mhurhangee/ep-ind-claims huggingface dataset:
A thrombectomy apparatus for breaking up thrombus or other obstructive material in a lumen of a vascular graft or vessel, the apparatus comprising a wire (60, 160, 160', 560, 660, 722, 722') having a first configuration and a second deployed configuration when exposed from a sheath (40, 40', 140, 240, 540, 709), the wire having a straighter configuration in the first configuration, the wire being operatively connected to a motor for rotation of the wire such that a distal region of the wire contacts and break up the thrombus or other obstructive material, and a blocking device (70, 170, 200, 300, 570, 670, 710, 710') is provided distal of the distal region of the wire, the blocking device movable between a collapsed configuration and an expanded configuration, the blocking device in the expanded configuration configured to block thrombus dislodged by rotation of the wire, characterized in that the blocking device (70, 170, 200, 300, 570, 670, 710, 710') includes a tubular portion connected to a distal end of the wire (60, 160, 160', 560, 660, 722, 722'), the wire (60, 160, 160', 560, 660, 722, 722') being rotatable independent of the tubular portion.
A circuit breaker comprising a switch with a fixed contact and a movable contact, and an actuator comprising a shaft mechanically connected to the movable contact in the switch, the shaft being displaceable in a first direction, wherein the movable contact moves from the fixed contact, and a second direction, wherein the movable contact moves towards the fixed contact, a Thomson coil (12, 14) adapted to displace the shaft in the first direction, and a disconnecting device connected in series with the switch and that is adapted to open during an interval when current is extinguished, characterized by an energy storage being a separate part from the shaft and being adapted to store energy when the shaft moves in the first direction and to release energy to displace the shaft in the second direction, wherein the energy storage comprises a mass-spring arrangement (18, 19, 20) with a body having a mass, a first spring placed between the shaft and one end portion of the body at a side facing the shaft and a second spring at a first end portion connected to a side of the body facing from the shaft and at second end portion being fixed, and wherein the energy storage is configured so that the movement of the body continues undisturbed to achieve a time interval wherein a current is extinguished. a switch with a fixed contact and a movable contact, and an actuator comprising a shaft mechanically connected to the movable contact in the switch, the shaft being displaceable in a first direction, wherein the movable contact moves from the fixed contact, and a second direction, wherein the movable contact moves towards the fixed contact, a Thomson coil (12, 14) adapted to displace the shaft in the first direction, and a disconnecting device connected in series with the switch and that is adapted to open during an interval when current is extinguished, characterized by an energy storage being a separate part from the shaft and being adapted to store energy when the shaft moves in the first direction and to release energy to displace the shaft in the second direction, wherein the energy storage comprises a mass-spring arrangement (18, 19, 20) with a body having a mass, a first spring placed between the shaft and one end portion of the body at a side facing the shaft and a second spring at a first end portion connected to a side of the body facing from the shaft and at second end portion being fixed, and wherein the energy storage is configured so that the movement of the body continues undisturbed to achieve a time interval wherein a current is extinguished.
A system for determining estimated sensor data of a sensor in a vehicle or industrial machine comprising multiple sensors, the system comprising processing circuitry configured to: obtain a plurality of samples of sensor data of the sensor; obtain information on a time offset between the sensor data of the sensor and a reference time, the reference time being based on sensor data of a second sensor, the sensor data of the second sensor comprising a second plurality of samples; perform a time-series projection based on the plurality of samples of the sensor data, the time-series projection being performed using an auto-regressive statistical model; determine an estimate of the sensor data for the reference time based on the time-series projection and based on the time offset between the sensor data and the reference time, the processing circuitry being configured to determine the estimate of the sensor data such, that the estimate of the sensor data is time-synchronized to the latest sample of the sensor data of the second sensor. obtain a plurality of samples of sensor data of the sensor; obtain information on a time offset between the sensor data of the sensor and a reference time, the reference time being based on sensor data of a second sensor, the sensor data of the second sensor comprising a second plurality of samples; perform a time-series projection based on the plurality of samples of the sensor data, the time-series projection being performed using an auto-regressive statistical model; determine an estimate of the sensor data for the reference time based on the time-series projection and based on the time offset between the sensor data and the reference time, the processing circuitry being configured to determine the estimate of the sensor data such, that the estimate of the sensor data is time-synchronized to the latest sample of the sensor data of the second sensor.
An exhaust system for a diesel engine comprising an oxidation catalyst for treating an exhaust gas from the diesel engine and an emissions control device, wherein the oxidation catalyst comprises: a first washcoat region for oxidising carbon monoxide and hydrocarbons (HCs), wherein the first washcoat region comprises a first platinum group metal and a first support material, and wherein the first washcoat region does not comprise manganese or an oxide thereof; a second washcoat region for oxidising nitric oxide, wherein the second washcoat region comprises platinum (Pt), manganese (Mn) and a second support material comprising a refractory metal oxide, which is alumina doped with silica in a total amount of 0.5 to 15 % by weight, wherein the platinum (Pt) is disposed or supported on the second support material and the manganese (Mn) is disposed or supported on the second support material; and a substrate having an inlet end and an outlet end, wherein the substrate is a flow-through substrate, and wherein the first washcoat region is a first washcoat zone disposed at the inlet end of the substrate and the second washcoat region is a second washcoat zone disposed at the outlet end of the substrate, such that the second washcoat region is arranged to contact the exhaust gas at the outlet end of the substrate and after contact of the exhaust gas with the first washcoat region; and wherein the emissions control device is a selective catalytic reduction catalyst, a selective catalytic reduction filter catalyst, a diesel particulate filter, or a catalysed soot filter. a first washcoat region for oxidising carbon monoxide and hydrocarbons (HCs), wherein the first washcoat region comprises a first platinum group metal and a first support material, and wherein the first washcoat region does not comprise manganese or an oxide thereof; a second washcoat region for oxidising nitric oxide, wherein the second washcoat region comprises platinum (Pt), manganese (Mn) and a second support material comprising a refractory metal oxide, which is alumina doped with silica in a total amount of 0.5 to 15 % by weight, wherein the platinum (Pt) is disposed or supported on the second support material and the manganese (Mn) is disposed or supported on the second support material; and a substrate having an inlet end and an outlet end, wherein the substrate is a flow-through substrate, and wherein the first washcoat region is a first washcoat zone disposed at the inlet end of the substrate and the second washcoat region is a second washcoat zone disposed at the outlet end of the substrate, such that the second washcoat region is arranged to contact the exhaust gas at the outlet end of the substrate and after contact of the exhaust gas with the first washcoat region; and wherein the emissions control device is a selective catalytic reduction catalyst, a selective catalytic reduction filter catalyst, a diesel particulate filter, or a catalysed soot filter.
Electric device with a system for thermal safeguarding of several monitored components and/or monitoring points (T1, T2, TN), wherein the system comprises at least one thermosensitive element and at least one actuator, whereby an actuator is assigned to each thermosensitive element is, and the thermosensitive element is flexibly arranged on the electric device being monitored in a sleeve or tube that is basically thermally shape-stable, characterized in, that each thermosensitive element is thermally coupled to several of the monitored components or monitoring points (T1, T2, TN), the thermosensitive element is configured such that it undergoes a change in length or volume above a threshold temperature upon overheating of a component or monitoring point (T1, T2, TN), and the thermosensitive element is connected to the actuator such that the actuator triggers an action in dependence on the change in length or volume of the thermosensitive element.
A laser radar device (1; 2) comprising: a modulated light generator (10, 11) configured to generate modulated laser light using frequency modulation based on a control parameter; an optical splitter configured to split the modulated laser light into transmission light and local light; an optical system for transmission and reception configured to transmit the transmission light into an external space and receive, as received light, the transmission light reflected by a target existing in the external space; an optical combiner configured to combine the received light and the local light to generate interference light; a photodetector configured to detect the interference light and output an electrical signal; a demodulation circuit configured to demodulate the electrical signal output from the photodetector; characterized by a frequency-to-voltage converter configured to convert the electrical signal output from the photodetector into a voltage signal having a signal voltage corresponding to a frequency of the electrical signal; a characteristic calculator (32; 32A) configured to measure, as a characteristic value of the voltage signal, a slope indicating a relationship between a frequency sweep time of the frequency modulation and the signal voltage; an evaluator configured to evaluate whether the characteristic value is within an acceptable range corresponding to a demodulation band of the demodulation circuit; and a parameter setting unit configured to change the control parameter when the evaluator evaluates that the characteristic value is not within the acceptable range. a modulated light generator (10, 11) configured to generate modulated laser light using frequency modulation based on a control parameter; an optical splitter configured to split the modulated laser light into transmission light and local light; an optical system for transmission and reception configured to transmit the transmission light into an external space and receive, as received light, the transmission light reflected by a target existing in the external space; an optical combiner configured to combine the received light and the local light to generate interference light; a photodetector configured to detect the interference light and output an electrical signal; a demodulation circuit configured to demodulate the electrical signal output from the photodetector; characterized by a frequency-to-voltage converter configured to convert the electrical signal output from the photodetector into a voltage signal having a signal voltage corresponding to a frequency of the electrical signal; a characteristic calculator (32; 32A) configured to measure, as a characteristic value of the voltage signal, a slope indicating a relationship between a frequency sweep time of the frequency modulation and the signal voltage; an evaluator configured to evaluate whether the characteristic value is within an acceptable range corresponding to a demodulation band of the demodulation circuit; and a parameter setting unit configured to change the control parameter when the evaluator evaluates that the characteristic value is not within the acceptable range.
A coating composition comprising i) a polymeric film forming resin, ii) a crosslinking agent suitable for crosslinking the polymeric film forming resin i), and iii) an additive comprising a bismuth carboxylic acid salt, wherein the bismuth carboxylic acid salt comprises bismuth neodecanoate, wherein the polymeric film forming resin comprises epoxy resin, polyester resin and/or polyacrylate resin, and wherein the crosslinking agent comprises one or more of an optionally substituted phenol-aldehyde or phenol-ketone (co)polymer, Melamine formaldehyde type materials of the hexakis(methoxymethyl)melamine (HMMM) type and benzoguanamine formaldehyde type materials. i) a polymeric film forming resin, ii) a crosslinking agent suitable for crosslinking the polymeric film forming resin i), and iii) an additive comprising a bismuth carboxylic acid salt, wherein the bismuth carboxylic acid salt comprises bismuth neodecanoate, wherein the polymeric film forming resin comprises epoxy resin, polyester resin and/or polyacrylate resin, and wherein the crosslinking agent comprises one or more of an optionally substituted phenol-aldehyde or phenol-ketone (co)polymer, Melamine formaldehyde type materials of the hexakis(methoxymethyl)melamine (HMMM) type and benzoguanamine formaldehyde type materials.
A physical switch (202, 204, 520), comprising: one or more ports (208, 210) configured to transmit packets encapsulated based on a first protocol, wherein said first protocol is based on an Ethernet protocol, by processing packets encapsulated in Ethernet headers; and a control mechanism configured to: form a logical switch based on a second protocol, wherein the logical switch formed by the control mechanism is a logical Fibre Channel switch and the second protocol is the FC switch fabric protocol; receive a Transparent Interconnection of Lots of Links (TRILL) RBridge identifier which is automatically assigned to the logical switch, without requiring manual configuration of the identifier, wherein the TRILL RBridge identifier corresponds to a FC switch domain ID; and join the physical switch to a fabric switch based on the TRILL RBridge identifier, wherein the fabric switch comprises one or more physical switches (101, 102,...107) which are coupled in an arbitrary topology; wherein the fabric switch is configured to operate externally as a single logical Ethernet switch, using the TRILL protocol to facilitate transport of Ethernet frames within and across the fabric switch, and using the FC switch fabric protocol for the automatic configuration of the physical switches within the fabric switch. one or more ports (208, 210) configured to transmit packets encapsulated based on a first protocol, wherein said first protocol is based on an Ethernet protocol, by processing packets encapsulated in Ethernet headers; and a control mechanism configured to: form a logical switch based on a second protocol, wherein the logical switch formed by the control mechanism is a logical Fibre Channel switch and the second protocol is the FC switch fabric protocol; receive a Transparent Interconnection of Lots of Links (TRILL) RBridge identifier which is automatically assigned to the logical switch, without requiring manual configuration of the identifier, wherein the TRILL RBridge identifier corresponds to a FC switch domain ID; and join the physical switch to a fabric switch based on the TRILL RBridge identifier, wherein the fabric switch comprises one or more physical switches (101, 102,...107) which are coupled in an arbitrary topology; form a logical switch based on a second protocol, wherein the logical switch formed by the control mechanism is a logical Fibre Channel switch and the second protocol is the FC switch fabric protocol; receive a Transparent Interconnection of Lots of Links (TRILL) RBridge identifier which is automatically assigned to the logical switch, without requiring manual configuration of the identifier, wherein the TRILL RBridge identifier corresponds to a FC switch domain ID; and join the physical switch to a fabric switch based on the TRILL RBridge identifier, wherein the fabric switch comprises one or more physical switches (101, 102,...107) which are coupled in an arbitrary topology;
A method for the processing of images originating from an on-board camera installed on a vehicle, including the following iterative steps during the movement of the vehicle: (a) capture of a real image by the camera; (b) creation of a partial virtual image, corresponding to an aerial view, from the real image; (c) construction (106, 114) of a cumulative virtual image by matching of the partial virtual image with the cumulative virtual image of the preceding iteration; (d) construction of a display image from the cumulative virtual image; the cumulative virtual image retaining its orientation according to a frame of reference that is fixed with respect to the surroundings of the vehicle over at least a portion of the movement of the said vehicle; and the display image being constructed by extraction of a portion of the cumulative virtual image, said portion being selected as a function of the position of the vehicle with respect to its surroundings, characterized in that the zone covered by the cumulative virtual image is displaced, preferably solely by translation, still more preferably by translation according to a whole number of pixels, when the movement of the vehicle exceeds a given value. (a) capture of a real image by the camera; (b) creation of a partial virtual image, corresponding to an aerial view, from the real image; (c) construction (106, 114) of a cumulative virtual image by matching of the partial virtual image with the cumulative virtual image of the preceding iteration; (d) construction of a display image from the cumulative virtual image;
An optical processing apparatus (1500, 2500, 3500) for scanning a processing region having an at least one-dimensional spread by moving a nozzle head (1000, 2000) while irradiating the processing region with an optical processing light beam via the nozzle head, comprising: a light source (1001, 2001, 3001, 4001) that emits, to an open space, the optical processing light beam (1042, 2042, 3042, 4042) toward the nozzle head; the nozzle head (1000, 2000) that includes a hollow nozzle (1007, 2007) and a light beam direction changing optical system (1400, 2400) which receives the light beam emitted from said light source and propagated in the open space, and changes a propagation direction of the received light beam to a direction of the processing region in the processing region; and a main scanning direction moving mechanism that moves said nozzle head in a main scanning direction of the processing region, characterized in that said light beam direction changing optical system comprises a rotationally symmetric mirror (2400, 3400, 4400) having a rotation-symmetry axis and a mirror surface as an inner surface. a light source (1001, 2001, 3001, 4001) that emits, to an open space, the optical processing light beam (1042, 2042, 3042, 4042) toward the nozzle head; the nozzle head (1000, 2000) that includes a hollow nozzle (1007, 2007) and a light beam direction changing optical system (1400, 2400) which receives the light beam emitted from said light source and propagated in the open space, and changes a propagation direction of the received light beam to a direction of the processing region in the processing region; and a main scanning direction moving mechanism that moves said nozzle head in a main scanning direction of the processing region, characterized in that said light beam direction changing optical system comprises a rotationally symmetric mirror (2400, 3400, 4400) having a rotation-symmetry axis and a mirror surface as an inner surface.
Roll formed bumper beam with a constant width along the length of the strip from which it is formed and a cross section with at least two closed chambers (15, 16) separated by an essentially horizontal partition wall, wherein each chamber has a side which is turned away from the vehicle and with at least one longitudinal inwards curved part (20, 21; 22, 23) extending along the entire length, characterised in that each chamber (15, 16) has a side facing the vehicle, said side having at least one longitudinal outwards curved portion (25, 26; 27, 28) extending along the entire length, and a portion along the length of the bumper beam has a reduced height and increased width due to the fact that the sides of the chambers have been compressed vertically there.
A method performed by a wireless device communicating with another wireless device via multiple radio links between the wireless devices, each radio link enabling direct transmissions between the wireless devices, the method comprising the steps of: receiving configuration-information related to the other wireless device from the other wireless device or from a network node, wherein the configuration-information comprises an application layer 2 identity, L2-ID; determining a link-property of a first radio link of the multiple radio links based on the configuration-information, L2-ID; causing a modification of a second radio link of the multiple radio links based on the determined link-property; wherein determining the link-property of the first radio link comprises obtaining a measurement of a radio condition of the first radio link, and the link-property indicates a link quality or a link state or a capability of the other wireless device. receiving configuration-information related to the other wireless device from the other wireless device or from a network node, wherein the configuration-information comprises an application layer 2 identity, L2-ID; determining a link-property of a first radio link of the multiple radio links based on the configuration-information, L2-ID; causing a modification of a second radio link of the multiple radio links based on the determined link-property; wherein determining the link-property of the first radio link comprises obtaining a measurement of a radio condition of the first radio link, and the link-property indicates a link quality or a link state or a capability of the other wireless device.