mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a passivating electrical contact to a crystalline semiconductor substrate, the method comprising: depositing an initial intrinsic amorphous silicon-containing layer on a surface of the crystalline semiconductor substrate; depositing a first metal layer on the initial intrinsic amorphous silicon-containing layer; and performing an annealing process at a temperature in the range between 70°C and 200°C, thereby inducing a silicidation reaction between at least part of the first metal layer and part of the initial intrinsic amorphous silicon-containing layer and forming a metal silicide layer (13, 131, 132) in electrical contact with the crystalline semiconductor substrate, wherein, after forming the metal silicide layer (13, 131, 132), a remaining part of the initial intrinsic amorphous silicon-containing layer is present between the crystalline semiconductor substrate and the metal silicide layer (13, 131, 132). depositing an initial intrinsic amorphous silicon-containing layer on a surface of the crystalline semiconductor substrate; depositing a first metal layer on the initial intrinsic amorphous silicon-containing layer; and performing an annealing process at a temperature in the range between 70°C and 200°C, thereby inducing a silicidation reaction between at least part of the first metal layer and part of the initial intrinsic amorphous silicon-containing layer and forming a metal silicide layer (13, 131, 132) in electrical contact with the crystalline semiconductor substrate, wherein, after forming the metal silicide layer (13, 131, 132), a remaining part of the initial intrinsic amorphous silicon-containing layer is present between the crystalline semiconductor substrate and the metal silicide layer (13, 131, 132).
Device for the combustion of fuel with an end wall, a first cylindrical wall, a first conical wall, a fuel-air inlet nozzle; a second cylindrical wall, a second conical wall and an ignition means, wherein the first cylindrical wall is round in shape, the first tapered wall is designed as a jacket surface of a truncated cone, the first cylindrical wall is connected on one side to the first conical wall on the side of its larger diameter, the first cylindrical wall and the first conical wall are coaxially disposed, the end wall is connected to the first cylindrical wall at its edge along the side which is opposite to the first conical wall, the ignition means are in the fuel-air inlet nozzle, the fuel-air inlet nozzle is connected tangentially to the first cylindrical wall, the first opening is formed at the junction of the fuel-air inlet nozzle with the first cylindrical wall, the second conical wall is connected on the side of its larger diameter with the second cylindrical wall, the second cylindrical wall and the second conical wall are coaxial with the first cylindrical wall, and the end surface is circular in shape, characterized in that the first conical wall is connected at its edge with the smaller diameter of the second cylindrical wall in the middle part of its outer surface, the second cylindrical wall is divided into an inner part and an outer part, the inner part is formed by a region of the second cylindrical wall, in fact from the edge of the second cylindrical wall which extends in the cavity formed through the first cylindrical wall, the first conical wall and a hollow cone, to the connection with the first conical wall. the outer part is formed by the region of the second cylindrical wall from the junction at the first conical wall to the junction at the second conical wall, and a cylinder cavity is formed by a third cylindrical wall and the second cylindrical wall, and the hollow cone is formed through the jacket surface of the cone and the end wall.
System for contactless energy transfer, comprising - a primary conductor, in which a medium-frequency AC current can be impressed, - a secondary winding which is arranged in a manner inductively coupled to the primary conductor such that energy can be transferred contactlessly and inductively from the primary conductor to the secondary winding, - a synchronous rectifier which is supplied from the secondary winding and which has half-bridges connected in parallel, wherein each half-bridge consists of a series connection of actuatable semiconductor switches, - a capacitor which is connected to the output of the synchronous rectifier, - a housing, characterized in that - the housing encloses the secondary winding, the synchronous rectifier and the capacitor in a housing-forming manner, - the voltage drop across the semiconductor switch is detected and an actuation signal for the semiconductor switch is generated by means of a respective actuation circuit as a function of the detected signal, and - the actuation circuits are supplied from the output DC voltage of the synchronous rectifier. - a primary conductor, in which a medium-frequency AC current can be impressed, - a secondary winding which is arranged in a manner inductively coupled to the primary conductor such that energy can be transferred contactlessly and inductively from the primary conductor to the secondary winding, - a synchronous rectifier which is supplied from the secondary winding and which has half-bridges connected in parallel, wherein each half-bridge consists of a series connection of actuatable semiconductor switches, - a capacitor which is connected to the output of the synchronous rectifier, - a housing, characterized in that - the housing encloses the secondary winding, the synchronous rectifier and the capacitor in a housing-forming manner, - the voltage drop across the semiconductor switch is detected and an actuation signal for the semiconductor switch is generated by means of a respective actuation circuit as a function of the detected signal, and - the actuation circuits are supplied from the output DC voltage of the synchronous rectifier.
A vehicle crush rail comprising: a body configured to be at least partially crushed along an axis between first and second ends thereof, the body having a cross section profile that comprises first, second and third cells (106A-C), wherein at least one of the first, second and third cells (106A-C) extends from the first end to the second end, characterized in that the first, second and third cells (106A-C) are substantially square, and the first, second and third cells (106A-C) have respective initiators arranged according to a crush pattern for the crush rail. a body configured to be at least partially crushed along an axis between first and second ends thereof, the body having a cross section profile that comprises first, second and third cells (106A-C), wherein at least one of the first, second and third cells (106A-C) extends from the first end to the second end, characterized in that the first, second and third cells (106A-C) are substantially square, and the first, second and third cells (106A-C) have respective initiators arranged according to a crush pattern for the crush rail.
A sealant discharging nozzle comprising: a nozzle body; a flat surface provided on the nozzle body, the flat surface being formed on a discharge port side of a through hole that extends along a central axis of the nozzle body; a cutout formed on a first side with respect to the flat surface; a shaping portion that is, with respect to the flat surface, formed on a second side opposite to the first side; and a nozzle positioning portion that comprises a pair of tapered surfaces (108a, 108b) disposed on both sides of the flat surface in the width direction of the flat surface, the pair of tapered surfaces (108a, 108b) being inclined against the central axis so that a gap between the tapered surfaces (108a, 108b) becomes larger as the tapered surfaces (108a, 108b) become separated from the discharge port; characterized in that the sealant discharging nozzle further comprises: an excessive seal leveling portion that comprises a pair of tapered surfaces (114a, 114b) disposed on both sides of the nozzle positioning portion in the width direction of the flat surface, inclined angles against the central axis being smaller than those of the pair of tapered surfaces (108a, 108b) disposed on both sides of the flat surface in the width direction of the flat surface. a nozzle body; a flat surface provided on the nozzle body, the flat surface being formed on a discharge port side of a through hole that extends along a central axis of the nozzle body; a cutout formed on a first side with respect to the flat surface; a shaping portion that is, with respect to the flat surface, formed on a second side opposite to the first side; and a nozzle positioning portion that comprises a pair of tapered surfaces (108a, 108b) disposed on both sides of the flat surface in the width direction of the flat surface, the pair of tapered surfaces (108a, 108b) being inclined against the central axis so that a gap between the tapered surfaces (108a, 108b) becomes larger as the tapered surfaces (108a, 108b) become separated from the discharge port; characterized in that the sealant discharging nozzle further comprises: an excessive seal leveling portion that comprises a pair of tapered surfaces (114a, 114b) disposed on both sides of the nozzle positioning portion in the width direction of the flat surface, inclined angles against the central axis being smaller than those of the pair of tapered surfaces (108a, 108b) disposed on both sides of the flat surface in the width direction of the flat surface.
Handheld power tool comprising: - an electrical load; - an operator control element with a moving element to be operated by a user, and - a control device for controlling a flow of current through the load on the basis of a position of the moving element, characterized in that - the control device is constructed separately from the operator control element, and a conversion of the position of the moving element into an electrical signal takes place in the control device. - an electrical load; - an operator control element with a moving element to be operated by a user, and - a control device for controlling a flow of current through the load on the basis of a position of the moving element, characterized in that - the control device is constructed separately from the operator control element, and a conversion of the position of the moving element into an electrical signal takes place in the control device.
Method for displaying the power in an industrial truck having a control device and having a display device as well as having a power supply, wherein a power level which is output by the power supply is determined and is displayed on the display device by the controller, and a mean value of the power level over a measuring time is formed, characterized in that the industrial truck has at least two operating modes and/or optional consumers, and in the event of a change-over of the operating mode and/or switching of optional consumers the power level is adapted by means of a correction value.
A first wireless node for use in a network of wireless nodes, for performing a localization to determine a location of a mobile device based on respective beacon signals transmitted wirelessly between the mobile device and each of a plurality of the wireless nodes; the first wireless node being configured to wirelessly transmit or receive the respective beacon signal for use in determining the location of the mobile device characterized in that: the first wireless node is further configured to wirelessly transmit information vouching for one or more others of the wireless nodes as being trusted for use in said localization, said information being transmitted to a device performing the localization for use in identifying one or more rogue versions of said wireless nodes.
A turbomachine system, comprising: a blade outer air seal including at least a first variable blade outer air seal segment (80") and a second variable blade outer air seal segment, the first variable blade outer air seal segment (80") including at least one channel and being configured to selectively communicate cooling air in response to movement of a second variable blade outer air seal segment relative to the first variable blade outer air seal segment (80"), wherein the at least one channel has an inlet, and the second variable blade outer air seal segment moves relative to the inlet between positions that permit cooling air flow through the inlet and positions that limit cooling air flow through the inlet to selectively and controllably communicate cooling air.
A system comprising a mobile unit, and a base station forming part of a wireless communications network for communicating packet data to and from the mobile unit, the base station being arranged in operation to communicate signalling data to the mobile unit attached thereto for providing one or more non-Guaranteed Bit Rate bearers in association with one or more packet data network, PDN, connections to one or more PDNs from the mobile unit to the wireless communications network, and to communicate data providing an indication of an Aggregate Maximum Bit Rate for each of the PDNs, and an absolute priority of each of the PDNs, the Aggregate Maximum Bit Rate being associated with an identifier of the corresponding PDN and being arranged in operation to communicate data packets from the mobile unit to the base station via the non-Guaranteed Bit Rate bearers, the mobile unit being configured to transmit the data packets to the base station via the one or more non-Guaranteed Bit Rate bearers, and the base station being configured to receive the data packets, transmitted from the mobile unit, which have been transmitted in accordance with a priority level via the one or more non-Guaranteed Bit Rate bearers of each of the one or more PDNs by scheduling uplink resources in accordance with a priority determined from the absolute priority of each of the one or more PDNs, wherein a sum of the bit rate of the non-Guaranteed Bit Rate bearers for each of the PDN connections is limited based on the Aggregate Maximum Bit Rate value for the PDN connection associated with the identifier of the PDN.
A compression element for a breast holding arrangement for mammography examinations, comprising: - a supporting structure; - a first surface; and - a second surface; wherein the supporting structure is configured to be attached to a mounting structure for exerting a compression force on a breast under examination; wherein the first and second surfaces are attached to the support structure; and wherein the first and second surfaces are arranged facing in opposite directions; wherein the second surface is provided to compress the breast under examination; wherein the first surface is provided to be visible to a user; wherein at least one of the first surface and the second surface is provided as an optically adaptable surface; wherein the first and second surfaces are provided to be at least temporarily partly transparent; and wherein the optically adaptable surface is provided with a controllable pixel matrix configured to provide textual and/or graphical data visualization. - a supporting structure; - a first surface; and - a second surface;
A method for capturing CO 2 from a CO 2 source, such as ambient air or flue gases, including the steps of: a) conducting a stream of said air/gases through a bed of CO 2 adsorbent material capturing CO 2 from the streamed air/gas in the CO 2 adsorbent bed, b) conducting a stream of heating gas through a heat storage and recovery unit and said CO 2 adsorbent bed transferring stored heat from said heat storage and recovery unit to said CO 2 adsorbent bed, c) conducting said heating gas by means of a fan from the CO 2 adsorbent bed through a trim heater and back through the CO 2 adsorbent bed desorbing CO 2 from the CO 2 adsorbent bed, extracting the desorbed CO 2, d) conducting a stream of cooling gas through the heat storage and recovery unit and the CO 2 adsorbent bed transferring heat from the CO 2 adsorbent bed to the heat storage and recovery unit. a) conducting a stream of said air/gases through a bed of CO 2 adsorbent material capturing CO 2 from the streamed air/gas in the CO 2 adsorbent bed, b) conducting a stream of heating gas through a heat storage and recovery unit and said CO 2 adsorbent bed transferring stored heat from said heat storage and recovery unit to said CO 2 adsorbent bed, c) conducting said heating gas by means of a fan from the CO 2 adsorbent bed through a trim heater and back through the CO 2 adsorbent bed desorbing CO 2 from the CO 2 adsorbent bed, extracting the desorbed CO 2, d) conducting a stream of cooling gas through the heat storage and recovery unit and the CO 2 adsorbent bed transferring heat from the CO 2 adsorbent bed to the heat storage and recovery unit.
A method of manufacturing a negative electrode material for a lithium ion secondary battery, the method comprising: (a) a step of obtaining a mixture containing a graphitizable aggregate and a graphitizable binder; (b) a step of obtaining a molded product by molding the mixture; (c) a step of obtaining a graphitized product by graphitizing the molded product; and (d) a step of obtaining a ground product by grinding the graphitized product, wherein a standard deviation of particle size distribution of the aggregate is less than 0.20, the graphitizable aggregate includes coke, the graphitizable binder includes at least one selected from the group consisting of a pitch, a tar, a thermoplastic resin and a thermosetting resin and a content of the graphitizable binder is from 10 parts by mass to 30 parts by mass with respect to 100 parts by mass of the graphitizable aggregate or a content rate of the graphitizable binder is from 10% by mass to 25% by mass with respect to the mixture. (a) a step of obtaining a mixture containing a graphitizable aggregate and a graphitizable binder; (b) a step of obtaining a molded product by molding the mixture; (c) a step of obtaining a graphitized product by graphitizing the molded product; and (d) a step of obtaining a ground product by grinding the graphitized product,
A precoding method for open loop spatial multiplexing, characterized by comprising: in transmission resources, a base station precoding N-layer data to be sent by using w a = u a α ⋅ u a, wherein u a is a vector or matrix related to a transmission resource location i; α is a real number or a complex number related to the transmission resource location i and α is a scalar in a following set {1, j,-1,- j}; and N is an integer less than or equal to a number of base station transmission antennas; wherein, α = g ( i); g i = { 1, mod ⌊ i q ⌋ 4 = p 1 j, mod ⌊ i q ⌋ 4 = p 2 − 1, mod ⌊ i q ⌋ 4 = p 3 − j, mod ⌊ i q ⌋ 4 = p 4; wherein, q is an integer, values of p1, p2, p3 and p4 are one of 1, 2, 3 and 4, and are different from each other, and i is a resource index number; or, g i = { 1, mod ⌊ i q ⌋ 2 = p 1 − 1, mod ⌊ i q ⌋ 2 = p 3 wherein, q is an integer, values of p1 and p3 are one of 1 and 2, and are different from each other, and i is a resource index number.
Pressing device (1, 1') for the pressing connection of especially pipe-like work pieces, comprising: at least two pressing carriers (2, 2', 2") connected to each other in a hinged manner in circumferential direction, said pressing carriers (2, 2', 2") being tiltable relative to each other about a tilting axis during the pressing process from a resting position to a pressing position, and at least two pressing elements (4, 4', 4"), which are each mounted on one of the pressing carriers (2, 2', 2") and comprise a pressing area (6, 6'. 6") for pressing, wherein the pressing carriers (2, 2', 2") comprise a receiving area (3, 3', 3") and wherein the pressing elements (4, 4', 4") comprise a storage area (5, 5', 5"), wherein the pressing elements (4, 4', 4") abut in a cooperation region with their storage area (5, 5', 5") on the receiving area (3, 3', 3") of the pressing carriers (2, 2', 2") and wherein the storage area (5, 5', 5") as well as the receiving area (3, 3', 3") are formed such that at least one pressing element (4, 4', 4") is mounted in a slidable manner in circumferential direction on the pressing carrier (2, 2', 2"), characterized in that the pressing element (4, 4', 4") and/or the pressing carrier (2, 2', 2") is formed at least in a partial region of the cooperation region with a material reducing the friction between the pressing element (4, 4', 4") and the pressing carrier (2, 2', 2"). at least two pressing carriers (2, 2', 2") connected to each other in a hinged manner in circumferential direction, said pressing carriers (2, 2', 2") being tiltable relative to each other about a tilting axis during the pressing process from a resting position to a pressing position, and at least two pressing elements (4, 4', 4"), which are each mounted on one of the pressing carriers (2, 2', 2") and comprise a pressing area (6, 6'. 6") for pressing,
A method of concurrently storing grey scale information of an image and additional digital information, the method comprising the steps of: providing a data carrier; and creating a plurality of recesses in a surface of the data carrier by using a laser and/or a focused particle beam in order to encode information on the data carrier; wherein the plurality of recesses are grouped in pixels forming an image, each pixel comprising between zero and M recesses located at a subset of zero to M positions of N predetermined positions attributed to said pixel, wherein the number of recesses of a given pixel defines a visual grey scale value of said pixel and wherein the subset of positions of a given pixel defines additional digital information attributed to said pixel, wherein the additional digital information comprises one or a combination of: a more precise grey scale value of said pixel, a color or color value of said pixel, an intensity of any of the colors red, green and blue of said pixel. providing a data carrier; and creating a plurality of recesses in a surface of the data carrier by using a laser and/or a focused particle beam in order to encode information on the data carrier; wherein the plurality of recesses are grouped in pixels forming an image, each pixel comprising between zero and M recesses located at a subset of zero to M positions of N predetermined positions attributed to said pixel, wherein the number of recesses of a given pixel defines a visual grey scale value of said pixel and wherein the subset of positions of a given pixel defines additional digital information attributed to said pixel, wherein the additional digital information comprises one or a combination of: a more precise grey scale value of said pixel, a color or color value of said pixel, an intensity of any of the colors red, green and blue of said pixel.
Drawer guide for displaceably arranging, on a carcass, a drawer that can be pulled out of the carcass in a pull-out direction, comprising at least two guide rails, which are displaceable relative to one another, and a locking device for locking at least one of the at least two guide rails relative to at least one further one of the at least two guide rails with respect to the pull-out direction in at least one position, wherein the locking device comprises at least one locking element and at least one locking element receiver to receive the at least one locking element, which are arranged on different guide rails of the drawer guide, wherein at least one locking element receiver comprises at least two receiver portions, between which at least one locking element is receivable in a locked state of the drawer guide, wherein at least two receiver portions are arranged, with respect to a relative movement path of at least one locking element relative to at least one locking element receiver, on mutually opposite sides of the relative movement path, characterized in that the locking element receiver is formed substantially in two pieces and comprises a holding element which projects upwardly over the guide rails of the drawer guide, wherein the holding element is arranged on a rail back of a carcass-side guide rail, wherein the holding element projects with a web region of the holding element in the horizontal direction and perpendicularly to the pull-out direction over the drawer-side guide rail.