mhurhangee/ep-ind-claims huggingface dataset:
Device for the detection of states on track sections comprising: (a) a sensor for the detection of a passage of a vehicle axis and generation of passage signals; (b) transmission means with a module for wireless remote data transmission for transmitting the passage signals to a remote processing unit; (c) a second sensor for the detection of a passage of a vehicle axis which is positioned in a distance from the first sensor in a longitudinal direction of the track; and (d) a timer adapted to determine the time of the passage of a vehicle axis at the sensors or the distance in time of the passage between the sensors; characterized in that (e) the sensors and the transmission means are fixed to a common base plate; and (f) the transmission means are adapted for the wireless remote data transmission of raw data of the passage signals of a verified passage without delay. (a) a sensor for the detection of a passage of a vehicle axis and generation of passage signals; (b) transmission means with a module for wireless remote data transmission for transmitting the passage signals to a remote processing unit; (c) a second sensor for the detection of a passage of a vehicle axis which is positioned in a distance from the first sensor in a longitudinal direction of the track; and (d) a timer adapted to determine the time of the passage of a vehicle axis at the sensors or the distance in time of the passage between the sensors; (e) the sensors and the transmission means are fixed to a common base plate; and (f) the transmission means are adapted for the wireless remote data transmission of raw data of the passage signals of a verified passage without delay.
1-deoxygalactonojirimycin for use in the treatment of Fabry disease, wherein the treatment comprises administering to a patient from about 50 mg to 600 mg of 1-deoxygalactonojirimycin and an effective amount of α-Gal A enzyme replacement therapy, wherein the 1-deoxygalactonojirimycin is administered up to about 4 hours prior to, or simultaneously with, the administration of the α-Gal A enzyme replacement therapy.
Roll covering, in particular for a roll for the treatment of a paper web, paperboard web, or any other web of fibrous material in a machine for the production and/or finishing of same, where said roll covering encompasses at least one layer, and the at least one layer comprises a rubber composition which comprises at least one (meth)acrylate compound and a rubber component encompassing at least one crosslinked hydrogenated nitrile rubber, characterized in that the at least one layer has a) a recovery rate of at least 12 mm/sec. and/or a maximal degree of plastic deformation of 0.9%, and b) a maximal tan δ value of 0.16 determined in accordance with DIN 53513 at 60°C in tension at 10 Hz, 15% static elongation, and 1% dynamic elongation. a) a recovery rate of at least 12 mm/sec. and/or a maximal degree of plastic deformation of 0.9%, and b) a maximal tan δ value of 0.16 determined in accordance with DIN 53513 at 60°C in tension at 10 Hz, 15% static elongation, and 1% dynamic elongation.
A synchronous memory device for controlling a burst write operation, comprising: a first flip-flop circuit for buffering chip enable signal (CE#) in synchronization with a clock signal associated with the burst write operation; a second flip-flop circuit for buffering a write enable signal (WE#) in synchronization with the clock signal; logic circuit coupled to receive the buffered chip enable signal and write enable signal output from the first and second flip-flop circuits and configured to generate a burst write set signal; and an SR-latch circuit coupled to receive the burst write set signal and a burst reset signal from an inverted output of the first flip-flop circuit, and configured to output a burst mode signal, wherein the activation of the burst mode signal triggers entry into the burst write mode, and deactivation of the burst mode signal triggers exit from the burst write operation, and wherein the burst mode signal is input to a reset input of the second flip-flop circuit so that the burst mode signal is held active regardless of the state of the write enable signal (WE#). a first flip-flop circuit for buffering chip enable signal (CE#) in synchronization with a clock signal associated with the burst write operation; a second flip-flop circuit for buffering a write enable signal (WE#) in synchronization with the clock signal; logic circuit coupled to receive the buffered chip enable signal and write enable signal output from the first and second flip-flop circuits and configured to generate a burst write set signal; and an SR-latch circuit coupled to receive the burst write set signal and a burst reset signal from an inverted output of the first flip-flop circuit, and configured to output a burst mode signal, wherein the activation of the burst mode signal triggers entry into the burst write mode, and deactivation of the burst mode signal triggers exit from the burst write operation, and wherein the burst mode signal is input to a reset input of the second flip-flop circuit so that the burst mode signal is held active regardless of the state of the write enable signal (WE#).
A dehumidifying and cooling apparatus comprising: a housing having first and second channels (110, 120) formed therein, the first channel being configured to be travelled therealong by first air, the second channel being configured to be travelled therealong by second air; a heating unit disposed in the first channel to heat the first air; a desiccant rotor rotatably installed in the housing such that the desiccant rotor is configured to be dried by the first air heated by the heating unit and to absorb moisture from the second air; a cooling unit and a refrigerant circulation unit comprising a refrigerant circulation circuit comprising a compressor and a condenser, characterized in that the cooling unit is disposed in the second channel to cool the second air which has passed through the desiccant rotor and that the condenser is disposed in the second channel so that a refrigerant circulating in the condenser is condensed by heat exchange with the second air cooled by the cooling unit. a housing having first and second channels (110, 120) formed therein, the first channel being configured to be travelled therealong by first air, the second channel being configured to be travelled therealong by second air; a heating unit disposed in the first channel to heat the first air; a desiccant rotor rotatably installed in the housing such that the desiccant rotor is configured to be dried by the first air heated by the heating unit and to absorb moisture from the second air; a cooling unit and a refrigerant circulation unit comprising a refrigerant circulation circuit comprising a compressor and a condenser, characterized in that the cooling unit is disposed in the second channel to cool the second air which has passed through the desiccant rotor and that the condenser is disposed in the second channel so that a refrigerant circulating in the condenser is condensed by heat exchange with the second air cooled by the cooling unit.
A method for determining an evasive path for a host vehicle, the method comprising: - establishing a predicted traffic environment of the host vehicle in a time-lateral position domain, the predicted traffic environment comprising an object prediction representation of a traffic object; - determining a start node for the host vehicle, the start node representing a start time and a start lateral position in the predicted traffic environment; - defining an end node for the host vehicle, the end node representing an end time in the predicted traffic environment; - placing several boundary nodes relative to the object prediction representation in the predicted traffic environment between the start node and the end node, wherein the object prediction representation of the traffic object includes a set of points connected by straight lines, and wherein each boundary node is placed a predetermined lateral distance from a respective corner of the object prediction representation; - setting node connections (30,32,34a-b,36a-b,38,40,42) between the start node, the boundary nodes, and the end node, thereby defining a connectivity map with possible node connections in the predicted traffic environment; and - traversing the nodes using a graph-search algorithm in order to find a path from the start node to the end node with a lowest cost, whereby the path with the lowest cost is selected as the evasive path for the host vehicle. - establishing a predicted traffic environment of the host vehicle in a time-lateral position domain, the predicted traffic environment comprising an object prediction representation of a traffic object; - determining a start node for the host vehicle, the start node representing a start time and a start lateral position in the predicted traffic environment; - defining an end node for the host vehicle, the end node representing an end time in the predicted traffic environment; - placing several boundary nodes relative to the object prediction representation in the predicted traffic environment between the start node and the end node, wherein the object prediction representation of the traffic object includes a set of points connected by straight lines, and wherein each boundary node is placed a predetermined lateral distance from a respective corner of the object prediction representation; - setting node connections (30,32,34a-b,36a-b,38,40,42) between the start node, the boundary nodes, and the end node, thereby defining a connectivity map with possible node connections in the predicted traffic environment; and - traversing the nodes using a graph-search algorithm in order to find a path from the start node to the end node with a lowest cost, whereby the path with the lowest cost is selected as the evasive path for the host vehicle.
An electrolyte composition suitable for an alkali battery, said electrolyte composition comprising: a) at least one alkali metal salt of formula: wherein, M + is Li +, Na + or K +; R F is -C n F 2n+1, wherein n is an integer selected from 0, 1, 2, 3 and 4; R 1 is a -C m H 2m+1 alkyl group and R 2 is a -Cm'H 2m'+1, wherein m and m' are integers so that 36 ≥ m + m' ≥ 5; and b) an electrochemical solvent, wherein the electrochemical solvent is any liquid, solid or gel compound capable of storing and transporting ions, so long as the compound is substantially electrochemically and chemically unreactive with respect to the anode and the cathode, and the compound facilitates the transport of ions between the anode and the cathode. a) at least one alkali metal salt of formula: wherein, M + is Li +, Na + or K +; R F is -C n F 2n+1, wherein n is an integer selected from 0, 1, 2, 3 and 4; R 1 is a -C m H 2m+1 alkyl group and R 2 is a -Cm'H 2m'+1, wherein m and m' are integers so that 36 ≥ m + m' ≥ 5; and M + is Li +, Na + or K +; R F is -C n F 2n+1, wherein n is an integer selected from 0, 1, 2, 3 and 4; R 1 is a -C m H 2m+1 alkyl group and R 2 is a -Cm'H 2m'+1, wherein m and m' are integers so that 36 ≥ m + m' ≥ 5; and b) an electrochemical solvent, wherein the electrochemical solvent is any liquid, solid or gel compound capable of storing and transporting ions, so long as the compound is substantially electrochemically and chemically unreactive with respect to the anode and the cathode, and the compound facilitates the transport of ions between the anode and the cathode.
Ignition device consisting of a mechanical trigger, a thermal or shock tube of variable length and a detonator for military or police use, whereby the detonator, which is designed to suit a variety of explosive charges, is arranged together with the tube in a protective tube, the front end having end plates and the rear end having an end disc fixing the detonator and the tube end, whereby the tube enclosing the detonator is mounted in the protective tube and is arranged and designed to be extractable from the protective tube with the detonator, characterised in that the trigger is also arranged in the protective tube and fixed by the end plate and surrounded by the tube and the protective tube having a receiving inner tube holding the windings (17, 18, 19) of the tube, whereby the tube is covered to the inner wall of the protective tube by heat shrink tubing.
An impact printer for printing a flat printing medium, comprising a printing head, a roller opposite the printing head, and a feed device for conveying the printing medium in a feeding direction, wherein, as seen in the feeding direction, a heating device for heating the printing medium is arranged before the printing head, characterized in that the heating device comprises a rigid guide part, especially a guide plate, and the guide part is formed at least in some sections as a cylinder segment, and is arranged at least in some sections opposite the roller.
Railway vehicle car, comprising: - a roof, - a box mounted on the roof, - a least one primary box support, inserted between the box and the roof, said primary support being arranged in a peripheral part of the box and being suitable for bearing the weight of the box, characterized in that it includes at least one secondary support inserted between the box and the roof, the secondary support being arranged in a central part of the box and being able to bear the weight of the box in case of collapse of the roof in the location of said primary support. - a roof, - a box mounted on the roof, - a least one primary box support, inserted between the box and the roof, said primary support being arranged in a peripheral part of the box and being suitable for bearing the weight of the box,
Device for fastening a sanitary object, in particular a wash basin or a mounting frame for holding a sanitary object, to a building wall or to a support, comprising a bolt-shaped or rod-shaped screw element, which has an external thread (4.1) at least along a length section, and a screw-nut type counter element, wherein the counter element is composed of a channel-shaped connecting part having an internal partial thread (5.7) and a latch, wherein the connecting part has a free space into which the screw element is radially displaceable in order to release the screw element from the internal partial thread (5.7), the latch being displaceable on the connecting part substantially axially to the longitudinal axis of the screw element from a non-contact position to a contact position and vice versa, wherein the latch in the contact position holds the screw element in engagement with the internal partial thread (5.7), and wherein the latch is designed as an axial slide, which is axial to the longitudinal axis of the screw element, for coarse adjustment and as a rotary handle for manual fine adjustment of an mounting depth or an axial position.
An image heating device comprising: a moving member configured to move while an outer surface of the moving member contacts a recording material; a heater configured to contact an inner surface of the moving member; a holding member configured to hold the heater; a nip portion forming member configured to contact the outer surface of the moving member, so as to form a nip portion; a high thermal conductive member held between the holding member and the heater; and a pressure applying member configured to apply a pressure to the nip portion, wherein, the recording material on which an image has been formed is heated by heat received from the moving member while being nipped and conveyed at the nip portion, characterized in that the holding member includes a holding surface configured to hold the heater via the high thermal conductive member, and a recessed portion provided adjacent to the holding surface in a direction orthogonal to a recording material conveyance direction, and configured so that no pressure is applied to the high thermal conductive member, or a reduced pressure is applied to the high thermal conductive member as compared to the holding surface. a moving member configured to move while an outer surface of the moving member contacts a recording material; a heater configured to contact an inner surface of the moving member; a holding member configured to hold the heater; a nip portion forming member configured to contact the outer surface of the moving member, so as to form a nip portion; a high thermal conductive member held between the holding member and the heater; and a pressure applying member configured to apply a pressure to the nip portion, wherein, the recording material on which an image has been formed is heated by heat received from the moving member while being nipped and conveyed at the nip portion, characterized in that the holding member includes a holding surface configured to hold the heater via the high thermal conductive member, and a recessed portion provided adjacent to the holding surface in a direction orthogonal to a recording material conveyance direction, and configured so that no pressure is applied to the high thermal conductive member, or a reduced pressure is applied to the high thermal conductive member as compared to the holding surface.
A data processing method comprising: processing, using a processor coupled to a High-bandwidth Digital Content Protection 'HDCP' compliant source device, a System Renewability Message 'SRM'; and storing SRM data in a memory (26, 36, 42), coupled to the processor; characterised in that: said processing is applied to an SRM which includes first and second generation SRM portions that respectively comprise first and second lists of unique privilege-revoked identifiers for receiver devices; and said storing SRM data is storing of: (a) the first generation SRM portion but not the second generation SRM portion, or (b) the first and second generation SRM portions, based on whether or not the source device is a first generation HDCP device, wherein first generation HDCP devices have sufficient memory capacity to store the first generation SRM portion but insufficient memory capacity to store both the first and second generation SRM portions. processing, using a processor coupled to a High-bandwidth Digital Content Protection 'HDCP' compliant source device, a System Renewability Message 'SRM'; and storing SRM data in a memory (26, 36, 42), coupled to the processor; characterised in that: said processing is applied to an SRM which includes first and second generation SRM portions that respectively comprise first and second lists of unique privilege-revoked identifiers for receiver devices; and said storing SRM data is storing of: (a) the first generation SRM portion but not the second generation SRM portion, or (b) the first and second generation SRM portions, based on whether or not the source device is a first generation HDCP device, wherein first generation HDCP devices have sufficient memory capacity to store the first generation SRM portion but insufficient memory capacity to store both the first and second generation SRM portions. said processing is applied to an SRM which includes first and second generation SRM portions that respectively comprise first and second lists of unique privilege-revoked identifiers for receiver devices; and said storing SRM data is storing of: (a) the first generation SRM portion but not the second generation SRM portion, or (b) the first and second generation SRM portions, based on whether or not the source device is a first generation HDCP device, wherein first generation HDCP devices have sufficient memory capacity to store the first generation SRM portion but insufficient memory capacity to store both the first and second generation SRM portions. (a) the first generation SRM portion but not the second generation SRM portion, or (b) the first and second generation SRM portions,
A method for constructing a space division-multiplexing optical transmission system, having the same amount of available power as an equivalent non SDM optical transmission system, the method comprising: providing an optical cable having a number of spatial dimensions; providing a spatial multiplexer configured to multiplex modulated optical signals on the number of spatial dimensions; providing a plurality of optical amplifiers (108A... 108n), each of the optical amplifiers (108A... 108n) being configured for amplifying the plurality of spatial dimensions; providing a spatial demultiplexer; and coupling the spatial multiplexer, the plurality of optical amplifiers (108A...108n) and the spatial demultiplexer to the optical cable, characterised by: setting the SDM optical transmission system to utilize a system bandwidth of 30nm or less, the system bandwidth being the range of wavelengths that are transmittable on the SDM optical system; and setting the number of spatial dimensions for the SDM optical transmission system depending on the system bandwidth, the number of spatial dimensions being two or more. providing an optical cable having a number of spatial dimensions; providing a spatial multiplexer configured to multiplex modulated optical signals on the number of spatial dimensions; providing a plurality of optical amplifiers (108A... 108n), each of the optical amplifiers (108A... 108n) being configured for amplifying the plurality of spatial dimensions; providing a spatial demultiplexer; and coupling the spatial multiplexer, the plurality of optical amplifiers (108A...108n) and the spatial demultiplexer to the optical cable, characterised by: setting the SDM optical transmission system to utilize a system bandwidth of 30nm or less, the system bandwidth being the range of wavelengths that are transmittable on the SDM optical system; and setting the number of spatial dimensions for the SDM optical transmission system depending on the system bandwidth, the number of spatial dimensions being two or more. setting the SDM optical transmission system to utilize a system bandwidth of 30nm or less, the system bandwidth being the range of wavelengths that are transmittable on the SDM optical system; and setting the number of spatial dimensions for the SDM optical transmission system depending on the system bandwidth, the number of spatial dimensions being two or more.
A CPAP mask assembly for use with a system for supplying breathable gas pressurized above atmospheric pressure to a human for treatment of obstructive sleep apnea, the CPAP mask assembly comprising: a mask shell adapted to be in fluid communication with a gas supply conduit; and a gas washout vent assembly including an insert of relatively flexible elastomeric material, the insert being attachable to the mask assembly or conduit, characterized in that the insert includes a plurality of orifices therethrough, wherein each orifice extends from an inner side of the insert placed, in use, adjacent the human's face to an outer side placed, in use, adjacent the atmosphere, and the diameter of each orifice at the inner side of the insert is approximately twice as large as the diameter of the orifice at the outer side of the insert. a mask shell adapted to be in fluid communication with a gas supply conduit; and a gas washout vent assembly including an insert of relatively flexible elastomeric material, the insert being attachable to the mask assembly or conduit, characterized in that the insert includes a plurality of orifices therethrough, wherein each orifice extends from an inner side of the insert placed, in use, adjacent the human's face to an outer side placed, in use, adjacent the atmosphere, and the diameter of each orifice at the inner side of the insert is approximately twice as large as the diameter of the orifice at the outer side of the insert.