mhurhangee/patent-ind-claim-en huggingface dataset:
Process for regenerating a catalyst used in the decarbonylation of an aldehyde, wherein the catalyst is a heterogeneous, supported catalyst containing a metal selected from the group consisting of Fe, Ru, Os, Co, Rh, Ir, Ni, Pd, Pt and mixtures thereof, and wherein the catalyst is subjected to a gas stream comprising hydrogen at a temperature of from 200 to 600 °C, wherein substantially no oxygen is used in the regeneration process, and wherein the catalyst is not heated in the presence of oxygen before treatment with the gas comprising hydrogen.
An injection molding machine, comprising: a motor; and a movement conversion mechanism which converts rotational motion of the motor into linear motion, wherein the movement conversion mechanism includes a ball screw shaft and a ball screw nut which is screwed to the ball screw shaft , wherein the ball screw shaft is rotated by the motor; characterized in that the ball screw shaft includes a rotation prevention portion , which includes a recessed portion and which is is configured to be used to prevent rotation of the ball screw shaft when the movement conversion mechanism is assembled, wherein the rotation prevention portion is located on an axial end surface of an axial end portion of the ball screw shaft , which axial end portion serves as an attachment portion . a motor; and a movement conversion mechanism which converts rotational motion of the motor into linear motion, wherein the movement conversion mechanism includes a ball screw shaft and a ball screw nut which is screwed to the ball screw shaft , wherein the ball screw shaft is rotated by the motor; characterized in that the ball screw shaft includes a rotation prevention portion , which includes a recessed portion and which is is configured to be used to prevent rotation of the ball screw shaft when the movement conversion mechanism is assembled, wherein the rotation prevention portion is located on an axial end surface of an axial end portion of the ball screw shaft , which axial end portion serves as an attachment portion .
A urine collection device for collecting midstream urine; wherein said device, in the orientation intended during urine collection, comprising: - a first recipient for urine; - a second recipient for urine; - a urine diverting means ; wherein said urine collection device comprises a third recipient for urine; wherein said urine collection device comprises a conduit having an opening in a first end and an opening in a second end thereof; wherein said first end of said conduit is arranged at the interior of said second recipient for urine; wherein said opening in said second end of said conduit is in fluid connection with the interior of said third recipient for urine; characterized in that said third recipient for urine comprises an evacuated container; and wherein said opening of said first end of said conduit 16 comprises a moist soluble plug , thereby blocking access through said conduit between said second recipient for urine and said third recipient for urine until dissolution of said plug. - a first recipient for urine; - a second recipient for urine; - a urine diverting means ; wherein said urine collection device comprises a third recipient for urine; wherein said urine collection device comprises a conduit having an opening in a first end and an opening in a second end thereof; wherein said first end of said conduit is arranged at the interior of said second recipient for urine; wherein said opening in said second end of said conduit is in fluid connection with the interior of said third recipient for urine; characterized in that said third recipient for urine comprises an evacuated container; and wherein said opening of said first end of said conduit 16 comprises a moist soluble plug , thereby blocking access through said conduit between said second recipient for urine and said third recipient for urine until dissolution of said plug.
An artificial, flexible valve to be implanted within a patient's heart, the valve comprising: a stent defining a wall , the stent being serially expandable to accompany a child's growth, wherein the stent comprises metal and a plurality of wires defining a plurality of cells (204; 206) of various sizes; and a plurality of leaflets extending from the wall of the stent , the plurality of leaflets forming a plurality of coaptation regions between two adjacent leaflets , the coaptation regions each having a substantially hyperbolic profile formed in an x-y plane and including extensions along a z-axis beyond a commissure line and adapted and configured to form a releasable, but substantially complete seal when the leaflets are in a closed position, each of the plurality of leaflets having a leaflet-stent attachment line that is substantially elliptical, the height of the coaptation region being enhanced by creating excess length of the leaflet free edges, so that the free edge length is greater than twice the radius of the stent, wherein the height of each of the plurality of coaptation regions dips to form a trough between the outside and the center of the stent, wherein adjacent leaflets are coupled to a wide post of the stent. a stent defining a wall , the stent being serially expandable to accompany a child's growth, wherein the stent comprises metal and a plurality of wires defining a plurality of cells (204; 206) of various sizes; and a plurality of leaflets extending from the wall of the stent , the plurality of leaflets forming a plurality of coaptation regions between two adjacent leaflets , the coaptation regions each having a substantially hyperbolic profile formed in an x-y plane and including extensions along a z-axis beyond a commissure line and adapted and configured to form a releasable, but substantially complete seal when the leaflets are in a closed position, each of the plurality of leaflets having a leaflet-stent attachment line that is substantially elliptical, the height of the coaptation region being enhanced by creating excess length of the leaflet free edges, so that the free edge length is greater than twice the radius of the stent, wherein the height of each of the plurality of coaptation regions dips to form a trough between the outside and the center of the stent, wherein adjacent leaflets are coupled to a wide post of the stent.
A testing method for an unintended car movement protection device for an elevator to check an operation of the unintended car movement protection device with which an elevator system is provided, the method comprising: moving a car to a position where a floor releveling operation is enabled; the testing method for an unintended car movement protection device characterized by making the unintended car movement protection device operate for testing, enabling the floor releveling operation by an elevator control device to control the car by way of a command signal from a control device of the unintended car movement protection device while the control device of the unintended car movement protection device simulatively sets an opened door detection state in which a car door or a landing door are detected to be opened and a power cut-off command signal to be outputted to an electric motor to drive the car ; performing the floor releveling operation by way of the elevator control device in such a closed door state that the car door and the landing door are being closed; and checking an operation of the unintended car movement protection device by making the car in the closed door state move by unbalanced torque in accordance with the power cut-off command signal when the car lands on a releveled floor through the floor releveling operation. moving a car to a position where a floor releveling operation is enabled; the testing method for an unintended car movement protection device characterized by making the unintended car movement protection device operate for testing, enabling the floor releveling operation by an elevator control device to control the car by way of a command signal from a control device of the unintended car movement protection device while the control device of the unintended car movement protection device simulatively sets an opened door detection state in which a car door or a landing door are detected to be opened and a power cut-off command signal to be outputted to an electric motor to drive the car ; performing the floor releveling operation by way of the elevator control device in such a closed door state that the car door and the landing door are being closed; and checking an operation of the unintended car movement protection device by making the car in the closed door state move by unbalanced torque in accordance with the power cut-off command signal when the car lands on a releveled floor through the floor releveling operation.
Lubrication circuit of a hollow rotating shaft comprising a fixed cannula for supplying a lubricant into one end of said hollow rotating shaft , said end having a screw coaxial with said hollow shaft , said screw comprising a coaxial through hole , characterized in that it further comprises a tip arranged as an extension of said cannula , said tip having an axial bore and an elastic lip , and in that the elastic lip bears radially in said through hole .
A device for applying force to an area of a patient's heart along or near the atrioventricular groove, comprising: a tensioning element configured to be delivered by a flexible member guided through a catheter and positioned generally along or near the atrioventricular groove; and a compression member positionable along the tensioning element and over a desired segment of the atrioventricular groove to develop force to be applied to an adjacent area of the heart by selective tensioning of the tensioning element, wherein the compression member has a shaped profile along its length, the device being characterized in that the shaped profile comprises at least two bends and an M-shaped section, the compression member further comprises a generally curved center segment, a generally straight center segment, or a center segment having a vertex; the compression member has end segments shaped to orient the compression member; and the compression member is self-orienting upon application of tension in a selected location for treatment. a tensioning element configured to be delivered by a flexible member guided through a catheter and positioned generally along or near the atrioventricular groove; and a compression member positionable along the tensioning element and over a desired segment of the atrioventricular groove to develop force to be applied to an adjacent area of the heart by selective tensioning of the tensioning element, wherein the compression member has a shaped profile along its length, the device being characterized in that the shaped profile comprises at least two bends and an M-shaped section, the compression member further comprises a generally curved center segment, a generally straight center segment, or a center segment having a vertex; the compression member has end segments shaped to orient the compression member; and the compression member is self-orienting upon application of tension in a selected location for treatment.
A method for densifying an annular porous structure supported within a graphite susceptor in a single cycle process, comprising: flowing a reactant gas into an inner diameter ID volume , wherein the reactant gas flows at a nominal flow rate; flowing the reactant gas from the ID volume into an outer diameter OD volume , wherein the ID volume is in fluid communication with the OD volume , and wherein the reactant gas forms a boundary layer in proximity to an axially top surface and an axially bottom surface of the annular porous structure ; pulsing the reactant gas into the ID volume to disturb the boundary layer and enhance a mass transfer process, wherein the ID volume is partially defined by the annular porous structure and the OD volume is partially defined by the annular porous structure and the graphite susceptor , and wherein the pulsing the reactant gas comprises pulsing the reactant gas from the nominal flow rate to a first flow rate, wherein the first flow rate is different from the nominal flow rate; and further comprising pulsing the reactant gas from the first flow rate to a second flow rate, wherein the second flow rate is different from the first flow rate. flowing a reactant gas into an inner diameter ID volume , wherein the reactant gas flows at a nominal flow rate; flowing the reactant gas from the ID volume into an outer diameter OD volume , wherein the ID volume is in fluid communication with the OD volume , and wherein the reactant gas forms a boundary layer in proximity to an axially top surface and an axially bottom surface of the annular porous structure ; pulsing the reactant gas into the ID volume to disturb the boundary layer and enhance a mass transfer process, wherein the ID volume is partially defined by the annular porous structure and the OD volume is partially defined by the annular porous structure and the graphite susceptor , and wherein the pulsing the reactant gas comprises pulsing the reactant gas from the nominal flow rate to a first flow rate, wherein the first flow rate is different from the nominal flow rate; and further comprising pulsing the reactant gas from the first flow rate to a second flow rate, wherein the second flow rate is different from the first flow rate.
Aerosol generator for an aerosol dispenser, wherein the aerosol generator comprises a housing having an inlet part comprising a liquid inlet configured to guide a liquid jet (L) into the housing, the liquid inlet comprising a nozzle having a micro-structured aperture configured to generate a liquid jet (L) in the form of a Rayleigh droplet train from a pressurised liquid which is forced through said aperture upon activation of an aerosol dispenser, the housing further comprises an air inlet configured to guide an air flow into the housing, and an outlet part comprising an aerosol outlet configured to guide an aerosol (C), comprising liquid mixed with air, out of the housing ; wherein the air inlet is directed such that at least part of the air flow entering the housing through the air inlet during activation of an aerosol dispenser is guided to be obstructed at a distance from the liquid jet (L) entering the housing through the liquid inlet , wherein the air inlet comprises a first inlet guide (15-1) for distributing a turbulence-generating air flow (A1) and a second inlet guide (15-2) for distributing a sheath air flow (A2); wherein the first inlet guide (15-1) comprises multiple orifices through which said turbulence-generating air flow (A1) is distributed into multiple air jets (a1); wherein each of said air jets (a1) is directed to be obstructed by collision with at least one other air jet (a1) at least a distance from said liquid jet (L); or configured to be obstructed by collision with a physical obstacle comprised in the housing at least a distance from said liquid jet; thereby creating a source of turbulence in the housing to interact with droplets of the liquid jet (L) to prevent coalescence of the droplets. wherein the air inlet comprises a first inlet guide (15-1) for distributing a turbulence-generating air flow (A1) and a second inlet guide (15-2) for distributing a sheath air flow (A2); wherein the first inlet guide (15-1) comprises multiple orifices through which said turbulence-generating air flow (A1) is distributed into multiple air jets (a1); wherein each of said air jets (a1) is directed to be obstructed by collision with at least one other air jet (a1) at least a distance from said liquid jet (L); or configured to be obstructed by collision with a physical obstacle comprised in the housing at least a distance from said liquid jet; directed to be obstructed by collision with at least one other air jet (a1) at least a distance from said liquid jet (L); or configured to be obstructed by collision with a physical obstacle comprised in the housing at least a distance from said liquid jet; thereby creating a source of turbulence in the housing to interact with droplets of the liquid jet (L) to prevent coalescence of the droplets.
Connection assembly for a fluid system, in particular for a cooling-agent system, with a line, in particular a cooling-agent line , and a connection element , wherein the line is in the form of a corrugated tube with a corrugated structure , wherein the corrugated structure extends until at least one end of the line , wherein the end of the corrugated tube is connected with a connection piece of the connecting element , wherein the connection piece has a fir-tree-shaped outer contour on which the end of the line is pushed with an emplacement length characterised in that the corrugated structure at the end of the line is squeezed over the emplacement length .
A liquid-tight strain relief , comprising - a bushing including a first end , a second end opposite said first end , an outer wall , an aperture extending from said first end to said second end and defining an inner wall , an annular flange extending radially outwardly from said first end , said at least one cutout extending from said outer wall to said inner wall , said at least one cutout defining at least one outer finger , said at least one outer finger including means for frictionally engaging an orifice of a work piece, and a plurality of resilient, elongated inner fingers , each of which includes a first end attached to said inner wall and a free, second end extending into said aperture ; and - a gland including a head having an outer surface , an inner surface , an annular interior portion located within said inner surface and encapsulating said annular flange of the bushing ; characterized in that said at least one cutout affixes the strain relief within the orifice of the work piece by frictionally engaging the work piece within the orifice. - a bushing including a first end , a second end opposite said first end , an outer wall , an aperture extending from said first end to said second end and defining an inner wall , an annular flange extending radially outwardly from said first end , said at least one cutout extending from said outer wall to said inner wall , said at least one cutout defining at least one outer finger , said at least one outer finger including means for frictionally engaging an orifice of a work piece, and a plurality of resilient, elongated inner fingers , each of which includes a first end attached to said inner wall and a free, second end extending into said aperture ; and - a gland including a head having an outer surface , an inner surface , an annular interior portion located within said inner surface and encapsulating said annular flange of the bushing ;
A display apparatus, comprising: a plurality of pixels (P) including a first pixel (P1), a second pixel (P2), and a third pixel (P3) each configured to emit different colors; an organic light-emitting diode (OLED) on a substrate and including a pixel electrode , an intermediate layer , and an opposite electrode ; and a black matrix (BM) on the organic light-emitting diode (OLED) between emission areas (EA) of adjacent pixels (P); a column spacer (CS) between emission areas (EA) of at least one pair of adjacent pixels (P), characterized in that the column spacer (CS) is on the same layer as the black matrix (BM) and spaced apart from the black matrix (BM) by a first distance (d1) in a plan view; and a first quantum conversion layer (QD1) is on the substrate to correspond to an emission area (EA) of the first pixel (P1) and including first quantum dots . a plurality of pixels (P) including a first pixel (P1), a second pixel (P2), and a third pixel (P3) each configured to emit different colors; an organic light-emitting diode (OLED) on a substrate and including a pixel electrode , an intermediate layer , and an opposite electrode ; and a black matrix (BM) on the organic light-emitting diode (OLED) between emission areas (EA) of adjacent pixels (P); a column spacer (CS) between emission areas (EA) of at least one pair of adjacent pixels (P), characterized in that the column spacer (CS) is on the same layer as the black matrix (BM) and spaced apart from the black matrix (BM) by a first distance (d1) in a plan view; and a first quantum conversion layer (QD1) is on the substrate to correspond to an emission area (EA) of the first pixel (P1) and including first quantum dots .
A trailer vehicle for transporting a wind turbine rotor blade , comprising - a chassis having at least two axles for rolling on an underground, - a pivot bearing fixedly arranged on the chassis , - a carrier frame designed to be applied to a wind turbine rotor blade and for its support during transport, wherein the carrier frame is coupled to the pivot bearing such that the carrier frame is rotatable relative to the chassis , characterized in that - the carrier frame is coupled to the pivot bearing by means of a displacement device , which is designed such that the carrier frame is displaceable relative to the pivot bearing , - the displacement device has a displacement platform mechanically connected to the carrier frame and arranged to be displaceable on the pivot bearing , and - the displacement device has a bearing component fixedly connected to the pivot bearing , wherein the displacement platform is guided to be displaceable on the bearing component so that the carrier frame is designed to be displaceable relative to the pivot bearing along a rotor blade longitudinal direction of the wind turbine rotor blade . - a chassis having at least two axles for rolling on an underground, - a pivot bearing fixedly arranged on the chassis , - a carrier frame designed to be applied to a wind turbine rotor blade and for its support during transport, wherein the carrier frame is coupled to the pivot bearing such that the carrier frame is rotatable relative to the chassis , characterized in that - the carrier frame is coupled to the pivot bearing by means of a displacement device , which is designed such that the carrier frame is displaceable relative to the pivot bearing , - the displacement device has a displacement platform mechanically connected to the carrier frame and arranged to be displaceable on the pivot bearing , and - the displacement device has a bearing component fixedly connected to the pivot bearing , wherein the displacement platform is guided to be displaceable on the bearing component so that the carrier frame is designed to be displaceable relative to the pivot bearing along a rotor blade longitudinal direction of the wind turbine rotor blade .