mhurhangee/patent-ind-claim-en huggingface dataset:
An inclined abutment for a cemented prosthesis In dental Implantology, comprising: - a supragingival portion having a substantially truncated-cone shape with an elliptical base and having a longitudinal axis (X-X), hereinafter referred to as the longitudinal axis of the supragingival portion , - an emergence surface having a major axis (A-A') and a minor axis (B-B'); - a transmucosal portion which has an elliptical base coinciding with said emergence surface , a longitudinal axis (Y-Y) hereinafter referred to as the longitudinal axis of the transmucosal portion and which ends at an apex with an antirotational connection for the insertion of said abutment in use, wherein - said longitudinal axis (X-X) of said supragingival portion and said longitudinal axis (Y-Y) of said transmucosal portion form, relative to each other, a first angle (α; α'), comprised between 5 and 35 degrees, which angle defines the inclination of the abutment in use, - the lateral surface (11.1) of said supragingival portion forms with said longitudinal axis (X-X) of said supragingival portion a second angle (γ), comprised between 2 and 6 degrees, which angle defines the conometry of said supragingival portion , - said emergence surface and said longitudinal axis (X-X) of said supragingival portion form, relative to each other, a third angle (β; β'), comprised between 75 and 90 degrees, wherein said first angle (α; α') and said third angle (β; β') lay on a longitudinal plane which divides said abutment into two mirror-like halves and contains the major axis (A-A') or the minor axis (B-B') of said emergence surface . - a supragingival portion having a substantially truncated-cone shape with an elliptical base and having a longitudinal axis (X-X), hereinafter referred to as the longitudinal axis of the supragingival portion , - an emergence surface having a major axis (A-A') and a minor axis (B-B'); - a transmucosal portion which has an elliptical base coinciding with said emergence surface , a longitudinal axis (Y-Y) hereinafter referred to as the longitudinal axis of the transmucosal portion and which ends at an apex with an antirotational connection for the insertion of said abutment in use, wherein - said longitudinal axis (X-X) of said supragingival portion and said longitudinal axis (Y-Y) of said transmucosal portion form, relative to each other, a first angle (α; α'), comprised between 5 and 35 degrees, which angle defines the inclination of the abutment in use, - the lateral surface (11.1) of said supragingival portion forms with said longitudinal axis (X-X) of said supragingival portion a second angle (γ), comprised between 2 and 6 degrees, which angle defines the conometry of said supragingival portion , - said emergence surface and said longitudinal axis (X-X) of said supragingival portion form, relative to each other, a third angle (β; β'), comprised between 75 and 90 degrees, wherein said first angle (α; α') and said third angle (β; β') lay on a longitudinal plane which divides said abutment into two mirror-like halves and contains the major axis (A-A') or the minor axis (B-B') of said emergence surface .
A shaving razor handle comprising: a main body ; a pair of arms extending from the main body ; a pivoting head that extends between an upper end and a lower end , the pivoting head comprising: a base member pivotally coupled with the pair of arms to facilitate pivoting of the pivoting head about a pivot axis between a home position and a fully pivoted position, the base member comprising: a front wall comprising a first vertical height; and a rear wall comprising a second vertical height; a biasing member operably coupled with the main body and configured to bias the pivoting head into the home position, wherein the first vertical height is less than the second vertical height, characterized in that the front wall and the rear wall are angled with respect to each other and define a pair of v-shaped grooves and each arm of the pair of arms extends between the pair of v-shaped grooves and are configured to travel within the pair of v-shaped grooves when the pivoting head is pivoted. a main body ; a pair of arms extending from the main body ; a pivoting head that extends between an upper end and a lower end , the pivoting head comprising: a base member pivotally coupled with the pair of arms to facilitate pivoting of the pivoting head about a pivot axis between a home position and a fully pivoted position, the base member comprising: a front wall comprising a first vertical height; and a rear wall comprising a second vertical height; a biasing member operably coupled with the main body and configured to bias the pivoting head into the home position, wherein the first vertical height is less than the second vertical height, characterized in that the front wall and the rear wall are angled with respect to each other and define a pair of v-shaped grooves and each arm of the pair of arms extends between the pair of v-shaped grooves and are configured to travel within the pair of v-shaped grooves when the pivoting head is pivoted. a base member pivotally coupled with the pair of arms to facilitate pivoting of the pivoting head about a pivot axis between a home position and a fully pivoted position, the base member comprising: a front wall comprising a first vertical height; and a rear wall comprising a second vertical height; a front wall comprising a first vertical height; and a rear wall comprising a second vertical height; a biasing member operably coupled with the main body and configured to bias the pivoting head into the home position, wherein the first vertical height is less than the second vertical height, characterized in that the front wall and the rear wall are angled with respect to each other and define a pair of v-shaped grooves and each arm of the pair of arms extends between the pair of v-shaped grooves and are configured to travel within the pair of v-shaped grooves when the pivoting head is pivoted.
A system for moving an anatomical model of a fetus inside a mannequin having a birth canal , comprising: a descent mechanism for moving the anatomical model of the fetus longitudinally towards the birth canal of the mannequin , the descent mechanism comprising a frame , two parallel and linear rails mounted on the frame and a carriage traveling along the two parallel and linear rails ; and a rotation mechanism mounted to the carriage of the descent mechanism , characterized in that the rotation mechanism comprising a rotating ring , an inside of the rotating ring being ovoid shaped for allowing insertion of the anatomical model of the fetus within the rotating ring in two different ways corresponding to two different styles of birth, the inside of the rotating ring comprising at least one pneumatic bladder acting as a fetal clamp when inflated for holding the anatomical model of the fetus during a descent of the anatomical model of the fetus . a descent mechanism for moving the anatomical model of the fetus longitudinally towards the birth canal of the mannequin , the descent mechanism comprising a frame , two parallel and linear rails mounted on the frame and a carriage traveling along the two parallel and linear rails ; and a rotation mechanism mounted to the carriage of the descent mechanism , characterized in that the rotation mechanism comprising a rotating ring , an inside of the rotating ring being ovoid shaped for allowing insertion of the anatomical model of the fetus within the rotating ring in two different ways corresponding to two different styles of birth, the inside of the rotating ring comprising at least one pneumatic bladder acting as a fetal clamp when inflated for holding the anatomical model of the fetus during a descent of the anatomical model of the fetus .
A method for monitoring movement of at least one moveable mirror in a MEMS device which comprises one or more moveable mirrors, wherein said at least one moveable mirror is a staggered mirror, said monitoring is based upon capacitance changes in said MEMS device over time, said method comprising the steps of: a. measuring a current associated with the movement of said at least one moveable mirror; b. identifying a plurality of ripples associated with capacitance changes in said MEMS device over time, in said measured current; and c. monitoring said at least one moveable mirror movement based on the identified plurality of ripples. a. measuring a current associated with the movement of said at least one moveable mirror; b. identifying a plurality of ripples associated with capacitance changes in said MEMS device over time, in said measured current; and c. monitoring said at least one moveable mirror movement based on the identified plurality of ripples.
An air purification system intended to equip a building, said system including an air purifier provided with a fan coupled to at least one filter to produce filtered air by reducing its level of microparticles or VOCs or other gases, and a plurality of pairs consisting of an inlet sleeve and an outlet sleeve traversed by an air flow propelled by said fan , according to which said system comprises at least a plurality of assemblies each constituting a filtering loop and consisting of an outlet mouth connected by a sheath to one of said inlet sleeves for extracting air to be filtered from a room to be treated of said building towards the purifier and an air inlet mouth connected by another duct to one of said outlet sleeves to discharge into the building the air flow from said room filtered by the purifier so that the system operates as a closed circuit, according to which said system includes pollution sensors adapted to measure the level of pollution at each air flow entering the inlet sleeves and a control card adapted to trigger the opening of an inlet valve controlling the air inlet at the inlet sleeve and of an outlet valve controlling the air outlet at the outlet sleeve of the same pair, the opening of said inlet and outlet valves being proportional to the measured pollution level. characterised in that said further includes a module adapted to control the rotation speed of the fan, the speed being proportional at least to the level of pollution measured by said sensors and to the cumulative open section of all the inlet and outlet valves. according to which said system comprises at least a plurality of assemblies each constituting a filtering loop and consisting of an outlet mouth connected by a sheath to one of said inlet sleeves for extracting air to be filtered from a room to be treated of said building towards the purifier and an air inlet mouth connected by another duct to one of said outlet sleeves to discharge into the building the air flow from said room filtered by the purifier so that the system operates as a closed circuit, according to which said system includes pollution sensors adapted to measure the level of pollution at each air flow entering the inlet sleeves and a control card adapted to trigger the opening of an inlet valve controlling the air inlet at the inlet sleeve and of an outlet valve controlling the air outlet at the outlet sleeve of the same pair, the opening of said inlet and outlet valves being proportional to the measured pollution level. characterised in that said further includes a module adapted to control the rotation speed of the fan, the speed being proportional at least to the level of pollution measured by said sensors and to the cumulative open section of all the inlet and outlet valves.
Rotary kiln for burning carbonate-containing material, in particular limestone or dolomite, comprising a rotary tube with an inlet end for the feeding of the material to be burned and an outlet end for the discharging of the burned material, the rotary tube having an inlet zone at its inlet end and an outlet zone at its outlet end , wherein a preheating zone and a combustion zone being arranged between the inlet zone and outlet zone , characterized in that in the inlet zone of the rotary tube a plurality of projections are provided, each projection of the plurality of projections having at least one sliding surface inclined to the longitudinal axis of the rotary tube for conveying the material to be burned from the inlet zone into the burning zone , wherein the projections are arranged in a row as a group in such a way that the respective sliding surfaces of the projections form a common sliding surface (6a*) for the material to be burned.
A bottle cleaning machine for cleaning bottles in the beverage processing industry, comprising a first transport device for transporting standing bottles in a random mass flow to an inlet area of the bottle cleaning machine, wherein in the inlet area the bottles are transferred from the first transport device to a second transport device which can transport the bottles from the inlet area through the bottle cleaning machine, wherein a detection device for detecting a jammed or damaged bottle in the inlet area is arranged in the inlet area or in front of it, and a robot arm is provided in the inlet area, which can be operated by an operator in order to manipulate a jammed or damaged bottle , wherein an operating member is provided which is configured for operating the robot arm by the operator, characterized in that the operating member is designed as a smart glove or comprises the same.
A electroluminescent display device, comprising: a first electrode and a second electrode facing each other; and a quantum dot emission layer disposed between the first electrode and the second electrode, the quantum dot emission layer comprising a plurality of quantum dots and not comprising cadmium, wherein the quantum dot emission layer comprises a red emission layer disposed in a red pixel, a green emission layer disposed in a green pixel, and a blue emission layer disposed in a blue pixel, wherein the red emission layer comprises a plurality of red light emitting quantum dots, and the red pixel exhibits an electroluminescence peak wavelength in a range of 627 nanometers to 640 nanometers and a full width at half maximum of less than or equal to 42 nanometers, wherein the green emission layer comprises a plurality of green light emitting quantum dots, and the green pixel exhibits a electroluminescence peak wavelength in a range of 525 nanometers to 536 nanometers and a full width at half maximum of less than or equal to 39 nanometers, wherein the blue emission layer comprises a plurality of blue light emitting quantum dots, and the blue pixel exhibits a electroluminescence peak wavelength in a range of 440 nanometers to 460 nanometers and a full width at half maximum of less than or equal to 33 nanometers, and wherein the device has a color reproducibility according to a DCI standard of greater than or equal to 89 percent. a first electrode and a second electrode facing each other; and a quantum dot emission layer disposed between the first electrode and the second electrode, the quantum dot emission layer comprising a plurality of quantum dots and not comprising cadmium, wherein the quantum dot emission layer comprises a red emission layer disposed in a red pixel, a green emission layer disposed in a green pixel, and a blue emission layer disposed in a blue pixel, wherein the red emission layer comprises a plurality of red light emitting quantum dots, and the red pixel exhibits an electroluminescence peak wavelength in a range of 627 nanometers to 640 nanometers and a full width at half maximum of less than or equal to 42 nanometers, wherein the green emission layer comprises a plurality of green light emitting quantum dots, and the green pixel exhibits a electroluminescence peak wavelength in a range of 525 nanometers to 536 nanometers and a full width at half maximum of less than or equal to 39 nanometers, wherein the blue emission layer comprises a plurality of blue light emitting quantum dots, and the blue pixel exhibits a electroluminescence peak wavelength in a range of 440 nanometers to 460 nanometers and a full width at half maximum of less than or equal to 33 nanometers, and wherein the device has a color reproducibility according to a DCI standard of greater than or equal to 89 percent.
A package (10;100) having a valve closure device (20;50), wherein the package (10; 100) comprises: a first panel portion ; a second panel portion , wherein at least the first panel and the second panel define an internal cavity ; and a closure device (20;50) having a valve portion, and seals provided to create a flow pathway between the seals such that contents can be forced by the valve device (20;50) upon application of pressure to a portion of the package (10;100), characterised in that the seals overlap one or more end portions of the closure device (20;50). a first panel portion ; a second panel portion , wherein at least the first panel and the second panel define an internal cavity ; and a closure device (20;50) having a valve portion, and seals provided to create a flow pathway between the seals such that contents can be forced by the valve device (20;50) upon application of pressure to a portion of the package (10;100), characterised in that the seals overlap one or more end portions of the closure device (20;50).
A benefit agent delivery system comprising: a conductive layer ; a microcell layer comprising a plurality of microcells , wherein each microcell includes an opening, and wherein a medium comprising a carrier and a benefit agent is contained in the plurality of microcells; a sealing layer spanning the opening of each microcell and comprising a polymeric material and a metallic materia ; and an electrode layer ; wherein the conductive layer, the microcell layer, the sealing layer and the electrode layer are vertically stacked upon each other; and wherein the microcell layer and the sealing layer are disposed between the conductive layer and the electrode layer. a conductive layer ; a microcell layer comprising a plurality of microcells , wherein each microcell includes an opening, and wherein a medium comprising a carrier and a benefit agent is contained in the plurality of microcells; a sealing layer spanning the opening of each microcell and comprising a polymeric material and a metallic materia ; and an electrode layer ; wherein the conductive layer, the microcell layer, the sealing layer and the electrode layer are vertically stacked upon each other; and wherein the microcell layer and the sealing layer are disposed between the conductive layer and the electrode layer.
Process to prepare propylene (i) from a hydrocarbon feedstock comprising olefin hydrocarbon compounds by contacting the feedstock with a mixture of a heterogeneous cracking catalyst and a heterogeneous dehydrogenation catalyst as present in one or more packed beds thereby obtaining propylene and other reaction products, wherein the cracking catalyst and the dehydrogenation catalyst are present in one or more packed beds in an in-series configuration and wherein the hydrocarbon feedstock, formed propylene and other reaction products will flow from an up-flow region to a down-flow region following a flow path and wherein in the direction of the flow path the concentration of the dehydrogenation catalyst in the bed increases compared to the cracking catalyst and/or (ii) from a hydrocarbon feedstock comprising paraffinic hydrocarbon compounds by contacting the feedstock with a mixture of a heterogeneous cracking catalyst and a heterogeneous dehydrogenation catalyst as present in one or more packed beds thereby obtaining propylene and other reaction products, wherein the cracking catalyst and the dehydrogenation catalyst are present in one or more packed beds in an in-series configuration and wherein the hydrocarbon feedstock, formed propylene and other reaction products will flow from an up-flow region to a down-flow region following a flow path and wherein in the direction of the flow path the concentration of the dehydrogenation catalyst in the bed decreases compared to the cracking catalyst. (i) from a hydrocarbon feedstock comprising olefin hydrocarbon compounds by contacting the feedstock with a mixture of a heterogeneous cracking catalyst and a heterogeneous dehydrogenation catalyst as present in one or more packed beds thereby obtaining propylene and other reaction products, wherein the cracking catalyst and the dehydrogenation catalyst are present in one or more packed beds in an in-series configuration and wherein the hydrocarbon feedstock, formed propylene and other reaction products will flow from an up-flow region to a down-flow region following a flow path and wherein in the direction of the flow path the concentration of the dehydrogenation catalyst in the bed increases compared to the cracking catalyst and/or (ii) from a hydrocarbon feedstock comprising paraffinic hydrocarbon compounds by contacting the feedstock with a mixture of a heterogeneous cracking catalyst and a heterogeneous dehydrogenation catalyst as present in one or more packed beds thereby obtaining propylene and other reaction products, wherein the cracking catalyst and the dehydrogenation catalyst are present in one or more packed beds in an in-series configuration and wherein the hydrocarbon feedstock, formed propylene and other reaction products will flow from an up-flow region to a down-flow region following a flow path and wherein in the direction of the flow path the concentration of the dehydrogenation catalyst in the bed decreases compared to the cracking catalyst.
A Cu alloy bonding wire for a semiconductor device, wherein among crystal orientations on a wire surface, an abundance ratio of a crystal orientation <110> having an angular difference of 15 degrees or less from a direction (y) perpendicular to one plane (P) including a wire center axis (x) is 25% or more and 70% or less in average area percentage; wherein the Cu alloy bonding wire contains (i) optionally one or more of Ni, Pd, Pt, and Au for a total of 0.01 mass% or more and 3.00 mass% or less and/or (ii) optionally one or more of P, In, Ga, Ge, and Ag for a total of 0.001 mass% or more and 1.00 mass% or less, and (iii) a balance being Cu and incidental impurities; and wherein the abundance ratio of crystal orientations is measured as defined in the description.