mhurhangee/patent-ind-claim-en huggingface dataset:
A bicycle stem with adjustable inclination, comprising a stem body whereof one of the ends includes fastening means of the handlebar , the opposite end including two parallel arms able to be connected to a fork pivot tube by an articulation associated with gripping means able to block the stem in a position corresponding to a chosen inclination angle, said gripping means including a pair of smooth frustoconical bodies connected to the inner faces of the corresponding ends of said arms , said frustoconical bodies being part of the articulation while being received in smooth housings of complementary shape formed on either side of the articulation , said frustoconical bodies being connected to one another by connecting means in order to make it possible to bring them closer to one another to tighten them in the respective housing of the articulation, and to loosen them by moving them away from one another to perform a continuous adjustment of the inclination of the stem, characterized in that the taper angle (α) of the frustoconical bodies has a value below 15° in order to obtain jamming of the frustoconical bodies inside said housings of complementary shape, and in that an expulsion means of the frustoconical bodies is provided between them, said expulsion means being able to release the frustoconical bodies from their respective housing , said expulsion means including an expulsion screw screwed into a central tapped hole of one of the frustoconical bodies and the head of which is housed in a central recess in the inner face of the other frustoconical body , which further has a central through hole aligned on a through hole of one of said arms in order to provide access from the outside of the head of the expulsion screw such that when said screw is unscrewed, the frustoconical bodies are loosened from their respective housing .
Cannabidiol-C4 (CBD-C4) for use as a medicament, wherein the CBD-C4 is in the form of a purified plant extract comprising at least 80% w/w CBD-C4, or is in the form of a synthetic compound.
A welding mould for welding a reinforcing element onto a food container, comprising: - a female mould assembly comprising at least one female forming element having a pair of side walls , a front wall and a rear wall , - a reinforcement element guide , comprising one or more openings delimited by a perimetral wall and an internal wall , the at least one female forming element being arranged inside said opening of the reinforcing element guide , - a male mould assembly comprising in turn: - a forming plate , - a paper-pressing ring comprising a pair of side walls , a front wall and a rear wall , the reinforcement element guide being selectively movable with respect to the walls of the female forming element , characterised in that the male mould assembly further comprises an outer bending ring of the reinforcement element . - a female mould assembly comprising at least one female forming element having a pair of side walls , a front wall and a rear wall , - a reinforcement element guide , comprising one or more openings delimited by a perimetral wall and an internal wall , the at least one female forming element being arranged inside said opening of the reinforcing element guide , - a male mould assembly comprising in turn: - a forming plate , - a paper-pressing ring comprising a pair of side walls , a front wall and a rear wall , the reinforcement element guide being selectively movable with respect to the walls of the female forming element , characterised in that the male mould assembly further comprises an outer bending ring of the reinforcement element . - a forming plate , - a paper-pressing ring comprising a pair of side walls , a front wall and a rear wall , the reinforcement element guide being selectively movable with respect to the walls of the female forming element , characterised in that the male mould assembly further comprises an outer bending ring of the reinforcement element . the reinforcement element guide being selectively movable with respect to the walls of the female forming element , characterised in that the male mould assembly further comprises an outer bending ring of the reinforcement element .
A metal-oxo complex represented by the following general formula , wherein in the general formula above, "M" represents a molybdenum atom or a tungsten atom; "A" represents a carbon atom, a silicon atom, a germanium atom, a tin atom or a lead atom; X 1 and X 2 each independently represent a halogen atom; R 1 to R 5 each independently represent a hydrogen atom, a straight or branched chain alkyl group that is substituted or unsubstituted and has 1 to 20 carbon atoms, or a substituted or unsubstituted aryl group having 6 to 20 carbon atoms; each of R 1 to R 3 may be bonded to one another to form a ring.
Sealing element for establishing an electrically conductive connection between a first machine element and a second machine element , comprising at least one sealing disc and a supporting ring , wherein the supporting ring comprises an axial flange and a radial flange , the supporting ring comprises an inner ring and an outer ring , wherein the sealing disc is fixed between the inner ring and the outer ring , wherein the sealing disc is fixed at least in sections along the axial flange by means of a clamping connection between the inner ring and the outer ring , characterised in that the sealing disc is formed from an electrically conductive non-woven material.
A Heads-Up Display (HUD) system for a pair of glasses comprising: a glasses lens assembly comprising a lens and having a first side and a second side opposite the first side; an electronics module ; a power module configured to provide power to the electronics module; and a display module disposed on a display arm , the display arm including a joint configured to pivot the display module inwardly and outwardly relative to the pair of glasses about a substantially vertical axis of rotation, wherein the display arm is adjustably coupled to the electronics module, characterized in comprising first and second module connectors attached to the first and second sides of the glasses lens assembly ; wherein the electronics module is configured to be releasably attachable to the first module connector; the power module is configured to be releasably attachable to the second module connector; the glasses lens assembly has two holes on each of the first and second sides thereof; and wherein the first and second module connectors each comprises two protrusions configured to engage the two holes . a glasses lens assembly comprising a lens and having a first side and a second side opposite the first side; an electronics module ; a power module configured to provide power to the electronics module; and a display module disposed on a display arm , the display arm including a joint configured to pivot the display module inwardly and outwardly relative to the pair of glasses about a substantially vertical axis of rotation, wherein the display arm is adjustably coupled to the electronics module, characterized in comprising first and second module connectors attached to the first and second sides of the glasses lens assembly ; wherein the electronics module is configured to be releasably attachable to the first module connector; the power module is configured to be releasably attachable to the second module connector; the glasses lens assembly has two holes on each of the first and second sides thereof; and wherein the first and second module connectors each comprises two protrusions configured to engage the two holes .
A solid state circuit breaker system , comprising: a parallel configuration comprising an electronic switching module connected in parallel with an electronic energy absorbing module , the parallel configuration connected between a voltage source, via a busbar , and a load ; a voltage sensor detecting a difference in voltage between a first location (V1) and a second location (V2) on the busbar ; a temperature sensor (T1) indicating a temperature of the busbar ; a controller determining the current flowing to the parallel configuration based on the difference in voltage and the electrical resistance of the busbar based on the following equation: I = V R where: I = determined current V = difference in voltage detected between the first location (V1) and the second location (V2); R = f r , t , l , A ; where: R = electrical resistance of the busbar ; r = electrical resistivity of the busbar material; t = temperature of the busbar provided by the temperature sensor (T1) ; l = length of the busbar between the first location (V1) and the second location (V2); A = area of the busbar between the first location (V1) and the second location (V2). a parallel configuration comprising an electronic switching module connected in parallel with an electronic energy absorbing module , the parallel configuration connected between a voltage source, via a busbar , and a load ; a voltage sensor detecting a difference in voltage between a first location (V1) and a second location (V2) on the busbar ; a temperature sensor (T1) indicating a temperature of the busbar ; a controller determining the current flowing to the parallel configuration based on the difference in voltage and the electrical resistance of the busbar based on the following equation: I = V R where: I = determined current V = difference in voltage detected between the first location (V1) and the second location (V2); R = f r , t , l , A ; where: R = electrical resistance of the busbar ; r = electrical resistivity of the busbar material; t = temperature of the busbar provided by the temperature sensor (T1) ; l = length of the busbar between the first location (V1) and the second location (V2); A = area of the busbar between the first location (V1) and the second location (V2). I = determined current V = difference in voltage detected between the first location (V1) and the second location (V2); R = f r , t , l , A ; where: R = electrical resistance of the busbar ; r = electrical resistivity of the busbar material; t = temperature of the busbar provided by the temperature sensor (T1) ; l = length of the busbar between the first location (V1) and the second location (V2); A = area of the busbar between the first location (V1) and the second location (V2). R = electrical resistance of the busbar ; r = electrical resistivity of the busbar material; t = temperature of the busbar provided by the temperature sensor (T1) ; l = length of the busbar between the first location (V1) and the second location (V2); A = area of the busbar between the first location (V1) and the second location (V2).
An acrylic thermoplastic resin composition comprising a two-layer or more multilayer structure polymer particle (A) and a block copolymer (B), wherein: the multilayer structure polymer particle (A) is an acrylic multilayer structure polymer particle which has, as an inner layer, at least one rubber component layer (I) consisting of a copolymer consisting of 50 to 99.99% by mass of an acrylic acid ester monomer unit, 49.99 to 0% by mass of an additional monofunctional monomer unit, and 0.01 to 10% by mass of a polyfunctional monomer unit, and has, as an outermost layer, at least one thermoplastic resin component layer (II) consisting of a copolymer consisting of 40 to 100% by mass of a methacrylic acid ester monomer unit and 60 to 0% by mass of an additional monomer unit and having a number-average molecular weight of 30,000 or smaller, the number-average molecular weight of the copolymer constituting the outermost layer of the multilayer structure polymer particle (A) being determined by subjecting the multilayer structure polymer particle (A) to solvent extraction with an organic solvent and measuring the resulting sample by GPC, wherein a mass ratio of the total amount of the rubber component layer (I) to the total amount of the thermoplastic resin component layer (II) (layer (I)/layer (II)) is 30/70 to 90/10, and an average particle size is 150 nm or smaller; the block copolymer (B) is an acrylic block copolymer having a weight-average molecular weight of 32,000 to 300,000 measured by GPC; and a mass ratio of the multilayer structure polymer particle (A) to the block copolymer (B) ((A)/(B)) is 1/99 to 99/1. the multilayer structure polymer particle (A) is an acrylic multilayer structure polymer particle which has, as an inner layer, at least one rubber component layer (I) consisting of a copolymer consisting of 50 to 99.99% by mass of an acrylic acid ester monomer unit, 49.99 to 0% by mass of an additional monofunctional monomer unit, and 0.01 to 10% by mass of a polyfunctional monomer unit, and has, as an outermost layer, at least one thermoplastic resin component layer (II) consisting of a copolymer consisting of 40 to 100% by mass of a methacrylic acid ester monomer unit and 60 to 0% by mass of an additional monomer unit and having a number-average molecular weight of 30,000 or smaller, the number-average molecular weight of the copolymer constituting the outermost layer of the multilayer structure polymer particle (A) being determined by subjecting the multilayer structure polymer particle (A) to solvent extraction with an organic solvent and measuring the resulting sample by GPC, wherein a mass ratio of the total amount of the rubber component layer (I) to the total amount of the thermoplastic resin component layer (II) (layer (I)/layer (II)) is 30/70 to 90/10, and an average particle size is 150 nm or smaller; the block copolymer (B) is an acrylic block copolymer having a weight-average molecular weight of 32,000 to 300,000 measured by GPC; and a mass ratio of the multilayer structure polymer particle (A) to the block copolymer (B) ((A)/(B)) is 1/99 to 99/1.
A microscope device comprising: a microscope objective , a sample stage for holding a sample and moving the sample in a plane perpendicular to the optical axis of the microscope objective, a light source and an illumination pattern generator unit for illuminating the sample with a line-type illumination pattern, an area-detector for detecting light from the sample collected by the microscope objective, and a control unit configured to selectively operate the microscope arrangement in a normal magnification mode or in a lower magnification mode, characterised in that : the microscope further comprises a scanning unit for moving the illumination pattern in a scanning direction across the field of view, wherein the scanning direction is perpendicular to the longitudinal axis of the illumination pattern, wherein in the lower magnification mode the sample is moved in a direction antiparallel to the scanning direction while the illumination pattern is moved across the field of view by the scanning unit so as to obtain an at least unidirectionally compressed image, whereby the compression-factor is given by the ratio of the stage- and scan-speed. a microscope objective , a sample stage for holding a sample and moving the sample in a plane perpendicular to the optical axis of the microscope objective, a light source and an illumination pattern generator unit for illuminating the sample with a line-type illumination pattern, an area-detector for detecting light from the sample collected by the microscope objective, and a control unit configured to selectively operate the microscope arrangement in a normal magnification mode or in a lower magnification mode, characterised in that : the microscope further comprises a scanning unit for moving the illumination pattern in a scanning direction across the field of view, wherein the scanning direction is perpendicular to the longitudinal axis of the illumination pattern, wherein in the lower magnification mode the sample is moved in a direction antiparallel to the scanning direction while the illumination pattern is moved across the field of view by the scanning unit so as to obtain an at least unidirectionally compressed image, whereby the compression-factor is given by the ratio of the stage- and scan-speed. the microscope further comprises a scanning unit for moving the illumination pattern in a scanning direction across the field of view, wherein the scanning direction is perpendicular to the longitudinal axis of the illumination pattern, wherein in the lower magnification mode the sample is moved in a direction antiparallel to the scanning direction while the illumination pattern is moved across the field of view by the scanning unit so as to obtain an at least unidirectionally compressed image, whereby the compression-factor is given by the ratio of the stage- and scan-speed.
A system comprising a flap actuation system , a flap , and a flap support linkage connected to the flap, the flap actuation system comprising: a first actuator ; a second actuator ; a first drive arm coupled to the first actuator, and coupled to the flap via the flap support linkage; a second drive arm coupled to the second actuator, and coupled to the flap via the flap support linkage; a first cam ; a first output shaft , the first cam to couple to the first drive arm via the first output shaft during operation of the first actuator to enable the first actuator to actuate the flap via the first drive arm; a second cam ; a second output shaft , the second cam to couple to the second drive arm via the second output shaft during operation of the second actuator to enable the second actuator to actuate the flap via the second drive arm, the first cam uncoupled from the first drive arm in response to a failure of the first actuator, the second actuator to actuate the flap via the second drive arm in response to the failure of the first actuator; and a controller , the controller configured to control the coupling of the first actuator to the first drive arm via the first cam and to instruct the second actuator to actuate the flap when the first cam is uncoupled from the first drive arm. a first actuator ; a second actuator ; a first drive arm coupled to the first actuator, and coupled to the flap via the flap support linkage; a second drive arm coupled to the second actuator, and coupled to the flap via the flap support linkage; a first cam ; a first output shaft , the first cam to couple to the first drive arm via the first output shaft during operation of the first actuator to enable the first actuator to actuate the flap via the first drive arm; a second cam ; a second output shaft , the second cam to couple to the second drive arm via the second output shaft during operation of the second actuator to enable the second actuator to actuate the flap via the second drive arm, the first cam uncoupled from the first drive arm in response to a failure of the first actuator, the second actuator to actuate the flap via the second drive arm in response to the failure of the first actuator; and a controller , the controller configured to control the coupling of the first actuator to the first drive arm via the first cam and to instruct the second actuator to actuate the flap when the first cam is uncoupled from the first drive arm.
A DPP-4 inhibitor, which is 1-[(4-methyl-quinazolin-2-yl)methyl]-3-methyl-7-(2-butyn-1-yl)-8-(3-(R)-amino-piperidin-1-yl)-xanthine or a pharmaceutically acceptable salt thereof, optionally in combination with one or more other active agents, for use in a method of treating a patient having heart failure with preserved ejection fraction (HFpEF).
A droplet generator comprising: a chamber including an enclosed space a tube extending through the chamber , the tube comprising a sidewall having an outer surface exposed to the enclosed space of the chamber , and an inner surface, the tube (130 830) containing liquid; a gas flow channel inside the tube ; and characterized by further comprising: a heater in the chamber , and wherein the enclosed space is filled with gas having vapor, and wherein the heater is operable to change a phase of the liquid contained in the tube to vapor such that the vapor is provided into the enclosed space ; and a pressure in the enclosed space is higher than a pressure in the gas flow channel such that the vapor in the enclosed space flows to the gas flow channel by passing through the sidewall of the tube . a chamber including an enclosed space a tube extending through the chamber , the tube comprising a sidewall having an outer surface exposed to the enclosed space of the chamber , and an inner surface, the tube (130 830) containing liquid; a gas flow channel inside the tube ; and characterized by further comprising: a heater in the chamber , and wherein the enclosed space is filled with gas having vapor, and wherein the heater is operable to change a phase of the liquid contained in the tube to vapor such that the vapor is provided into the enclosed space ; and a pressure in the enclosed space is higher than a pressure in the gas flow channel such that the vapor in the enclosed space flows to the gas flow channel by passing through the sidewall of the tube .
A compressor system for an air suspension system of a vehicle , the system comprising: a compressor comprising a piston mounted within a cylinder, the cylinder having an inlet for receiving a fluid and an outlet coupleable to an outlet pipe for transfer of a compressed fluid, the compressor comprising a drive mechanism for actuating the piston; and the system being characterised by a noise suppressor coupled to the outlet of the cylinder for reducing acoustic noise transmitted through the outlet pipe , wherein the noise suppressor is spaced from the compressor , the outlet of the cylinder being coupled to an inlet of the noise suppressor by the outlet pipe , wherein the noise suppressor is integrally moulded with the outlet pipe . a compressor comprising a piston mounted within a cylinder, the cylinder having an inlet for receiving a fluid and an outlet coupleable to an outlet pipe for transfer of a compressed fluid, the compressor comprising a drive mechanism for actuating the piston; and the system being characterised by a noise suppressor coupled to the outlet of the cylinder for reducing acoustic noise transmitted through the outlet pipe , wherein the noise suppressor is spaced from the compressor , the outlet of the cylinder being coupled to an inlet of the noise suppressor by the outlet pipe , wherein the noise suppressor is integrally moulded with the outlet pipe .