mhurhangee/ep-ind-claims huggingface dataset:
A plug with an automatic valve for engagement of a negative pressure prosthesis in the form of a shell, said plug comprising: - a fixing base provided with a tubular end-piece designed to be engaged in a fitting opening in the form of a shell, - a support part of the valve performing removal of air from the shell and preventing air from entering into the shell, said support part being articulated on the base and being movable by swivelling between a proximate position where the support part is pressed against the base and a separated position where the valve is away from the opening so as to make the inside of the shell communicate with the outside, - said valve having a bevelled hollowed flexible part provided with a slot which is normally closed and which opens due to the effect of the air expelled from the shell, characterized in that the base of the plug is further equipped: - with a clip-fastening part collaborating with a latching nose of the support part so as to perform positive latching of the plug in the proximate position to connect the valve to the opening, - and with an actuating tab to perform unlatching of the latching nose of the support part when movement of the plug to the separated position takes place. - a fixing base provided with a tubular end-piece designed to be engaged in a fitting opening in the form of a shell, - a support part of the valve performing removal of air from the shell and preventing air from entering into the shell, said support part being articulated on the base and being movable by swivelling between a proximate position where the support part is pressed against the base and a separated position where the valve is away from the opening so as to make the inside of the shell communicate with the outside, - said valve having a bevelled hollowed flexible part provided with a slot which is normally closed and which opens due to the effect of the air expelled from the shell, - with a clip-fastening part collaborating with a latching nose of the support part so as to perform positive latching of the plug in the proximate position to connect the valve to the opening, - and with an actuating tab to perform unlatching of the latching nose of the support part when movement of the plug to the separated position takes place.
A reception apparatus comprising: circuitry (211; 214) configured to receive a broadcast wave including a first LLS stream in a first frequency band of the broadcast wave, the first LLS stream including one or more low level signaling tables that include one or more respective service list tables (SLTs), each of the one or more LLS tables including a provider identifier indicating a broadcasting provider with which the respective LLS table is associated, and a numerical parameter indicating a number of different broadcasting providers in the first frequency band; and perform a frequency scan on the broadcast wave based on the number of different broadcasting providers, wherein the circuitry (211; 214) is configured to upon receipt of each one of the one or more LLS tables included in the first LLS stream, determine that receipt of a first set of service list information from the first LLS stream is completed in case a current number of different broadcasting providers from which an LLS table or tables have been received reaches the number of different broadcasting providers indicated by the numerical parameter; transition to receive a second set of service list information from a second LLS stream in a second frequency band of the broadcast wave in response to the receipt of the first set of service list information from the first LLS stream being determined as completed; and generate service information based on the first set of service list information and the second set of service list information. circuitry (211; 214) configured to receive a broadcast wave including a first LLS stream in a first frequency band of the broadcast wave, the first LLS stream including one or more low level signaling tables that include one or more respective service list tables (SLTs), each of the one or more LLS tables including a provider identifier indicating a broadcasting provider with which the respective LLS table is associated, and a numerical parameter indicating a number of different broadcasting providers in the first frequency band; and perform a frequency scan on the broadcast wave based on the number of different broadcasting providers, wherein the circuitry (211; 214) is configured to upon receipt of each one of the one or more LLS tables included in the first LLS stream, determine that receipt of a first set of service list information from the first LLS stream is completed in case a current number of different broadcasting providers from which an LLS table or tables have been received reaches the number of different broadcasting providers indicated by the numerical parameter; transition to receive a second set of service list information from a second LLS stream in a second frequency band of the broadcast wave in response to the receipt of the first set of service list information from the first LLS stream being determined as completed; and generate service information based on the first set of service list information and the second set of service list information.
Method for producing cement by means of hydrothermal treatment of a starting material, which contains sources for CaO and SiO 2, in an autoclave at a temperature of 100 to 300°C, and tempering the obtained intermediate product at 350 to 700°C, characterised in that water formed during tempering is removed by the tempering taking place under a continuous gas flow for removing the water and/or the intermediate product being ground in order to remove water formed during tempering.
An inkjet printing apparatus that is configured to record an image by ejecting electromagnetic curing type ink to a recording medium, comprising: a casing; a transport mechanism that is configured to transport a recording medium inside said casing along a prescribed transport path; a plurality of ejection heads arranged inside said casing and is configured to eject said ink to said recording medium; a process chamber having a first inlet and a first outlet arranged downstream from said ejection heads and for passage of said recording medium, said process chamber communicating with the interior of said casing through said first inlet; an irradiation unit that is configured to irradiate said recording medium inside said process chamber with an electromagnetic wave; an inert gas supplier that is configured to supply an inert gas into said process chamber; an air discharge part having an exhaust fan that is configured to communicate with the outside of said casing and to discharge atmosphere inside said process chamber to the outside of said process chamber and to the outside of said casing, a controller that is configured to control said exhaust fan in response to the amount of supply of inert gas by said inert gas supplier in order to reduce an internal pressure in said process chamber to less than an internal pressure in said casing; and a pre-curing unit that is configured to emit an electromagnetic wave for pre-curing said ink ejected from said ejection heads toward said recording medium. a casing; a transport mechanism that is configured to transport a recording medium inside said casing along a prescribed transport path; a plurality of ejection heads arranged inside said casing and is configured to eject said ink to said recording medium; a process chamber having a first inlet and a first outlet arranged downstream from said ejection heads and for passage of said recording medium, said process chamber communicating with the interior of said casing through said first inlet; an irradiation unit that is configured to irradiate said recording medium inside said process chamber with an electromagnetic wave; an inert gas supplier that is configured to supply an inert gas into said process chamber; an air discharge part having an exhaust fan that is configured to communicate with the outside of said casing and to discharge atmosphere inside said process chamber to the outside of said process chamber and to the outside of said casing, a controller that is configured to control said exhaust fan in response to the amount of supply of inert gas by said inert gas supplier in order to reduce an internal pressure in said process chamber to less than an internal pressure in said casing; and a pre-curing unit that is configured to emit an electromagnetic wave for pre-curing said ink ejected from said ejection heads toward said recording medium.
A radio frequency switch device (300; 500; 700; 800A; 800B; 900A; 900B; 1000A; 1000B; 1100; 1200; 1300) comprising: a first transistor (M 1; P 1) and a second transistor (M 2; P 2), wherein one of a drain terminal or source terminal of the first transistor (M 1; P 1) is coupled to one of a source terminal or drain terminal, respectively, of the second transistor (M 2; P 2) such that the first and second transistors are coupled in series to establish a switchable radio frequency path; and characterized by a first compensation network (C 1; 602-616) coupled between a body terminal of the first transistor (M 1; P 1) and the other one of the drain terminal or source terminal of the second transistor (M 2; P 2), wherein the first compensation network (C 1; 602-616) is configured to establish a path for current flowing between the body terminal of the first transistor (M 1; P 1) and the other one of the drain terminal or source terminal of the second transistor (M 2; P 2) in a first direction from the body terminal of the first transistor (M 1; P 1) to the other one of the drain terminal or source terminal of the second transistor (M 2; P 2) and to block current flowing in the first compensation network in a second direction opposite to the first direction. a first transistor (M 1; P 1) and a second transistor (M 2; P 2), wherein one of a drain terminal or source terminal of the first transistor (M 1; P 1) is coupled to one of a source terminal or drain terminal, respectively, of the second transistor (M 2; P 2) such that the first and second transistors are coupled in series to establish a switchable radio frequency path; and characterized by a first compensation network (C 1; 602-616) coupled between a body terminal of the first transistor (M 1; P 1) and the other one of the drain terminal or source terminal of the second transistor (M 2; P 2), wherein the first compensation network (C 1; 602-616) is configured to establish a path for current flowing between the body terminal of the first transistor (M 1; P 1) and the other one of the drain terminal or source terminal of the second transistor (M 2; P 2) in a first direction from the body terminal of the first transistor (M 1; P 1) to the other one of the drain terminal or source terminal of the second transistor (M 2; P 2) and to block current flowing in the first compensation network in a second direction opposite to the first direction.
Polymer dispersion comprising A) at least 20% by weight of dispersed polyolefin, B) at least one dispersing component that represents a copolymer which comprises one or more blocks A and one or more blocks X, the block A representing olefin copolymer sequences, hydrogenated polyisoprene sequences, hydrogenated copolymers of butadiene/isoprene or hydrogenated copolymers of butadiene/isoprene and styrene, and the block X representing polyacrylate-, polymethacrylate-, styrene-, α-methylstyrene-or N-vinyl-heterocyclic sequences and/or sequences of mixtures of polyacrylate-, polymethacrylate-, styrene-, α-methylstyrene-or N-vinyl-heterocycles, C) mineral oil and D) at least one compound comprising (oligo)oxyalkyl groups, which compound comprises at least one ethoxylated alcohol comprising from 2 to 8 ethoxy groups, the hydrophobic radical of the alcohol comprising from 4 to 22 carbon atoms. A) at least 20% by weight of dispersed polyolefin, B) at least one dispersing component that represents a copolymer which comprises one or more blocks A and one or more blocks X, the block A representing olefin copolymer sequences, hydrogenated polyisoprene sequences, hydrogenated copolymers of butadiene/isoprene or hydrogenated copolymers of butadiene/isoprene and styrene, and the block X representing polyacrylate-, polymethacrylate-, styrene-, α-methylstyrene-or N-vinyl-heterocyclic sequences and/or sequences of mixtures of polyacrylate-, polymethacrylate-, styrene-, α-methylstyrene-or N-vinyl-heterocycles, C) mineral oil and D) at least one compound comprising (oligo)oxyalkyl groups, which compound comprises at least one ethoxylated alcohol comprising from 2 to 8 ethoxy groups, the hydrophobic radical of the alcohol comprising from 4 to 22 carbon atoms.
A tocopheryl quinone derivative having the structure: wherein R 1, R 2 and R 3 = alkyl, fluoroalkyl, halogen or H; n = 1; R 4, R 5 = alkyl, fluoroalkyl, hydroxyl, alkoxy, or H; and each X = a halogen. wherein R 1, R 2 and R 3 = alkyl, fluoroalkyl, halogen or H; n = 1; R 4, R 5 = alkyl, fluoroalkyl, hydroxyl, alkoxy, or H; and each X = a halogen.
Airborne ultrasound testing system for a test object containing a sound generator (1;9) and a sound receiver and a control to control both, the sound generator (1;9) and the sound receiver, and a computer assisted test result interface to register or display a test result or an image of a tested test object derived from the signals of the sound receiver, characterized in that the sound generator is a resonance-free thermo-acoustic ultrasound generator which does not rely on mechanically deformable or oscillating parts, said sound generator (1, 9) is constructed as a pulsed laser which emits a Dirac-like excitation laser pulse having an excitation pulse signal of less than 1 microsecond and that the sound receiver is a membrane-free laser-based optical microphone, said membrane-free laser-based optical microphone detects pressure variations by optical means based on an interferometric read-out of the optical wavelength alteration caused by the sound-pressure induced alteration of the refractive index of the sound propagating medium, in an air or gas coupled pulse-echo arrangement or in an air or gas coupled transmission mode arrangement.
An elevator for conveying of goods, comprising - at least one circumferentially guided traction means, - at least one drive via which the traction means can be moved in a circumferential manner, - a plurality of receiving units for goods, which receiving units are mechanically coupled to the circumferentially guided traction means for moving goods and - a control unit connected to at least one sensor system, wherein the control unit, via the at least one sensor system, is configured for detecting and/or recognizing a torque acting on a drive shaft of the at least one drive over the course of time, and wherein the control unit is capable of deriving information pertaining to masses of goods, which are moved by means of the plurality of receiving units over a certain period of time, from the detected and/or recognized torque acting on the drive shaft over the course of time,, characterized in that - at least one bearing unit is assigned to the drive shaft of the at least one drive, and wherein - at least one support device is assigned to the at least one drive, which at least one support device comprises the sensor system. - at least one circumferentially guided traction means, - at least one drive via which the traction means can be moved in a circumferential manner, - a plurality of receiving units for goods, which receiving units are mechanically coupled to the circumferentially guided traction means for moving goods and - a control unit connected to at least one sensor system, wherein the control unit, via the at least one sensor system, is configured for detecting and/or recognizing a torque acting on a drive shaft of the at least one drive over the course of time, and wherein the control unit is capable of deriving information pertaining to masses of goods, which are moved by means of the plurality of receiving units over a certain period of time, from the detected and/or recognized torque acting on the drive shaft over the course of time,, characterized in that the control unit, via the at least one sensor system, is configured for detecting and/or recognizing a torque acting on a drive shaft of the at least one drive over the course of time, and wherein the control unit is capable of deriving information pertaining to masses of goods, which are moved by means of the plurality of receiving units over a certain period of time, from the detected and/or recognized torque acting on the drive shaft over the course of time,, characterized in that - at least one bearing unit is assigned to the drive shaft of the at least one drive, and wherein - at least one support device is assigned to the at least one drive, which at least one support device comprises the sensor system.
Assembly for closing a tube, said assembly comprising: - a stopper comprising a punch adapted to cut a lid, said lid being adapted to block a neck of a head of the tube, said stopper being configured to be fixed on said neck in a first position, termed standby position, and a second position, termed usage position, - a ring movably fixed to said stopper, said assembly being configured to make it possible to pass from a deployed position with the aim of said punch being protected by said ring in the standby position of said stopper to a retracted position with the aim of boring of said lid by said punch in the usage position of said stopper, a passing of said assembly from the deployed position to the retracted position being carried out by sliding of the stopper through the ring, said assembly comprising at least one protruding element configured to engage with at least one groove for the passage from the deployed position to the retracted position, characterised in that said protruding element and said groove are configured to carry out a bayonet type movement. - a stopper comprising a punch adapted to cut a lid, said lid being adapted to block a neck of a head of the tube, said stopper being configured to be fixed on said neck in a first position, termed standby position, and a second position, termed usage position, - a ring movably fixed to said stopper,
An information transmission method, comprising: obtaining, by a node in a multi-layer network, being a network formed by nodes having different switching granularities, a Traffic Engineering Link State Advertisement, TE LSA, packet comprising attribute information of a traffic engineering link, wherein the TE LSA packet is generated by the node; determining, by the node and according to a layer type of the traffic engineering link corresponding to the attribute information of the traffic engineering link in the TE LSA packet and a preset filtering rule, control channels allowing flooding of the TE LSA packet, wherein the preset filtering rule comprises a corresponding relationship between a layer type of control channels of the node and the layer type of the traffic engineering link; and sending, by the node, the TE LSA packet via the determined control channels to a connected neighbor node. obtaining, by a node in a multi-layer network, being a network formed by nodes having different switching granularities, a Traffic Engineering Link State Advertisement, TE LSA, packet comprising attribute information of a traffic engineering link, wherein the TE LSA packet is generated by the node; determining, by the node and according to a layer type of the traffic engineering link corresponding to the attribute information of the traffic engineering link in the TE LSA packet and a preset filtering rule, control channels allowing flooding of the TE LSA packet, wherein the preset filtering rule comprises a corresponding relationship between a layer type of control channels of the node and the layer type of the traffic engineering link; and sending, by the node, the TE LSA packet via the determined control channels to a connected neighbor node.
A support structure for vehicles, particularly motor vehicles and/or aircraft, and/or civil works, particularly bridges and/or buildings, having at least two load-bearing parts (2, 3; 30, 31) inserted into each other in a form-fit manner along a connecting axis (4, 32), one of the two load-bearing parts (3, 31) comprising a cutout (6, 35) having an opening (7, 36) and the other load-bearing part (2, 30) comprising a complementary region (5, 34) inserted into the cutout (6, 35), and the support structure comprising a connecting system releasably connecting at least the two load-bearing parts (2, 3; 30, 31) to each other, characterized in that the connecting system exerts a tensile and/or compressive force (20, 43) on at least one of the two load-bearing parts (2, 3; 30, 31) in the direction of the connecting axis (4, 32), so that the two load-bearing parts (2, 3; 30, 31) are pressed against each other in a common pressure region, and the connecting system comprises at least one compression element acting in the direction of a second connecting axis and disposed at least partially on a third load-bearing part and pressing the same against a stationary fourth load-bearing part of the support structure, so that said parts form a releasably connected compression unit, and/or that the connecting system comprises at least one tensile element acting in the direction of a first connecting axis and pulling a first and second load-bearing part (2, 3) of the support structure against each other, so that said parts form an integrally releasably connected tension unit, wherein the complementary region and the cutout of the tension unit is implemented in the shape of a truncated pyramid at least in one segment.
Fluid supply device for a transmission for a motor vehicle, the fluid supply device having at least one fluid supply device housing, at least one pump and at least one electric motor being integrated into the fluid supply device housing, the fluid supply device being of modular configuration, the fluid supply device comprising at least one fluid interface, the fluid interface having at least one suction connector and at least one pressure connector, the fluid interface comprising at least one O-ring for sealing the fluid interface.
A method for setting up a universal remote control having command keys, a transmission circuit for transmitting commands in response to activation of one or more command keys, and a receiver circuit for receiving RF transmission, the method comprising: receiving data from an RFID tag via the receiver of the universal remote control, the data from the RFID tag being unique to an individual; using the data received from the RFID tag to configure the universal remote control wherein activation of one or more of the command keys causes the universal remove control to issue via the transmission circuit one or more commands to command operation of one or more appliances as established by one or more preferences that have been mapped to the individual represented by the data received from the RFID tag; wherein when data from multiple RFID tags is received the data received from the tag with the strongest signal is utilised to configure the remote control. receiving data from an RFID tag via the receiver of the universal remote control, the data from the RFID tag being unique to an individual; using the data received from the RFID tag to configure the universal remote control wherein activation of one or more of the command keys causes the universal remove control to issue via the transmission circuit one or more commands to command operation of one or more appliances as established by one or more preferences that have been mapped to the individual represented by the data received from the RFID tag; wherein when data from multiple RFID tags is received the data received from the tag with the strongest signal is utilised to configure the remote control.