mhurhangee/patent-ind-claim-en huggingface dataset:
A diffuser for a turbine engine , said diffuser comprising: a first wall that extends circumferentially about a centerline axis of the turbine engine; a second wall that extends circumferentially about the centerline axis , at least a portion of said second wall positioned radially outwardly from at least a portion of said first wall ; and a flow path defined by said first wall and said second wall , said flow path extends from an inlet configured to receive an axial flow of a fluid to a circumferentially extending outlet configured to emit the fluid in a substantially radial direction; characterized in that : said outlet extends asymmetrically about the centerline axis ; said first wall and said second wall cooperate to form a radial diffuser section proximate said outlet , and wherein said first wall and said second wall diverge from each other within an upstream portion of said radial diffuser section ; and said radial diffuser section extends radially from a first radial end to a circumferentially opposite second radial end, said first radial end is disposed at a first distance from the centerline axis, said second radial end is disposed at a second distance from the centerline axis that is greater than the first distance. a first wall that extends circumferentially about a centerline axis of the turbine engine; a second wall that extends circumferentially about the centerline axis , at least a portion of said second wall positioned radially outwardly from at least a portion of said first wall ; and a flow path defined by said first wall and said second wall , said flow path extends from an inlet configured to receive an axial flow of a fluid to a circumferentially extending outlet configured to emit the fluid in a substantially radial direction; characterized in that : said outlet extends asymmetrically about the centerline axis ; said first wall and said second wall cooperate to form a radial diffuser section proximate said outlet , and wherein said first wall and said second wall diverge from each other within an upstream portion of said radial diffuser section ; and said radial diffuser section extends radially from a first radial end to a circumferentially opposite second radial end, said first radial end is disposed at a first distance from the centerline axis, said second radial end is disposed at a second distance from the centerline axis that is greater than the first distance. said outlet extends asymmetrically about the centerline axis ; said first wall and said second wall cooperate to form a radial diffuser section proximate said outlet , and wherein said first wall and said second wall diverge from each other within an upstream portion of said radial diffuser section ; and said radial diffuser section extends radially from a first radial end to a circumferentially opposite second radial end, said first radial end is disposed at a first distance from the centerline axis, said second radial end is disposed at a second distance from the centerline axis that is greater than the first distance.
A method of making a stimulation lead , the method comprising: forming a rib framework comprising a plurality of pre-electrodes attached together in a single helix or a double helix, wherein the rib framework comprises at least one alignment tab ; ; attaching a conductor to each of the pre-electrodes; disposing the rib framework into a mold with the at least one alignment tab of the rib framework disposed in a corresponding slot of the mold; forming a lead body between the pre-electrodes; and removing a portion of the lead body and the pre-electrodes to generate a plurality of separated segmented electrodes (130, 456, 656, 756, 956, 1056, 1156, 1156a, 1356a-g) arranged in the single helix or the double helix. forming a rib framework comprising a plurality of pre-electrodes attached together in a single helix or a double helix, wherein the rib framework comprises at least one alignment tab ; ; attaching a conductor to each of the pre-electrodes; disposing the rib framework into a mold with the at least one alignment tab of the rib framework disposed in a corresponding slot of the mold; forming a lead body between the pre-electrodes; and removing a portion of the lead body and the pre-electrodes to generate a plurality of separated segmented electrodes (130, 456, 656, 756, 956, 1056, 1156, 1156a, 1356a-g) arranged in the single helix or the double helix.
Process for preparing 1,2-propanediol from propene and hydrogen peroxide comprising the steps of a) reacting propene with hydrogen peroxide in the presence of a catalyst mixture comprising a phase transfer catalyst and a heteropolytungstate, wherein the reaction is carried out in a liquid mixture comprising an aqueous phase having a pH of at most 6 and an organic phase, b) separating the biphasic mixture from step a) into an aqueous phase P1 and an organic phase P2 comprising propene oxide, c) recycling the propene oxide present in the separated organic phase P2 into the reaction of step a) and d) separating 1,2-propanediol from the aqueous phase P1 separated in step b). a) reacting propene with hydrogen peroxide in the presence of a catalyst mixture comprising a phase transfer catalyst and a heteropolytungstate, wherein the reaction is carried out in a liquid mixture comprising an aqueous phase having a pH of at most 6 and an organic phase, b) separating the biphasic mixture from step a) into an aqueous phase P1 and an organic phase P2 comprising propene oxide, c) recycling the propene oxide present in the separated organic phase P2 into the reaction of step a) and d) separating 1,2-propanediol from the aqueous phase P1 separated in step b).
An inner tub of a washing machine with a vertical rotation axis, comprising a tub body having an upper part and a lower part, wherein said lower part is of a sealed water containing structure, a balancing ring mounted at the upper part of the tub body and a tub bottom mounted at the lower part of the tub body , wherein an annular necking structure , of which an inside diameter is smaller than that of the tub body , is arranged on the upper part of the tub body and positioned below the balancing ring , a plurality of dewatering holes are distributed at the necking structure and/or between the necking structure and the balancing ring , and characterized in that a disconnected type filtering cover is arranged on the internal wall of the tub body and positioned below the necking structure , the disconnected type filtering cover comprises a main body and an auxiliary block , the auxiliary block is arranged above the main body and below the necking structure and is located at the upper part of the inner tub, and a water passing gap for enabling water flow to pass through along a rotating direction of the inner tub is arranged between the auxiliary block and the main body . a tub body having an upper part and a lower part, wherein said lower part is of a sealed water containing structure, a balancing ring mounted at the upper part of the tub body and a tub bottom mounted at the lower part of the tub body , wherein an annular necking structure , of which an inside diameter is smaller than that of the tub body , is arranged on the upper part of the tub body and positioned below the balancing ring , a plurality of dewatering holes are distributed at the necking structure and/or between the necking structure and the balancing ring , and characterized in that a disconnected type filtering cover is arranged on the internal wall of the tub body and positioned below the necking structure , the disconnected type filtering cover comprises a main body and an auxiliary block , the auxiliary block is arranged above the main body and below the necking structure and is located at the upper part of the inner tub, and a water passing gap for enabling water flow to pass through along a rotating direction of the inner tub is arranged between the auxiliary block and the main body .
A connector assembly for connecting a pair of formwork panels with each other, the connector assembly comprising: a base component comprising: an arm ; a first opening formed on the arm ; and a locking portion formed at an end of the arm and adapted to be removably inserted in a second opening formed by alignment of respective slots of the pair of formwork panels ; and a handle component adapted to be partially disposed in the base component through the first opening formed on the arm, characterized in that the handle component is adapted to be operated to rotate the arm such that the locking portion is rotated within the second opening and such that said locking portion partially locks the base component in the second opening for connecting the pair of formwork panels . a base component comprising: an arm ; a first opening formed on the arm ; and a locking portion formed at an end of the arm and adapted to be removably inserted in a second opening formed by alignment of respective slots of the pair of formwork panels ; and an arm ; a first opening formed on the arm ; and a locking portion formed at an end of the arm and adapted to be removably inserted in a second opening formed by alignment of respective slots of the pair of formwork panels ; and a handle component adapted to be partially disposed in the base component through the first opening formed on the arm, characterized in that the handle component is adapted to be operated to rotate the arm such that the locking portion is rotated within the second opening and such that said locking portion partially locks the base component in the second opening for connecting the pair of formwork panels .
A method for communication performed by a user equipment, UE , the method comprising: periodically awakening from a discontinuous reception state; monitoring, upon awakening, for a wake-up signal in a wake-up signal search space, the wake-up signal having a shorter length than a length of a control channel communication to allow the UE to determine whether the UE should monitor for the control channel communication, wherein the length of the wake-up signal is dependent on one or more of a configured control channel repetition number, Rmax, actual control channel repetition level, transmit diversity architecture, a frequency hopping plan and a discontinuous reception, DRX/ extended, eDRX, cycle length; and monitoring a control channel for the control channel communication in response to detecting the wake-up signal in the wake-up signal search space. periodically awakening from a discontinuous reception state; monitoring, upon awakening, for a wake-up signal in a wake-up signal search space, the wake-up signal having a shorter length than a length of a control channel communication to allow the UE to determine whether the UE should monitor for the control channel communication, wherein the length of the wake-up signal is dependent on one or more of a configured control channel repetition number, Rmax, actual control channel repetition level, transmit diversity architecture, a frequency hopping plan and a discontinuous reception, DRX/ extended, eDRX, cycle length; and monitoring a control channel for the control channel communication in response to detecting the wake-up signal in the wake-up signal search space.
A computer implemented method for processing an image for generating a design image based on a reference marker , the method comprising: receiving, from at least one external device , a computerized tomography (CT) scan image and a plurality of oral scan images (300-1) including a plurality of reference markers attached to an inside of an oral cavity; detecting, the plurality of reference markers and matching factors including shape or form of a crown, a root, a tooth extract portion or a structure of teeth from the CT scan image and the oral scan images (300-1); generating a registered image by registering the images on the basis of locations of the plurality of reference markers and at least one of the matching factors detected from the images; determining, on the basis of the registered image, a teeth profile related to the inside of the oral cavity; and generating a design image related to the inside of the oral cavity on the basis of the teeth profile. receiving, from at least one external device , a computerized tomography (CT) scan image and a plurality of oral scan images (300-1) including a plurality of reference markers attached to an inside of an oral cavity; detecting, the plurality of reference markers and matching factors including shape or form of a crown, a root, a tooth extract portion or a structure of teeth from the CT scan image and the oral scan images (300-1); generating a registered image by registering the images on the basis of locations of the plurality of reference markers and at least one of the matching factors detected from the images; determining, on the basis of the registered image, a teeth profile related to the inside of the oral cavity; and generating a design image related to the inside of the oral cavity on the basis of the teeth profile.
Container for processing and/or transporting a biopharmaceutical fluid , the container comprising a wall , the wall comprising a shape memory material being adapted to change shape when induced by an external stimulus, so that the container can be alternately in a collapsed state and in an unfolded state, the wall of the container in the unfolded state delimiting an internal cavity adapted to contain the biopharmaceutical fluid , in which an internal pouch made of plastic material, flexible and leak-tight, is arranged in the internal cavity , the internal pouch being suited and intended to receive the biopharmaceutical fluid .
Brake master cylinder , for use within an electronic brake system for motor vehicles, having an apparatus for contactlessly monitoring a position of a piston which can be moved linearly along a piston axis , the apparatus containing a movable element and a sensor unit , and the sensor unit being arranged in a stationary manner on a housing of the brake master cylinder and being connected to an electronic evaluation unit for processing signals of the apparatus , characterized in that a magnetic field is emitted by a magnet element in the sensor unit , the magnet element being of single-piece design, having a main body , and at least three projections being formed by the main body largely in the direction of the piston axis , and the projections having magnetic poles at their ends which face the piston axis , and in that the piston is assigned a yoke for changing the magnetic field in a position-dependent manner in such a way that this change can be detected by the sensor unit .
Device for generating ultrahigh frequency waves, comprising an anode and a first cathode , separated by an interaction space , the first cathode being adapted to emit first electrons into the interaction space when subjected to an electric field (E) with an intensity greater than a first threshold value, and the anode being adapted to attract said first electrons, the generation device comprising furthermore at least one waveguide disposed opposite a through-opening of the anode and extending from an exterior surface of the anode towards the exterior of the generation device , characterised in that it comprises a second cathode , intercalated between the first cathode and the anode and adapted to emit second electrons into the interaction space when subjected to an electrical field (E) with an intensity greater than a second threshold value strictly greater than the first threshold value, the anode being adapted to attract said second electrons, and in that it comprises a circuit for electrical supply of the cathodes , adapted to establish a potential difference between the cathodes .
A continuous fluid sampling device , comprising: (i) a horizontally arranged sample inlet in flow communication with (ii) a vertically arranged longitudinal sampling chamber with a top opening that is configured for optional sample retrieval and air release in flow communication at its bottom end with (iii) an air vent that inclines laterally from the bottom of the sampling chamber to about, above or below the level of the sample inlet , preferably to about or below the level of the sample inlet , and (iv) an excess sample outlet branching in flow communication from the air vent with the exit of the excess sample outlet positioned at a level above the bottom of the sampling chamber and at or preferably below the level of the sample inlet , wherein the device is configured so that the fluid sample (a) enters the sampling chamber via inlet at a level above the bottom of the sampling chamber , (b) is analyzed or sampled at a level at or below the inlet in the sampling chamber and optionally releases excess gas through the top opening and/or the air vent , and (c) exits the device via the excess sample outlet . (i) a horizontally arranged sample inlet in flow communication with (ii) a vertically arranged longitudinal sampling chamber with a top opening that is configured for optional sample retrieval and air release in flow communication at its bottom end with (iii) an air vent that inclines laterally from the bottom of the sampling chamber to about, above or below the level of the sample inlet , preferably to about or below the level of the sample inlet , and (iv) an excess sample outlet branching in flow communication from the air vent with the exit of the excess sample outlet positioned at a level above the bottom of the sampling chamber and at or preferably below the level of the sample inlet , (a) enters the sampling chamber via inlet at a level above the bottom of the sampling chamber , (b) is analyzed or sampled at a level at or below the inlet in the sampling chamber and optionally releases excess gas through the top opening and/or the air vent , and (c) exits the device via the excess sample outlet .
Marble vat with stackable elements for fermented alcoholic beverages, comprising: - a bottom element , open at the top and provided with walls (2.1) and with a base (2.2), - at least two hollow stackable elements , provided with walls (3.1, 4.1), superimposed on said bottom element , and - a cover element , superimposed on said hollow elements , characterized in that the upper surfaces (2.1.1) of said walls (2.1), the upper and lower surfaces (3.1.1, 4.1.1) of said walls (3.1, 4.1) and the perimetric portion (5.1) of the bottom surface of said cover element are smooth and suitable to allow reciprocal assembly by interposing of a sealant , in that the inner surfaces (2.1.2, 2.1.3) and (2.2.1) respectively of said walls (2.1) and of said base (2.2), the inner surfaces (3.1, 3.1.3, 4.1.2, 4.1.3) of said walls (3.1, 4.1) and the lower surface (5.2) of said covering element are also smooth and coated by a treatment agent film applied by a caulking process, and in that the inner corner surfaces of the bottom element and of the stackable elements have no sharp edges but rounded concave edges (2.1.3, 3.1.3, 4.1.3). - a bottom element , open at the top and provided with walls (2.1) and with a base (2.2), - at least two hollow stackable elements , provided with walls (3.1, 4.1), superimposed on said bottom element , and - a cover element , superimposed on said hollow elements ,
A porous body comprising: at least 80 percent alpha alumina and having a pore volume from 0.3 mL/g to 1.2 mL/g, a surface area from 0.3 m 2 /g to 3.0 m 2 /g, and a pore architecture that provides at least one of a tortuosity of 7 or less, a constriction of 4 or less and a permeability of 3×10 -14 m 2 (30 mdarcys) or greater; wherein tortuosity is determined by the ratio of the real length of flow path through the carrier to the shortest distance across that porous body; wherein the pore volume is measured by mercury intrusion porosity; wherein the surface area is measured by nitrogen adsorption using the BET method; wherein tortuosity, constriction and permeability are determined by mercury intrusion porosity. wherein tortuosity is determined by the ratio of the real length of flow path through the carrier to the shortest distance across that porous body; wherein the pore volume is measured by mercury intrusion porosity; wherein the surface area is measured by nitrogen adsorption using the BET method; wherein tortuosity, constriction and permeability are determined by mercury intrusion porosity.
An adapter for use with a driving device for turning a knob , the adapter comprising: a shaft extending distally from a proximal end portion to a distal end portion and defining a longitudinal axis , wherein the proximal end portion is configured to operatively couple to the driving device for rotating the shaft about the longitudinal axis; and an adapter body coupled to the distal end portion of the shaft, the adapter body comprising: an adapter base that is coupled to the distal end portion of the shaft, at least one engaging member disposed radially outward from the longitudinal axis and configured for removably engaging the knob, wherein the at least one engaging member comprises a plurality of projecting members radially spaced apart from and extending substantially parallel to the longitudinal axis and extending distally from the adapter bod) ; and a collar that extends distally from a perimeter edge portion of the adapter base , wherein the collar surrounds at least a portion of the at least one engaging member , wherein the plurality of projecting members are disposed between the longitudinal axis and the collar , and wherein the plurality of projecting members extend past a distal perimeter edge of the collar . a shaft extending distally from a proximal end portion to a distal end portion and defining a longitudinal axis , wherein the proximal end portion is configured to operatively couple to the driving device for rotating the shaft about the longitudinal axis; and an adapter body coupled to the distal end portion of the shaft, the adapter body comprising: an adapter base that is coupled to the distal end portion of the shaft, at least one engaging member disposed radially outward from the longitudinal axis and configured for removably engaging the knob, wherein the at least one engaging member comprises a plurality of projecting members radially spaced apart from and extending substantially parallel to the longitudinal axis and extending distally from the adapter bod) ; and a collar that extends distally from a perimeter edge portion of the adapter base , wherein the collar surrounds at least a portion of the at least one engaging member , wherein the plurality of projecting members are disposed between the longitudinal axis and the collar , and wherein the plurality of projecting members extend past a distal perimeter edge of the collar . an adapter base that is coupled to the distal end portion of the shaft, at least one engaging member disposed radially outward from the longitudinal axis and configured for removably engaging the knob, wherein the at least one engaging member comprises a plurality of projecting members radially spaced apart from and extending substantially parallel to the longitudinal axis and extending distally from the adapter bod) ; and a collar that extends distally from a perimeter edge portion of the adapter base , wherein the collar surrounds at least a portion of the at least one engaging member , wherein the plurality of projecting members are disposed between the longitudinal axis and the collar , and wherein the plurality of projecting members extend past a distal perimeter edge of the collar .