distribution elements ; wherein the rotatable delivery module is controllable to rotate the vane to a supply position to enable material to be supplied to an additive manufacturing platform from the vane, wherein the vane and the plurality of distribution elements are arranged such that during the rotation: the vane provides a dose amount of material from a material supply module for supply to an additive manufacturing platform; and at least one of the plurality of distribution elements distributes material within the material supply module so that the vane supplies a substantially uniform dose of material along the length of the vane to the additive manufacturing platform. the vane provides a dose amount of material from a material supply module for supply to an additive manufacturing platform; and at least one of the plurality of distribution elements distributes material within the material supply module so that the vane supplies a substantially uniform dose of material along the length of the vane to the additive manufacturing platform.
A pressing unit for removing liquids contained in material of various types, comprising a chamber for containing at least one screw feeder , said screw feeder comprising a roller that rotates about its own longitudinal axis (A) and a helical element that is wound in a spiral around said roller , said chamber being affected by an intake port for introducing the material to be pressed and by a discharge port for the pressed material, in order to define a forced pressing path comprised between said chamber and said at least one screw feeder , wherein the lateral surface of said roller is at least partially hollow, characterized in that the lateral surface of said roller comprises a first portion , which has a helical extension around said axis (A) and is provided with a plurality of holes , for the evacuation of the liquids removed progressively from the material during its advancement along said path , and a second portion , which has a helical extension around said axis (A) and is complementary to said first portion , said helical element 5 being wound and fixed around said roller at said second portion , which has a continuous, non-perforated shape.
An electromagnetic tracking system comprising: a handheld controller including an electromagnetic emitter , the electromagnetic emitter including: a first phased array element characterized by a first phase; and a second phased array element characterized by a second phase different than the first phase; wherein the first phased array element and the second phased array element are configured to generate a steerable electromagnetic beam characterized by an electromagnetic field pattern; a head mounted augmented reality display including an electromagnetic sensor configured to sense the electromagnetic field pattern; and a computing apparatus configured to: determine a pose of the electromagnetic sensor ; control the first phase to steer the electromagnetic beam to increase received power at the electromagnetic sensor ; and determine a pose of the handheld controller using the pose of the electromagnetic sensor and the electromagnetic field pattern sensed at the electromagnetic sensor . a first phased array element characterized by a first phase; and a second phased array element characterized by a second phase different than the first phase; wherein the first phased array element and the second phased array element are configured to generate a steerable electromagnetic beam characterized by an electromagnetic field pattern; a head mounted augmented reality display including an electromagnetic sensor configured to sense the electromagnetic field pattern; and a computing apparatus configured to: determine a pose of the electromagnetic sensor ; control the first phase to steer the electromagnetic beam to increase received power at the electromagnetic sensor ; and determine a pose of the handheld controller using the pose of the electromagnetic sensor and the electromagnetic field pattern sensed at the electromagnetic sensor . determine a pose of the electromagnetic sensor ; control the first phase to steer the electromagnetic beam to increase received power at the electromagnetic sensor ; and determine a pose of the handheld controller using the pose of the electromagnetic sensor and the electromagnetic field pattern sensed at the electromagnetic sensor .
Mold bottom intended for a mold for manufacturing containers by blow-molding or stretch-blow-molding from blanks made of plastics material, this mold bottom extending about a central axis ( X ) and comprising: - a molding wall , which is formed as a single block and defines a molding surface ; - a cavity formed on the inside of the molding wall , this cavity having a central zone situated in the vicinity of the central axis ( X ) of the mold bottom , a peripheral zone , situated at a distance from the central axis ( X ), and an intermediate median zone between the central zone and the peripheral zone ; - a central duct for feeding heat transfer fluid to the cavity , which leads into the central zone through one or more central opening(s) ; - at least one duct for evacuating the heat transfer fluid from the cavity , into which the peripheral zone leads; this mold bottom being characterized in that it comprises a bypass , which places the central duct in direct communication with the median zone of the cavity , bypassing the central zone . - a molding wall , which is formed as a single block and defines a molding surface ; - a cavity formed on the inside of the molding wall , this cavity having a central zone situated in the vicinity of the central axis ( X ) of the mold bottom , a peripheral zone , situated at a distance from the central axis ( X ), and an intermediate median zone between the central zone and the peripheral zone ; - a central duct for feeding heat transfer fluid to the cavity , which leads into the central zone through one or more central opening(s) ; - at least one duct for evacuating the heat transfer fluid from the cavity , into which the peripheral zone leads;