mhurhangee/patent-ind-claim-en huggingface dataset:
A power feed connector to be used for connecting to a power-receiving connector of an automobile, comprising: a connector body ; a case accommodating the connector body therein; a holding member attached to the case, accommodating a part of the case and having a handle at one of its end portions, the handle being a portion of the power feed connector to be held in the operator's hand when the power feed connector is operated; and a case-locking mechanism for restricting a movement of the case with respect to the holding member, wherein the connector body and the holding member are slidable in the same axial direction with respect to the case when the case-locking mechanism is unlocked, and the connector body is movable forward with respect to the case with a movement of the holding member when the holding member moves forward with respect to the case in a state where the case-locking mechanism is unlocked; characterized in that the handle is formed such that it extends in a direction perpendicular to the central axis of the connector body and at least a part of it is set on the extended line (T) of the central axis of the connector body; a speed reduction mechanism is provided in the case, and the holding member and the connector body are adapted to move with respect to the case via the speed reduction mechanism, and when the holding member moves with respect to the case, a movement distance of the connector body with respect to the case becomes smaller than a movement distance of the holding member with respect to the case. a connector body ; a case accommodating the connector body therein; a holding member attached to the case, accommodating a part of the case and having a handle at one of its end portions, the handle being a portion of the power feed connector to be held in the operator's hand when the power feed connector is operated; and a case-locking mechanism for restricting a movement of the case with respect to the holding member, wherein the connector body and the holding member are slidable in the same axial direction with respect to the case when the case-locking mechanism is unlocked, and the connector body is movable forward with respect to the case with a movement of the holding member when the holding member moves forward with respect to the case in a state where the case-locking mechanism is unlocked; characterized in that the handle is formed such that it extends in a direction perpendicular to the central axis of the connector body and at least a part of it is set on the extended line (T) of the central axis of the connector body; a speed reduction mechanism is provided in the case, and the holding member and the connector body are adapted to move with respect to the case via the speed reduction mechanism, and when the holding member moves with respect to the case, a movement distance of the connector body with respect to the case becomes smaller than a movement distance of the holding member with respect to the case.
A surgical implant management device, comprising: a body having a first end , a second end , opposed walls extending between the first and second ends, a top side , and a bottom side , the body further comprising: an implantable body retainer configured to retain the implantable body (12; 12') on the top side of the body ; a first opening disposed more proximate to the second end than the first end ; characterised in that a fold extending across the body , between the opposed walls , and intersecting the opening , the fold being configured such that the second end of the body is folded toward the bottom side of the body to form a filament loop engaging region along the fold, the filament loop engaging region being configured to receive one or more filament loops coupled to an implantable body (12; 12') retained by the implantable body retainer ; and a pair of opposed openings disposed on either side of a central longitudinal axis (L) of the body that extends approximately parallel to the opposed walls , the pair of opposed openings being intersected by the fold , wherein portions of the body disposed between the pair of opposed openings and the first opening form prongs of the filament loop engaging region for receiving one or more filament loops. an implantable body retainer configured to retain the implantable body (12; 12') on the top side of the body ; a first opening disposed more proximate to the second end than the first end ; characterised in that a fold extending across the body , between the opposed walls , and intersecting the opening , the fold being configured such that the second end of the body is folded toward the bottom side of the body to form a filament loop engaging region along the fold, the filament loop engaging region being configured to receive one or more filament loops coupled to an implantable body (12; 12') retained by the implantable body retainer ; and a pair of opposed openings disposed on either side of a central longitudinal axis (L) of the body that extends approximately parallel to the opposed walls , the pair of opposed openings being intersected by the fold , wherein portions of the body disposed between the pair of opposed openings and the first opening form prongs of the filament loop engaging region for receiving one or more filament loops.
A roof arch structure for supporting and lifting covers in commercial vehicles, containers and/or trailers, having a first roof arch for connection to a rear cover , and having a second roof arch for supporting a roof cover , the second roof arch being designed to be arranged on the first roof arch , characterised by at least one coupling device for coupling the first roof arch to the second roof arch , said coupling device having a coupling bolt and a coupling socket , wherein the coupling bolt is designed with an activation device for locking and unlocking the coupling bolt into/out of the coupling socket , and wherein the second roof arch is designed such that in the process the outer face of the first roof arch is completely covered.
A decoration member comprising: a color developing layer comprising a light reflective layer and a light absorbing layer provided on the light reflective layer ; and a substrate provided on one surface of the color developing layer , wherein the light absorbing layer comprises a molybdenum-titanium oxide (Mo a Ti b O x ); and ω represented by Equation 1 is greater than or equal to 0.41 and less than or equal to 1.1 when conducting a component analysis on any one point of the light absorbing layer : ω = T x × σ x ƒ T 1 = T 1 T 0 o < T 1 ≤ T o ƒ T 1 = ƒ T 1 + n × T 0 σ x = a + b x wherein, in Equation 1, T x is a T 1 -dependent function value of a function represented by f(T 1 ), n is a positive integer of 1 or greater, and σ x is represented by Equation 3; wherein, in Equation 2, T 1 is a thickness of the light absorbing layer comprising the any one point of the light absorbing layer on which the component analysis is conducted, and T o is 80 nm; and wherein, in Equation 3, a means an element content ratio of molybdenum (Mo), b means an element content ratio of titanium (Ti), and x means an element content ratio of oxygen (O). a color developing layer comprising a light reflective layer and a light absorbing layer provided on the light reflective layer ; and a substrate provided on one surface of the color developing layer , wherein the light absorbing layer comprises a molybdenum-titanium oxide (Mo a Ti b O x ); and ω represented by Equation 1 is greater than or equal to 0.41 and less than or equal to 1.1 when conducting a component analysis on any one point of the light absorbing layer : ω = T x × σ x ƒ T 1 = T 1 T 0 o < T 1 ≤ T o ƒ T 1 = ƒ T 1 + n × T 0 σ x = a + b x wherein, in Equation 1, T x is a T 1 -dependent function value of a function represented by f(T 1 ), n is a positive integer of 1 or greater, and σ x is represented by Equation 3; wherein, in Equation 2, T 1 is a thickness of the light absorbing layer comprising the any one point of the light absorbing layer on which the component analysis is conducted, and T o is 80 nm; and wherein, in Equation 3, a means an element content ratio of molybdenum (Mo), b means an element content ratio of titanium (Ti), and x means an element content ratio of oxygen (O).
Method for manufacturing a thermocouple temperature sensor, comprising the following successive steps: a) manufacture of a mineral insulated cable comprising a protective sheath and two thermocouple wires extending inside the protective sheath over the entire length of the mineral insulated cable and embedded in a mineral insulation ; b) stripping of one of the ends of the mineral insulated cable over a length of between 2 and 20 mm so as to uncover ends of the thermocouple wires; c) connection of the ends of the thermocouple wires thus uncovered, so as to constitute a thermocouple hot junction ; d) fixing of a cap onto the said mineral insulated cable so as to protect the said hot junction, the cap having a restriction , the diameter of the restriction at the level of the hot junction after step d) being less than 2 mm, e) insertion of the mineral insulated cable comprising a protective sheath into a reinforcing tube , the reinforcing tube 60 extending the cap in order therewith to cover the entire exterior lateral surface of the protective sheath . a) manufacture of a mineral insulated cable comprising a protective sheath and two thermocouple wires extending inside the protective sheath over the entire length of the mineral insulated cable and embedded in a mineral insulation ; b) stripping of one of the ends of the mineral insulated cable over a length of between 2 and 20 mm so as to uncover ends of the thermocouple wires; c) connection of the ends of the thermocouple wires thus uncovered, so as to constitute a thermocouple hot junction ; d) fixing of a cap onto the said mineral insulated cable so as to protect the said hot junction, the cap having a restriction , the diameter of the restriction at the level of the hot junction after step d) being less than 2 mm, e) insertion of the mineral insulated cable comprising a protective sheath into a reinforcing tube , the reinforcing tube 60 extending the cap in order therewith to cover the entire exterior lateral surface of the protective sheath .
A drive device comprising: a support ; a first movable portion swingable in two axial directions with respect to the support; a first magnet positioned inside the first movable portion and a second magnet positioned outside the first movable portion when viewed from a first direction; a first coil on which magnetic flux from the first magnet acts and a second coil on which magnetic flux from the second magnet acts; a magnetic member including one or more facing members facing at least one of the first magnet and the second magnet; and a second movable portion swingably attached to the first movable portion, wherein the first direction is a central axis direction of the first coil in a state in which no current flows in the first coil and the second coil, wherein the first coil is fixed to the first movable portion, passes between the first magnet and the magnetic member, and does not pass between the second magnet and the magnetic member when viewed from the first direction, the second coil is fixed to the first movable portion, passes between the second magnet and the magnetic member, and does not pass between the first magnet and the magnetic member when viewed from the first direction, and the second movable portion is swingable with a first axis as an axis such that an angle of a reference surface is variable with respect to the first movable portion, wherein the second movable portion includes a reflection surface as the reference surface. a support ; a first movable portion swingable in two axial directions with respect to the support; a first magnet positioned inside the first movable portion and a second magnet positioned outside the first movable portion when viewed from a first direction; a first coil on which magnetic flux from the first magnet acts and a second coil on which magnetic flux from the second magnet acts; a magnetic member including one or more facing members facing at least one of the first magnet and the second magnet; and a second movable portion swingably attached to the first movable portion, wherein the first direction is a central axis direction of the first coil in a state in which no current flows in the first coil and the second coil, wherein the first coil is fixed to the first movable portion, passes between the first magnet and the magnetic member, and does not pass between the second magnet and the magnetic member when viewed from the first direction, the second coil is fixed to the first movable portion, passes between the second magnet and the magnetic member, and does not pass between the first magnet and the magnetic member when viewed from the first direction, and the second movable portion is swingable with a first axis as an axis such that an angle of a reference surface is variable with respect to the first movable portion, wherein the second movable portion includes a reflection surface as the reference surface.
A semi-batch process for the production of a polyoxyalkylene polyether polyol having an OH number of from 112 mg KOH/g to 400 mg KOH/g, comprising: establishing oxyalkylation conditions in an oxyalkylation reactor in the presence of a double metal cyanide catalyst; continuously introducing alkylene oxide and a low molecular weight starter into said reactor, said starter having a number average molecular weight of from 30 g/mol to 200 g/mol; and recovering an oxyalkylated polyether polyol from the reactor; wherein said oxyalkylation initially occurs at a sufficiently high temperature for up to 60 minutes and for between 2% and 50% of the total oxide feed amount, and then continuing the oxyalkylation at a temperature in the range of from 120°C to 135°C, and wherein said oxyalkylation initially occurs at a temperature in the range of from greater than 135°C to 150°C. establishing oxyalkylation conditions in an oxyalkylation reactor in the presence of a double metal cyanide catalyst; continuously introducing alkylene oxide and a low molecular weight starter into said reactor, said starter having a number average molecular weight of from 30 g/mol to 200 g/mol; and recovering an oxyalkylated polyether polyol from the reactor; wherein said oxyalkylation initially occurs at a sufficiently high temperature for up to 60 minutes and for between 2% and 50% of the total oxide feed amount, and then continuing the oxyalkylation at a temperature in the range of from 120°C to 135°C, and wherein said oxyalkylation initially occurs at a temperature in the range of from greater than 135°C to 150°C.
Extruded pellets comprising at least 70% w/w cholestyramine and i. at least 7% w/w of a vinylpyrrolidone-based polymer; or ii. a combination of at least 6% w/w of a vinylpyrrolidone-based polymer and at least 2% w/w of an acrylate copolymer; or iii. a combination of at least 5% w/w of a vinylpyrrolidone-based polymer and at least 3% w/w of an acrylate copolymer; or iv. a combination of at least 6% w/w of a vinylpyrrolidone-based polymer, at least 1% w/w of an acrylate copolymer and at least 10% w/w microcrystalline cellulose; or v. a combination of at least 5% w/w of a vinylpyrrolidone-based polymer, at least 2% w/w of an acrylate copolymer and at least 20% w/w microcrystalline cellulose. i. at least 7% w/w of a vinylpyrrolidone-based polymer; or ii. a combination of at least 6% w/w of a vinylpyrrolidone-based polymer and at least 2% w/w of an acrylate copolymer; or iii. a combination of at least 5% w/w of a vinylpyrrolidone-based polymer and at least 3% w/w of an acrylate copolymer; or iv. a combination of at least 6% w/w of a vinylpyrrolidone-based polymer, at least 1% w/w of an acrylate copolymer and at least 10% w/w microcrystalline cellulose; or v. a combination of at least 5% w/w of a vinylpyrrolidone-based polymer, at least 2% w/w of an acrylate copolymer and at least 20% w/w microcrystalline cellulose.
A method for forming an object, the method comprising: moving a recoat assembly in a coating direction over a build material , wherein the recoat assembly comprises a first roller and a second roller that is spaced apart from the first roller ; rotating the first roller of the recoat assembly in a counter-rotation direction , such that a bottom of the first roller moves in the coating direction ; contacting the build material with the first roller of the recoat assembly , thereby fluidizing at least a portion of the build material; irradiating, with a front energy source coupled to a front end of the recoat assembly , an initial layer of build material positioned in a build area ; subsequent to irradiating the initial layer of build material, moving fluidized build material from a supply receptacle to the build area with the first roller , thereby depositing a second layer of the build material over the initial layer of build material; and subsequent to depositing the second layer of the build material, irradiating, with a rear energy source positioned rearward of the front energy source , the second layer of build material within the build area . moving a recoat assembly in a coating direction over a build material , wherein the recoat assembly comprises a first roller and a second roller that is spaced apart from the first roller ; rotating the first roller of the recoat assembly in a counter-rotation direction , such that a bottom of the first roller moves in the coating direction ; contacting the build material with the first roller of the recoat assembly , thereby fluidizing at least a portion of the build material; irradiating, with a front energy source coupled to a front end of the recoat assembly , an initial layer of build material positioned in a build area ; subsequent to irradiating the initial layer of build material, moving fluidized build material from a supply receptacle to the build area with the first roller , thereby depositing a second layer of the build material over the initial layer of build material; and subsequent to depositing the second layer of the build material, irradiating, with a rear energy source positioned rearward of the front energy source , the second layer of build material within the build area .
A fixing member having an endless belt shape, the fixing member comprising a substrate and an elastic layer on the substrate , wherein the elastic layer includes silicone rubber and a filler dispersed in the silicone rubber, and when a thermal conductivity of the elastic layer in a thickness direction is defined as λnd, a thermal conductivity of the elastic layer in a circumferential direction is defined as λtd, and a thermal conductivity of the elastic layer in a width direction is defined as λmd, λnd is 1.30 W/(m · K) or more, and λnd, λtd, and λmd satisfy a relationship shown by the following Expression (a), λ nd > λ md > λ td , characterized in that the filler is metallic silicon or magnesium oxide. wherein the elastic layer includes silicone rubber and a filler dispersed in the silicone rubber, and when a thermal conductivity of the elastic layer in a thickness direction is defined as λnd, a thermal conductivity of the elastic layer in a circumferential direction is defined as λtd, and a thermal conductivity of the elastic layer in a width direction is defined as λmd, λnd is 1.30 W/(m · K) or more, and λnd, λtd, and λmd satisfy a relationship shown by the following Expression (a), λ nd > λ md > λ td , characterized in that the filler is metallic silicon or magnesium oxide.
Apparatus for additively manufacturing of three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy beam, with a stream generating unit configured to generate a stream of a process gas being capable of being charged with particles , in particular non-consolidated particulate build material and/or smoke and/or smoke residues, generated during operation of the apparatus and a filter unit configured to separate particles from the stream of process gas , wherein the filter unit comprises a filter chamber with at least one filter element at least partly arranged in the streaming path of the generated stream of process gas , wherein particles in the stream of process gas are separated from the process gas by the filter element , which apparatus comprises a particle reception chamber separably connected or connectable to a particle outlet of the filter chamber and configured to receive the particles separated from the process gas , characterized in that the particle reception chamber comprises moving means and is drivable via a motor or driving unit integrated in the particle reception chamber or arranged outside or separate to the particle reception chamber .
A pharmaceutical composition or dietary supplement comprising, as the active ingredients, the combination of curcumin, alpha-lipoic acid and L-tryptophan, for use in the treatment and prevention of pathologies associated with climacteric and menopause, said pathologies being selected from the group consisting of glucose-lipid dysmetabolism, body weight modification, general tissue ageing, and combinations thereof, or in the prevention of tumours.
An elevator control device for controlling the travel of one or more elevator cars of an elevator system, wherein a control module of the elevator control device is configured to control, according to occupant information and disaster information of a plurality of evacuation floors, as well as the current remaining capacity of the elevator car, stopping of the elevator car at at least one of the plurality of evacuation floors, characterized in that the control module is further configured to: when the current remaining capacity of the elevator car during initial stopping or intermediate stopping is greater than or equal to a first predetermined value, control the elevator car to continue stopping for a first predetermined time period.
A vasopressin analogue for use in inhibiting the proliferation of cancer cells in the treatment of prostate cancer, wherein the vasopressin analogue is desmopressin, synthetic arginine vasopressin, lysine vasopressin, terlipressin, felypressin, or ornipressin.