mhurhangee/ep-ind-claims huggingface dataset:
A method for changing the configuration of a relay node within a cellular network system, wherein the cellular network system comprises a source access point and a target access point, wherein the relay node is connected to the source access point and comprises a first beam being assigned to a communication between the relay node and the source access point and a second beam being assigned to a communication between the relay node and a user equipment, wherein the relay node is to be handed over from the source access point to the target access point the method comprising changing, in response to a scheduled handover of the relay node from the source access point to the target access point, the configuration of the relay node by assigning the first beam to a communication between the user equipment and the relay node and/or by assigning the second beam to a communication between the relay node and the target access point and in response of a handover of a further user equipment being connected to the source access point to the relay node assigning the first beam to a communication between the further user equipment and the relay node.
A vision system for a motor vehicle, comprising an imaging device adapted to take images from a surrounding of the motor vehicle, a window arranged in front of the imaging device, and a processing means adapted to perform image processing of images taken by said imaging device, wherein said vision system comprises a window property changing means (23, 24) controllable by said processing means to change at least one property of said window, and said processing means is adapted to perform a diagnosis procedure of said imaging device by changing said window property through controlling said window property changing means (23, 24), and evaluating the influence of the changing window property on image data taken by said imaging device, wherein said window property changing means (23, 24) is a window temperature changing device arranged and controllable to change the temperature of said window, and wherein said window temperature changing device (23, 24) comprises a heating element, characterized in that a body of said window is made of Germanium, or a material based on Germanium, and said body forms said heating element, wherein on both sides of the window the outer surface of the body is coated by an anti-reflection coating layer which are multi-layer films of Ge and Zn and/or ZnSe, wherein said window comprises a protection layer on the environmental side of said window, which protection layer is a diamond coating film.
LIDAR measuring system, - comprising an emitter element, a sensor element as well as an optical element, - wherein the emitter element emits a laser light of a first wavelength, which, after reflection at an object, impinges again on the LIDAR measuring system, - wherein the incoming laser light passes through the optical element and impinges on the sensor element, wherein a wavelength converter is formed on the LIDAR measuring system, which converts the first wavelength of the laser light into a second wavelength, so that the laser light impinges on the sensor element with the second wavelength, characterized in that the wavelength converter is formed by a wavelength converter element within beam path on the receiving side, wherein the wavelength converter is applied as a coating onto the optical element or on the sensor element or on a sensor chip. - comprising an emitter element, a sensor element as well as an optical element, - wherein the emitter element emits a laser light of a first wavelength, which, after reflection at an object, impinges again on the LIDAR measuring system, - wherein the incoming laser light passes through the optical element and impinges on the sensor element, wherein a wavelength converter is formed on the LIDAR measuring system, which converts the first wavelength of the laser light into a second wavelength, so that the laser light impinges on the sensor element with the second wavelength, characterized in that the wavelength converter is formed by a wavelength converter element within beam path on the receiving side, wherein the wavelength converter is applied as a coating onto the optical element or on the sensor element or on a sensor chip.
A stretch laminate hot melt adhesive composition comprising: (a) 35 to 70 weight percent of a polypropylene (co)polymer having (i) a heat of fusion less than 15J/g measured at 10°C/min heating and cooling rate in accordance with ASTM D3418-12; (ii) a propylene content greater than 50% of the (co)polymer; and wherein the propylene (co)polymer comprises at least a propylene homopolymer; and (b) 2 to 15 weight percent of a wax having (i) a heat of fusion greater than 50 J/g measured at 10°C/min heating and cooling rate in accordance with ASTM D3418-12, and (ii) a melting peak greater than 100°C measured in accordance with ASTM D3418-12; and (c) a tackifier wherein the adhesive has (i) a storage modulus (G' 40) of 5×10 5 to 5×10 7 Pascal at 40°C, 10 rad/s; (ii) a storage modulus (G' 80) of 5×10 3 to 1×10 7 Pascal at 80°C, 10 rad/s; (iii) wherein the adhesive has a loss modulus (G") of at least 5×10 4 Pascal at 40°C, 10 rad/s; and (iv) a density range of 0.75 to 0.90 g/cm 3 at 160°C measured in accordance with ASTM D1475. (a) 35 to 70 weight percent of a polypropylene (co)polymer having (i) a heat of fusion less than 15J/g measured at 10°C/min heating and cooling rate in accordance with ASTM D3418-12; (ii) a propylene content greater than 50% of the (co)polymer; and wherein the propylene (co)polymer comprises at least a propylene homopolymer; and (b) 2 to 15 weight percent of a wax having (i) a heat of fusion greater than 50 J/g measured at 10°C/min heating and cooling rate in accordance with ASTM D3418-12, and (ii) a melting peak greater than 100°C measured in accordance with ASTM D3418-12; and (c) a tackifier
A gas station for delivery of gas to appliances, in particular in a building, the gas station comprising a casing and a gas regulation device with several components comprising at least a gas regulator and one filter, wherein the gas regulation device is mounted or mountable within the casing, wherein the casing comprises a ground plate and a cover element being securable or secured onto the ground plate, wherein the ground plate is configured for mounting to a wall or to an external mounting post, characterised in that the cover element has a box-shape or a bowl-shape, so that when the cover element is detached from the ground plate, the gas regulation device with its components is accessible from four sides, namely from a front side, from a top side, from a left side and from a right side.
A polypeptide comprising an amino acid sequence selected from SEQ ID NOs: 21 - 40 and 49 or a pharmaceutical composition comprising said polypeptide for use in a method for treating or preventing HBV related liver diseases, wherein the polypeptide is administered in a dose of 4.2 - 5.0mg for at least 7 consecutive days.
A system for providing distributed protection for electrical systems in a vehicle, the system comprising: a plurality of modular equipment centers (MECs) (44, 46, 48) spatially distributed throughout the vehicle; and a plurality of power controllers to implement protective functions by monitoring and controlling electrical systems within the vehicle, the plurality of power controllers comprising: one or more of the power controllers within each of the plurality of MECs (44,46,48) configured to perform low power level protections which implement localized protective functions and perform independent fault assessments, and one or more other power controllers within the vehicle configured to perform high power level protections which perform coordinated fault assessments across each of the plurality of MECs, wherein the plurality of power controllers are configured to concurrently implement the protective functions; wherein each of the plurality of MECs (44, 46, 48) includes at least one of the power controllers configured for performing high power level protections where primary power is received at each of the plurality of MECs and at least one power controller configured for performing low power level protections where secondary power is distributed from each of the plurality of MECs (44, 46, 48). a plurality of modular equipment centers (MECs) (44, 46, 48) spatially distributed throughout the vehicle; and a plurality of power controllers to implement protective functions by monitoring and controlling electrical systems within the vehicle, the plurality of power controllers comprising: one or more of the power controllers within each of the plurality of MECs (44,46,48) configured to perform low power level protections which implement localized protective functions and perform independent fault assessments, and one or more other power controllers within the vehicle configured to perform high power level protections which perform coordinated fault assessments across each of the plurality of MECs, wherein the plurality of power controllers are configured to concurrently implement the protective functions; wherein each of the plurality of MECs (44, 46, 48) includes at least one of the power controllers configured for performing high power level protections where primary power is received at each of the plurality of MECs and at least one power controller configured for performing low power level protections where secondary power is distributed from each of the plurality of MECs (44, 46, 48).
An ECM material conduit for regenerating an atrioventricular valve to replace a defective AV valve within a heart of a subject, the defective AV valve being attached at an annular region between an atrium and a ventricle within the heart of the subject and being coupled to a plurality of papillary muscles within the ventricle of the heart of the subject, the ECM material conduit comprising an acellular extracellular matrix, said ECM comprising small intestine submucosa, the ECM material conduit defining a lumen and having an inlet portion and an outlet portion, the inlet portion of the ECM material conduit being configured for attachment to the annular region of the heart of the subject, wherein at least a portion of the ECM material conduit has a multi-layer structure, wherein the outlet portion of the ECM material conduit comprises a plurality of extension portions, and wherein each extension portion of the plurality of extension portions is configured for attachment to a respective papillary muscle of the at least two papillary muscles wherein the ECM material conduit is sterile and acellular.
Hyperthermia device consisting of a condenser and a radiofrequency source, wherein the radiofrequency source is able to provide a radiofrequency field of 13.56 MHz or any value obtained by multiplication or division of 13.56 MHz by an integer, wherein the condenser consists of an RF-electrode and a counter-electrode which are arranged or positioned opposite to each other on a patient's skin, wherein the electromagnetic energy transfer means comprises at least one conductive metal electrode material in form of a coating or a metallic net, wherein at least one conductive metal electrode material layer is coated onto the surface of a flexible carrier, and wherein the coated flexible carrier is porous and allows the movement of water through the coated flexible carrier or wherein the at least one conductive metal electrode material constructs a flexible carrier in form of a metallic net, and wherein the flexible carrier is porous and allows the movement of water through the flexible carrier, and wherein the at least one conductive metal electrode material in form of a coating or a metallic net is not isolated. wherein at least one conductive metal electrode material layer is coated onto the surface of a flexible carrier, and wherein the coated flexible carrier is porous and allows the movement of water through the coated flexible carrier or wherein the at least one conductive metal electrode material constructs a flexible carrier in form of a metallic net, and wherein the flexible carrier is porous and allows the movement of water through the flexible carrier, and wherein the at least one conductive metal electrode material in form of a coating or a metallic net is not isolated.
An electrolyzer, comprising: a first chamber to receive a first input stream at a valve, the first chamber to produce a first output stream through a valve, wherein the first output stream is more acidic than the first input stream; a first electrode in the first chamber configured to electrolyze water in the first input stream to generate hydrogen ions, H +, and the input stream becomes acidified, a second chamber to receive a second input stream at a valve, the second chamber to produce a second output stream through a valve, wherein the second output stream is more alkaline than the second input stream; a second electrode in the second chamber configured to electrolyze water in the second input stream to basify it by increasing the pH of the second input stream. a voltage source connected to the electrodes; and an ion-selective membrane separating the first chamber from the second chamber, a catalyst loaded on each of the first electrode and the second electrode, wherein the catalyst is effective at a pH in the range between 4 and 12, a spacer (36, 38) positioned in each of the first and second chambers (12, 20), wherein each spacer is arranged to allow water to flow in contact with the catalyst while allowing ion transport through the membrane, wherein the electrolyzer is configured to control flows of the first input stream and the second input stream to reduce a local pH drop across the ion-selective membrane. a first chamber to receive a first input stream at a valve, the first chamber to produce a first output stream through a valve, wherein the first output stream is more acidic than the first input stream; a first electrode in the first chamber configured to electrolyze water in the first input stream to generate hydrogen ions, H +, and the input stream becomes acidified, a second chamber to receive a second input stream at a valve, the second chamber to produce a second output stream through a valve, wherein the second output stream is more alkaline than the second input stream; a second electrode in the second chamber configured to electrolyze water in the second input stream to basify it by increasing the pH of the second input stream. a voltage source connected to the electrodes; and an ion-selective membrane separating the first chamber from the second chamber, a catalyst loaded on each of the first electrode and the second electrode, wherein the catalyst is effective at a pH in the range between 4 and 12, a spacer (36, 38) positioned in each of the first and second chambers (12, 20), wherein each spacer is arranged to allow water to flow in contact with the catalyst while allowing ion transport through the membrane, wherein the electrolyzer is configured to control flows of the first input stream and the second input stream to reduce a local pH drop across the ion-selective membrane.
A substrate for a power module, comprising: a ceramic plate; a copper circuit plate on a main surface of the ceramic plate; and a heat dissipation copper plate on a surface of the ceramic plate opposite to the main surface, the copper circuit plate including at least one first copper circuit plate, and at least one second copper circuit plate different from the first copper circuit plate, the first copper circuit plate including a first portion on which a semiconductor device is mountable, and a second portion having a smaller thickness than the first portion, the second portion being outward from and surrounding the first portion, and a third portion between the first portion and the second portion, the third portion having a smaller thickness than the second portion. a ceramic plate; a copper circuit plate on a main surface of the ceramic plate; and a heat dissipation copper plate on a surface of the ceramic plate opposite to the main surface, the copper circuit plate including at least one first copper circuit plate, and at least one second copper circuit plate different from the first copper circuit plate, the first copper circuit plate including a first portion on which a semiconductor device is mountable, and a second portion having a smaller thickness than the first portion, the second portion being outward from and surrounding the first portion, and a third portion between the first portion and the second portion, the third portion having a smaller thickness than the second portion. at least one first copper circuit plate, and at least one second copper circuit plate different from the first copper circuit plate, the first copper circuit plate including a first portion on which a semiconductor device is mountable, and a second portion having a smaller thickness than the first portion, the second portion being outward from and surrounding the first portion, and a third portion between the first portion and the second portion, the third portion having a smaller thickness than the second portion.
A wireless communication method, comprising: receiving, by a terminal device (110, 400), a first indication message sent by a network device (120, 500), wherein the first indication message comprises information about a flight transmission characteristic supported by at least one cell; and reporting, by the terminal device (110, 400), flight route information to the network device (120, 500), wherein the flight route information comprises at least one of a three-dimensional flight speed, a three-dimensional flight direction, and information about an intermediate node location that are of the terminal device, receiving, by the terminal device (110, 400), a second indication message determined and sent after receiving the flight route information by the network device (120, 500), wherein the second indication message includes configuration information of a first resource for transmitting the data; receiving, by the terminal device (110, 400), on the first resource and another preconfigured resource according to the second indication message, the data transmitted by the network device (120, 500), wherein data transmitted on each of the resources is the same. receiving, by a terminal device (110, 400), a first indication message sent by a network device (120, 500), wherein the first indication message comprises information about a flight transmission characteristic supported by at least one cell; and reporting, by the terminal device (110, 400), flight route information to the network device (120, 500), wherein the flight route information comprises at least one of a three-dimensional flight speed, a three-dimensional flight direction, and information about an intermediate node location that are of the terminal device, receiving, by the terminal device (110, 400), a second indication message determined and sent after receiving the flight route information by the network device (120, 500), wherein the second indication message includes configuration information of a first resource for transmitting the data; receiving, by the terminal device (110, 400), on the first resource and another preconfigured resource according to the second indication message, the data transmitted by the network device (120, 500), wherein data transmitted on each of the resources is the same.
A burning type heat source for a flavor inhaler, wherein the heat source is capable of supplying a sufficient and stable heat amount over a plurality of inhalations, also denoted as puffs, performed from ignition to extinction, the heat source extending along a first direction (D 1) from an ignition end toward a non-ignition end including a longitudinal hollow extending along the first direction, characterized by further including a lateral hollow extending along a second direction crossing the first direction, the lateral hollow communicating with the longitudinal hollow, wherein the lateral hollow is provided at the ignition end side in the first direction relative to a burning position at an end of a second inhalation so that an initial burning is promoted by air supplied from the lateral hollow, and it is possible to increase a heat amount supplied at least in a second puff.
Control valve (5, 5') for connection unit for flexible pipes, comprising a plurality of sectors shaped as slices or petals (6-7, 6'-7') rotatable between a complete opening position and a complete closing position, characterized in that said plurality of rotatable sectors (6-7, 6'-7') comprises at least two series of rotating sectors of different shape and dimensions disposed in an alternate way along the circumference of the connection unit.
A supply installation for a site for producing rubber products from rubber blocks of rubber mixtures of predetermined weight and volume, characterized in that the supply installation comprises: - an input station where the supply installation performs a process of entry of empty bins (Bv) for receiving, during a picking process, rubber blocks identified to satisfy a rubber product production campaign; - a discharge station where the supply installation performs a process of discharging full bins (B P) containing the picked rubber blocks; - a supply means that manages the transport of the empty bins (B V) and the full bins (B P) to the supply installation; and - a picking station that performs a process of picking the rubber blocks grouped in a container according to the status of the current rubber product production campaign. - an input station where the supply installation performs a process of entry of empty bins (Bv) for receiving, during a picking process, rubber blocks identified to satisfy a rubber product production campaign; - a discharge station where the supply installation performs a process of discharging full bins (B P) containing the picked rubber blocks; - a supply means that manages the transport of the empty bins (B V) and the full bins (B P) to the supply installation; and - a picking station that performs a process of picking the rubber blocks grouped in a container according to the status of the current rubber product production campaign.
Construction machine having - a superstructure, - an undercarriage, which comprises a chassis and on which the superstructure is mounted rotatably about a vertical axis, and - a supply arm for at least one energy line, with which energy can be supplied from outside of the construction machine, - wherein the supply arm is mounted adjustably on the superstructure, characterised in that at least one drive device (61, 62) is provided for actively adjusting the supply arm relative to the superstructure. - a superstructure, - an undercarriage, which comprises a chassis and on which the superstructure is mounted rotatably about a vertical axis, and - a supply arm for at least one energy line, with which energy can be supplied from outside of the construction machine, - wherein the supply arm is mounted adjustably on the superstructure,
Segmented seal support of a turbomachine, comprising a large number of segments (6, 8, 10, 12, 14, 16) which, when put together, form a seal support and which have sealing elements formed on the inner circumference as abradable coatings, the sealing elements being formed integrally with the segments (6, 8, 10, 12, 14, 16) and at least two segments (6, 8, 10, 12, 14, 16) being interlockingly interconnected to their opposite corresponding lateral contact regions in the assembled state, characterized in that the segments (6, 8, 10, 12, 14, 16) are hooked together without play.