mhurhangee/patent-ind-claim-en huggingface dataset:
Device for controlling the quantity of air introduced at the intake of a supercharged internal combustion engine comprising at least one turbocharger with a compression stage comprising at least one compressor with an intake of fluid to be compressed linked to a supply pipe , an expansion stage with at least one turbine with at least one exhaust gas inlet and one outlet for expanded exhaust gases linked to an expanded exhaust gas pipe , a compressed fluid transfer pipe from the outlet of the compressor to the at least one inlet of the turbine with valving means for controlling the transfer of compressed fluid to the turbine, characterized in that it comprises an exhaust gas recirculation line between the exhaust gas outlet of the turbine and the intake of the compressor , in that said compressed fluid transfer pipe comprises a check valve which prevents the circulation of the exhaust gases from the exhaust gas pipe to the compressed fluid pipe , in that the device comprises additional valving means placed downstream of the point of intersection with the expanded exhaust gas pipe to force the exhaust gases to pass into the line , in that the device comprises additional valving means placed upstream of the point of intersection with the supply pipe to force the exhaust gases to pass into the line , in that the line comprises valving means to control the recirculation of the exhaust gases in that line, and in that the valving means comprise a proportional valve .
A charged particle imaging apparatus M, comprising: - A specimen holder , for holding a specimen, S; - A particle-optical column , for: • Producing a plurality of charged particle beams, B", by directing a progenitor charged particle beam B 0 , onto an aperture plate having a corresponding plurality of apertures (9") within a footprint of the progenitor beam; • Directing said beams toward said specimen, characterized in that: - Said aperture plate comprises a plurality of different; zones, Z1-Z5, which comprise mutually different aperture patterns, arranged within said progenitor beam footprint; - The particle-optical column comprises a selector device , ocated downstream of said aperture plate, for selecting a beam array from a chosen one of said zones to be directed onto the specimen. - A specimen holder , for holding a specimen, S; - A particle-optical column , for: • Producing a plurality of charged particle beams, B", by directing a progenitor charged particle beam B 0 , onto an aperture plate having a corresponding plurality of apertures (9") within a footprint of the progenitor beam; • Directing said beams toward said specimen, • Producing a plurality of charged particle beams, B", by directing a progenitor charged particle beam B 0 , onto an aperture plate having a corresponding plurality of apertures (9") within a footprint of the progenitor beam; • Directing said beams toward said specimen, - Said aperture plate comprises a plurality of different; zones, Z1-Z5, which comprise mutually different aperture patterns, arranged within said progenitor beam footprint; - The particle-optical column comprises a selector device , ocated downstream of said aperture plate, for selecting a beam array from a chosen one of said zones to be directed onto the specimen.
An aircrew automation system for use in an aircraft, the aircrew automation system comprising: a core platform to operatively connect a plurality of systems or subsystems via one or more interface ; a human machine interface operatively coupled with the core platform to provide an interface between a pilot and the aircrew automation system; a knowledge acquisition system operatively coupled with the core platform to determine information specific to the aircraft; and a perception system operatively coupled with the core platform to monitor one of more cockpit instruments of the aircraft to generate flight situation data, wherein the perception system includes a vision system having a camera to visually monitor the one of more cockpit instruments of the aircraft. a core platform to operatively connect a plurality of systems or subsystems via one or more interface ; a human machine interface operatively coupled with the core platform to provide an interface between a pilot and the aircrew automation system; a knowledge acquisition system operatively coupled with the core platform to determine information specific to the aircraft; and a perception system operatively coupled with the core platform to monitor one of more cockpit instruments of the aircraft to generate flight situation data, wherein the perception system includes a vision system having a camera to visually monitor the one of more cockpit instruments of the aircraft.
A bearing assembly comprising: a housing having a tapered interior bore ; a ball bearing element ; a ball bearing retainer disposed within the housing , wherein the ball bearing retainer has an interior bore for receiving the ball bearing element , wherein sides of the ball bearing retainer comprise a plurality of slots defining a plurality of fingers ; wherein the ball bearing element is disposed within the interior bore of the ball bearing retainer ; a spring mechanism for maintaining a prescribed tension of the ball bearing element within the interior bore of the ball bearing retainer disposed within the tapered interior bore of the housing ; and a locking mechanism for retaining the ball bearing element , the ball bearing retainer and the spring mechanism within the tapered interior bore of the housing ; characterised in that said ball bearing retainer comprises a generally cylindrical body structure including said interior bore therethrough for receiving said ball bearing element therein; wherein, during final assembly, said plurality of the slots allow said ball bearing retainer to snap over said ball bearing element for easy assembly, and said tapered interior bore compresses the plurality of fingers of said ball bearing retainer around said ball bearing element when ball bearing retainer is inserted into said tapered interior bore of said housing . a housing having a tapered interior bore ; a ball bearing element ; a ball bearing retainer disposed within the housing , wherein the ball bearing retainer has an interior bore for receiving the ball bearing element , wherein sides of the ball bearing retainer comprise a plurality of slots defining a plurality of fingers ; wherein the ball bearing element is disposed within the interior bore of the ball bearing retainer ; a spring mechanism for maintaining a prescribed tension of the ball bearing element within the interior bore of the ball bearing retainer disposed within the tapered interior bore of the housing ; and a locking mechanism for retaining the ball bearing element , the ball bearing retainer and the spring mechanism within the tapered interior bore of the housing ; characterised in that said ball bearing retainer comprises a generally cylindrical body structure including said interior bore therethrough for receiving said ball bearing element therein; wherein, during final assembly, said plurality of the slots allow said ball bearing retainer to snap over said ball bearing element for easy assembly, and said tapered interior bore compresses the plurality of fingers of said ball bearing retainer around said ball bearing element when ball bearing retainer is inserted into said tapered interior bore of said housing .
A method for cooperatively carrying a work piece by a plurality of mobile material handling robots, wherein each of the plurality of mobile material handling robots comprises a user endpoint for wireless communication, each user endpoint being a fifth generation or 5G user equipment, the method including the steps of: - gathering the plurality of mobile material handling robots around the workpiece, initiating a direct wireless communication amongst the user endpoints, the direct wireless communication initiated by a direct fifth generation or 5G communication and the direct wireless communication being a non-assisted direct wireless communication including a coordination of resources amongst user endpoints of the plurality of mobile material handling robots; - setting up a working clock domain, effected by a time-sensitive network, amongst the user endpoints for establishing time synchronization and a periodic deterministic communication amongst the user endpoints; and; - carrying the work piece by the plurality of mobile material handling robots while exchanging control command messages and control feedback messages amongst the user endpoints, wherein a distributed control is effected by the mobile material handling robots. - gathering the plurality of mobile material handling robots around the workpiece, initiating a direct wireless communication amongst the user endpoints, the direct wireless communication initiated by a direct fifth generation or 5G communication and the direct wireless communication being a non-assisted direct wireless communication including a coordination of resources amongst user endpoints of the plurality of mobile material handling robots; - setting up a working clock domain, effected by a time-sensitive network, amongst the user endpoints for establishing time synchronization and a periodic deterministic communication amongst the user endpoints; and; - carrying the work piece by the plurality of mobile material handling robots while exchanging control command messages and control feedback messages amongst the user endpoints,
A pressure-sensitive sensor comprising: a pair of electrodes ; and an intermediate layer between the pair of electrodes , the intermediate layer being formed of a rubber or a rubber composition and configured to cause electrification to occur between the intermediate layer and the electrodes and generate electricity when deformed by contact with a target object , wherein the pressure-sensitive sensor has a stack structure in which the intermediate layer is sandwiched on both sides in a thickness direction by the pair of electrodes , and wherein one side in the stacking direction of the intermediate layer has been subjected to a surface modification treatment such that a degree of deformation for an identical deforming force, pressed in the direction orthogonal to the plane of the intermediate layer, differs between the one side and the other side, characterized in that the surface modification treatment modifies the side of the intermediate layer such that the hardness of the layer differs between the one side and the other side. a pair of electrodes ; and an intermediate layer between the pair of electrodes , the intermediate layer being formed of a rubber or a rubber composition and configured to cause electrification to occur between the intermediate layer and the electrodes and generate electricity when deformed by contact with a target object , wherein the pressure-sensitive sensor has a stack structure in which the intermediate layer is sandwiched on both sides in a thickness direction by the pair of electrodes , and wherein one side in the stacking direction of the intermediate layer has been subjected to a surface modification treatment such that a degree of deformation for an identical deforming force, pressed in the direction orthogonal to the plane of the intermediate layer, differs between the one side and the other side, characterized in that the surface modification treatment modifies the side of the intermediate layer such that the hardness of the layer differs between the one side and the other side.
A stencil processor for image processing, comprising: a program controller to fetch and issue instructions; and, an execution lane array that is coupled to a two dimensional shift register array structure comprising registers arranged in two dimensions,, wherein execution lanes of the execution lane array are located at respective array locations and are coupled to a register file comprising dedicated registers (R2-R5) of the two dimensional shift register array structure at same respective array locations in the two-dimensional shift register array structure , and wherein each execution lane of the execution lane array and the register file coupled to the execution lane form a unit cell, wherein each register of the register file is coupled, in two dimensions, to left, right, up and down neighbouring registers via output and input multiplexers , and wherein the execution lanes each comprise at least one execution unit to execute the instructions and a physical register (R1) coupled to the execution unit and the register file . a program controller to fetch and issue instructions; and, an execution lane array that is coupled to a two dimensional shift register array structure comprising registers arranged in two dimensions,, wherein execution lanes of the execution lane array are located at respective array locations and are coupled to a register file comprising dedicated registers (R2-R5) of the two dimensional shift register array structure at same respective array locations in the two-dimensional shift register array structure , and wherein each execution lane of the execution lane array and the register file coupled to the execution lane form a unit cell, wherein each register of the register file is coupled, in two dimensions, to left, right, up and down neighbouring registers via output and input multiplexers , and wherein the execution lanes each comprise at least one execution unit to execute the instructions and a physical register (R1) coupled to the execution unit and the register file .
Insert piece for a bypass in a turbine housing having a connecting flange that is suitable for joining the insert piece with a turbine housing , and a tubular portion that is designed so that exhaust gas can be routed through the insert piece , characterized in that the connecting flange furthermore comprises a retainer fitting, and in that the connecting flange is designed in the form of an annular ring, and the retainer fitting is provided in the form of a conical circumferential surface on the connecting flange . a connecting flange that is suitable for joining the insert piece with a turbine housing , and a tubular portion that is designed so that exhaust gas can be routed through the insert piece , characterized in that the connecting flange furthermore comprises a retainer fitting, and in that the connecting flange is designed in the form of an annular ring, and the retainer fitting is provided in the form of a conical circumferential surface on the connecting flange .
A method for evaluating the probability of a bed exit of a patient from a bed (1230. 1300), the method comprising: determining the compass heading of the bed , collecting sensor data regarding the patient by a patient-worn sensor device secured to the patient , the patient-worn sensor device comprising an accelerometer and a magnetometer, receiving, at a processor , the sensor data collected by the patient-worn sensor device , determining, by the processor , how the patient is oriented relative to the bed based on the compass heading of the bed and the sensor data of the patient, collected by the magnetometer of the patient-worn sensor device , determining, by the processor , an upright position of the patient based on the sensor data collected by the accelerometer of the patient-worn sensor device, and identifying a bed exit condition based at least on the determined orientation of the patient relative to the bed and the determined upright position of the patient, wherein identifying the bed exit condition comprises identifying a likely occurrence of a bed exit by the patient. determining the compass heading of the bed , collecting sensor data regarding the patient by a patient-worn sensor device secured to the patient , the patient-worn sensor device comprising an accelerometer and a magnetometer, receiving, at a processor , the sensor data collected by the patient-worn sensor device , determining, by the processor , how the patient is oriented relative to the bed based on the compass heading of the bed and the sensor data of the patient, collected by the magnetometer of the patient-worn sensor device , determining, by the processor , an upright position of the patient based on the sensor data collected by the accelerometer of the patient-worn sensor device, and identifying a bed exit condition based at least on the determined orientation of the patient relative to the bed and the determined upright position of the patient, wherein identifying the bed exit condition comprises identifying a likely occurrence of a bed exit by the patient.
Implant drill , in particular dental implant drill, comprising an assembly area and a machining area , wherein the implant drill extends in a longitudinal direction (L), wherein the distal end areas in the longitudinal direction (L) of the implant drill are formed in particular by the assembly area and the machining area , wherein the machining area has at least two machining structures , wherein the machining area is formed in such a way, in particular by the machining structures , that it can remove bone material during positive rotation about the longitudinal direction (L) and that it can compact bone material during a negative rotation around the longitudinal direction (L), wherein the machining area has at least one compaction machining structure and one drilling machining structure , wherein an envelope end is formed by a circle which lies in a sectional plane which is perpendicular to the longitudinal direction (L), wherein the circle is just the smallest possible circle which can surround the machining area in the cutting plane, wherein the at least "imaginary" course of the compaction machining structure intersects the envelope end in the cutting plane and the tangent applied to the envelope end at this point of intersection has an angle (W1) with the compaction machining structure or the imaginary course of the compaction machining structure , wherein the angle (W1) is in a range from 10° to 45°, preferably in a range from 12° to 40°, characterized in that the machining area has circumferential cooling grooves . wherein the implant drill extends in a longitudinal direction (L), wherein the distal end areas in the longitudinal direction (L) of the implant drill are formed in particular by the assembly area and the machining area , wherein the machining area has at least two machining structures , wherein the machining area is formed in such a way, in particular by the machining structures , that it can remove bone material during positive rotation about the longitudinal direction (L) and that it can compact bone material during a negative rotation around the longitudinal direction (L), wherein the machining area has at least one compaction machining structure and one drilling machining structure , wherein an envelope end is formed by a circle which lies in a sectional plane which is perpendicular to the longitudinal direction (L), wherein the circle is just the smallest possible circle which can surround the machining area in the cutting plane, wherein the at least "imaginary" course of the compaction machining structure intersects the envelope end in the cutting plane and the tangent applied to the envelope end at this point of intersection has an angle (W1) with the compaction machining structure or the imaginary course of the compaction machining structure , wherein the angle (W1) is in a range from 10° to 45°, preferably in a range from 12° to 40°, characterized in that the machining area has circumferential cooling grooves .
A lithium ion battery anode, comprising a current collector and an anode active material layer on the current collector; characterized in that , the anode active material layer comprises first oriented particles having a first tilt angle θ 1 inclined with respect to a direction of the current collector, and second oriented particles having a second tilt angle θ 2 inclined with respect to the direction of the current collector, wherein the first tilt angle θ 1 and the second tilt angle θ 2 are different and are both not greater than 70°, wherein the first oriented particles meet conditions (a) and (b): (a) 0°<θ 1 ≤20°, 20°<θ 2 <70°; (b) an area of the first oriented particles is 9%-23% of a cross sectional area of the anode active material layer. (a) 0°<θ 1 ≤20°, 20°<θ 2 <70°; (b) an area of the first oriented particles is 9%-23% of a cross sectional area of the anode active material layer.
An alloy being (Mn 1± α Ni 1± β Si 1± γ ) 1-x (Co 1± λ Fe 1± μ Ge 1± ν ) x + δ Z, wherein α ≤ 0.25, β ≤ 0.25, and y ≤ 0.25, wherein λ ≤ 0.25, μ ≤ 0.25, and v ≤ 0.25, wherein x is between 0.30 and 0.50, wherein Z is an element from the group consisting of B, C, N, P, S, As, H, wherein δ is up to 15% (by mass) of the formulation, and wherein MnNiSi and CoFeGe are isostructurally alloyed. wherein α ≤ 0.25, β ≤ 0.25, and y ≤ 0.25, wherein λ ≤ 0.25, μ ≤ 0.25, and v ≤ 0.25, wherein x is between 0.30 and 0.50, wherein Z is an element from the group consisting of B, C, N, P, S, As, H, wherein δ is up to 15% (by mass) of the formulation, and wherein MnNiSi and CoFeGe are isostructurally alloyed.
A multi-layer plasma separation card comprising: (a) a first layer including at least three sample receiving portions comprising (i) a top planar surface for applying or receiving a blood sample, said sample receiving portions permitting contact of said blood sample with separating members; and (ii) a bottom planar surface contacting said separating members, (b) a second layer including at least three separating members , each separating member permitting the passage of plasma to an absorptive member and comprising (i) a top planar surface for receiving said blood sample; and (ii) a bottom planar shield-shaped surface contacting an absorptive member , and (c) a third layer including at least three absorptive members for absorbing plasma from the bottom planar surface of each corresponding separating member and a backing member arranged in a manner to support said absorptive members , each absorptive member comprising a removable absorptive element having a top planar surface being in contact to said bottom planar surface of the separating member , said absorptive element being detachable fixed to the third layer , characterized in that each of said removable absorptive element comprises at least two anchor elements for fixing the removable absorptive element with the third layer . (a) a first layer including at least three sample receiving portions comprising (i) a top planar surface for applying or receiving a blood sample, said sample receiving portions permitting contact of said blood sample with separating members; and (ii) a bottom planar surface contacting said separating members, (b) a second layer including at least three separating members , each separating member permitting the passage of plasma to an absorptive member and comprising (i) a top planar surface for receiving said blood sample; and (ii) a bottom planar shield-shaped surface contacting an absorptive member , and (c) a third layer including at least three absorptive members for absorbing plasma from the bottom planar surface of each corresponding separating member and a backing member arranged in a manner to support said absorptive members , each absorptive member comprising a removable absorptive element having a top planar surface being in contact to said bottom planar surface of the separating member , said absorptive element being detachable fixed to the third layer ,