mhurhangee/patent-ind-claim-en huggingface dataset:
A connecting unit, comprising: a connector protrusion including a locking lever provided on a first surface and a first connecting terminal provided on a second surface opposing the first surface or on a front surface; a connector socket including a second connecting terminal to be connected with the first connecting terminal and a housing having a groove formed in an inner wall so that the locking lever is pressed down and slides along the groove when the connector protrusion is inserted into the connector socket; and a connector frame that surrounds the connector protrusion and has an opening formed in a surface of the connector frame opposing the first surface of the connector protrusion, wherein the connector frame is configured such that when the connector frame is moved in a direction opposite to a direction where the connector protrusion is inserted while the connector protrusion is in the connector socket having the locking lever in a pressed down state, a hook-shaped end of the locking lever is caused to fit into the opening of the connector frame and the pressed down state of the locking lever is unlocked, and a middle part of the locking lever has a bent angle that becomes more obtuse as the connector frame is moved in the direction opposite to the direction where the connector protrusion is inserted. a connector protrusion including a locking lever provided on a first surface and a first connecting terminal provided on a second surface opposing the first surface or on a front surface; a connector socket including a second connecting terminal to be connected with the first connecting terminal and a housing having a groove formed in an inner wall so that the locking lever is pressed down and slides along the groove when the connector protrusion is inserted into the connector socket; and a connector frame that surrounds the connector protrusion and has an opening formed in a surface of the connector frame opposing the first surface of the connector protrusion, wherein the connector frame is configured such that when the connector frame is moved in a direction opposite to a direction where the connector protrusion is inserted while the connector protrusion is in the connector socket having the locking lever in a pressed down state, a hook-shaped end of the locking lever is caused to fit into the opening of the connector frame and the pressed down state of the locking lever is unlocked, and a middle part of the locking lever has a bent angle that becomes more obtuse as the connector frame is moved in the direction opposite to the direction where the connector protrusion is inserted.
An in vitro method for selecting human mesenchymal lineage precursor or stem cells for use in treatment comprising: (i) culturing an obtained population of cells comprising human mesenchymal lineage precursor or stem cells; (ii) determining the amount of TGFβ1 released by the human mesenchymal lineage precursor or stem cells into the culture medium; and (iii) selecting for use in treatment the human mesenchymal lineage precursor or stem cells that release TGFβ1 into the culture medium in an amount of at least 2800 pg/10 6 cells. (i) culturing an obtained population of cells comprising human mesenchymal lineage precursor or stem cells; (ii) determining the amount of TGFβ1 released by the human mesenchymal lineage precursor or stem cells into the culture medium; and (iii) selecting for use in treatment the human mesenchymal lineage precursor or stem cells that release TGFβ1 into the culture medium in an amount of at least 2800 pg/10 6 cells.
Impedance assembly for use in a voltage divider and adapted for sensing an AC elevated voltage of at least 1 kV versus ground of a power-carrying conductor distributing electrical energy in a national grid, wherein the impedance assembly comprises a) a printed circuit board ; b) an externally accessible high-voltage contact adapted for conductive connection to the power-carrying conductor; c) a first plurality of impedance elements , arranged on the printed circuit board and electrically connected to the high-voltage contact and in series with each other and adapted to be operable in a first voltage divider for sensing the elevated voltage of the power-carrying conductor; and d) a second plurality of impedance elements , arranged on the printed circuit board and electrically connected to the high-voltage contact and in series with each other and adapted to be operable in a second voltage divider for harvesting electrical energy from the power-carrying conductor. a) a printed circuit board ; b) an externally accessible high-voltage contact adapted for conductive connection to the power-carrying conductor; c) a first plurality of impedance elements , arranged on the printed circuit board and electrically connected to the high-voltage contact and in series with each other and adapted to be operable in a first voltage divider for sensing the elevated voltage of the power-carrying conductor; and d) a second plurality of impedance elements , arranged on the printed circuit board and electrically connected to the high-voltage contact and in series with each other and adapted to be operable in a second voltage divider for harvesting electrical energy from the power-carrying conductor.
An assembly for evaporation and dispensing of a volatile liquid, comprising: an emanator element having an open structure and a surface area of between 50 cm 2 and 400 cm 2 and made of a material that is able to absorb and evaporate volatile liquids; and a body member that includes a tubular portion having an interior wall for receiving the emanator element therein and wherein, when received in the body member, the emanator element is spaced from the interior wall to allow air flow through the open structure as well as between the wall and the emanator element , characterized in that the tubular portion is configured as an elongated passage that supports and retains the emanator element therein and defines a path for the air flow so that it comes in intimate contact with the entire open structure of the element. an emanator element having an open structure and a surface area of between 50 cm 2 and 400 cm 2 and made of a material that is able to absorb and evaporate volatile liquids; and a body member that includes a tubular portion having an interior wall for receiving the emanator element therein and wherein, when received in the body member, the emanator element is spaced from the interior wall to allow air flow through the open structure as well as between the wall and the emanator element , characterized in that the tubular portion is configured as an elongated passage that supports and retains the emanator element therein and defines a path for the air flow so that it comes in intimate contact with the entire open structure of the element.
A light-emitting device , comprising: a substrate ; a light-emitting diode (LED 510) formed on a first surface of the substrate , the LED being arranged to emit a primary light; a fence structure mounted to a second surface of the substrate , the fence structure including a plurality of walls arranged to define a cell , a reflective pattern formed on the second surface of the substrate , the reflective pattern including a plurality of lines , each line being at least partially coincident with a different wall of the fence structure ; a light-converting structure disposed on the second surface of the substrate in the cell , the light-converting structure being arranged to convert at least a portion of the primary light to a secondary light having a wavelength that is different from the wavelength of the primary light; and a reflective layer formed on an outer surface of the plurality of walls of the fence structure , sidewalls of the substrate , and sidewalls of the LED , such that the reflective layer and the light-converting structure are disposed on opposite sides of the walls of the fence structure . a substrate ; a light-emitting diode (LED 510) formed on a first surface of the substrate , the LED being arranged to emit a primary light; a fence structure mounted to a second surface of the substrate , the fence structure including a plurality of walls arranged to define a cell , a reflective pattern formed on the second surface of the substrate , the reflective pattern including a plurality of lines , each line being at least partially coincident with a different wall of the fence structure ; a light-converting structure disposed on the second surface of the substrate in the cell , the light-converting structure being arranged to convert at least a portion of the primary light to a secondary light having a wavelength that is different from the wavelength of the primary light; and a reflective layer formed on an outer surface of the plurality of walls of the fence structure , sidewalls of the substrate , and sidewalls of the LED , such that the reflective layer and the light-converting structure are disposed on opposite sides of the walls of the fence structure .
A liver-type fatty acid-binding protein used in a liver-type fatty acid-binding protein standard, wherein a coefficient of change in oxidation represented by the ratio of a measured value obtained with the liver-type fatty acid-binding protein standard that has been subjected to an oxidation treatment for one hour at 25°C using an oxidant at 10 mM, with respect to the measured value obtained using the liver-type fatty acid-binding protein standard that has not been subjected to the oxidation treatment, is set to be 1.4 or less, characterized in that the liver-type fatty acid-binding protein comprises an amino acid sequence having at least 90% identity with SEQ ID NO:1 of the Sequence Listing, wherein one or more methionines at positions 19, 74, and 113 have been substituted by non-polar amino acids other than methionine, and at least methionine at position 19 has been substituted by the non-polar amino acid other than methionine.
An extruder comprising: - a hollow extrusion cylinder , elongated in a longitudinal direction and having an inlet for receiving pellets of polymeric material, and an outlet for expelling melted polymeric material ; - an extruder screw connected to a motor to rotate inside the extrusion cylinder and to move the polymeric material from the inlet to the outlet ; - heaters coupled to the extrusion cylinder ; - an apparatus for optical inspection of a mass of polymeric material passing through the extruder , wherein the optical inspection apparatus comprises an optical sensor which can be operatively coupled to the extrusion cylinder and which has an infrared light emitter and a receiver configured to measure a measurement parameter representing an optical property of the polymeric material inside the extrusion cylinder , the extruder being characterized in that it comprises: - a plurality of the optical sensors , which are coupled to the extrusion cylinder in a plurality of measurement sites located in succession and spaced from each other along the longitudinal direction; - a processor programmed to acquire a plurality of measurement signals containing the measurement parameters measured by the corresponding optical sensors of the plurality of optical sensors and programmed to process the plurality of measurement signals in order to calculate a corresponding plurality of values of a control parameter indicating a physical state of the polymeric material , wherein the plurality of values represents a curve of the changes in the control parameter inside the extrusion cylinder as a function of a longitudinal position. - a hollow extrusion cylinder , elongated in a longitudinal direction and having an inlet for receiving pellets of polymeric material, and an outlet for expelling melted polymeric material ; - an extruder screw connected to a motor to rotate inside the extrusion cylinder and to move the polymeric material from the inlet to the outlet ; - heaters coupled to the extrusion cylinder ; - an apparatus for optical inspection of a mass of polymeric material passing through the extruder , - a plurality of the optical sensors , which are coupled to the extrusion cylinder in a plurality of measurement sites located in succession and spaced from each other along the longitudinal direction; - a processor programmed to acquire a plurality of measurement signals containing the measurement parameters measured by the corresponding optical sensors of the plurality of optical sensors and programmed to process the plurality of measurement signals in order to calculate a corresponding plurality of values of a control parameter indicating a physical state of the polymeric material , wherein the plurality of values represents a curve of the changes in the control parameter inside the extrusion cylinder as a function of a longitudinal position.
Cosmetic treatment method for adding fibers to natural eyelashes, comprising the following successive steps: a) applying an adhesive composition (A) to at least part of the eyelashes, the length on which the adhesive composition is applied being in a range of 1 to 70% of the natural length of the eyelashes, b) bringing fibers borne by an applicator into contact with said adhesive composition (A) present on said eyelashes, the fibers being positioned on the applicator such that they are substantially parallel to one another on the applicator . c) moving the applicator away from the eyelashes, so as to release fibers which adhere to said eyelashes. a) applying an adhesive composition (A) to at least part of the eyelashes, the length on which the adhesive composition is applied being in a range of 1 to 70% of the natural length of the eyelashes, b) bringing fibers borne by an applicator into contact with said adhesive composition (A) present on said eyelashes, the fibers being positioned on the applicator such that they are substantially parallel to one another on the applicator . c) moving the applicator away from the eyelashes, so as to release fibers which adhere to said eyelashes.
A method of filling a via in an electronic device with copper comprising: providing an acidic copper electroplating bath comprising a source of copper ions, an acid electrolyte, a source of halide ions, an accelerator, a leveler, and a suppressor, wherein the copper electroplating bath has a dynamic surface tension of ≤ 40 mN/m, as measured using a Krüss BP100 bubble tensiometer at a solution temperature of 25 °C and at a surface age of 30 sec; providing as a cathode an electronic device substrate having one or more vias to be filled with copper and having a conductive surface; contacting the electronic device substrate with the copper electroplating bath; and applying a potential for a period of time sufficient to fill the vias with a copper deposit; wherein the copper deposit in the vias is substantially void-free and substantially free of surface defects; characterized in that the suppressor comprises ethylene oxide as polymerized units and an end group formed from a branched secondary aliphatic alcohol.
A spintronic device, comprising: (a) a composite seed layer comprising at least a lower Ta layer formed on a substrate and a metal (M1) layer having a fcc or hcp crystal structure disposed on the lower Ta layer; (b) a free layer and a reference layer wherein one or both of said free layer and reference layer are comprised of a laminated structure with a plurality of (A/B) stacks of layers in which an A layer has a lesser thickness than a B layer, and said laminated structure exhibits perpendicular magnetic anisotropy; (c) a non-magnetic layer formed between the reference layer and the free layer; (d) an interfacial layer (26 and/or 24) comprised of CoFeB or being a composite including a CoFeB layer and a CoFe layer formed between the non-magnetic layer and each of the laminated free layer and/or laminated reference layer; and (e) a cap layer characterized in that at least (A/B) is one of (CoFe/Ni), (CoFeR/Ni), (Co/NiFe), (Co/NiCo), (CoFe/NiFe), or (CoFe/NiCo),. (a) a composite seed layer comprising at least a lower Ta layer formed on a substrate and a metal (M1) layer having a fcc or hcp crystal structure disposed on the lower Ta layer; (b) a free layer and a reference layer wherein one or both of said free layer and reference layer are comprised of a laminated structure with a plurality of (A/B) stacks of layers in which an A layer has a lesser thickness than a B layer, and said laminated structure exhibits perpendicular magnetic anisotropy; (c) a non-magnetic layer formed between the reference layer and the free layer; (d) an interfacial layer (26 and/or 24) comprised of CoFeB or being a composite including a CoFeB layer and a CoFe layer formed between the non-magnetic layer and each of the laminated free layer and/or laminated reference layer; and (e) a cap layer characterized in that at least (A/B) is one of (CoFe/Ni), (CoFeR/Ni), (Co/NiFe), (Co/NiCo), (CoFe/NiFe), or (CoFe/NiCo),.
Cleaning device, comprising a base body and a handle by means of which an operator can move the cleaning device on a surface to be cleaned, wherein two rollers which can be rotated in opposite directions are accommodated in the base body such that the rollers come into contact with the floor to be cleaned, wherein the rollers are arranged in the base body in such a way that they are separated only by a common air gap and/or a longitudinal gap , characterized in that the lateral surfaces of the rollers are provided with a profile , and in that the profiles of the rollers mutually engage in one another.
System for an electrical cable route for the transmission of electrical energy, the system having a first sensor for detecting electrical signals from the cable section , a processor unit , a data memory , and a signal interface , the data memory having stored a first set of curves comprising a plurality of first curves , each with an associated distance from the first sensor , each first curve representing an impulse response, predetermined by means of a cable model of the cable route , of an electrical impulse by a modeled partial discharge at the distance from the first sensor on the cable route associated with the respective first curve , wherein the first sensor is designed to detect an electrical signal, which is referred to as a first discharge signal and is caused by an actual partial discharge on the cable section , and is designed to transmit a first measurement signal M, which represents the first discharge signal , directly or indirectly to the processor unit , wherein the processor unit is configured to determine, based on the first measurement signal M, one of the first curves of the first set of curves as the first discharge curve which, among the first curves of the first set of curves , correlates best with the first discharge signal , wherein the processor unit is configured to determine a first sensor distance E of the actual partial discharge to the first sensor based on the distance associated with the first discharge curve , and wherein the signal interface is designed to transmit an output signal U which represents the first sensor distance E. a first sensor for detecting electrical signals from the cable section , a processor unit , a data memory , and a signal interface , the data memory having stored a first set of curves comprising a plurality of first curves , each with an associated distance from the first sensor , each first curve representing an impulse response, predetermined by means of a cable model of the cable route , of an electrical impulse by a modeled partial discharge at the distance from the first sensor on the cable route associated with the respective first curve , wherein the first sensor is designed to detect an electrical signal, which is referred to as a first discharge signal and is caused by an actual partial discharge on the cable section , and is designed to transmit a first measurement signal M, which represents the first discharge signal , directly or indirectly to the processor unit , wherein the processor unit is configured to determine, based on the first measurement signal M, one of the first curves of the first set of curves as the first discharge curve which, among the first curves of the first set of curves , correlates best with the first discharge signal , wherein the processor unit is configured to determine a first sensor distance E of the actual partial discharge to the first sensor based on the distance associated with the first discharge curve , and wherein the signal interface is designed to transmit an output signal U which represents the first sensor distance E.
A composition comprising a composite material for mitigating electromagnetic interference (EMI), the composite material comprising: a matrix material ; and ceramic particles dispersed within the matrix material ; characterised in that the ceramic particles comprise titanium monoxide (TiO).
A longitudinal asphalt pavement construction joint area that comprises a first substrate that defines an existing pavement surface portion, a hot mix application portion and a void reducing asphalt membrane composition provided between the first substrate and the hot mix application, the void reducing asphalt membrane composition comprising: 85 - 97 wt.-% of an asphalt binder, selected from paving grade asphalts; 2 - 5 wt.-% of an elastomeric polymer selected from Styrene-ButadieneStyrene (SBS), Styrene-Butadiene Rubber (SBR), Ethylene-Styrene-Interpolymers (ESI); and 2 - 4 wt.-% of a wax modifier, selected from waxes of vegetable, animal wax, waxes from mineral or petroleum origin including oxidized waxes, amide waxes, fatty acids and soaps of waxy nature. 85 - 97 wt.-% of an asphalt binder, selected from paving grade asphalts; 2 - 5 wt.-% of an elastomeric polymer selected from Styrene-ButadieneStyrene (SBS), Styrene-Butadiene Rubber (SBR), Ethylene-Styrene-Interpolymers (ESI); and 2 - 4 wt.-% of a wax modifier, selected from waxes of vegetable, animal wax, waxes from mineral or petroleum origin including oxidized waxes, amide waxes, fatty acids and soaps of waxy nature.
Functional belt having a length direction and a width direction comprising a foam layer and at least one further functional layer , characterized in that the foam layer and the further functional layer are joined to one another by laser transmission welding, in particular by means of NIR laser transmission welding, in which lasers having a wavelength in the range of 780nm-1100nm are used.
A set of tools for installation of a stem implant into a bone, comprising: a plurality of stem-shaped broaches (2-6) of different size, each of the broaches having a distal head and a plurality of cutting teeth along a length thereof, a stem-shaped priming tool having a distal head and a plurality of cutting teeth along a length thereof; characterized in that , the priming tool is shorter than, has more cutting teeth per unit length, and has a sharper distal tip than the smallest broach; and the set of tools further comprises a stem insertion tool having implant stem engagement features for engaging with corresponding engagement features of an implant stem for transmission of forces applied to the stem insertion tool to the stem implant, and wherein said engagement features comprise: a bull nose feature , or a ball configured for snap-fitting into an implant, such as an implant liner of a stem . a plurality of stem-shaped broaches (2-6) of different size, each of the broaches having a distal head and a plurality of cutting teeth along a length thereof, a stem-shaped priming tool having a distal head and a plurality of cutting teeth along a length thereof; characterized in that , the priming tool is shorter than, has more cutting teeth per unit length, and has a sharper distal tip than the smallest broach; and the set of tools further comprises a stem insertion tool having implant stem engagement features for engaging with corresponding engagement features of an implant stem for transmission of forces applied to the stem insertion tool to the stem implant, and wherein said engagement features comprise: a bull nose feature , or a ball configured for snap-fitting into an implant, such as an implant liner of a stem . a bull nose feature , or a ball configured for snap-fitting into an implant, such as an implant liner of a stem .