mhurhangee/patent-ind-claim-en huggingface dataset:
Spark plug comprising - an earth electrode , - a centre electrode and - a ceramic insulator which is designed to receive the centre electrode , - wherein the centre electrode comprises a centre electrode head which is situated in the direction of an electrical connection region of the spark plug and has an end side which is in contact with an electrically conductive connecting element which is arranged between the electrical connection region and the centre electrode head , and - wherein the centre electrode head is in thermally conductive contact with the ceramic insulator on its outer circumference at least in sections and forms a thermally conductive contact region , wherein the centre electrode head has, on the end side , a cup-like region and therefore a concave region which is oriented in the direction of the electrically conductive connecting element , characterized in that the thermally conductive contact region extends over a length (L) of at least 1 mm in the axial direction (X-X) of the spark plug. - an earth electrode , - a centre electrode and - a ceramic insulator which is designed to receive the centre electrode , - wherein the centre electrode comprises a centre electrode head which is situated in the direction of an electrical connection region of the spark plug and has an end side which is in contact with an electrically conductive connecting element which is arranged between the electrical connection region and the centre electrode head , and - wherein the centre electrode head is in thermally conductive contact with the ceramic insulator on its outer circumference at least in sections and forms a thermally conductive contact region ,
A method of manufacturing a rolling bearing including a stationary ring , a rotating ring , a plurality of rolling elements interposed between the stationary ring and the rotating ring, and a retainer retaining the plurality of rolling elements, the method comprising attaching a shield having an annular shape to the stationary ring , the method comprising: a preparation step of overlaying part of the shield on a side part of the stationary ring ; and a welding step of laser-welding the shield to the side part, wherein in the welding step, while a head outputting the laser and the stationary ring on which the shield is overlaid, are relatively rotated about a center axis (C) of the stationary ring , a welding operation of outputting laser on the shield to weld and a non-welding operation of not outputting laser are alternately repetitively performed such that in the welding operation, while laser output which is a pulse wave, is intermittently output by a second period which is shorter than a first period by which the welding operation is repetitively performed, a merged part obtained by the welding with the stationary ring is formed to have a continuous arc shape. a preparation step of overlaying part of the shield on a side part of the stationary ring ; and a welding step of laser-welding the shield to the side part, wherein in the welding step, while a head outputting the laser and the stationary ring on which the shield is overlaid, are relatively rotated about a center axis (C) of the stationary ring , a welding operation of outputting laser on the shield to weld and a non-welding operation of not outputting laser are alternately repetitively performed such that in the welding operation, while laser output which is a pulse wave, is intermittently output by a second period which is shorter than a first period by which the welding operation is repetitively performed, a merged part obtained by the welding with the stationary ring is formed to have a continuous arc shape.
A multiple-drive vehicle comprising: - a first driving position for a first driver provided with first driving means ; - a second driving position for a second driver provided with second driving means ; - a first pair of front wheels mechanically connected to said first driving means ; characterized in that the multiple-drive vehicle further comprises a second pair of front wheels mechanically connected to said second driving means , said first driving means and said second driving means being independent of each other for moving the respective pairs of front wheels in an independent manner from each other; - a pair of rear wheels mounted on a rear axle connected to an engine ; wherein said first and said second pair of front wheels are arranged forward to said driving positions , one of said pair of front wheels being arranged rearwardly of the other pair of said front wheels . - a first driving position for a first driver provided with first driving means ; - a second driving position for a second driver provided with second driving means ; - a first pair of front wheels mechanically connected to said first driving means ; characterized in that the multiple-drive vehicle further comprises a second pair of front wheels mechanically connected to said second driving means , said first driving means and said second driving means being independent of each other for moving the respective pairs of front wheels in an independent manner from each other; - a pair of rear wheels mounted on a rear axle connected to an engine ; wherein said first and said second pair of front wheels are arranged forward to said driving positions , one of said pair of front wheels being arranged rearwardly of the other pair of said front wheels .
A method of projecting an image onto windows of an aircraft comprising a plurality of projectors positioned in a cabin area of an aircraft , with each of the plurality of projectors oriented to a corresponding window in the cabin area of the aircraft , each of the corresponding windows having a glass portion with an outer profile ; the method comprising: projecting an image from each of the plurality of projectors over the glass portion of the corresponding window, the image having a dark center region , wherein a perimeter of each dark center region is aligned with the outer profile of the glass portion of the corresponding window, wherein the image projected from each of the plurality of projectors includes an outer region positioned around the dark center region, the outer region being brighter than the dark center region.
A turbine engine stator control valve comprising crown sectors which are disposed circumferentially end to end about an axis of the turbine engine, each of the sectors comprising at least one stationary blade which extends from a radially inner platform , a sealing ring carrying an abradable sealing element surrounded by the platforms of the sectors , the sealing ring being connected to the platforms by slide connections , characterised in that each slide connection includes a first sleeve secured to a sealing ring and a second sleeve secured to one of the platforms , the first and second sleeves being nested within each other by sliding and delimiting a housing , and each slide connection including a spring contained in the housing and constrained in the radial direction by being mounted, on the one hand, against one of the platforms and, on the other hand, against the sealing ring .
Dry strength composition for manufacture of paper, board or the like, which comprises, as a mixture, • at least one anionically derivatized polysaccharide, which comprises carboxymethylated cellulose, which has a viscosity in the range of 100 - 30 000 mPas, preferably 200 - 20 000 mPas, more preferably 500 - 10 000 mPas, measured from 2 weight-% aqueous solution at 25 °C, by using Brookfield LV DV1, and • cationic starch having an amylopectin content ≥ 80 weight-%, wherein the anionically derivatized polysaccharide and the cationic starch provide the composition with a charge density in the range of • 0.1 - 1.5 meq/g, when measured at pH 2.8, and • -0.1 - -3 meq/g, preferably -0.3 - -2.5 meq/g, more preferably -0.5 - -2.0 meq/g, when measured as an aqueous solution, at pH 7.0. • at least one anionically derivatized polysaccharide, which comprises carboxymethylated cellulose, which has a viscosity in the range of 100 - 30 000 mPas, preferably 200 - 20 000 mPas, more preferably 500 - 10 000 mPas, measured from 2 weight-% aqueous solution at 25 °C, by using Brookfield LV DV1, and • cationic starch having an amylopectin content ≥ 80 weight-%, • 0.1 - 1.5 meq/g, when measured at pH 2.8, and • -0.1 - -3 meq/g, preferably -0.3 - -2.5 meq/g, more preferably -0.5 - -2.0 meq/g, when measured as an aqueous solution, at pH 7.0.
Method for producing a seamless compression article on a flat knitting machine with a front needle bed and a rear needle bed opposite thereto, wherein a basic knitted fabric is knitted on the flat knitting machine from at least one knitting yarn and at least one elastic weft yarn inserted or knitted therein, wherein the basic knitted fabric has an inner side (I) facing the body extremity when worn and an outer side (A) opposite thereto and the basic knitted fabric is knitted along a wale direction (s) extending at least substantially in the longitudinal direction (L) of the or of each receptacle and has wale rows (m) extending transversely to the wale direction (s), and the compression article knitted from the basic knitted fabric has at least one tubular or pocket-shaped receptacle extending along a longitudinal direction (L) for at least one finger (F) or at least one toe (Z) of a wearer of the compression article, so that the compression article can be placed on a body extremity of the wearer extending in the longitudinal direction (L), wherein a plurality of rib-shaped protrusions , which extend at least substantially parallel to one another and along the longitudinal direction (L) of the respective receptacle , is knitted into each receptacle , wherein the rib-shaped protrusions protrude on the outside (A) above the basic knitted fabric , characterized in that the rib-shaped protrusions do not appear on the inside (I).
A metal product having an internal space formed therein, the metal product comprising: a body part made of a metallic material and having a first space formed therein, the first space of the body part including two rectilinear portions; a space formation member made of a metallic material and having a second space formed therein, the space formation member being mounted on the body part to be in communication with the two rectilinear portions of the first space to form a cooling channel, the second space of the space formation member including a curved portion; and a finishing part corresponding to an exterior of the metal product by covering the space formation member ; wherein the body part and the space formation member are formed by any one of cutting, casting, and Additive Fabrication (AF) processing, or any combination thereof, and the finishing part is formed by at least one of a direct metal fabrication (DMF) technique, a multilayer laser cladding technique, a selective laser sintering (SLS) technique and a selective laser melting (SLM) technique, wherein the body part and the finishing part form the exterior of the metal product , the space formation member is not exposed to the whole external surface of the body part and the finishing part , and the finishing part is metallically bonded, using a welding method, a DMF technique or a multilayer laser cladding technique, to the body part and the space formation member . a body part made of a metallic material and having a first space formed therein, the first space of the body part including two rectilinear portions; a space formation member made of a metallic material and having a second space formed therein, the space formation member being mounted on the body part to be in communication with the two rectilinear portions of the first space to form a cooling channel, the second space of the space formation member including a curved portion; and a finishing part corresponding to an exterior of the metal product by covering the space formation member ; wherein the body part and the space formation member are formed by any one of cutting, casting, and Additive Fabrication (AF) processing, or any combination thereof, and the finishing part is formed by at least one of a direct metal fabrication (DMF) technique, a multilayer laser cladding technique, a selective laser sintering (SLS) technique and a selective laser melting (SLM) technique, wherein the body part and the finishing part form the exterior of the metal product , the space formation member is not exposed to the whole external surface of the body part and the finishing part , and the finishing part is metallically bonded, using a welding method, a DMF technique or a multilayer laser cladding technique, to the body part and the space formation member .
An adapter for connecting a syringe to a catheter, said adapter comprising: (a) at a first end, a tapered recess to receive an outlet from a syringe; and (b) at a second end, a male connector having recessed channels and raised ribs disposed on the surface of said male connector. (a) at a first end, a tapered recess to receive an outlet from a syringe; and (b) at a second end, a male connector having recessed channels and raised ribs disposed on the surface of said male connector.
A heat exchanger , comprising: a core having a plurality of heat exchange elements; at least one first connector formed on the core and fluidically connected to the heat exchange elements, wherein the first connector comprises at least one first passage fluidically connected to the heat exchange elements of the core ; and a bottle characterized in that the bottle comprises a first block formed on a first end of the bottle and fluidically connected to the bottle , wherein the first block comprises at least one first channel fluidically connected to the first passage of the first connector to enable fluid circulation between the bottle and the core , and wherein the first block is adapted to receive at least a part of the first connector and fluidically connect the bottle to the plurality of heat exchange elements. a core having a plurality of heat exchange elements; at least one first connector formed on the core and fluidically connected to the heat exchange elements, wherein the first connector comprises at least one first passage fluidically connected to the heat exchange elements of the core ; and a bottle characterized in that the bottle comprises a first block formed on a first end of the bottle and fluidically connected to the bottle , wherein the first block comprises at least one first channel fluidically connected to the first passage of the first connector to enable fluid circulation between the bottle and the core , and wherein the first block is adapted to receive at least a part of the first connector and fluidically connect the bottle to the plurality of heat exchange elements.
An expression vector comprising - an antibody light chain expression cassette, - an antibody heavy chain expression cassette, and - a selection marker expression cassette, wherein the expression cassettes are arranged unidirectional, and wherein the expression cassettes are arranged in the 5' to 3' sequence of antibody heavy chain expression cassette, antibody light chain expression cassette and selection marker expression cassette, wherein all three expression cassettes comprise the human elongation factor 1 alpha promoter of SEQ ID NO: 05, wherein light chain expression cassette and the antibody heavy chain expression cassette comprise the bovine growth hormone polyA signal sequence. - an antibody light chain expression cassette, - an antibody heavy chain expression cassette, and - a selection marker expression cassette,
A thermal conditioning device for conditioning a plurality of electronic devices under test thermally, the plurality of electronic devices under test being housed on one or more test boards each having a plurality of sockets each for housing a corresponding one of the electronic devices in a removable manner, the thermal conditioning device comprises: a plurality of extensible elements with variable length corresponding to the sockets each for conditioning a corresponding one of the electronic devices thermally in an individual manner when housed in the socket , a process circulation system for circulating a process heat-conductive fluid in the extensible elements , a process heat exchange system for exchanging heat with the process heat-conductive fluid , and a pressure regulation system for regulating a pressure of the process heat-conducting fluid to move the extensible elements between a shortened condition and a lengthened condition, each of the extensible elements in the lengthened condition being pressed against the corresponding electronic device . a plurality of extensible elements with variable length corresponding to the sockets each for conditioning a corresponding one of the electronic devices thermally in an individual manner when housed in the socket , a process circulation system for circulating a process heat-conductive fluid in the extensible elements , a process heat exchange system for exchanging heat with the process heat-conductive fluid , and a pressure regulation system for regulating a pressure of the process heat-conducting fluid to move the extensible elements between a shortened condition and a lengthened condition, each of the extensible elements in the lengthened condition being pressed against the corresponding electronic device .
A method for activating a functional layer (4`) of a coating material , wherein the method has the steps of: providing a functional layer that can be made adhesive by energy input, supplying a coating material to a workpiece to be coated, characterised in that the method discloses the following steps: enriching a gas, which is preferably air, with water, heating the gas, at least partial activation of the functional layer by gassing the functional layer with the gas . providing a functional layer that can be made adhesive by energy input, supplying a coating material to a workpiece to be coated, characterised in that the method discloses the following steps: enriching a gas, which is preferably air, with water, heating the gas, at least partial activation of the functional layer by gassing the functional layer with the gas . enriching a gas, which is preferably air, with water, heating the gas, at least partial activation of the functional layer by gassing the functional layer with the gas .
A method performed by a first base station, the method comprising: receiving, from a second base station, control information including channel related information; and transmitting, to the second base station, resource constraint information determined based on the control information, wherein the channel related information comprising: identification information of one or more terminals, and one or more channel state information, CSI, corresponding to the one or more UE identifications. receiving, from a second base station, control information including channel related information; and transmitting, to the second base station, resource constraint information determined based on the control information, wherein the channel related information comprising: identification information of one or more terminals, and one or more channel state information, CSI, corresponding to the one or more UE identifications. identification information of one or more terminals, and one or more channel state information, CSI, corresponding to the one or more UE identifications.
A valve assembly for an air spring, characterized by comprising: a first tank , a second tank , and a third tank ; a body disposed on a body axis (B) extending between an opened end disposed in fluid communication with the first tank and a closed end and defining a cavity extending therebetween; a divider disposed in said cavity separating said cavity into an upper portion between said opened end and said divider and a lower portion between said closed end and said divider ; said body defining at least two orifices including at least one upper orifice in fluid communication with said cavity and the second tank and at least one lower orifice axially spaced from said at least one upper orifice in fluid communication with said cavity and the third tank ; and an actuator disposed in said cavity of said body and rotatable along said body axis (B) to be in fluid communication with the first tank and the second tank and the third tank and movable from a first position with said actuator being in fluid communication with the first tank alone to a second position allowing fluid communication between the first tank and the second tank and a third position allowing fluid communication between the first tank and the third tank and a fourth position allowing fluid communication between the first tank and the second tank and the third tank . a first tank , a second tank , and a third tank ; a body disposed on a body axis (B) extending between an opened end disposed in fluid communication with the first tank and a closed end and defining a cavity extending therebetween; a divider disposed in said cavity separating said cavity into an upper portion between said opened end and said divider and a lower portion between said closed end and said divider ; said body defining at least two orifices including at least one upper orifice in fluid communication with said cavity and the second tank and at least one lower orifice axially spaced from said at least one upper orifice in fluid communication with said cavity and the third tank ; and an actuator disposed in said cavity of said body and rotatable along said body axis (B) to be in fluid communication with the first tank and the second tank and the third tank and movable from a first position with said actuator being in fluid communication with the first tank alone to a second position allowing fluid communication between the first tank and the second tank and a third position allowing fluid communication between the first tank and the third tank and a fourth position allowing fluid communication between the first tank and the second tank and the third tank .
An antibody that binds to human CTLA-4, wherein the antibody comprises a heavy chain variable region of SEQ ID NO: 32 and a light chain variable region of SEQ ID NO: 34, wherein said antibody comprises a heavy chain constant region of the IgG1 subtype.
A method for producing a β-sialon fluorescent material, the method comprising: providing a composition having a composition represented by a formula: Si 6-z Al z O z N 8-z :Eu wherein z satisfies 0 < z ≦ 4.2; heat treating the composition in a rare gas atmosphere, contacting the heat-treated composition with a basic substance at a temperature of not less than 50 °C and not more than 650 °C, comprising mixing the heat-treated composition with a solution of the basic substance, wherein the solvent of the solution includes water, wherein the basic substance comprises at least one selected from the group consisting of LiOH, NaOH, KOH, RbOH, CsOH and NH 3 , and removing at least part of a solvent present in the solution. providing a composition having a composition represented by a formula: Si 6-z Al z O z N 8-z :Eu wherein z satisfies 0 < z ≦ 4.2; heat treating the composition in a rare gas atmosphere, contacting the heat-treated composition with a basic substance at a temperature of not less than 50 °C and not more than 650 °C, comprising mixing the heat-treated composition with a solution of the basic substance, wherein the solvent of the solution includes water, wherein the basic substance comprises at least one selected from the group consisting of LiOH, NaOH, KOH, RbOH, CsOH and NH 3 , and removing at least part of a solvent present in the solution.