mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a coil of a compressor which is electrically driven, comprising the steps of: producing a first winding of the coil , producing a second winding of the coil , compacting the first winding and the second winding by virtue of an external action of force, wherein a cross-sectional area of a wire of the first winding and of the second winding is deformed; wherein the windings of the coil are arranged between substantially parallel surfaces of two tool parts and are compacted by one, preferably two, dies in a direction (P a , P b ) parallel to the surfaces of the two tool parts ; and wherein the surfaces of the tool parts have a curvature which serves to match the coil to an air gap between a stator and a rotor of an electrical machine for the purpose of electrically driving the compressor . producing a first winding of the coil , producing a second winding of the coil , compacting the first winding and the second winding by virtue of an external action of force, wherein a cross-sectional area of a wire of the first winding and of the second winding is deformed; wherein the windings of the coil are arranged between substantially parallel surfaces of two tool parts and are compacted by one, preferably two, dies in a direction (P a , P b ) parallel to the surfaces of the two tool parts ; and wherein the surfaces of the tool parts have a curvature which serves to match the coil to an air gap between a stator and a rotor of an electrical machine for the purpose of electrically driving the compressor .
An integrated circuit, IC, comprising: a bus interface comprising: a clock pin configured to couple to a clock line on an associated bus; an input pin configured to couple to an input line on the associated bus; and an output pin configured to couple to an output line on the associated bus; an internal clock coupled to a control circuit; and the control circuit configured to detect a start command by being configured to: detect a change on the clock pin by detecting a transition from a logical low to a logical high on the clock pin that lasts a predetermined number of clock cycles of the internal clock; in response, send a first start acknowledgment, ACK, on the output pin that the change was detected; after sending the first start ACK, detect a subsequent change on the clock pin; and in response, send a second start ACK on the output pin. a bus interface comprising: a clock pin configured to couple to a clock line on an associated bus; an input pin configured to couple to an input line on the associated bus; and an output pin configured to couple to an output line on the associated bus; a clock pin configured to couple to a clock line on an associated bus; an input pin configured to couple to an input line on the associated bus; and an output pin configured to couple to an output line on the associated bus; an internal clock coupled to a control circuit; and the control circuit configured to detect a start command by being configured to: detect a change on the clock pin by detecting a transition from a logical low to a logical high on the clock pin that lasts a predetermined number of clock cycles of the internal clock; in response, send a first start acknowledgment, ACK, on the output pin that the change was detected; after sending the first start ACK, detect a subsequent change on the clock pin; and in response, send a second start ACK on the output pin. detect a change on the clock pin by detecting a transition from a logical low to a logical high on the clock pin that lasts a predetermined number of clock cycles of the internal clock; in response, send a first start acknowledgment, ACK, on the output pin that the change was detected; after sending the first start ACK, detect a subsequent change on the clock pin; and in response, send a second start ACK on the output pin.
Fast and low re-absorption composite scintillator for detecting high-energy particles and/or electromagnetic radiation, comprising a matrix charged with metal-organic nanocrystals containing at least a metal and at least two fluorescent ligands, wherein - a first ligand absorbs photons at a given spectral range, and a second ligand, by radiative or non-radiative interactions with the first ligand, is able to emit photons falling in a lower energetic spectral range than the first ligand; - the two ligands have respective absorption and emission bands, defining a large Stokes shift, wherein the energetic difference between the maximum of the emission band of the second ligand and the maximum of the absorption band of the first ligand is equal or higher than the width, in energy unit, of the emission band of the second ligand measured at half of its maximum value; - the intermolecular distance between the two ligands is equal or shorter than 15 Ångström. - a first ligand absorbs photons at a given spectral range, and a second ligand, by radiative or non-radiative interactions with the first ligand, is able to emit photons falling in a lower energetic spectral range than the first ligand; - the two ligands have respective absorption and emission bands, defining a large Stokes shift, wherein the energetic difference between the maximum of the emission band of the second ligand and the maximum of the absorption band of the first ligand is equal or higher than the width, in energy unit, of the emission band of the second ligand measured at half of its maximum value; - the intermolecular distance between the two ligands is equal or shorter than 15 Ångström.
Stair climber trolley comprising a frame with at least one supporting surface or lower element suited to support the objects to be transported, at least one back or back supporting element, and one or more handles or grips to be used to push/pull the stair climber trolley, comprising: • at least one pair of assemblies with three or more wheels , placed in proximity to the base of said frame and freely rotating on an axis that is essentially parallel to the floor (S3), suited to be used during the normal advance movement (C) of the trolley ; • at least one track placed behind said back , whose sliding direction is essentially parallel to said back , said at least one track being suited to be used to lift (A) the trolley along generically vertical or very inclined portions of surfaces (S2); characterized in that it also comprises at least one electric motor suited to directly or indirectly cause said at least one track to slide and one or more means suited to selectively lock the rotation of one or both of said assemblies of wheels with respect to said frame , so as to keep the trolley in a stable balanced position. • at least one pair of assemblies with three or more wheels , placed in proximity to the base of said frame and freely rotating on an axis that is essentially parallel to the floor (S3), suited to be used during the normal advance movement (C) of the trolley ; • at least one track placed behind said back , whose sliding direction is essentially parallel to said back , said at least one track being suited to be used to lift (A) the trolley along generically vertical or very inclined portions of surfaces (S2);
A transparent solid composition, comprising (a) 12 - hydroxystearic acid in an amount within a range from 1 to 15% by mass; (b) an oil having a refractive index at a temperature of 25°C within a range from 1.5 to 1.7 selected from the group consisting of hydrogenated polyisobutane, trimethyl pentaphenyl polysiloxane, and diphenyl dimethicone; (c) an oil having a refractive index at a temperature of 25°C of 1.3 or greater and less than 1.5 selected from the group consisting of triethylhexanoin, caprylic/capric triglyceride, glyceryl tri(2-ethylhexanoate), trimethylolpropane trioctanoate, α-olefin oligomer, glyceryl diisostearate, diisostearyl malate, polyglyceryl triisostearate, isododecane, isohexadecane, light isoparaffin, polyoxy alkylene polyalkyl siloxane, wherein alkylene is ethylene; and (d) one type or two or more types of an ultraviolet ray absorbing agent in an amount within a range from 5 to 35% by mass; the refractive index at a temperature of 25°C of the transparent solid composition being within a range from 1.47 to 1.53. (a) 12 - hydroxystearic acid in an amount within a range from 1 to 15% by mass; (b) an oil having a refractive index at a temperature of 25°C within a range from 1.5 to 1.7 selected from the group consisting of hydrogenated polyisobutane, trimethyl pentaphenyl polysiloxane, and diphenyl dimethicone; (c) an oil having a refractive index at a temperature of 25°C of 1.3 or greater and less than 1.5 selected from the group consisting of triethylhexanoin, caprylic/capric triglyceride, glyceryl tri(2-ethylhexanoate), trimethylolpropane trioctanoate, α-olefin oligomer, glyceryl diisostearate, diisostearyl malate, polyglyceryl triisostearate, isododecane, isohexadecane, light isoparaffin, polyoxy alkylene polyalkyl siloxane, wherein alkylene is ethylene; and (d) one type or two or more types of an ultraviolet ray absorbing agent in an amount within a range from 5 to 35% by mass;
A multirange test strip, the test strip comprising: a spreading layer; a first analyte stack and a second analyte stack, the first and second analyte stacks in fluidic communication with the spreading layer, the first and second analyte stacks having layers and reagents for testing for an analyte, the layers and reagents for testing for the analyte for the first and second analyte stacks being the same, wherein the second analyte stack includes a peroxide modulator, and the first analyte stack has a first dynamic range for the analyte and a first sensitivity and precision; and the second analyte stack has a second dynamic range corresponding to a first amount of the peroxide modulator added and a second sensitivity and precision, the second sensitivity and precision approximately equal to the first sensitivity and precision, wherein the peroxide modulator is glutathione and the layers and reagents for testing for an analyte include 4-Amino antipyrine (4-AAP) and N,N-disubstituted aniline derivatives which produce a colorimetric response and wherein each of the first and second analyte stacks include cholesterol detection chemistry, the cholesterol detection chemistry being the same for each of the first and second analyte stacks except for the first amount of peroxide modulator. a spreading layer; a first analyte stack and a second analyte stack, the first and second analyte stacks in fluidic communication with the spreading layer, the first and second analyte stacks having layers and reagents for testing for an analyte, the layers and reagents for testing for the analyte for the first and second analyte stacks being the same, wherein the second analyte stack includes a peroxide modulator, and the first analyte stack has a first dynamic range for the analyte and a first sensitivity and precision; and the second analyte stack has a second dynamic range corresponding to a first amount of the peroxide modulator added and a second sensitivity and precision, the second sensitivity and precision approximately equal to the first sensitivity and precision, wherein the peroxide modulator is glutathione and the layers and reagents for testing for an analyte include 4-Amino antipyrine (4-AAP) and N,N-disubstituted aniline derivatives which produce a colorimetric response and wherein each of the first and second analyte stacks include cholesterol detection chemistry, the cholesterol detection chemistry being the same for each of the first and second analyte stacks except for the first amount of peroxide modulator.
An introducer , comprising: a layered tubular member , comprising: an inner liner including a lumen, a distal region, and at least one folded portion extending along the distal region of the inner liner in a delivery configuration, wherein the inner liner extends to a distal end of the layered tubular member ; a reinforcing member disposed over at least a portion of the inner liner , the reinforcing member having a length and including a plurality of longitudinal spines defining a plurality of openings disposed between adjacent longitudinal spines; an outer sheath disposed over the reinforcing member ; and a tip member fixedly attached to a tapered distal region of the layered tubular member ; characterized in that each folded portion is circumferentially overlapped by one of the plurality of openings ; the outer sheath includes a plurality of perforations circumferentially overlapping each folded portion ; and at least a portion of each folded portion terminates proximal of the distal end of the layered tubular member . an inner liner including a lumen, a distal region, and at least one folded portion extending along the distal region of the inner liner in a delivery configuration, wherein the inner liner extends to a distal end of the layered tubular member ; a reinforcing member disposed over at least a portion of the inner liner , the reinforcing member having a length and including a plurality of longitudinal spines defining a plurality of openings disposed between adjacent longitudinal spines; an outer sheath disposed over the reinforcing member ; and a tip member fixedly attached to a tapered distal region of the layered tubular member ; characterized in that each folded portion is circumferentially overlapped by one of the plurality of openings ; the outer sheath includes a plurality of perforations circumferentially overlapping each folded portion ; and at least a portion of each folded portion terminates proximal of the distal end of the layered tubular member .
A paperboard packaging container for bulk solids, said container comprising a tubular paperboard container body , a container bottom and a container lid , said container body extending in a longitudinal direction (L) of said container from a bottom end of said container body to a container opening , said container body comprising a container body abutment edge at said container opening , said container body having an inner surface facing towards an inner compartment in said packaging container and an outer surface facing away from said inner compartment , said container lid comprising a lid collar having a lid abutment edge adapted for abutting against said container body abutment edge when said container lid is in a closed position, and a plug-in portion , said plug-in portion having a side surface , extending in said longitudinal direction (L) and facing said inner surface of said container body when said container lid is in said closed position, and a main surface , said main surface of said plug-in portion being located at a distance from said container body abutment edge when said container lid is in said closed position, wherein said lid collar is made of the same material as the container body and said lid collar is delimited from said container body by a slit or by weakening means (20") for allowing said lid collar to be partially separated from said container body at said abutment edges , wherein a hinge is provided between said container lid and said container body , said hinge comprising or consisting of a remaining part of the periphery not comprising said slit or said weakening means (20"), said packaging container being provided with a locking arrangement for retaining said container lid in said closed position, wherein a reinforcement of the container opening is provided by (i) a partially removable transport closure being attached to said inner surface of said container body and forming a roof over said inner compartment and/or (ii) by said container body being formed from a multi-ply paperboard material including at least one or more reinforcing non-cellulosic layer, characterised in that said locking arrangement comprises a first locking element in the form of a recess, provided on said inner surface of said container body , and a second locking element in the form of a protrusion provided on said side surface of said plug-in portion , said first and second locking elements being mating locking elements , said first locking element and said second locking element being in the form of physical deformations of the paperboard material provided on said inner surface of said container body and said side surface of said plug-in portion , respectively, wherein said first locking element and said second locking element are arranged such that when said container lid is in said closed position said protrusion is in engagement with said recess and wherein said locking arrangement and said hinge are arranged at opposite sides of said container opening .
A method for touch-based operation in a mobile device, the method comprising: displaying (S107), on a touch screen of the mobile device, a communication-related list comprising a plurality of items; detecting (S109), on the touch screen , a first touch input at a first touchdown location on a first item of the plurality of items; in response to detecting movement of the first touch input from the first touchdown location in a first direction towards a first side of the first item, moving (S113) the first item on the touch screen in the first direction corresponding to the movement of the first touch input, and displaying a first icon at a second side of the first item, wherein the first icon represents an executable function assigned to the movement of the first touch input in the first direction on the first item, and wherein the second side of the first item is opposite to the first side; and executing (S117) the executable function in response to detecting at least the movement of the first touch input in the first direction to a point beyond a first critical point which changes depending on the first touchdown location. displaying (S107), on a touch screen of the mobile device, a communication-related list comprising a plurality of items; detecting (S109), on the touch screen , a first touch input at a first touchdown location on a first item of the plurality of items; in response to detecting movement of the first touch input from the first touchdown location in a first direction towards a first side of the first item, moving (S113) the first item on the touch screen in the first direction corresponding to the movement of the first touch input, and displaying a first icon at a second side of the first item, wherein the first icon represents an executable function assigned to the movement of the first touch input in the first direction on the first item, and wherein the second side of the first item is opposite to the first side; and executing (S117) the executable function in response to detecting at least the movement of the first touch input in the first direction to a point beyond a first critical point which changes depending on the first touchdown location.
A method of manufacturing a thermoelectric component comprising: thermo-mechanically processing a first material with a second powder to form a thermoelectric component, wherein the first material is ball-milled prior to thermo-mechanical processing to form a ball-milled first powder, wherein the ball-milled first powder comprises CoSi 2 and a dopant comprising at least one of nickel (Ni), cobalt (Co), iron (Fe), and boron (B), or combinations and alloys thereof at a concentration from about 0.2 wt% to about 5.0 wt% of the first material, wherein the second powder comprises n-type filled skutterudite, and wherein the second powder is disposed in contact with a first layer of the ball-milled first powder and a second layer of the ball-milled first powder prior to thermo-mechanical processing; wherein, subsequent to thermo-mechanical processing, a specific contact resistance between the first layer of the ball-milled first powder and the second powder is less than about 10.0 μΩ·cm 2 , and wherein a specific contact resistance between the second layer of the ball-milled first powder and the second powder is less than about 10.0 μΩ·cm 2 . thermo-mechanically processing a first material with a second powder to form a thermoelectric component, wherein the first material is ball-milled prior to thermo-mechanical processing to form a ball-milled first powder, wherein the ball-milled first powder comprises CoSi 2 and a dopant comprising at least one of nickel (Ni), cobalt (Co), iron (Fe), and boron (B), or combinations and alloys thereof at a concentration from about 0.2 wt% to about 5.0 wt% of the first material, wherein the second powder comprises n-type filled skutterudite, and wherein the second powder is disposed in contact with a first layer of the ball-milled first powder and a second layer of the ball-milled first powder prior to thermo-mechanical processing; wherein, subsequent to thermo-mechanical processing, a specific contact resistance between the first layer of the ball-milled first powder and the second powder is less than about 10.0 μΩ·cm 2 , and wherein a specific contact resistance between the second layer of the ball-milled first powder and the second powder is less than about 10.0 μΩ·cm 2 .
A noise-cancelling headphone comprising: an ear piece comprising: a housing unit having an interior and an exterior; a driver unit attached to the housing unit; and a microphone collecting external sounds at the exterior of the housing unit, wherein the housing unit comprises: an accommodating portion accommodating the microphone; and a sound collecting hole establishing communication between the accommodating portion and the exterior of the housing unit, wherein the accommodating portion is disposed in an upper portion of the housing unit of the noise-cancelling headphone when worn by a user, and the sound collecting hole has a penetrating direction and is open toward an upper side of the housing unit of the noise-cancelling headphone when worn by the user, the penetrating direction being a vertical direction. an ear piece comprising: a housing unit having an interior and an exterior; a driver unit attached to the housing unit; and a microphone collecting external sounds at the exterior of the housing unit, wherein a housing unit having an interior and an exterior; a driver unit attached to the housing unit; and a microphone collecting external sounds at the exterior of the housing unit, wherein the housing unit comprises: an accommodating portion accommodating the microphone; and a sound collecting hole establishing communication between the accommodating portion and the exterior of the housing unit, wherein an accommodating portion accommodating the microphone; and a sound collecting hole establishing communication between the accommodating portion and the exterior of the housing unit, wherein the accommodating portion is disposed in an upper portion of the housing unit of the noise-cancelling headphone when worn by a user, and the sound collecting hole has a penetrating direction and is open toward an upper side of the housing unit of the noise-cancelling headphone when worn by the user, the penetrating direction being a vertical direction.
Building cladding comprising a substructure , adjacent elongated cover elements and a fitting assembly for connecting the elongated cover elements to the underlying substructure , whereby the fitting assembly has two individual fittings , which are connected to one another so as to be adjustable relative to one another, whereby each fitting projects under two adjacent cover elements respectively and is connected to one cover element respectively by a connecting element, and whereby only one of both fittings is also connected to the substructure by a connecting element, characterised in that the two fittings of the fitting assembly are connected to one another via a connecting rod , whereby at least one fitting is fastened to the lateral surface of the connecting rod by a clamping connection, whereby the clamping connection has at least one clamping tongue , which is part of the fitting , and bears against the outer surface of the connecting rod through its own elastic deformation.