mhurhangee/ep-ind-claims huggingface dataset:
A lamp for a vehicle, comprising: a housing in which an open surface is formed; a first substrate and a second substrate are electrically connected; a light source is mounted on the first substrate and which is disposed in the housing such that the light source faces the open surface; a terminal part coupled to an end portion of the second substrate to be in contact with a terminal of a socket connected to an external power source; and a lens coupled to the housing to cover the open surface, wherein the first substrate includes slots for electrical connection and the second substrate includes fins for electrical connection, wherein the second substrate is electrically connected to the first substrate and perpendicularly coupled to the first substrate as the slots connect to the fins, wherein the slots for electrical connection are disposed at both side surfaces of the first substrate and the fins for electrical connection are disposed to extend from an upper end portion the second substrate, and wherein the terminal part includes a terminal piece comprising: a contact surface to be in contact with the terminal of the socket; and a body surface disposed to extend from the contact surface, characterized in that the terminal piece comprises guide surfaces disposed to extend downward from both side surfaces of the contact surface. a housing in which an open surface is formed; a first substrate and a second substrate are electrically connected; a light source is mounted on the first substrate and which is disposed in the housing such that the light source faces the open surface; a terminal part coupled to an end portion of the second substrate to be in contact with a terminal of a socket connected to an external power source; and a lens coupled to the housing to cover the open surface, wherein the first substrate includes slots for electrical connection and the second substrate includes fins for electrical connection, wherein the second substrate is electrically connected to the first substrate and perpendicularly coupled to the first substrate as the slots connect to the fins, wherein the slots for electrical connection are disposed at both side surfaces of the first substrate and the fins for electrical connection are disposed to extend from an upper end portion the second substrate, and wherein the terminal part includes a terminal piece comprising: a contact surface to be in contact with the terminal of the socket; and a body surface disposed to extend from the contact surface, a contact surface to be in contact with the terminal of the socket; and a body surface disposed to extend from the contact surface, characterized in that the terminal piece comprises guide surfaces disposed to extend downward from both side surfaces of the contact surface.
DEVICE FOR DETECTING OBSTACLES FOR A MOTORISED GATE OR THE LIKE, comprising at least two pairs of sensors each of which is formed by a transmitter and by a receiver (10, 11; 12, 13) and a beam of infrared rays (16 and 17), the pairs of sensors being arrangeable at the outer sides of an access passage, controlled by the gate or the like, having the same direction of transmission and being able to signal to a motor control unit of the gate the obstruction by an obstacle of said infrared signal, said device providing that a transmitter and a receiver belonging to the same pair can be configured to emit and receive an infrared signal at at least two pulse frequencies to avoid interference between the two pairs of sensors, the device being characterised in that the configuration of the pulse frequency of the transmitter and the receiver of the same pair occurs through the modification of the voltage of a logic input of a micro-controller of the device, at at least two voltage values corresponding to at least two distinct emission and reception frequencies, the configuration of the pulse frequency occurs by cutting of a printed circuit board of the transmitter and the respective receiver.
An expansion valve for a vapour compression system, the expansion valve comprising a first valve member, a second valve member and a third valve member, said valve members (17, 20, 21) being arranged in such a manner that relative movements at least between the first valve member and the second valve member, and between the first valve member and the third valve member are possible, the expansion valve being switchable between a first state in which an opening degree of the expansion valve is determined by the relative position of the first valve member and the second valve member, and a second state in which an opening degree of the expansion valve is determined by the relative position of the first valve member and the third valve member, wherein the expansion valve is automatically moved between the first state and the second state in response to a change in direction of fluid flow through the expansion valve, characterised in that the second valve member defines a first fluid passage, and the third valve member defines a second fluid passage, wherein end portions (18, 18a, 18b) of the first valve member are arranged adjacent to the fluid passages (22, 23) and are intended for being moved into the first fluid passage and the second fluid passage so that an opening degree of the expansion valve is defined by the fluid passages (22,23) and the end portions (18,18a,18b) in combination, wherein two compressible springs are arranged between the first valve member and the second valve member, and between the first valve member and the third valve member, respectively, and wherein the two compressible springs bias the first valve member in a direction away from the second valve member and in a direction away from the third valve member, and wherein the first valve member, in a rest position, where there is no fluid flow through the expansion valve, is arranged at substantially equal distance to the second valve member and the third valve member 21, and wherein an increase in differential pressure across the expansion valve results in the first valve member, in the first state, being moved towards the second valve member or, in the second state, being moved towards the third valve member, the increase in differential pressure resulting in a larger part of the fluid passages (22,23) being blocked by the end portions (18,18a,18b), and in the opening degree of the expansion valve thereby being decreased.
A composition for use in the treatment and/or prevention of a parasitic infection caused by a parasite belonging to the phylum Apicomplexa, said composition comprising an extract obtained from a red microalgae belonging to the species Porphyridium sp, said extract comprising exopolysaccharides obtained from said red microalgae.
Pneumatic vehicle tyre for motor cars, comprising a directional tread formed by diagonal grooves that run in a V-shape as main grooves, wherein a portion of the diagonal grooves from each tread half runs slightly over the circumferential central line of the tread into the respective other tread half and in each case merges there with a diagonal groove from the other tread half, such that sub-regions of positive profiles protrude out of each tread half into the other tread half, wherein the diagonal grooves together with the positive profiles arranged between them form identically designed profile structures or pitches (P 1, P 2, P 3) over the tyre circumference, which are provided in at least two different circumferential lengths, and wherein, in each pitch (P 1, P 2, P 3) along the circumferential central line (M-M) of the tread, there is a mutual offset (v) of the diagonal grooves of a pitch (P 1, P 2, P 3), which is the mutual distance between the diagonal groove which first arrives at ground level at the circumferential central line (M-M) when rolling during forward travel, and has its portion that runs over the circumferential central line of the tread within the respective pitch (P 1, P 2, P 3), and the diagonal groove which next arrives at ground level, characterized in that the tread is designed such that the offset v is determined in mm according to the following relationship and is the same size in all of the pitches (P 1, P 2, P 3): v = U 2 × n, where U is the circumference of the tyre along the circumferential central line in mm and n is the number of pitches P i over the tyre circumference and where the maximum deviation is ±2% of the pitch length of the shortest pitch.
A method for manufacturing a sandwich structure comprising a thermoplastic core which is arranged between two cover layers, in which the core is reinforced with fiber-reinforced thermoplastic reinforcing ribs which extend between the cover layers, which method comprises the following steps: a) providing a composite panel made of a thermoplastic core layer which is connected to a fiber-reinforced thermoplastic layer (14, 16); b) folding at least one edge of the composite panel over a length which is at least equal to the thickness of the panel, so that a segment is obtained which is covered on at least two adjacent surfaces (22, 24, 26) with a fiber-reinforced thermoplastic layer (14, 16); c) repeating steps a) and b) until the desired number of segments is obtained; d) arranging a number of segments next to one another between two cover layers in such a manner that each segment touches at least one of the two cover layers; and e) connecting the cover layers to the segments. a) providing a composite panel made of a thermoplastic core layer which is connected to a fiber-reinforced thermoplastic layer (14, 16); b) folding at least one edge of the composite panel over a length which is at least equal to the thickness of the panel, so that a segment is obtained which is covered on at least two adjacent surfaces (22, 24, 26) with a fiber-reinforced thermoplastic layer (14, 16); c) repeating steps a) and b) until the desired number of segments is obtained; d) arranging a number of segments next to one another between two cover layers in such a manner that each segment touches at least one of the two cover layers; and e) connecting the cover layers to the segments.
A method for processing a strand-shaped fiber bundle, - wherein the fiber bundle is sent to an air-jet spinning nozzle of a roving frame machine serving to produce roving, - wherein during normal operation of the air-jet spinning nozzle a twist is imparted to the fiber bundle within the air-jet spinning nozzle with the aid of a vortex air stream, so that a roving is formed from the fiber bundle, and - wherein the roving finally leaves the air-jet spinning nozzle via an outlet of the air-jet spinning nozzle, and wherein the roving leaving the air-jet spinning nozzle is deposited in or on a receptacle provided in the region of the roving frame machine, - wherein the roving is pulled out of the air-jet spinning nozzle with the aid of a draw-off device, characterized in that normal operation is interrupted by stop phases in which no roving is produced by the air-jet spinning nozzle, and in that a start phase is passed through between a stop phase and subsequent normal operation, while the roving produced by the air-jet spinning nozzle is at least temporarily not deposited in or on the receptacle after leaving the air-jet spinning nozzle, but is disposed of by means of a roving removal device, and in that with the aid of a deposition device the roving is deposited in or on the receptacle, and in that the roving forms a sag between the draw-off device and the deposition device, the vertical spatial extension of which is regulated via the deposition speed of the deposition device. - wherein the fiber bundle is sent to an air-jet spinning nozzle of a roving frame machine serving to produce roving, - wherein during normal operation of the air-jet spinning nozzle a twist is imparted to the fiber bundle within the air-jet spinning nozzle with the aid of a vortex air stream, so that a roving is formed from the fiber bundle, and - wherein the roving finally leaves the air-jet spinning nozzle via an outlet of the air-jet spinning nozzle, and - wherein the roving is pulled out of the air-jet spinning nozzle with the aid of a draw-off device, normal operation is interrupted by stop phases in which no roving is produced by the air-jet spinning nozzle, and in that a start phase is passed through between a stop phase and subsequent normal operation, while the roving produced by the air-jet spinning nozzle is at least temporarily not deposited in or on the receptacle after leaving the air-jet spinning nozzle, but is disposed of by means of a roving removal device, and in that with the aid of a deposition device the roving is deposited in or on the receptacle, and in that the roving forms a sag between the draw-off device and the deposition device, the vertical spatial extension of which is regulated via the deposition speed of the deposition device.
A session processing method in wireless communications, comprising: sending, by a terminal device, a session establishment request to a core network device via an access network device, wherein the session establishment request is used to request to establish a session, and the session is supported by a network slice corresponding to the session, the session establishment request includes the session requested to be established and indication information of the network slice corresponding to the session; receiving, by the terminal device, a session establishment failure message from the core network device, wherein the session establishment failure message comprises first indication information and a forbidden time period, the first indication information is used to indicate that a resource of the network slice is limited, the forbidden time period is corresponding to the network slice; determining, by the terminal device based on the session establishment failure message, that establishment of the session fails; determining, by the terminal device, the forbidden time period comprised in the session establishment failure message corresponding to the network slice; and forbidding the terminal device from sending another session establishment request requesting to establish the session within the forbidden time period. sending, by a terminal device, a session establishment request to a core network device via an access network device, wherein the session establishment request is used to request to establish a session, and the session is supported by a network slice corresponding to the session, the session establishment request includes the session requested to be established and indication information of the network slice corresponding to the session; receiving, by the terminal device, a session establishment failure message from the core network device, wherein the session establishment failure message comprises first indication information and a forbidden time period, the first indication information is used to indicate that a resource of the network slice is limited, the forbidden time period is corresponding to the network slice; determining, by the terminal device based on the session establishment failure message, that establishment of the session fails; determining, by the terminal device, the forbidden time period comprised in the session establishment failure message corresponding to the network slice; and forbidding the terminal device from sending another session establishment request requesting to establish the session within the forbidden time period.
A device for the automated high-pressure cleaning of the pipes of a heat exchanger, which comprises a mirror, with - a motor-driven positioning device, which comprises a) x-shaft, b) an x-carriage displaceable along the x-shaft by means of an x-electric motor, preferably a stepping motor, c) a y-shaft carried by the x-carriage, d) a y-carriage displaceable along the y-shaft by means of a y-electric motor, preferably a stepping motor, and a z-shaft carried by the y-carriage, - a high-pressure unit with more than one high-pressure hose, preferably with three high-pressure hoses, which can each be connected at one end to a high-pressure source and at their other end carry a nozzle, with a position sensor assigned to each high-pressure hose for detecting the hose movement, with a guide unit, which is arranged on the z-shaft and accommodates the high-pressure hose, - a camera which is arranged on the z-shaft, and - a control unit, which is connected to the camera, the high-pressure unit, the electric motors (32, 46) and the position sensors and to which a data processing system belongs, characterised in that - the motor-driven positioning device comprises an x=zero sensor (34, 36) and a y=zero sensor (48, 50), wherein the control unit is connected to the zero sensors (34, 36, 48, 50), - the high-pressure unit in each case comprises a lower stop collar for each high-pressure hose, which is arranged between the nozzle and the guide unit, - the high-pressure unit in each case comprises an upper stop collar, which is preferably arranged on the side of the guide unit lying opposite the nozzle, and - the camera is arranged detachably on the z-shaft. - a motor-driven positioning device, which comprises a) x-shaft, b) an x-carriage displaceable along the x-shaft by means of an x-electric motor, preferably a stepping motor, c) a y-shaft carried by the x-carriage, d) a y-carriage displaceable along the y-shaft by means of a y-electric motor, preferably a stepping motor, and a z-shaft carried by the y-carriage, - a high-pressure unit with more than one high-pressure hose, preferably with three high-pressure hoses, which can each be connected at one end to a high-pressure source and at their other end carry a nozzle, with a position sensor assigned to each high-pressure hose for detecting the hose movement, with a guide unit, which is arranged on the z-shaft and accommodates the high-pressure hose, - a camera which is arranged on the z-shaft, and - a control unit, which is connected to the camera, the high-pressure unit, the electric motors (32, 46) and the position sensors and to which a data processing system belongs, - the motor-driven positioning device comprises an x=zero sensor (34, 36) and a y=zero sensor (48, 50), wherein the control unit is connected to the zero sensors (34, 36, 48, 50), - the high-pressure unit in each case comprises a lower stop collar for each high-pressure hose, which is arranged between the nozzle and the guide unit, - the high-pressure unit in each case comprises an upper stop collar, which is preferably arranged on the side of the guide unit lying opposite the nozzle, and - the camera is arranged detachably on the z-shaft.
Method for producing a ceiling in a building, comprising the following steps: a) a plate-shaped ceiling element, which later remains in the structure, preferably in the form of a ceiling cladding or as a mounting for the ceiling cladding, in particular a dry building panel, is fixed on the already completed walls; b) the plate-shaped ceiling element is supported in a closely spaced manner, optionally by means of horizontal bars supported on support elements; c) optionally, an insulation (7, 9) and/or heating coils and/or an electric installation is placed on the plate-shaped ceiling element; d) a curable compound, for example concrete or prestressed concrete and/or a screed or heating screed or the like, is filled thereon, preferably in such a way that the curing compound also extends at least partially above the adjoining walls; e) wherein the plate-shaped ceiling element is penetrated by a plurality of elongated anchoring parts, which extend upward from the ceiling element into the curable compound and, after the solidification of the curable compound, are positively fixed therein, f) wherein the elongated anchoring parts are in the shape of screws, whose shaft ends protrude upward during the assembly; g) the support elements are removed after the curable compound has been cured to form a supporting layer, while the elongated anchoring parts remain in the structure and hold the plate-shaped ceiling element in place. a) a plate-shaped ceiling element, which later remains in the structure, preferably in the form of a ceiling cladding or as a mounting for the ceiling cladding, in particular a dry building panel, is fixed on the already completed walls; b) the plate-shaped ceiling element is supported in a closely spaced manner, optionally by means of horizontal bars supported on support elements; c) optionally, an insulation (7, 9) and/or heating coils and/or an electric installation is placed on the plate-shaped ceiling element; d) a curable compound, for example concrete or prestressed concrete and/or a screed or heating screed or the like, is filled thereon, preferably in such a way that the curing compound also extends at least partially above the adjoining walls; e) wherein the plate-shaped ceiling element is penetrated by a plurality of elongated anchoring parts, which extend upward from the ceiling element into the curable compound and, after the solidification of the curable compound, are positively fixed therein, f) wherein the elongated anchoring parts are in the shape of screws, whose shaft ends protrude upward during the assembly; g) the support elements are removed after the curable compound has been cured to form a supporting layer, while the elongated anchoring parts remain in the structure and hold the plate-shaped ceiling element in place.
Method for monitoring and for diagnosing a photovoltaic architecture, said architecture including a plurality of strings (Ch1, Ch2) of photovoltaic modules (Mi) that are connected in parallel, each string of photovoltaic modules including a plurality of photovoltaic modules that are connected in series, each photovoltaic module including a plurality of photovoltaic cells (Cx) that are connected in series, said architecture including bypass diodes for each bypassing one or more cells of the module if a cell is faulty, said method being characterized in that, for at least one photovoltaic module, it includes the following steps: - acquiring a plurality of temperature values for each cell (Cx) of said module over time so as to form, for each cell, a profile of temperature as a function of time; - determining a reference temperature value (Tref) of a cell on the basis of the acquired temperature values; - for a temperature profile of a cell of the module, comparing an acquired temperature value with said reference temperature value so as to determine a temperature difference; - determining the operating state of each cell by comparing said determined temperature difference with a stored threshold value (Vs). - acquiring a plurality of temperature values for each cell (Cx) of said module over time so as to form, for each cell, a profile of temperature as a function of time; - determining a reference temperature value (Tref) of a cell on the basis of the acquired temperature values; - for a temperature profile of a cell of the module, comparing an acquired temperature value with said reference temperature value so as to determine a temperature difference; - determining the operating state of each cell by comparing said determined temperature difference with a stored threshold value (Vs).