mhurhangee/ep-ind-claims huggingface dataset:
Electrically operated vehicle, having - a vehicle roof, - at least one heat sink cover, with at least one air throughflow body having vent openings and having an air throughflow direction transverse to a direction of travel of the vehicle, at least one inlet flap on an air intake side of the air throughflow body and at least one outlet flap on an air outflow side of the air throughflow body, wherein, in the closed state, the inlet flap and the outlet flap are oriented along the direction of travel and obliquely to the air throughflow direction, and, seen in plan view, the vent openings are covered by the at least one inlet flap and the at least one outlet flap taken together, in the closed state, by at least 90% and, in the open state by no more than 60%, and - at least one braking resistor in the air throughflow body, wherein - the vent openings are oriented parallel to side surfaces of the vehicle with a tolerance of no more than 40°, - the inlet flap and the outlet flap each have a stationary lower part closer to the vehicle roof and a movable upper part further removed from the vehicle roof, - the inlet flap and the outlet flap are arranged symmetrically to a vehicle central axis which is oriented perpendicularly to the direction of travel and stands vertically, and - seen in a plan view along the air throughflow direction, the lower parts cover the vent openings by at least 25% and by no more than 60%. - a vehicle roof, - at least one heat sink cover, with at least one air throughflow body having vent openings and having an air throughflow direction transverse to a direction of travel of the vehicle, at least one inlet flap on an air intake side of the air throughflow body and at least one outlet flap on an air outflow side of the air throughflow body, wherein, in the closed state, the inlet flap and the outlet flap are oriented along the direction of travel and obliquely to the air throughflow direction, and, seen in plan view, the vent openings are covered by the at least one inlet flap and the at least one outlet flap taken together, in the closed state, by at least 90% and, in the open state by no more than 60%, and - at least one braking resistor in the air throughflow body, wherein - the vent openings are oriented parallel to side surfaces of the vehicle with a tolerance of no more than 40°, - the inlet flap and the outlet flap each have a stationary lower part closer to the vehicle roof and a movable upper part further removed from the vehicle roof, - the inlet flap and the outlet flap are arranged symmetrically to a vehicle central axis which is oriented perpendicularly to the direction of travel and stands vertically, and - seen in a plan view along the air throughflow direction, the lower parts cover the vent openings by at least 25% and by no more than 60%.
Movement system that is associable with a wrapping machine for wrapping a load with a film comprising at least one operating unit (30, 40, 50, 80) for performing operations on said load and/or on said film, said system comprising shuttle means (11, 12, 21, 22; 32; 41, 42; 52; 111) that is movable for supporting and moving at least said operating unit (30, 40, 50, 80) along a path at least between an operating position (F1, F2, F3, F4, F5), in which said operating unit (30, 40, 50, 80) can perform operations on said load and/or on said film and/or can interact with said wrapping machine, and a non-operating position (N1; N2) in which said operating unit (30, 40, 50, 80) is outside a working zone of said wrapping machine in order not to interfere with the operation of the latter, said system being characterised in that said shuttle means comprises a plurality of shuttles (11, 12, 21, 22; 32; 41, 42; 52; 111) that are connectable together to form at least one convoy ( 5, 6, 7, 8) of shuttles.
A method for operating a user equipment (110, 210) in a wireless communications network, the method comprising: when a measurement resource restriction is configured, verifying, by a user equipment, UE, whether stored system information is valid by examining a system information identifier after a modification period has occurred. when a measurement resource restriction is configured, verifying, by a user equipment, UE, whether stored system information is valid by examining a system information identifier after a modification period has occurred.
An indwelling needle assembly, comprising; an inner needle having a sharp point at a distal end; an inner-needle hub fixed to a proximal portion of the inner needle; a hollow outer needle in which the inner needle is inserted; an outer-needle hub fixed to a proximal portion of the outer needle; a protector detachably connected to the outer-needle hub, the protector covering at least the point of the inner needle upon pulling of the inner needle out of the outer needle; and characterised by a finger hold provided on the outer-needle hub or the protector, the finger hold when being pushed by a finger arranged to move the outer needle in the distal direction relative to the inner needle, wherein the finger hold has a shape such that, when the outer needle is moved in the distal direction relative to the inner needle by distally pushing the finger hold, a force in an upward perpendicular direction relative to the axis of the outer needle acts on the finger hold, the finger hold is disposed so as to project in an upward direction, and the finger hold has on the proximal side a finger hold surface on which to place a finger, the finger hold has an inclined plate which is inclined toward the proximal side so that a tip of the inclined plate is located on the proximal side relative to a base end of the inclined plate, and a proximal-side surface of the inclined plate constitutes the finger hold surface. an inner needle having a sharp point at a distal end; an inner-needle hub fixed to a proximal portion of the inner needle; a hollow outer needle in which the inner needle is inserted; an outer-needle hub fixed to a proximal portion of the outer needle; a protector detachably connected to the outer-needle hub, the protector covering at least the point of the inner needle upon pulling of the inner needle out of the outer needle; and characterised by a finger hold provided on the outer-needle hub or the protector, the finger hold when being pushed by a finger arranged to move the outer needle in the distal direction relative to the inner needle, wherein the finger hold has a shape such that, when the outer needle is moved in the distal direction relative to the inner needle by distally pushing the finger hold, a force in an upward perpendicular direction relative to the axis of the outer needle acts on the finger hold, the finger hold is disposed so as to project in an upward direction, and the finger hold has on the proximal side a finger hold surface on which to place a finger, the finger hold has an inclined plate which is inclined toward the proximal side so that a tip of the inclined plate is located on the proximal side relative to a base end of the inclined plate, and a proximal-side surface of the inclined plate constitutes the finger hold surface.
A computer-implemented method for controlling chamber-to-chamber variability during manufacturing of a device on wafers, the method comprising: for each current chamber in a multi-chamber processing platform, obtaining a spatial model for a wafer, wherein the spatial model is created by a first machine-learning engine based on a first set of metrology data on one or more dimensions of interest of the device; obtaining one or more parameters of the current chamber; using the spatial model and the one or more parameters of the current chamber to predict spatial measurements of the one or more dimensions of interest in the device across the wafer; obtaining reference spatial measurements of the one or more dimensions of interest in the device across the wafer, wherein the reference spatial measurements are obtained by processing the device in a reference chamber; comparing the predicted spatial measurements with the reference spatial measurements to produce a metric indicating variation of performance between the current chamber and the reference chamber; and recommending, based on a multi-constraint optimization of the metric performed by a second machine-learning engine, adjustments for at least some of the one or more parameters of the current chamber, so that a performance of the current chamber substantially matches a performance of the reference chamber. for each current chamber in a multi-chamber processing platform, obtaining a spatial model for a wafer, wherein the spatial model is created by a first machine-learning engine based on a first set of metrology data on one or more dimensions of interest of the device; obtaining one or more parameters of the current chamber; using the spatial model and the one or more parameters of the current chamber to predict spatial measurements of the one or more dimensions of interest in the device across the wafer; obtaining reference spatial measurements of the one or more dimensions of interest in the device across the wafer, wherein the reference spatial measurements are obtained by processing the device in a reference chamber; comparing the predicted spatial measurements with the reference spatial measurements to produce a metric indicating variation of performance between the current chamber and the reference chamber; and recommending, based on a multi-constraint optimization of the metric performed by a second machine-learning engine, adjustments for at least some of the one or more parameters of the current chamber, so that a performance of the current chamber substantially matches a performance of the reference chamber.
An information receiving method, wherein the method comprises: sending, by a terminal device, a random access signal to a network device on a random access resource; determining, by the terminal device, a random access identifier corresponding to the random access resource based on a time-frequency resource sequence number of the random access resource and a carrier identifier of a carrier on which the random access resource is located; and receiving, by the terminal device, a random access response from the network device based on the random access identifier on a downlink carrier; and wherein the random access resource is on a first uplink carrier or a second uplink carrier, and the first uplink carrier and the second uplink carrier are both corresponding to the downlink carrier, and the first uplink carrier is a supplementary uplink, SUL carrier, and the second uplink carrier is a time division duplex, TDD uplink carrier; and a relationship between the random access identifier, the time-frequency resource sequence number and the carrier identifier meets: S = 1 + t _ id + n 2 * f _ id + n 3 * carrier_id; wherein S is the random access identifier, t_id is a sequence number of a first symbol of the random access resource, f id is a frequency domain resource sequence number of the random access resource in the first symbol, carrier id is the carrier identifier, and both n2 and n3 are positive integers. sending, by a terminal device, a random access signal to a network device on a random access resource; determining, by the terminal device, a random access identifier corresponding to the random access resource based on a time-frequency resource sequence number of the random access resource and a carrier identifier of a carrier on which the random access resource is located; and receiving, by the terminal device, a random access response from the network device based on the random access identifier on a downlink carrier; and wherein the random access resource is on a first uplink carrier or a second uplink carrier, and the first uplink carrier and the second uplink carrier are both corresponding to the downlink carrier, and the first uplink carrier is a supplementary uplink, SUL carrier, and the second uplink carrier is a time division duplex, TDD uplink carrier; and a relationship between the random access identifier, the time-frequency resource sequence number and the carrier identifier meets: S = 1 + t _ id + n 2 * f _ id + n 3 * carrier_id; wherein S is the random access identifier, t_id is a sequence number of a first symbol of the random access resource, f id is a frequency domain resource sequence number of the random access resource in the first symbol, carrier id is the carrier identifier, and both n2 and n3 are positive integers.
An engine starting device comprising: a portable unit which can be carried by a driver, and in which a transmitting unit capable of transmitting an ID code inherent to a vehicle is arranged; a control unit which includes a substrate on which a receiving unit (3a, 3b) capable of receiving the ID code transmitted from the transmitting unit, and a determination unit configured to determine whether the ID code received by the receiving unit (3a, 3b) is a pre-registered legitimate ID are formed; a main body part which includes an operation knob configured to be rotationally operated between an off position at which an engine of the vehicle is to be stopped and an on position at which the engine is to be started, and which is capable of being fixed between a bar-shaped handle (H, B) and a speed meter of the vehicle; and a regulation unit which is configured to regulate a rotational operation of the operation knob, and which is configured to release a rotation-regulated state of the operation knob on condition that the ID code received by the receiving unit (3a, 3b) is determined as a legitimate ID by the determination unit, characterised in that the regulation unit is attached to a left side part of the main body part and the control unit is attached to a right side part of the main body part, as seen from a driver seat-side of the vehicle. a portable unit which can be carried by a driver, and in which a transmitting unit capable of transmitting an ID code inherent to a vehicle is arranged; a control unit which includes a substrate on which a receiving unit (3a, 3b) capable of receiving the ID code transmitted from the transmitting unit, and a determination unit configured to determine whether the ID code received by the receiving unit (3a, 3b) is a pre-registered legitimate ID are formed; a main body part which includes an operation knob configured to be rotationally operated between an off position at which an engine of the vehicle is to be stopped and an on position at which the engine is to be started, and which is capable of being fixed between a bar-shaped handle (H, B) and a speed meter of the vehicle; and a regulation unit which is configured to regulate a rotational operation of the operation knob, and which is configured to release a rotation-regulated state of the operation knob on condition that the ID code received by the receiving unit (3a, 3b) is determined as a legitimate ID by the determination unit, characterised in that the regulation unit is attached to a left side part of the main body part and the control unit is attached to a right side part of the main body part, as seen from a driver seat-side of the vehicle.
A cosmetic or dermatological preparation which comprises oligopeptide 21 and a composition comprising (i) glycoprotein 1; (ii) glycoprotein 2; (iii) ginseng extract; and (iv) horsetail extract. oligopeptide 21 and a composition comprising (i) glycoprotein 1; (ii) glycoprotein 2; (iii) ginseng extract; and (iv) horsetail extract. (i) glycoprotein 1; (ii) glycoprotein 2; (iii) ginseng extract; and (iv) horsetail extract.
A regulating device for an internal combustion engines having an intake pipe, an exhaust gas recirculation pipe that opens into said intake pipe, a housing in which said intake pipe and said exhaust gas recirculation pipe are formed, a shaft acting as an axis of rotation on which a regulating element is eccentrically mounted and which is arranged perpendicularly to the center lines of said intake pipe and of said exhaust gas recirculation pipe, wherein in a first end position, in which said intake pipe is at least throttled upstream of an opening of said exhaust gas recirculation pipe, a normal vector of a first surface of said regulating element points to the upstream side of said intake pipe, and in a second end position, in which said exhaust gas recirculation pipe is closed, a normal vector of a second surface of said regulating element points to said exhaust gas recirculation pipe, characterized in that on said second surface guide ribs are formed along which an exhaust gas flow flows into said intake pipe when said exhaust gas recirculation pipe is opened.
Light signal for installation in the region of a traffic route, in particular a railway track, and for displaying signal aspects, comprising: a) a two-part signal mast, comprising a foot part and a height-adjustable part, wherein the height-adjustable part can be connected to the foot part at different mounting heights; b) an insulating layer, in particular an insulating plate, for the galvanic isolation of the foot part from the height-adjustable part, c) insulating elements, such as e.g. washers and/or threaded bushings made of plastic, for the galvanic isolation of the connection of the foot part and the height-adjustable part; d) a sleeve element at least partially surrounding the signal mast and made of an insulating material; and e) a signal head fastened to the height-adjustable part with signal lights (8, 10, 12) correspondingly provided for displaying the signal aspects. a) a two-part signal mast, comprising a foot part and a height-adjustable part, wherein the height-adjustable part can be connected to the foot part at different mounting heights; b) an insulating layer, in particular an insulating plate, for the galvanic isolation of the foot part from the height-adjustable part, c) insulating elements, such as e.g. washers and/or threaded bushings made of plastic, for the galvanic isolation of the connection of the foot part and the height-adjustable part; d) a sleeve element at least partially surrounding the signal mast and made of an insulating material; and e) a signal head fastened to the height-adjustable part with signal lights (8, 10, 12) correspondingly provided for displaying the signal aspects.
An interface component, suitable for cooperating with a microfluidic device, the interface component comprising, one or more elements which can be selectively connected to a pneumatic system (71a,71 b) which can provide a positive and/or negative air flow to the one or more elements; wherein each of the one or more elements comprises, an input port which can be selectively fluidly connected to a pneumatic system (71a,71 b); a flow restrictor arranged in fluid communication with the input port, wherein the flow restrictor can restrict the flow of fluid through the element; and an aerosol filter which is arranged to be in fluid communication with the flow restrictor; and wherein the interface component further comprises one or more outlets, each of the one or more outlets being in fluid communication with a respective element, so that fluid can flow from the element out of the interface component via the one or more outlets; and wherein each of the one or more outlets can be selectively arranged to be in fluid communication with a respective reservoir (105,106,107,108) of a microfluidic device, characterized in that the interface component further comprises one or more magnetic assemblies, each of the magnetic assemblies comprise, a plunger, having a shaft wherein one end of the shaft is connected to a means for generating a magnetic field; a biasing means which biases the shaft in a first direction; and an electromagnet, which cooperates with the shaft, such that operating the electromagnet forces the shaft to move against in a second, opposite, direction, against the biasing force of the biasing means.
Process for removing an isocyanate-based residue from a substrate, wherein the residue is dissolved from the substrate using a mixture comprising a polyol, an inorganic base and an amine, where the polyol is selected from the group consisting of propanediol, butanediol, pentanediol and hexanediol and the two hydroxyl groups of this polyol are bound to adjacent carbon atoms.
A refrigeration system comprising: a plurality of compressors; a plurality of condensing units comprising a first condensing unit and at least one additional condensing unit, each condensing unit of said plurality of condensing units having at least one compressor of said plurality of compressors; and further comprising a first local control module located on said first condensing unit and a respective additional local control module (120") located on each additional condensing unit; characterised by: a communication link connected to said first local control module and each additional local control module (120"); wherein said first local control module is arranged to poll each additional local control module (120") via said communication link so as to determine the number of activated compressors and the number of deactivated compressors on each condensing unit, said first local control module being arranged to control said plurality of compressors based on said determining. a plurality of compressors; a plurality of condensing units comprising a first condensing unit and at least one additional condensing unit, each condensing unit of said plurality of condensing units having at least one compressor of said plurality of compressors; and further comprising a first local control module located on said first condensing unit and a respective additional local control module (120") located on each additional condensing unit; a communication link connected to said first local control module and each additional local control module (120"); wherein said first local control module is arranged to poll each additional local control module (120") via said communication link so as to determine the number of activated compressors and the number of deactivated compressors on each condensing unit, said first local control module being arranged to control said plurality of compressors based on said determining.