mhurhangee/ep-ind-claims huggingface dataset:
A fixing device (12, 112, 212) for a floor mat (24, 124, 224) in a vehicle, the device comprising a clip arrangement for securing to a rear edge (23, 123) of a mat (24, 124, 224) and having means for securing the clip arrangement to a mat fixing formation (28, 128, 228) attached to a carpet (30, 130, 230) of the vehicle; wherein the device comprises a body (14, 114) having opposed upper (18, 118, 218) and lower (20, 120, 220) jaw members between which a rear edge region (23, 123) of a mat (24, 124, 224) can be received, the body (14, 114) defining an aperture (26, 126) in the lower jaw member (20, 120, 220) for receiving a mat fixing lug (28, 128, 228), at least one of the jaw members being movable between a jaws open position and a jaws closed position, the device having means (56, 272, 274) for releasably retaining the jaw members in the closed position; and wherein one of the upper (18, 118, 218) and lower (20, 120, 220) jaw members is pivotally attached to the other of the upper and lower jaw members for movement between a jaws open and a jaws closed position; characterized in that: the jaw members are interconnected by means of an over-centre hinge configured to releasably retain said one of the upper (18, 118, 218) and lower (20, 120, 220) jaw members in the closed position. wherein the device comprises a body (14, 114) having opposed upper (18, 118, 218) and lower (20, 120, 220) jaw members between which a rear edge region (23, 123) of a mat (24, 124, 224) can be received, the body (14, 114) defining an aperture (26, 126) in the lower jaw member (20, 120, 220) for receiving a mat fixing lug (28, 128, 228), at least one of the jaw members being movable between a jaws open position and a jaws closed position, the device having means (56, 272, 274) for releasably retaining the jaw members in the closed position; and wherein one of the upper (18, 118, 218) and lower (20, 120, 220) jaw members is pivotally attached to the other of the upper and lower jaw members for movement between a jaws open and a jaws closed position; characterized in that: the jaw members are interconnected by means of an over-centre hinge configured to releasably retain said one of the upper (18, 118, 218) and lower (20, 120, 220) jaw members in the closed position. the jaw members are interconnected by means of an over-centre hinge configured to releasably retain said one of the upper (18, 118, 218) and lower (20, 120, 220) jaw members in the closed position.
An apparatus for mounting on a first train and providing dynamic control of the first train, comprising: a train condition recognition module configured to receive information from a second train that precedes the first train on a path, the information including a location of the first train, a location of the second train and a set allowable train interval limit, wherein the train condition recognition module is configured to confirm whether there is an occurrence of an exceptional circumstance of the second train when it determines that the value obtained by subtracting the location of the first train from the location of the second train is equal to or less than the set allowable train interval limit; a severity determining unit configured to calculate a severity of the exceptional circumstance; a cascaded delay time prediction unit configured to predict, based on the severity, a cascaded delay time on trains sequentially affected by the exceptional circumstance among trains located on said path; an alternatives selection unit configured to select one of a course hold alternative and a course change alternative to minimize the cascaded delay time; and a train operation unit configured to perform a control to cause the first train to travel in a course according to the selected alternative. a train condition recognition module configured to receive information from a second train that precedes the first train on a path, the information including a location of the first train, a location of the second train and a set allowable train interval limit, wherein the train condition recognition module is configured to confirm whether there is an occurrence of an exceptional circumstance of the second train when it determines that the value obtained by subtracting the location of the first train from the location of the second train is equal to or less than the set allowable train interval limit; a severity determining unit configured to calculate a severity of the exceptional circumstance; a cascaded delay time prediction unit configured to predict, based on the severity, a cascaded delay time on trains sequentially affected by the exceptional circumstance among trains located on said path; an alternatives selection unit configured to select one of a course hold alternative and a course change alternative to minimize the cascaded delay time; and a train operation unit configured to perform a control to cause the first train to travel in a course according to the selected alternative.
A heat exchange ventilation apparatus comprising: a box-shaped body casing in which an exhaust air passage that exhausts indoor air to an outside of a room and a supply air passage that supplies outdoor air to an inside of a room are formed; a heat exchanger that is arranged at an intersection portion at which the exhaust air passage and the supply air passage intersect and performs heat exchange between an exhaust air flow flowing in the exhaust air passage and a supply air flow flowing in the supply air passage; and a filter holding unit in which a holding frame that holds a filter on an inflow side of the supply air flow of the heat exchanger and a pan that receives a falling object from the filter are integrated is attachable and detachable to and from the body casing together with the filter, and includes an isolation portion that isolates the supply air passage from the exhaust air passage, wherein an opening into which the filter holding unit is inserted is formed in a surface facing an inflow surface of the supply air flow in the supply air passage, in the body casing, and the filter holding unit is attached in a direction in which the filter holding unit is in close contact with the inflow surface of the supply air in the heat exchanger by attaching the filter holding unit to the openings. a box-shaped body casing in which an exhaust air passage that exhausts indoor air to an outside of a room and a supply air passage that supplies outdoor air to an inside of a room are formed; a heat exchanger that is arranged at an intersection portion at which the exhaust air passage and the supply air passage intersect and performs heat exchange between an exhaust air flow flowing in the exhaust air passage and a supply air flow flowing in the supply air passage; and a filter holding unit in which a holding frame that holds a filter on an inflow side of the supply air flow of the heat exchanger and a pan that receives a falling object from the filter are integrated is attachable and detachable to and from the body casing together with the filter, and includes an isolation portion that isolates the supply air passage from the exhaust air passage, wherein an opening into which the filter holding unit is inserted is formed in a surface facing an inflow surface of the supply air flow in the supply air passage, in the body casing, and the filter holding unit is attached in a direction in which the filter holding unit is in close contact with the inflow surface of the supply air in the heat exchanger by attaching the filter holding unit to the openings.
A conductive laminated body comprising: a substrate; a zinc oxide thin film doped with an element M; and an oxide Ga 2 O 3 interlayer, which is interposed between the substrate and the zinc oxide thin film, wherein content of a dopant element M included in the zinc oxide thin film is in a range of 0.1 to 10wt%, wherein the dopant element M is Al or Ga. wherein the zinc oxide thin film has a second XRD peak, which is shifted by +0.05°∼ +0.5° from a first XRD peak occurring when there is no interlayer, wherein the first XRD peak and the second XRD peak correspond to a peak of zinc oxide (ZnO) at 2θ= 34°±0.5° at CuKα(λ=0.154nm) radiation. a substrate; a zinc oxide thin film doped with an element M; and an oxide Ga 2 O 3 interlayer, which is interposed between the substrate and the zinc oxide thin film, wherein content of a dopant element M included in the zinc oxide thin film is in a range of 0.1 to 10wt%, wherein the dopant element M is Al or Ga. wherein the zinc oxide thin film has a second XRD peak, which is shifted by +0.05°∼ +0.5° from a first XRD peak occurring when there is no interlayer, wherein the first XRD peak and the second XRD peak correspond to a peak of zinc oxide (ZnO) at 2θ= 34°±0.5° at CuKα(λ=0.154nm) radiation.
A fluidic load balancing arrangement for a multi-axis robot that comprises at least two coupling elements (14, 16) that are connected by an articulated joint, wherein the load balancing arrangement comprises the following: - a hydraulic cylinder that is attachable to two coupling elements (14, 16) that are moveable with respect to one another, wherein a first end of the hydraulic cylinder is connectable with a first coupling element and a second end is connectable with a second coupling element, - at least one pressure reservoir that is arranged to be coupled with the hydraulic cylinder, and - a control unit that is arranged between the hydraulic cylinder and the at least one pressure reservoir to fluidically couple the hydraulic cylinder and the at least one pressure reservoir with one another, wherein the control unit is associated with a first fluid path and a second fluid path between the hydraulic cylinder and the at least one pressure reservoir, wherein in the first fluid path between the hydraulic cylinder and the at least one pressure reservoir a pressure valve is provided, wherein a connecting line extends between the hydraulic cylinder and the first fluid path and also the second fluid path, and wherein at the second fluid path a controllable valve is provided that is operable in a first operating state and a second operating state to selectively enable a fluid flow through the first fluid path or the second fluid path. - a hydraulic cylinder that is attachable to two coupling elements (14, 16) that are moveable with respect to one another, wherein a first end of the hydraulic cylinder is connectable with a first coupling element and a second end is connectable with a second coupling element, - at least one pressure reservoir that is arranged to be coupled with the hydraulic cylinder, and - a control unit that is arranged between the hydraulic cylinder and the at least one pressure reservoir to fluidically couple the hydraulic cylinder and the at least one pressure reservoir with one another, wherein the control unit is associated with a first fluid path and a second fluid path between the hydraulic cylinder and the at least one pressure reservoir, wherein in the first fluid path between the hydraulic cylinder and the at least one pressure reservoir a pressure valve is provided, wherein a connecting line extends between the hydraulic cylinder and the first fluid path and also the second fluid path, and wherein at the second fluid path a controllable valve is provided that is operable in a first operating state and a second operating state to selectively enable a fluid flow through the first fluid path or the second fluid path.
Display device having a microcontroller, a graphics controller, wherein the graphics controller does not have an arithmetic logic unit and can be controlled by the microcontroller and by command sequences (20, 21) of a command sequencer contained in the graphics controller, wherein the graphics controller has a stepper motor controller and the command sequencer has a watchdog timer, characterized in that - a display device is present, having a pointer driven by means of a stepper motor, - the watchdog timer is designed for monitoring a connection signal between the microcontroller and the graphics controller and starting a first command sequence when the connection signal is lacking, - the first command sequence is designed for activating an internal cyclic signal for repeatedly starting a second command sequence, wherein the second command sequence is designed for moving the stepper motor by one step in the direction of a stop or of a home position via the stepper motor controller. - a display device is present, having a pointer driven by means of a stepper motor, - the watchdog timer is designed for monitoring a connection signal between the microcontroller and the graphics controller and starting a first command sequence when the connection signal is lacking, - the first command sequence is designed for activating an internal cyclic signal for repeatedly starting a second command sequence, wherein the second command sequence is designed for moving the stepper motor by one step in the direction of a stop or of a home position via the stepper motor controller.
A compacting machine having a shaft (4, 8), an unbalanced mass, and a drum, the shaft (4, 8) being connected to both the unbalanced mass and the drum and being adapted to transfer imbalance forces from the unbalanced mass to the drum, characterized in that said shaft (4, 8) comprises at least one exciter bearing in which the unbalanced mass rotates during vibration operation, that the exciter bearing is arranged between the unbalanced mass and a component supporting the unbalanced mass, and that the exciter bearing is a plain bearing (3, 7).
Reciprocating-piston compressor for a compressed-air supply system in a motor vehicle, with a cylinder head comprising a valve carrier plate and an inlet valve flap (18a, b) via which the one inlet chamber (14a, b) can be connected to a working space via multiple inlet channels (21a, b) in the valve carrier plate, and with a pressure-relief system (7a, b) which is integrated in the cylinder head and able to switch a pressure-relief channel (19a, b) in the valve carrier plate which connects the working space to a space in the cylinder head, wherein the pressure-relief system (7a, b) comprises a switch device (8a, b) and a flap (9a, b), and wherein the flap (9a, b) is attached to the valve carrier plate on the working space side and can be lifted from the valve carrier plate in order to open the pressure-relief channel (19a, b), wherein the flap (9a, b) can be lifted autonomously and/or controlled by the pressure-relief system (7a, b), characterized in that the pressure-relief channel is an air-conductive connection between the inlet chamber and the working space.
A method performed in a wireless communications system for frequency multiplexing a first -LAA- Orthogonal Frequency Division Multiple Access, OFDMA, transmission and a second -Wi-Fi- OFDMA transmission on a shared radio channel spanning at least partly a common bandwidth, wherein a first network node (eNB; 112) and a first wireless device are operating in a first wireless communications network (LAA; 110), and a second network node (AP; 122) and a second wireless device are operating in a second wireless communications network (Wi-Fi; 120), and wherein the method comprises: - determining an unallocated frequency band available beside a first frequency band intended/allocated for a first -LAA- OFDMA transmission in the shared radio channel; - sending a sharing request comprising information about the unallocated frequency band; - deciding to use the unallocated band in a second frequency band in the shared radio channel; - conducting (206,206) a contention procedure; - sending (207,207) an L -legacy- preamble spanning the shared radio channel; - sending (208,208) a first part of a High Efficiency, HE - Wi-Fi- preamble spanning the shared radio channel; - sending a first -LAA- OFDMA transmission in the first frequency band, such that an end point of time of the first part of the HE -Wi-Fi- preamble coincides with a start point of time of the first OFDMA transmission; and - sending a second part of the HE -Wi-Fi- preamble and the second -Wi-Fi-OFDMA transmission in the second frequency band. - determining an unallocated frequency band available beside a first frequency band intended/allocated for a first -LAA- OFDMA transmission in the shared radio channel; - sending a sharing request comprising information about the unallocated frequency band; - deciding to use the unallocated band in a second frequency band in the shared radio channel; - conducting (206,206) a contention procedure; - sending (207,207) an L -legacy- preamble spanning the shared radio channel; - sending (208,208) a first part of a High Efficiency, HE - Wi-Fi- preamble spanning the shared radio channel; - sending a first -LAA- OFDMA transmission in the first frequency band, such that an end point of time of the first part of the HE -Wi-Fi- preamble coincides with a start point of time of the first OFDMA transmission; and - sending a second part of the HE -Wi-Fi- preamble and the second -Wi-Fi-OFDMA transmission in the second frequency band.
A blood analyzer, comprising: a light source unit configured to irradiate light on a measurement sample prepared from blood; a fluorescent light detecting unit configured to detect auto-fluorescence produced by red blood cells in the measurement sample which is irradiated by light; an information processing unit configured to obtain auto-fluorescence information related to red blood cells which produce auto-fluorescence detected by the fluorescent light detecting unit; wherein the information processing unit is configured to make a determination regarding anemia based on the auto-fluorescence information, wherein the fluorescent light detecting unit is configured to individually detect the auto-fluorescence from each red blood cell in the measurement sample; the information processing unit is configured to obtain auto-fluorescence information based on the individual auto-fluorescence detected by the fluorescent light detecting unit. a light source unit configured to irradiate light on a measurement sample prepared from blood; a fluorescent light detecting unit configured to detect auto-fluorescence produced by red blood cells in the measurement sample which is irradiated by light; an information processing unit configured to obtain auto-fluorescence information related to red blood cells which produce auto-fluorescence detected by the fluorescent light detecting unit; wherein the information processing unit is configured to make a determination regarding anemia based on the auto-fluorescence information, wherein the fluorescent light detecting unit is configured to individually detect the auto-fluorescence from each red blood cell in the measurement sample; the information processing unit is configured to obtain auto-fluorescence information based on the individual auto-fluorescence detected by the fluorescent light detecting unit.
A carboxylic acid-modified nitrile-based copolymer latex comprising a carboxylic acid-modified nitrile-based copolymer including a conjugated diene-based monomer-derived unit, an ethylenic unsaturated nitrile-based monomer-derived unit, and an ethylenic unsaturated acid monomer-derived unit, wherein the carboxylic acid-modified nitrile-based copolymer latex satisfies the following General Formula 1 and General Formula 2: 1.0 mm 2 / s ≤ CV 0 ≤ 3.0 mm 2 / s 0.85 ≤ P ≤ 1.0, P = CV D / CV 0 in General Formulas 1 and 2, CV 0 represents a capillary viscosity of the carboxylic acid-modified nitrile-based copolymer latex measured in a swollen state in a methyl ethyl ketone solvent, and CV D represents a capillary viscosity of the carboxylic acid-modified nitrile-based copolymer latex in a deswollen state; wherein CV D and CV 0 were measured by the methods disclosed under Experimental Example 1 on pages 57 to 58 of the application as originally filed.
A method for providing energy storage devices positioned in a device-exchange station, the method comprising: receiving a request for retrieving two energy storage devices in the device-exchange station; selecting a first energy storage device from a plurality of energy storage devices positioned in the device-exchange station based on characteristic information of each of the energy storage devices; selecting a second energy storage device from the rest of the plurality of energy storage devices positioned in the device-exchange station based on the characteristic information of the first energy storage device and the rest of the plurality of energy storage devices; and releasing the first and second energy storage devices; wherein the characteristic information of the first and the second energy storage devices are similar, the same, or substantially the same, and the characteristic information comprises at least one of a state of charge (SoC), a temperature and a battery type; and characterised in that the first energy storage device is positioned at a first location of the device-exchange station, and wherein the second energy storage device is positioned at a second location of the device-exchange station, and wherein the second location is a location closest to the first location among locations of the rest of the plurality of energy storage devices. receiving a request for retrieving two energy storage devices in the device-exchange station; selecting a first energy storage device from a plurality of energy storage devices positioned in the device-exchange station based on characteristic information of each of the energy storage devices; selecting a second energy storage device from the rest of the plurality of energy storage devices positioned in the device-exchange station based on the characteristic information of the first energy storage device and the rest of the plurality of energy storage devices; and releasing the first and second energy storage devices; wherein the characteristic information of the first and the second energy storage devices are similar, the same, or substantially the same, and the characteristic information comprises at least one of a state of charge (SoC), a temperature and a battery type; and characterised in that the first energy storage device is positioned at a first location of the device-exchange station, and wherein the second energy storage device is positioned at a second location of the device-exchange station, and wherein the second location is a location closest to the first location among locations of the rest of the plurality of energy storage devices.
Heat conditioning system for a motor vehicle comprising: - an air conditioning loop in which a coolant circulates and comprising a compressor, at least two heat exchangers (8, 42) and at least one decompression device (24, 26), one of the at least two heat exchangers (8, 42) being a condenser linked to the battery; - a heat treatment unit of a battery of the vehicle comprising a heat treatment means capable of exchanging heat with the battery of the vehicle, the heat treatment means exchanging heat with the air conditioning loop, characterized in that the heat treatment means is, on the one hand, in contact with the air conditioning loop, and, on the other hand, an electric heating device, the heat treatment means being situated,in the direction of travel of the coolant, upstream of the condenser, an additional heat treatment means being in contact with the air conditioning loop and the additional heat treatment means being situated upstream of an internal condenser. - an air conditioning loop in which a coolant circulates and comprising a compressor, at least two heat exchangers (8, 42) and at least one decompression device (24, 26), one of the at least two heat exchangers (8, 42) being a condenser linked to the battery; - a heat treatment unit of a battery of the vehicle comprising a heat treatment means capable of exchanging heat with the battery of the vehicle,