mhurhangee/patent-ind-claim-en huggingface dataset:
A soft magnetic or semi-hard magnetic material, comprising a first phase having crystals with a bcc structure containing Fe and Mn and a second phase having crystals with a bcc structure containing Fe and Mn, wherein in each phase the sum of the Fe and the Mn contained is taken to be 100 atom%, characterised in that : the second phase has a Mn content which is an amount of 2 times or more and 10 5 times or less than the Mn content in the first phase; and the second phase has a Mn content of 2 atom% or more and 100 atom% or less. the second phase has a Mn content which is an amount of 2 times or more and 10 5 times or less than the Mn content in the first phase; and the second phase has a Mn content of 2 atom% or more and 100 atom% or less.
A molding device for cheeses, comprising: - at least one molding cylinder including a lower portion including a base delimiting an open enclosure shaped so as to receive at least one cheese mold , - at least one movable tray configured to support the at least one cheese mold , the movable tray being shaped so as to seal the lower portion of the molding cylinder in a first position called sealing position and to enable access to said cheese mold in a second position called removal position, - at least one washing circuit configured for cleaning of said molding device , said washing circuit including at least one circuit section opening into the lower portion of the molding cylinder , characterized in that the molding device further comprises at least one protective box positioned between the base of the molding cylinder and the movable tray , said protective box delimiting an enclosure sealed with respect to the outside of the molding device . - at least one molding cylinder including a lower portion including a base delimiting an open enclosure shaped so as to receive at least one cheese mold , - at least one movable tray configured to support the at least one cheese mold , the movable tray being shaped so as to seal the lower portion of the molding cylinder in a first position called sealing position and to enable access to said cheese mold in a second position called removal position, - at least one washing circuit configured for cleaning of said molding device , said washing circuit including at least one circuit section opening into the lower portion of the molding cylinder ,
A peptide a) consisting of the amino acid sequence of SEQ ID NO: 24 or b) comprising the amino acid sequence of SEQ ID NO: 24 wherein said peptide has an overall length of up to 14 amino acids, and has the ability to bind to a molecule of the human major histocompatibility complex (MHC) class-I, or a pharmaceutically acceptable salt of a) or b).
Method for manufacturing a bevelled stone , for a timepiece, including the following steps: - producing a precursor from a mixture of at least one material in powder form with a binder; - pressing the precursor so as to form a green body, using a top die and a bottom die comprising a protruding rib , - sintering said green body so as to form a body of the future stone in said at least one material, the body comprising a peripheral face and a bottom face provided with a groove , the groove comprising an inner wall , and - machining the body including a substep of planing the peripheral face up to the groove , such that the inner wall of the groove forms at least a flared part of the peripheral face of the stone . - producing a precursor from a mixture of at least one material in powder form with a binder; - pressing the precursor so as to form a green body, using a top die and a bottom die comprising a protruding rib , - sintering said green body so as to form a body of the future stone in said at least one material, the body comprising a peripheral face and a bottom face provided with a groove , the groove comprising an inner wall , and - machining the body including a substep of planing the peripheral face up to the groove , such that the inner wall of the groove forms at least a flared part of the peripheral face of the stone .
An unmanned aerial vehicle (UAV) comprising: a power source; a propulsion system ; a user-operated switch ; and a system for controlling a power up sequence of the unmanned air vehicle, the system comprising: a remote user terminal ; and a power sequence control interface including: a transceiver communicatively coupled to the remote user terminal; the user-operated switch ; and a power controller configured to electrically couple the power source to the propulsion system in response to the user-operated switch being toggled on and the power sequence control interface receiving, via the transceiver, a power on signal from the remote user terminal. a power source; a propulsion system ; a user-operated switch ; and a system for controlling a power up sequence of the unmanned air vehicle, the system comprising: a remote user terminal ; and a power sequence control interface including: a transceiver communicatively coupled to the remote user terminal; the user-operated switch ; and a power controller configured to electrically couple the power source to the propulsion system in response to the user-operated switch being toggled on and the power sequence control interface receiving, via the transceiver, a power on signal from the remote user terminal. a remote user terminal ; and a power sequence control interface including: a transceiver communicatively coupled to the remote user terminal; the user-operated switch ; and a power controller configured to electrically couple the power source to the propulsion system in response to the user-operated switch being toggled on and the power sequence control interface receiving, via the transceiver, a power on signal from the remote user terminal. a transceiver communicatively coupled to the remote user terminal; the user-operated switch ; and a power controller configured to electrically couple the power source to the propulsion system in response to the user-operated switch being toggled on and the power sequence control interface receiving, via the transceiver, a power on signal from the remote user terminal.
A slim light emitting diode (LED) package, comprising: - first and second lead frames separated from each other; - a chip mounting recess formed on one upper surface region of the first lead frame by reducing a thickness of the one upper surface region below other upper surface regions of the first lead frame ; - an LED chip mounted on the first lead frame and electrically connected to the first lead frame and the second lead frame ; - a bonding wire (W) connecting the LED chip to the second lead frame ; and - a transparent encapsulation material protecting the LED chip while supporting the first and second lead frames wherein opposing sides of the first lead frames comprises first and second slant parts , and wherein the first and second lead frames are formed with openings , the openings penetrating the first and second lead frames in the vertical direction, wherein the first slant part is formed to be inclined towards right and left sides of the first lead frame , the second slant part is formed to be inclined towards right and left sides of the second lead frame , and wherein the second lead frame protrudes towards the first lead frame, characterized in that the slim light emitting diode (LED) package is comprising a chip mounting recess formed on one upper surface region of the first lead frame by reducing a thickness of the one upper surface region below other upper surface regions of the first lead frame, and in that the LED chip is mounted on a bottom surface of said chip mounting recess . - first and second lead frames separated from each other; - a chip mounting recess formed on one upper surface region of the first lead frame by reducing a thickness of the one upper surface region below other upper surface regions of the first lead frame ; - an LED chip mounted on the first lead frame and electrically connected to the first lead frame and the second lead frame ; - a bonding wire (W) connecting the LED chip to the second lead frame ; and - a transparent encapsulation material protecting the LED chip while supporting the first and second lead frames wherein opposing sides of the first lead frames comprises first and second slant parts , and wherein the first and second lead frames are formed with openings , the openings penetrating the first and second lead frames in the vertical direction, wherein the first slant part is formed to be inclined towards right and left sides of the first lead frame , the second slant part is formed to be inclined towards right and left sides of the second lead frame , and wherein the second lead frame protrudes towards the first lead frame, characterized in that the slim light emitting diode (LED) package is comprising a chip mounting recess formed on one upper surface region of the first lead frame by reducing a thickness of the one upper surface region below other upper surface regions of the first lead frame, and in that the LED chip is mounted on a bottom surface of said chip mounting recess .
Self-propelled construction machine or mining machine , in particular milling machine, for working a ground surface , comprising - a machine frame , - a working device for working the ground surface , which is supported on the machine frame , wherein the working device is at least partially enclosed by a housing , - at least one movable side plate , which closes the housing on at least one of the two sides of the working device , wherein the movable side plate rests on the ground surface in floating position during the working operation, characterized in that a clearing element is arranged in front of the at least one movable side plate as seen in the direction of travel (A), wherein the clearing element comprises at least one clearing edge , by means of which the clearing element may penetrate ground material lying on the ground surface in front of the movable side plate , and clears the ground material for the movable side plate so that the movable side plate may rest on the ground surface . - a machine frame , - a working device for working the ground surface , which is supported on the machine frame , wherein the working device is at least partially enclosed by a housing , - at least one movable side plate , which closes the housing on at least one of the two sides of the working device , wherein the movable side plate rests on the ground surface in floating position during the working operation,
Two-part dental implant having an anchoring region for anchoring in a bone , which preferably has a thread for screwing into the bone , and having a fastening region which has a depression with fastening elements for fastening an abutment, wherein the dental implant has an abutment region adjoining the anchoring region , which abutment region has on its outer surface a guide structure with a plurality of outwardly projecting webs (18, 18a, b, c, d, e, f, g, h), wherein a groove is formed in each case between adjacent webs (18, 18a-e, h), characterized in that the webs (18, 18a-e, h) extend at an angle (□) to the longitudinal axis of the dental implant which is between 10° and 70°, or in that the webs (18, 18a-e, h) of the guide structure, starting from a course parallel to the longitudinal axis of the implant, have an angle to the longitudinal axis of the implant of at most 70°, such that the webs (18, 18a-e, h) do not have any self-locking, and in that the mutually adjacent webs and grooves extend up to an edge of the implant, which edge is at the same time the coronal end of the implant.
A car comprising: - a pair of front wheels and a pair of rear wheels ; - an outer body having a front hood and a front bumper ; - a passenger compartment , formed inside said outer body between said front and rear wheels and frontally delimited by a windscreen that is connected with said front hood ; and - at least an aerodynamic duct extending between an inlet opening formed through said front bumper and an outlet opening formed through said front hood to allow a flow (F) of ascending air during the travel of said car ; the car further comprising a wing-shaped profile positioned at said inlet opening and configured to increase the air suction effect by said duct during the travel of said car and to increase the front aerodynamic load on the car working as a spoiler; the inlet opening being frontally formed in the front bumper and at a central portion thereof, the inlet opening being also frontally oriented; wherein said duct and said wing-shaped profile extend centrally with respect to said front hood and to said front bumper . - a pair of front wheels and a pair of rear wheels ; - an outer body having a front hood and a front bumper ; - a passenger compartment , formed inside said outer body between said front and rear wheels and frontally delimited by a windscreen that is connected with said front hood ; and - at least an aerodynamic duct extending between an inlet opening formed through said front bumper and an outlet opening formed through said front hood to allow a flow (F) of ascending air during the travel of said car ; the car further comprising a wing-shaped profile positioned at said inlet opening and configured to increase the air suction effect by said duct during the travel of said car and to increase the front aerodynamic load on the car working as a spoiler; the inlet opening being frontally formed in the front bumper and at a central portion thereof, the inlet opening being also frontally oriented; wherein said duct and said wing-shaped profile extend centrally with respect to said front hood and to said front bumper .
An actuator assembly for a ram air turbine comprising: a housing ; a piston ; an actuator rod connected to the piston; a first internal cavity within the housing configured to partially contain a pressurized fluid on a first side of the piston; a second internal cavity within the housing configured to partially contain the pressurized fluid on a second side of the piston; a fluid inlet port connecting a first opening on an outer surface of the housing to the first internal cavity; a fluid outlet port connecting a second opening on the outer surface of the housing to the second internal cavity; characterised in that the actuator assembly further comprises a pressure relief channel having a relief inlet in direct fluid communication with the fluid inlet port and in fluid communication with the first internal cavity , the channel further having a relief outlet , wherein the relief outlet is in fluid communication with the second internal cavity when the actuator rod is in a fully extended position; a pressure relief valve positioned between the relief inlet and the relief outlet and configured to direct fluid from the relief inlet to the relief outlet when the pressure relief valve is open; and a seal of the piston positioned between the fluid inlet port and the relief outlet when the actuator rod is in a fully deployed position. a housing ; a piston ; an actuator rod connected to the piston; a first internal cavity within the housing configured to partially contain a pressurized fluid on a first side of the piston; a second internal cavity within the housing configured to partially contain the pressurized fluid on a second side of the piston; a fluid inlet port connecting a first opening on an outer surface of the housing to the first internal cavity; a fluid outlet port connecting a second opening on the outer surface of the housing to the second internal cavity; characterised in that the actuator assembly further comprises a pressure relief channel having a relief inlet in direct fluid communication with the fluid inlet port and in fluid communication with the first internal cavity , the channel further having a relief outlet , wherein the relief outlet is in fluid communication with the second internal cavity when the actuator rod is in a fully extended position; a pressure relief valve positioned between the relief inlet and the relief outlet and configured to direct fluid from the relief inlet to the relief outlet when the pressure relief valve is open; and a seal of the piston positioned between the fluid inlet port and the relief outlet when the actuator rod is in a fully deployed position.
A soft tissue fixation device for use in affixing a soft tissue graft to a bone in an anterior or cranial cruciate ligament reconstruction comprising: a base member having a passageway extending from its top surface through to its bottom surface , the passageway being of sufficient size to permit the graft to be extended through the passageway and having no sharp corners that might damage the graft held against the passageway wall , wherein the base member includes a notched section in the top surface extending from the passageway to a first perimeter section of the base; an affixing member pivotally attached to the base member having an affixing section shaped to affix the graft between the base member and the affixing member , wherein the affixing section is shaped to accommodate various shaped grafts, said affixing section having at least one tooth member extending from a bottom surface of the affixing section and into the notched section. a base member having a passageway extending from its top surface through to its bottom surface , the passageway being of sufficient size to permit the graft to be extended through the passageway and having no sharp corners that might damage the graft held against the passageway wall , wherein the base member includes a notched section in the top surface extending from the passageway to a first perimeter section of the base; an affixing member pivotally attached to the base member having an affixing section shaped to affix the graft between the base member and the affixing member , wherein the affixing section is shaped to accommodate various shaped grafts, said affixing section having at least one tooth member extending from a bottom surface of the affixing section and into the notched section.
A rapid cycle pressure swing adsorption (PSA) process for separating O 2 from N 2 and/or Ar, wherein the process utilizes a plurality of adsorption beds comprising a carbon molecular sieve (CMS) adsorbent having an O 2 /N 2 and/or O 2 /Ar kinetic selectivity of at least 5 and an O 2 adsorption rate (1/s) of at least 0.20, and wherein the process comprises subjecting each of the plurality of beds to a rapid PSA cycle comprising a feed step, at least one depressurization step, a purge step, and at least one re-pressurization step, the duration of the feed step being 60 seconds or less; whereby the O 2 , N 2 , or Ar adsorption rate of the adsorbent is as determined by exposing a sample of the adsorbent, which is initially at vacuum and 30 °C (86 °F), to a measured amount of the adsorbate (O 2 , N 2 , or Ar) at 1 ata at the same temperature, recording the change in pressure as a function of time, subtracting the pressure versus time data from a similar pressure history using the same weight of quartz beads in the place of the adsorbent sample to obtain an uptake curve for the amount of gas adsorbed as a function of time, and using the linear driving force model to extract the adsorption rates of the adsorbate in units of inverse time (1/s) from the uptake curve; and whereby the O 2 /N 2 or O 2 /Ar kinetic selectivity of the adsorbent is determined from the ratio of the calculated adsorption rates for the two adsorbates individually.
Valve arrangement , in particular for opening or closing a valve opening of a tank of a transport vehicle , having an electric drive , having a coupling rod connected to the electric drive directly or via a mechanical transmission , having a valve body arranged at the end of the coupling rod for releasing or closing the valve opening , characterized in that the electric drive is arranged in a housing sealed against fluids, wherein the coupling rod is translationally displaceable relative to the housing and extends through an opening of the housing .
A method of 3D printing a photopolymer composite material, the method comprising: a) providing a resin premix material including: at least one of an acrylate monomer and an acrylate oligomer in the range between about 10.0-30.0 w% of a photopolymer composite resin; an inorganic hydrate in the range between about 5.0 - 30.0 w% of the photopolymer composite resin; a reinforcing filler in the range between about 50.0 - 80.0 w% of the photopolymer composite resin; an ultraviolet (UV) initiator in the range between about 0.001 - 0.2 w% of the photopolymer composite resin; and a co-initiator in the range between about 0.001 - 0.05 w% of the photopolymer composite resin; b) mixing a thermal initiator in the range between about 0.001 - 0.05 w% of the photopolymer composite resin with the resin premix material to form the photopolymer composite resin; c) extruding a layer of the photopolymer composite resin using a 3D printer onto a support ; d) at least partially curing the layer using light irradiation; and e) repeating steps c) and d) onto each subsequent layer to create the photopolymer composite material; wherein partial curing of the layer in step d) and activation of the thermal initiator by the co-initiator induces polymerization and a release of heat, which induces an autocatalytic polymerization reaction at and above an autocatalytic threshold temperature. a) providing a resin premix material including: at least one of an acrylate monomer and an acrylate oligomer in the range between about 10.0-30.0 w% of a photopolymer composite resin; an inorganic hydrate in the range between about 5.0 - 30.0 w% of the photopolymer composite resin; a reinforcing filler in the range between about 50.0 - 80.0 w% of the photopolymer composite resin; an ultraviolet (UV) initiator in the range between about 0.001 - 0.2 w% of the photopolymer composite resin; and a co-initiator in the range between about 0.001 - 0.05 w% of the photopolymer composite resin; at least one of an acrylate monomer and an acrylate oligomer in the range between about 10.0-30.0 w% of a photopolymer composite resin; an inorganic hydrate in the range between about 5.0 - 30.0 w% of the photopolymer composite resin; a reinforcing filler in the range between about 50.0 - 80.0 w% of the photopolymer composite resin; an ultraviolet (UV) initiator in the range between about 0.001 - 0.2 w% of the photopolymer composite resin; and a co-initiator in the range between about 0.001 - 0.05 w% of the photopolymer composite resin; b) mixing a thermal initiator in the range between about 0.001 - 0.05 w% of the photopolymer composite resin with the resin premix material to form the photopolymer composite resin; c) extruding a layer of the photopolymer composite resin using a 3D printer onto a support ; d) at least partially curing the layer using light irradiation; and e) repeating steps c) and d) onto each subsequent layer to create the photopolymer composite material;
A piezoelectric composition comprising a plurality of crystal particles , wherein the piezoelectric composition includes bismuth, iron, barium, titanium, and oxygen; characterised in that a number of crystal particles include a core and a shell covering the core; an average value of contents of bismuth in the cores is expressed as C CORE % by mass, an average value of contents of bismuth in the shells is expressed as C SHELL % by mass, and the C CORE is lower than the C SHELL ; and a number of all particles comprised in the piezoelectric composition is expressed as N, said number of the crystal particles including the core and the shell is expressed as n, and n/N is 0.10 to 1.00.