mhurhangee/ep-ind-claims huggingface dataset:
A bushing for producing glass fibers, comprising: a base plate; and a plurality of nozzles from which molten glass is discharged, wherein a nozzle group formed with alignment of the plurality of nozzles is joined to the base plate, a coating layer made of ceramics is formed on each of the nozzles forming at least a row of an outermost layer of the nozzle group, the nozzle on which the coating layer is formed has an end face with no coating layer and a nozzle tip part with no coating layer on a side of glass discharge, and a length of the coating layer is 50% or more and 90% or less with respect to an entire length of the nozzle. a base plate; and a plurality of nozzles from which molten glass is discharged, wherein a nozzle group formed with alignment of the plurality of nozzles is joined to the base plate, a coating layer made of ceramics is formed on each of the nozzles forming at least a row of an outermost layer of the nozzle group, the nozzle on which the coating layer is formed has an end face with no coating layer and a nozzle tip part with no coating layer on a side of glass discharge, and a length of the coating layer is 50% or more and 90% or less with respect to an entire length of the nozzle.
Granular pumice, characterized in that the surface is coated with a hydrophobic coating which consists of a silane and a siloxane, where as silane, use is made of: A1) silane of the general formula R 3 -Si-(OR 2 3 3 where R 2 is a methyl or ethyl radical and R 3 is an alkyl radical having from 3 to 12 carbon atoms, or an aminoalkyl radical having from 1 to 6 carbon atoms or a radical of the general formula H 2 N-(CH 2) x R 4 -(CH 2) y -, where R 4 is an oxygen, sulfur, -NH- or -NH-CH 2 -CH 2 -NH- radical and x ≧ 2 and y ≧ 2, or a radical of the general formula (R 2 O) 3 Si- (CH 2) x -NH- (CH 2) x -, R 2 and x are as defined above, or and as siloxane, use is made of A2) a siloxanol of the general formula where R 5 is a methyl or phenyl radical but at least 90% of the radicals R 5 are methyl radicals and m = 20 to 250. A1) silane of the general formula R 3 -Si-(OR 2 3 3 where R 2 is a methyl or ethyl radical and R 3 is an alkyl radical having from 3 to 12 carbon atoms, or an aminoalkyl radical having from 1 to 6 carbon atoms or a radical of the general formula H 2 N-(CH 2) x R 4 -(CH 2) y -, where R 4 is an oxygen, sulfur, -NH- or -NH-CH 2 -CH 2 -NH- radical and x ≧ 2 and y ≧ 2, or a radical of the general formula (R 2 O) 3 Si- (CH 2) x -NH- (CH 2) x -, R 2 and x are as defined above, or and as siloxane, use is made of R 2 is a methyl or ethyl radical and R 3 is an alkyl radical having from 3 to 12 carbon atoms, or an aminoalkyl radical having from 1 to 6 carbon atoms or a radical of the general formula H 2 N-(CH 2) x R 4 -(CH 2) y -, where R 4 is an oxygen, sulfur, -NH- or -NH-CH 2 -CH 2 -NH- radical and x ≧ 2 and y ≧ 2, or a radical of the general formula (R 2 O) 3 Si- (CH 2) x -NH- (CH 2) x -, R 2 and x are as defined above, or and as siloxane, use is made of A2) a siloxanol of the general formula where R 5 is a methyl or phenyl radical but at least 90% of the radicals R 5 are methyl radicals and m = 20 to 250.
A data sending method, comprising: receiving, by a terminal, power configuration information sent by a network device, wherein the power configuration information comprises a one-to-one correspondence between power information and terminal status information and the power configuration information is a power control information list of entries, each entry comprising a sequence number, a data priority and the power information; determining, by the terminal based on the power configuration information, transmit power used by the terminal to send data; and sending, by the terminal to the network device, priorities of all data of the terminal; wherein the terminal status information comprises the priority of the data sent by the terminal; and the power information comprises at least one of expected receive power of the network device, transmit power used by the terminal to communicate with the network device, and transmit power used by the terminal to perform Device-to-Device, D2D, communication. receiving, by a terminal, power configuration information sent by a network device, wherein the power configuration information comprises a one-to-one correspondence between power information and terminal status information and the power configuration information is a power control information list of entries, each entry comprising a sequence number, a data priority and the power information; determining, by the terminal based on the power configuration information, transmit power used by the terminal to send data; and sending, by the terminal to the network device, priorities of all data of the terminal; wherein the terminal status information comprises the priority of the data sent by the terminal; and the power information comprises at least one of expected receive power of the network device, transmit power used by the terminal to communicate with the network device, and transmit power used by the terminal to perform Device-to-Device, D2D, communication.
A fitting configured to create an articulating cable guide system for routing cables, the fitting comprising: a base defining a cable support surface and a pair of opposing sidewalls extending therefrom, the support surface and the sidewalls cooperating to define an open first end, an open second end opposite the open first end, and a top end that is configured to provide an access opening for placement of the cables into the base, wherein the fitting includes a ball mount at the open first end and a socket mount at the open second end, wherein the socket mount is configured to fit the ball mount of an adjacent similar fitting, the ball mount including a plurality of pins aligned along a first plane and the socket mount defining a plurality of slots configured to receive the pins of the ball mount of the adjacent similar fitting, wherein the pins and the slots are configured to restrict the movement of the ball and socket coupling to pivotal motion generally along two perpendicular planes, wherein each of the two perpendicular planes is different than the first plane, characterised in that each slot of the socket mount defines detents for interacting with one of the pins of the ball mount to provide discrete stop positions to the fittings along their pivotal movement. a base defining a cable support surface and a pair of opposing sidewalls extending therefrom, the support surface and the sidewalls cooperating to define an open first end, an open second end opposite the open first end, and a top end that is configured to provide an access opening for placement of the cables into the base, wherein the fitting includes a ball mount at the open first end and a socket mount at the open second end, wherein the socket mount is configured to fit the ball mount of an adjacent similar fitting, the ball mount including a plurality of pins aligned along a first plane and the socket mount defining a plurality of slots configured to receive the pins of the ball mount of the adjacent similar fitting, wherein the pins and the slots are configured to restrict the movement of the ball and socket coupling to pivotal motion generally along two perpendicular planes, wherein each of the two perpendicular planes is different than the first plane, characterised in that each slot of the socket mount defines detents for interacting with one of the pins of the ball mount to provide discrete stop positions to the fittings along their pivotal movement.
A metal/ceramic bonding substrate (10, 210, 310) comprising: a ceramic substrate (12, 212, 312); a metal plate (14, 214, 314) of aluminum bonded directly to one side of the ceramic substrate (12, 212, 312); and a metal base member (16, 216, 316) of aluminum which is the same material as that of the metal plate (14, 214, 314), wherein the metal base member (16, 216, 316) is bonded directly to the other side of the ceramic substrate (12, 212, 312) without contacting the one side of the ceramic substrate (12, 212, 312), characterized in that a part of a side face of the ceramic substrate (12, 212, 312) is bonded directly to the metal base member (16, 216, 316). a ceramic substrate (12, 212, 312); a metal plate (14, 214, 314) of aluminum bonded directly to one side of the ceramic substrate (12, 212, 312); and a metal base member (16, 216, 316) of aluminum which is the same material as that of the metal plate (14, 214, 314), wherein the metal base member (16, 216, 316) is bonded directly to the other side of the ceramic substrate (12, 212, 312) without contacting the one side of the ceramic substrate (12, 212, 312), characterized in that a part of a side face of the ceramic substrate (12, 212, 312) is bonded directly to the metal base member (16, 216, 316).
Detection of the Gram type of a bacterial strain, comprising: - lighting in the 415nm-440nm wavelength range at least one bacterium of said strain having a natural electromagnetic response in said wavelength range; - acquiring, in the 415nm-440nm range, a luminous intensity reflected by, or transmitted through, said illuminated bacterium; and - determining the Gram type of the bacterial strain based on the acquired luminous intensity acquired in the 415nm-440nm range. - lighting in the 415nm-440nm wavelength range at least one bacterium of said strain having a natural electromagnetic response in said wavelength range; - acquiring, in the 415nm-440nm range, a luminous intensity reflected by, or transmitted through, said illuminated bacterium; and - determining the Gram type of the bacterial strain based on the acquired luminous intensity acquired in the 415nm-440nm range.
A washing or cleaning agent, characterized in that it contains 0.1 to 10 wt.% of an organic mediator compound, which can be converted by a redox reaction into an active bleach species by means of electrolysis, characterized in that the mediator compound emits an electron during the preparation of the active bleach species.
A material transfer vehicle (110, 160) comprising: (a) a material-receiving device (118, 180) that is adapted to receive asphalt paving material; and (b) a loading conveyor (120, 182) that is operatively connected to the material-receiving device (118, 180) and adapted to receive asphalt paving material from the material-receiving device (118, 180); wherein the loading conveyor (120, 182) has a long axis and a width (Wc) that is measured transverse to the long axis, and the material-receiving device (118, 180) has a width (W M) measured transverse to the long axis of the loading conveyor (120, 182) that is greater that the width (Wc) of the loading conveyor (120, 182), so that a recess is created adjacent to the loading conveyor (120, 182) and behind the material-receiving device (118, 180); characterised in that the material transfer vehicle further comprises: (c) a ground operator's station that is located in the recess adjacent to the loading conveyor (120, 182) and behind the material-receiving device (118, 180), said ground operator's station comprising: (i) a lower platform on which the ground operator may stand; (ii) a seat on which the ground operator may sit. (a) a material-receiving device (118, 180) that is adapted to receive asphalt paving material; and (b) a loading conveyor (120, 182) that is operatively connected to the material-receiving device (118, 180) and adapted to receive asphalt paving material from the material-receiving device (118, 180); wherein the loading conveyor (120, 182) has a long axis and a width (Wc) that is measured transverse to the long axis, and the material-receiving device (118, 180) has a width (W M) measured transverse to the long axis of the loading conveyor (120, 182) that is greater that the width (Wc) of the loading conveyor (120, 182), so that a recess is created adjacent to the loading conveyor (120, 182) and behind the material-receiving device (118, 180); (i) a lower platform on which the ground operator may stand; (ii) a seat on which the ground operator may sit.
A game controller comprising: a holding portion (8a, 8b) configured to be held by a user; a first button (7a, 7b) placed on an upper surface of a main body of the game controller and configured to allow the user to operate the first button with a finger of the user while holding the holding portion, the first button having an upper portion that is exposed from the main body of the game controller and configured to be contacted by the user's finger, and a lower portion that is almost hidden by the main body of the game controller, and a second button (6a, 6b) placed on the upper surface of the main body and configured to allow the user to operate the second button with the same finger of the user that operates the first button, the second button being located closer to a front surface of the main body than the first button, wherein the upper portion of the first button includes a protruding portion (71a, 71b) that protrudes outward from the lower portion in a direction of a back surface of the game controller characterized in that the protruding portion also protrudes outward from the lower portion in a direction of a side surface of the game controller. a holding portion (8a, 8b) configured to be held by a user; a first button (7a, 7b) placed on an upper surface of a main body of the game controller and configured to allow the user to operate the first button with a finger of the user while holding the holding portion, the first button having an upper portion that is exposed from the main body of the game controller and configured to be contacted by the user's finger, and a lower portion that is almost hidden by the main body of the game controller, and a second button (6a, 6b) placed on the upper surface of the main body and configured to allow the user to operate the second button with the same finger of the user that operates the first button, the second button being located closer to a front surface of the main body than the first button, wherein the upper portion of the first button includes a protruding portion (71a, 71b) that protrudes outward from the lower portion in a direction of a back surface of the game controller characterized in that the protruding portion also protrudes outward from the lower portion in a direction of a side surface of the game controller.
A stent delivery system comprising: a balloon which is expandable in an outer radial direction by injection of fluid into the balloon, the balloon being folded in a plurality of stacked layers around an outer circumference of an elongated shaft portion, the folded balloon possessing an outer circumference; and a stent including a plurality of annular members, each annular member being comprised of a wire in an annular shape, the plurality of annular parts being axially arranged, with axially adjacent annular members connected to one another by at least one connecting part, characterized in that all of the connecting parts are arranged on the outer circumference of the balloon in a manner that each of the connecting parts is positioned on a minimum-layered portion having a smallest number of stacked layers of the folded balloon. a balloon which is expandable in an outer radial direction by injection of fluid into the balloon, the balloon being folded in a plurality of stacked layers around an outer circumference of an elongated shaft portion, the folded balloon possessing an outer circumference; and a stent including a plurality of annular members, each annular member being comprised of a wire in an annular shape, the plurality of annular parts being axially arranged, with axially adjacent annular members connected to one another by at least one connecting part, characterized in that all of the connecting parts are arranged on the outer circumference of the balloon in a manner that each of the connecting parts is positioned on a minimum-layered portion having a smallest number of stacked layers of the folded balloon.
Gas injection system for a particle therapy system comprising a first line for introducing gas into an ion source, a second and a third line (10, 12) for two separate gas flows, and a multi-way switchover valve, wherein the second and the third line (10, 12) each lead into an inlet of the multi-way switchover valve, wherein the first line is connected to an outlet of the multi-way switchover valve, wherein the multi-way switchover valve is embodied in such a way that the one or other inlet is alternatively connected to the outlet such that either the second or the third line (10, 12) is connected in flow relationship to the first line, characterised in that at least two forelines (20, 22) lead into the second line, wherein in a foreline (20, 22) a needle valve (28a, 28b) is arranged in each case, wherein a needle valve is arranged upstream of the third line in a flow relationship and wherein the second line and the third line are formed at least in sections from capillary tubes (C 1, C 2, C 3, C 4) for the purpose of setting the gas volume flow.
An apparatus for cutting metal plates out of a metal strip, comprising: a laser cutting apparatus that is movable back and forth in a transport direction of the metal strip; a support device (3, 4) for supporting the metal strip to be cut, said support device (3, 4) being movable back and forth in the transport direction concurrently with the laser cutting apparatus; wherein the support device comprises first support means having a first support strip and second support means having a second support strip located opposite the first support strip, wherein the first and the second support strip are moved concurrently with the laser cutting apparatus such that a laser beam of the laser cutting apparatus is always oriented towards a gap formed between the first and the second support strip; and a dust discharging device arranged downstream of the support strips (3, 4) in a discharging direction directed away from the laser cutting apparatus; wherein the dust discharge shaft and/or at least one support strip (3, 4) is/are provided with a ventilation device (12, 13a, 13b, 13c, 14a, 14b) for ventilating the gap, characterized in that the ventilation device (12, 13a, 13b, 13c, 14a, 14b) comprises ventilation channels (12, 13a, 13b, 13c) that are provided in a support surface (11a, 11b) of the support strip (3, 4), the support surface facing the laser cutting apparatus. a laser cutting apparatus that is movable back and forth in a transport direction of the metal strip; a support device (3, 4) for supporting the metal strip to be cut, said support device (3, 4) being movable back and forth in the transport direction concurrently with the laser cutting apparatus; wherein the support device comprises first support means having a first support strip and second support means having a second support strip located opposite the first support strip, wherein the first and the second support strip are moved concurrently with the laser cutting apparatus such that a laser beam of the laser cutting apparatus is always oriented towards a gap formed between the first and the second support strip; and a dust discharging device arranged downstream of the support strips (3, 4) in a discharging direction directed away from the laser cutting apparatus; wherein the dust discharge shaft and/or at least one support strip (3, 4) is/are provided with a ventilation device (12, 13a, 13b, 13c, 14a, 14b) for ventilating the gap, characterized in that the ventilation device (12, 13a, 13b, 13c, 14a, 14b) comprises ventilation channels (12, 13a, 13b, 13c) that are provided in a support surface (11a, 11b) of the support strip (3, 4), the support surface facing the laser cutting apparatus.
Article provided with an RFID device, said article including: - a binder-impregnated carbon fiber body; - a covering layer made of electrically non-conductive or electrically neutral material and adapted to be impregnated by said binder; - the RFID device and - a shielding layer adapted to form a screen for said RFID device; wherein the covering layer, the RFID device and the shielding layer are superimposed to form a multilayer configuration and are embedded in the fiber body, wherein the article or the carbon fiber body has a side or surface accessible for reading said RFID device, and wherein in the above multilayer configuration, starting from said side or surface, the covering layer, the RFID device and the shielding layer are arranged in that order. - a binder-impregnated carbon fiber body; - a covering layer made of electrically non-conductive or electrically neutral material and adapted to be impregnated by said binder; - the RFID device and - a shielding layer adapted to form a screen for said RFID device;
A method of making aerosol-forming rods having predetermined values of cross-sectional porosity and cross-sectional porosity distribution value for use as aerosol-forming substrates in heated aerosol-generating articles (2000, 2001, 2002), the method comprising the steps of: providing a continuous sheet of aerosol-forming material having a specified width and a specified thickness, gathering the continuous sheet of aerosol-forming material transversely relative to the longitudinal axis thereof, circumscribing the gathered continuous sheet of aerosol-forming material with a wrapper to form a continuous rod, severing the continuous rod into a plurality of discrete rods, determining values representative of cross-sectional porosity and cross-sectional porosity distribution for at least one of the discrete rods, and controlling one or more manufacturing parameters to ensure that the cross-sectional porosity and cross-sectional porosity distribution values of subsequent rods are within the predetermined values to produce the aerosol-forming rods. providing a continuous sheet of aerosol-forming material having a specified width and a specified thickness, gathering the continuous sheet of aerosol-forming material transversely relative to the longitudinal axis thereof, circumscribing the gathered continuous sheet of aerosol-forming material with a wrapper to form a continuous rod, severing the continuous rod into a plurality of discrete rods, determining values representative of cross-sectional porosity and cross-sectional porosity distribution for at least one of the discrete rods, and controlling one or more manufacturing parameters to ensure that the cross-sectional porosity and cross-sectional porosity distribution values of subsequent rods are within the predetermined values to produce the aerosol-forming rods.
A fastening arrangement for C-shaped retaining rails with a screw and a sliding nut, wherein a threaded section of the screw in at least some sections is screwed into a threaded bore of the sliding nut, with a retaining plate arranged between a screw head of the screw and the sliding nut, and a positioning component, wherein the positioning component has a spacer section arranged between the retaining plate and the sliding nut, and a pre-stressed section engaging against a lower face of the sliding nut facing away from the screw head, characterised in that, on its end facing towards the screw head the spacer section has a seating for the retaining plate (14 and in that, the seating has two circular ring sections, which are arranged between a shaft of the screw and an inner wall of a passage bore of the retaining plate.