mhurhangee/ep-ind-claims huggingface dataset:
An autostereoscopic display device comprising: - an electroluminescent display arrangement comprising an array of spaced pixels over a substrate each having a light output surface, and - an autostereoscopic view forming arrangement comprising a set of view forming elements over the display arrangement, wherein a set of said pixels is provided beneath each view forming element with at least two of said pixels arranged across each said view forming element in a width direction thereof, characterised in that the pixels across each said view forming element in the width direction thereof are arranged with at least two different angular orientations of their light output surfaces with respect to the substrate. - an electroluminescent display arrangement comprising an array of spaced pixels over a substrate each having a light output surface, and - an autostereoscopic view forming arrangement comprising a set of view forming elements over the display arrangement, wherein a set of said pixels is provided beneath each view forming element with at least two of said pixels arranged across each said view forming element in a width direction thereof, characterised in that the pixels across each said view forming element in the width direction thereof are arranged with at least two different angular orientations of their light output surfaces with respect to the substrate.
A computer-implemented method, comprising: receiving, by a mobile device, during a time period, an acoustic signal in a real-time location system in an environment, the acoustic signal having been transmitted by an acoustic transmitting device located in the environment, the acoustic transmitting device being one of M acoustic transmitting devices in the environment; detecting, by the mobile device, an identifier from the received acoustic signal, wherein the detected identifier is a member of a rotating set of identifiers provided by the real-time location system, wherein each of the identifiers has a respective time period of validity for association with an acoustic transmitting device, the rotating set of identifiers having N unique identifiers, and M exceeds N; and determining, by the mobile device, a location of the mobile device based on the detected identifier and the time period. receiving, by a mobile device, during a time period, an acoustic signal in a real-time location system in an environment, the acoustic signal having been transmitted by an acoustic transmitting device located in the environment, the acoustic transmitting device being one of M acoustic transmitting devices in the environment; detecting, by the mobile device, an identifier from the received acoustic signal, wherein the detected identifier is a member of a rotating set of identifiers provided by the real-time location system, wherein each of the identifiers has a respective time period of validity for association with an acoustic transmitting device, the rotating set of identifiers having N unique identifiers, and M exceeds N; and determining, by the mobile device, a location of the mobile device based on the detected identifier and the time period.
Control device for an internal combustion engine comprising an intake duct, an exhaust gas recirculation duct opening into the intake duct, a housing in which the intake duct and the exhaust gas recirculation duct are formed, a shaft acting as an axis of rotation, on which a control body is supported eccentrically, and which is arranged perpendicular to the center axes of the intake duct and the exhaust gas recirculation duct, wherein in a first end position, in which the intake duct is at least throttled upstream of an orifice of the exhaust gas recirculation duct, a normal vector of a first surface of the control body is directed to the upstream side of the intake duct, and in a second end position in which the exhaust gas recirculation duct is closed, a normal vector of a second surface of the control body is directed to the exhaust gas recirculation duct, characterized in that a first valve seat is formed in the intake duct, on which the control body, in its first end position, abuts axially with its first surface, on which guide ribs are formed, by a rib free region.
An RF transceiver front end having an operating frequency, comprising: a receiver limb including a length of transmission line, an impedance matching network, a shunt switch arranged downstream of the impedance matching network and a further receiver component (128, 130) arranged downstream of the shunt switch, wherein the receiver limb has a receiver limb input impedance and the further receiver component has a further receiver component input impedance; and a transmitter limb, wherein the impedance matching network is configured to transform the further receiver component input impedance to match the receiver limb input impedance when the shunt switch is open and the RF transceiver front end is operable in receiver mode and wherein the impedance matching network is further configured to transform the input impedance of the shunt switch to present an open circuit as the receiver limb input impedance when the shunt switch is closed and the RF transceiver front end is operable in transmitter mode and the length of transmission line is less than λ/4 for the operating frequency. a receiver limb including a length of transmission line, an impedance matching network, a shunt switch arranged downstream of the impedance matching network and a further receiver component (128, 130) arranged downstream of the shunt switch, wherein the receiver limb has a receiver limb input impedance and the further receiver component has a further receiver component input impedance; and a transmitter limb, wherein the impedance matching network is configured to transform the further receiver component input impedance to match the receiver limb input impedance when the shunt switch is open and the RF transceiver front end is operable in receiver mode and wherein the impedance matching network is further configured to transform the input impedance of the shunt switch to present an open circuit as the receiver limb input impedance when the shunt switch is closed and the RF transceiver front end is operable in transmitter mode and the length of transmission line is less than λ/4 for the operating frequency.
Method for producing a sleeper for use in the railway track superstructure, comprising the following production steps: a) providing a mixture 10 - 60 % mass of which consists of a granulate of a plastic, which is deformable by applying heat, or a mixture of different plastics and the remainder of which consists of a sand having a bulk density of 1.4 - 2.0 g/cm 3, wherein according to DIN EN ISO 1133 at a test temperature of 230 °C and a load mass of 2.16 kg the melt flow index MFI/230/2,16 of the plastic or of the plastics of which the plastic granulate consists is greater than 20 in each case; b) heating the mixture to a temperature of 150 - 200 °C; c) pouring the mixture into a press mould reproducing the sleeper; d) pressing the mixture in the mould at a pressing pressure measured in the mixture of 1 - 5 MPa over a pressing period of up to 60 minutes; e) removing the sleeper from the mould. a) providing a mixture 10 - 60 % mass of which consists of a granulate of a plastic, which is deformable by applying heat, or a mixture of different plastics and the remainder of which consists of a sand having a bulk density of 1.4 - 2.0 g/cm 3, wherein according to DIN EN ISO 1133 at a test temperature of 230 °C and a load mass of 2.16 kg the melt flow index MFI/230/2,16 of the plastic or of the plastics of which the plastic granulate consists is greater than 20 in each case; b) heating the mixture to a temperature of 150 - 200 °C; c) pouring the mixture into a press mould reproducing the sleeper; d) pressing the mixture in the mould at a pressing pressure measured in the mixture of 1 - 5 MPa over a pressing period of up to 60 minutes; e) removing the sleeper from the mould.
A Multi-Cavities light emitting device, comprising: a base (10, 10'), having a central slot (11, 11') and at least two side slots (12, 12') symmetrically formed on external sides of the central slot (11, 11'), and the central slot (11, 11') and the side slots (12, 12') being formed in an area greater than 50% of the area of the base (10, 10'); a first light emitting unit (20, 20'), installed in the central slot (11, 11'); at least two second light emitting units (30, 30'), installed in the at least two side slots (12, 12'), respectively, a single lens (50, 50') protruded from the base (10, 10') and integrally sealed onto the central slot (11, 11') and the at least two side slots (12, 12'); and a light conversion layer (40, 40'), wherein the first light emitting unit (20, 20') is a blue light emitting unit and each of the second light emitting units (30, 30') is a red light emitting unit, wherein the light conversion layer (40, 40') is covered onto the first light emitting unit (20, 20'), and wherein the lens (50, 50') is made of resin, silicone, or epoxy resin and a diffusion agent added into the resin, silicone, or epoxy resin for mixing light emitted from the first light emitting unit (20, 20') and the second light emitting units (30, 30'). a base (10, 10'), having a central slot (11, 11') and at least two side slots (12, 12') symmetrically formed on external sides of the central slot (11, 11'), and the central slot (11, 11') and the side slots (12, 12') being formed in an area greater than 50% of the area of the base (10, 10'); a first light emitting unit (20, 20'), installed in the central slot (11, 11'); at least two second light emitting units (30, 30'), installed in the at least two side slots (12, 12'), respectively, a single lens (50, 50') protruded from the base (10, 10') and integrally sealed onto the central slot (11, 11') and the at least two side slots (12, 12'); and a light conversion layer (40, 40'), wherein the first light emitting unit (20, 20') is a blue light emitting unit and each of the second light emitting units (30, 30') is a red light emitting unit, wherein the light conversion layer (40, 40') is covered onto the first light emitting unit (20, 20'), and wherein the lens (50, 50') is made of resin, silicone, or epoxy resin and a diffusion agent added into the resin, silicone, or epoxy resin for mixing light emitted from the first light emitting unit (20, 20') and the second light emitting units (30, 30').
A round baler having a bale forming chamber, a duck bill assembly which comprises a pair of elongate plates that are biased towards one another to grip wrapping material therebetween and which is movable between an advanced position and a retracted position to introduce the free end of the wrapping material drawn from a supply roll into the bale forming chamber of the baler, a cutting device located between the retracted position of the duck bill assembly and the bale forming position for severing the length of wrapping material wrapped around a bale (10,110) in the bale forming chamber at the end of a bale wrapping cycle from the supply roll, and a clamping device to apply an additional force to the duck bill assembly while the duck bill assembly is in the retracted position in order for the wrapping material to be gripped more firmly by the duck bill assembly between bale wrapping cycles, characterised in that the clamping device is provided to urge the plates (22,122) of the duck bill assembly towards one another, while the duck bill assembly is in the retracted position in order for the wrapping material to be gripped more firmly by the duck bill assembly between bale wrapping cycles.
A local server for managing storage across client devices in an intermittent network, wherein the intermittent network is a network to which access is discontinuous, comprising: a processor; a memory communicatively coupled to the processor; an internet connection manager to manage data transfer from an internet to the local server; a wireless local area network, LAN, access point to communicatively couple at least one local client device (150-n) to the local server, wherein the local server manages the local client device (150-n) to use the local server as a proxy server; and a local network manager, the local network manager comprising: an update manager to: predict what data are relevant to a user of the local client device (150-n) based on a topic of study of the user at a particular time; remove data from the local client device (150-n) based on the predicted relevancy of the data to remove from the local client device (150-n) data which is predicted to no longer be relevant; and push data downloaded by the local server to the local client device (150-n) based on the predicted relevancy of the data to provide the local client device (150-n) with data which is predicted to be relevant and to restrict data which is not predicted to be relevant from being downloaded to the local client device. a processor; a memory communicatively coupled to the processor; an internet connection manager to manage data transfer from an internet to the local server; a wireless local area network, LAN, access point to communicatively couple at least one local client device (150-n) to the local server, wherein the local server manages the local client device (150-n) to use the local server as a proxy server; and a local network manager, the local network manager comprising: an update manager to: predict what data are relevant to a user of the local client device (150-n) based on a topic of study of the user at a particular time; remove data from the local client device (150-n) based on the predicted relevancy of the data to remove from the local client device (150-n) data which is predicted to no longer be relevant; and push data downloaded by the local server to the local client device (150-n) based on the predicted relevancy of the data to provide the local client device (150-n) with data which is predicted to be relevant and to restrict data which is not predicted to be relevant from being downloaded to the local client device. predict what data are relevant to a user of the local client device (150-n) based on a topic of study of the user at a particular time; remove data from the local client device (150-n) based on the predicted relevancy of the data to remove from the local client device (150-n) data which is predicted to no longer be relevant; and push data downloaded by the local server to the local client device (150-n) based on the predicted relevancy of the data to provide the local client device (150-n) with data which is predicted to be relevant and to restrict data which is not predicted to be relevant from being downloaded to the local client device.
A method for producing a resin molded article, which - uses a molding machine provided with a hopper for resin, an extruder, and a pressure control device in this order, and - comprises passing the resin fed from the hopper through the molding machine to produce the resin molded article, wherein (i) the resin is a thermoplastic fluororesin and (ii) the resin pressure between the tip of the extruder and the inlet port for resin of the pressure control device is ≤ 10.0 MPa, measured as described in the description, wherein a member that constitutes the pressure control device and is to be in contact with the resin contains a material having a mass reduction amount of ≤ 3 mg/cm 2 after immersion in 5 mol/L hydrofluoric acid at 100°C for 100 hours, wherein the resin pressure between the tip of the extruder and the inlet port for resin of the pressure control device is lower than the resin pressure at the outlet port for resin of the pressure control device. - uses a molding machine provided with a hopper for resin, an extruder, and a pressure control device in this order, and - comprises passing the resin fed from the hopper through the molding machine to produce the resin molded article, wherein (i) the resin is a thermoplastic fluororesin and (ii) the resin pressure between the tip of the extruder and the inlet port for resin of the pressure control device is ≤ 10.0 MPa, measured as described in the description, wherein a member that constitutes the pressure control device and is to be in contact with the resin contains a material having a mass reduction amount of ≤ 3 mg/cm 2 after immersion in 5 mol/L hydrofluoric acid at 100°C for 100 hours, wherein the resin pressure between the tip of the extruder and the inlet port for resin of the pressure control device is lower than the resin pressure at the outlet port for resin of the pressure control device.
An implantable autonomous capsule, comprising: - a tubular body housing a set of functional components of the capsule; - at a front, distal end of the capsule, a front-end unit comprising a helical-screw anchoring member for anchoring the capsule to a wall of a patient's organ; and - a disengageable frictional coupling, arranged at said distal end of the capsule between the front-end unit and the tubular body, wherein the front-end unit and the helical screw are mobile as a whole in relative axial rotation with respect to the tubular body, and wherein the disengageable frictional coupling is arranged in such a way as, when an external axial rotational stress is applied to the tubular body at the proximal end in a first direction corresponding to a screwing direction of the helical screw: • to prevent the relative axial rotation as long as a reaction torque, exerted by the helical screw during the screwing into the wall of the patient's organ, is lower than a first predetermined threshold torque, and • to allow the relative axial rotation as soon as the reaction torque exceeds the first predetermined threshold torque, characterized in that the disengageable frictional coupling further includes a one-way unscrewing blocking mechanism, said one-way blocking mechanism being arranged in such a way as, when an external axial rotational stress is applied to the tubular body at the proximal end in a second direction, opposite to the first direction and corresponding to an unscrewing direction of the helical screw: • to prevent a disengagement of the coupling mechanism, by forbidding the relative axial rotation against a resistive torque exerted on the front-end unit by the helical screw during an unscrewing, whereby allowing a joint rotation of the tubular body and the front-end unit; and • to be without effect in the screwing direction. - a tubular body housing a set of functional components of the capsule; - at a front, distal end of the capsule, a front-end unit comprising a helical-screw anchoring member for anchoring the capsule to a wall of a patient's organ; and - a disengageable frictional coupling, arranged at said distal end of the capsule between the front-end unit and the tubular body, • to prevent the relative axial rotation as long as a reaction torque, exerted by the helical screw during the screwing into the wall of the patient's organ, is lower than a first predetermined threshold torque, and • to allow the relative axial rotation as soon as the reaction torque exceeds the first predetermined threshold torque, • to prevent a disengagement of the coupling mechanism, by forbidding the relative axial rotation against a resistive torque exerted on the front-end unit by the helical screw during an unscrewing, whereby allowing a joint rotation of the tubular body and the front-end unit; and • to be without effect in the screwing direction.
A system comprising: at least one integrated optical circuit formed from a lithium-niobate-based material, wherein a bandgap of the at least one IOC is increased by exposure to at least one selected fill gas as compared to an IOC operated in a vacuum, wherein the at least one selected fill gas is free of molecular oxygen; and a support-structure configured to support the at least one IOC to couple light between other components (701/703); and a sealed enclosure enclosing the at least one IOC and the fill gas; wherein the at least one selected fill gas includes one of: nitrogen oxide; nitrogen dioxide (NO 2); sulfur dioxide (SO 2); nitrous oxide (N 2 O); ammonia (NH 3); or trimethylphosphine (PMe 3). at least one integrated optical circuit formed from a lithium-niobate-based material, wherein a bandgap of the at least one IOC is increased by exposure to at least one selected fill gas as compared to an IOC operated in a vacuum, wherein the at least one selected fill gas is free of molecular oxygen; and a support-structure configured to support the at least one IOC to couple light between other components (701/703); and a sealed enclosure enclosing the at least one IOC and the fill gas; wherein the at least one selected fill gas includes one of: nitrogen oxide; nitrogen dioxide (NO 2); sulfur dioxide (SO 2); nitrous oxide (N 2 O); ammonia (NH 3); or trimethylphosphine (PMe 3). nitrogen oxide; nitrogen dioxide (NO 2); sulfur dioxide (SO 2); nitrous oxide (N 2 O); ammonia (NH 3); or trimethylphosphine (PMe 3).
A lamination machine (100, 200, 300, 400) comprising: an inflatable former (108, 202, 302, 408) having an opening (110, 410), the inflatable former (108, 202, 302, 408) to be inflated by heated gas pumped through the opening (110, 410) to adhere a membrane (114, 210, 414) to a three-dimensional target surface of an article, wherein the inflatable former (108, 202, 302, 408) is permeable to the heated gas, wherein the inflatable former (108, 202, 302, 408) includes a plurality of perforations providing permeability to the heated gas, or wherein the inflatable former (108, 202, 302, 408) includes a plurality of perforations located in specific regions of the inflatable former (108, 202, 302, 408), but not located in other regions of the inflatable former (108, 202, 302, 408), wherein the former (108, 202, 302, 408) has a permeability to the heated gas of 5 to 80 mm/sec.
A method of detecting coincident sample events, comprising: receiving a first set of time dependent signal data representing detected signals from a flow cytometer system; detecting, with a peak detection module, one or more peaks within the signal data; characterised in that the method comprises cancelling, with a successive cancellation module, one or more individual sample events from the signal data at corresponding time indexes, wherein the cancellation of more than one individual sample event is successive, and wherein the cancellation comprises: detecting a first peak event and a corresponding first time index for the first peak event; generating a model sample event based on a stored beam profile and height of the first peak event; and subtracting out energy for the model sample event from energy of the signal data at the corresponding first time index, wherein presence of energy after the subtracting indicates presence of coincident sample events. receiving a first set of time dependent signal data representing detected signals from a flow cytometer system; detecting, with a peak detection module, one or more peaks within the signal data; characterised in that the method comprises cancelling, with a successive cancellation module, one or more individual sample events from the signal data at corresponding time indexes, wherein the cancellation of more than one individual sample event is successive, detecting a first peak event and a corresponding first time index for the first peak event; generating a model sample event based on a stored beam profile and height of the first peak event; and subtracting out energy for the model sample event from energy of the signal data at the corresponding first time index, wherein presence of energy after the subtracting indicates presence of coincident sample events.