mhurhangee/patent-ind-claim-en huggingface dataset:
An elevator operation device comprising: an elevator emergency operation device comprising: a box having an opening; an operation board , provided with electronic devices thereon, and the face of the operation board provided with electronic devices is perpendicular to the plane on which the opening is located, wherein the operation board can be disposed inside the box in a manner that it can be pulled through the opening; and a middle board , fixed, via a first side thereof, to an end of the operation board that is close to the opening of the box , and the middle board is parallel to the plane on which the opening is located; characterized in that a part of the middle board on which a locking device is installed protrudes toward a direction to the operation board so as to form a stepped part on the middle board ; and in the elevator operation device further comprising a hall door button box, the back side thereof is installed on the middle board , such that the middle board is disposed between the hall door button box and the operation board , and the back side is a face opposite to the operation side of the hall door button box for an elevator user to operate. an elevator emergency operation device comprising: a box having an opening; an operation board , provided with electronic devices thereon, and the face of the operation board provided with electronic devices is perpendicular to the plane on which the opening is located, wherein the operation board can be disposed inside the box in a manner that it can be pulled through the opening; and a middle board , fixed, via a first side thereof, to an end of the operation board that is close to the opening of the box , and the middle board is parallel to the plane on which the opening is located; a box having an opening; an operation board , provided with electronic devices thereon, and the face of the operation board provided with electronic devices is perpendicular to the plane on which the opening is located, wherein the operation board can be disposed inside the box in a manner that it can be pulled through the opening; and a middle board , fixed, via a first side thereof, to an end of the operation board that is close to the opening of the box , and the middle board is parallel to the plane on which the opening is located; characterized in that a part of the middle board on which a locking device is installed protrudes toward a direction to the operation board so as to form a stepped part on the middle board ; and in the elevator operation device further comprising a hall door button box, the back side thereof is installed on the middle board , such that the middle board is disposed between the hall door button box and the operation board , and the back side is a face opposite to the operation side of the hall door button box for an elevator user to operate.
An occupant posture control method: characterized by controlling a posture of an occupant (Pa) of a vehicle based on information relating to a vehicle motion with a controller; predicting (S101-S110, S121-S126) a vehicle motion with the controller based on the information relating to the vehicle motion, imparting (S111, S129, S205) a stimulus using an actuator for generating a muscle tension in the occupant (Pa); and when a predicted vehicle motion occurs, the imparting (S129) of the stimulus with the actuator produces the muscle tension such that the occupant (Pa) assumes the posture corresponding to the vehicle motion. characterized by controlling a posture of an occupant (Pa) of a vehicle based on information relating to a vehicle motion with a controller; predicting (S101-S110, S121-S126) a vehicle motion with the controller based on the information relating to the vehicle motion, imparting (S111, S129, S205) a stimulus using an actuator for generating a muscle tension in the occupant (Pa); and when a predicted vehicle motion occurs, the imparting (S129) of the stimulus with the actuator produces the muscle tension such that the occupant (Pa) assumes the posture corresponding to the vehicle motion.
A method for detecting discrepancies in an item (100; 410) such as an aircraft, automobile, ship, submarine, satellite, spacecraft, building, bridge or pipeline using one-dimensional imaging, the method comprising: taking a plurality of readings along a first direction of the item, and characterized in that taking each reading comprises: directing an X-ray fan beam at the item, wherein a portion of the X-ray fan beam is reflected back from the item and wherein the narrow beam-width of the X-ray fan beam is parallel to the first direction; and detecting reflected X-rays from the item and recording the intensity of the detected reflected X-rays; and wherein the method further comprises: forming a one-dimensional image of the item from the detected reflected X-rays, the one-dimensional image establishing a correspondence between points along the first direction of the item and the intensity of the detected reflected X-rays at each point. taking a plurality of readings along a first direction of the item, and characterized in that taking each reading comprises: directing an X-ray fan beam at the item, wherein a portion of the X-ray fan beam is reflected back from the item and wherein the narrow beam-width of the X-ray fan beam is parallel to the first direction; and detecting reflected X-rays from the item and recording the intensity of the detected reflected X-rays; directing an X-ray fan beam at the item, wherein a portion of the X-ray fan beam is reflected back from the item and wherein the narrow beam-width of the X-ray fan beam is parallel to the first direction; and detecting reflected X-rays from the item and recording the intensity of the detected reflected X-rays; and wherein the method further comprises: forming a one-dimensional image of the item from the detected reflected X-rays, the one-dimensional image establishing a correspondence between points along the first direction of the item and the intensity of the detected reflected X-rays at each point.
Equipment for sorting parcels into bags comprising a receptacle support and at least one mobile shuttle robot cart and trolley assembly that is caused to be moved by being remotely controlled by a monitoring and control unit arranged to bring the shuttle robot cart and trolley assembly to a loading point where a parcel to be sorted is placed on the shuttle robot cart and trolley assembly and then to move said shuttle robot cart and trolley assembly with the parcel towards one of the receptacles that is determined by said unit as a function of a sorting indication read automatically on the parcel, and in that floor marking is provided that is arranged along the receptacle support modules and that is detectable by the shuttle robot cart while said shuttle robot cart is moving along said receptacle support modules, said equipment being characterized in that said receptacle support has a modular structure with modules each provided with braked wheels , said modules being arranged to be coupled together in separable manner by interfitting engagement.
A cutting insert for a tool for machining a workpiece, comprising a base body , which defines a cutting insert longitudinal axis , at least one cutting body , which laterally projects from a periphery of the base body and comprises a cutting edge , and a cutting insert bore , which is provided in the base body and extends along the cutting insert longitudinal axis , wherein on an underside , running transversely to the cutting insert longitudinal axis , of the base body are provided a plurality of elevations , which are arranged distributed in a peripheral direction and protrude from the underside of the base body , so that between respectively two adjacent elevations a relative depression is respectively obtained, wherein the cutting insert comprises at least one radial contact surface , a plurality of axial contact surfaces and a plurality of torque transfer surfaces for a bearing contact of the cutting insert against a tool holder , wherein the at least one radial contact surface lies on a cylindrical envelope or conical envelope symmetrical to the cutting insert longitudinal axis , wherein the axial contact surfaces are respectively arranged either on a top side , running transversely to the cutting insert longitudinal axis , of the elevations , or on a base surface , running transversely to the cutting insert longitudinal axis , of the depressions , and the torque transfer surfaces are arranged respectively on a lateral flank of the elevations , and wherein the at least one radial contact surface , the axial contact surfaces and the torque transfer surfaces run transversely to one another, characterized in that the cutting insert comprises a spigot , which protrudes further from the underside of the base body than the elevations and is symmetrical to the cutting insert longitudinal axis , and in that the at least one radial contact surface is an uninterrupted, continuous cylindrical or conical surface which is arranged on an outer side, facing away from the cutting insert longitudinal axis , of the spigot .
A medical balloon having a longitudinal axis comprising, a balloon constructed of a balloon material and a balloon cover comprising a composite material comprising at least one retracted expanded fluoropolymer material and an elastomer, said at least one retracted expanded fluoropolymer material comprising serpentine fibrils, wherein said balloon cover is circumferentially wrapped at a first diameter, wherein said composite material can be radially expanded up to a second, nominal diameter beyond which further expansion is inhibited, and wherein said second, nominal diameter is at least 4 times greater than the first diameter. a balloon constructed of a balloon material and a balloon cover comprising a composite material comprising at least one retracted expanded fluoropolymer material and an elastomer, said at least one retracted expanded fluoropolymer material comprising serpentine fibrils, wherein said balloon cover is circumferentially wrapped at a first diameter, wherein said composite material can be radially expanded up to a second, nominal diameter beyond which further expansion is inhibited, and wherein said second, nominal diameter is at least 4 times greater than the first diameter.
A probe assembly for inserting an industry standard size sensor of about 12mm diameter x 225mm length into a flexible or semi-rigid vessel or tubing , the assembly comprising: a distal aseptic connector for coupling to the vessel or tubing , a probe sheath comprising at least a portion that is rigid, the probe sheath extending longitudinally from the aseptic connector and having at least one inner longitudinal lumen configured to receive an elongate probe body and to permit longitudinal movement of the probe body within the probe sheath lumen, and an actuator for deploying a probe sensor within the vessel by advancing the probe body through the aseptic connector to a position where the probe sensor can measure at least one parameter within the vessel or tubing , wherein the probe sheath comprises at least two concentric rigid sheath elements and the actuator moves the probe body longitudinally within the sheath by telescoping one sheath element within another sheath element, and wherein the distal aseptic connector is further adapted to couple to a mating aseptic connector associated with the vessel or tubing , further characterised in that : the probe sheath has a barbed tube fitting at a first end which is used to connect the probe sheath to the distal aseptic connector , and wherein a second end of the probe sheath provides an opening into which the elongate probe body and a plunger is inserted. a distal aseptic connector for coupling to the vessel or tubing , a probe sheath comprising at least a portion that is rigid, the probe sheath extending longitudinally from the aseptic connector and having at least one inner longitudinal lumen configured to receive an elongate probe body and to permit longitudinal movement of the probe body within the probe sheath lumen, and an actuator for deploying a probe sensor within the vessel by advancing the probe body through the aseptic connector to a position where the probe sensor can measure at least one parameter within the vessel or tubing , wherein the probe sheath comprises at least two concentric rigid sheath elements and the actuator moves the probe body longitudinally within the sheath by telescoping one sheath element within another sheath element, and wherein the distal aseptic connector is further adapted to couple to a mating aseptic connector associated with the vessel or tubing , further characterised in that : the probe sheath has a barbed tube fitting at a first end which is used to connect the probe sheath to the distal aseptic connector , and wherein a second end of the probe sheath provides an opening into which the elongate probe body and a plunger is inserted.
Method for the production of 5-hydroxymethylfurfural (HMF) in a continuous process comprising the following steps: a) providing of an aqueous fructose-containing starting solution and at least one homogeneous acid catalyst, b) mixing of the aqueous fructose-containing starting solution and the at least one homogeneous acid catalyst to obtain a reaction solution having a carbohydrate content ranging from 5 wt-% to 50 wt-% (dry matter carbohydrate relative to the total weight of the reaction solution) and a fructose content ranging from 40 wt-% to 100 wt- % (dry matter fructose relative to the dry matter of the carbohydrates), c) feeding in of the reaction solution obtained in step b) into a continuous reactor system and conversion of the fructose present in the reaction solution to HMF at a temperature ranging from 80 °C to 165 °C to obtain an HMF-containing product mixture while adjusting for a fructose conversion ranging from 1 mol-% to 40 mol-%, d) adjusting of the product mixture to a temperature ranging from 20 °C to 80 °C, e) purificating of the product mixture obtained in step d) by using chromatography to separate at least four fractions comprising an HMF fraction, a carbohydrate/acid fraction, a fructose fraction and a levulinic and formic acid fraction. a) providing of an aqueous fructose-containing starting solution and at least one homogeneous acid catalyst, b) mixing of the aqueous fructose-containing starting solution and the at least one homogeneous acid catalyst to obtain a reaction solution having a carbohydrate content ranging from 5 wt-% to 50 wt-% (dry matter carbohydrate relative to the total weight of the reaction solution) and a fructose content ranging from 40 wt-% to 100 wt- % (dry matter fructose relative to the dry matter of the carbohydrates), c) feeding in of the reaction solution obtained in step b) into a continuous reactor system and conversion of the fructose present in the reaction solution to HMF at a temperature ranging from 80 °C to 165 °C to obtain an HMF-containing product mixture while adjusting for a fructose conversion ranging from 1 mol-% to 40 mol-%, d) adjusting of the product mixture to a temperature ranging from 20 °C to 80 °C, e) purificating of the product mixture obtained in step d) by using chromatography to separate at least four fractions comprising an HMF fraction, a carbohydrate/acid fraction, a fructose fraction and a levulinic and formic acid fraction.
Mowing machine intended to be moved in a direction of advance (A) and comprising a chassis and at least one work unit of elongate shape and connected to the chassis by means of a support arm able to pivot with respect to the chassis around an elevation axis , so as to pass the work unit from an operating configuration, in which it is in contact with a soil (S), to at least one maneuvering configuration, in which the work unit is raised slightly away from the soil, the work unit comprising a cutterbar and a grouping device for the cut product, the cutterbar comprising a plurality of cutting elements driven in rotation and substantially aligned transversally to the direction of advance (A) of the mowing machine in use, the grouping device being located behind the cutterbar along the direction of advance (A) and comprising a grouping auger which is mounted with rotational guidance around an auger axis (AR) at least substantially perpendicular to the direction of advance (A), the coils of the grouping auger being oriented in such a manner that its rotation makes it possible to move the cut products transversally to the direction of advance (A) towards the chassis , the work unit also comprising a primary shaft connected to a drive supply, a primary gearbox to drive the cutting elements and a secondary gearbox to drive the grouping auger , these primary and secondary gearboxes being kinematically connectable to the primary shaft , mowing machine characterized in that the secondary gearbox is located on the side of the inner end of the work unit towards which the cut products are moved by the grouping auger .
An inkjet printhead comprising: a rigid elongate manifold having first, second, third and fourth parallel ink supply channels extending along the manifold and corresponding first, second, third and fourth parallel rows of outlets defined in the manifold, each row of outlets being in fluid communication with a respective one of the ink supply channels , wherein a first ink delivery group contains the first and second rows of outlets and a second ink delivery group contains the third and fourth rows of outlets; a first row of butting printhead chips mounted to a unitary lower surface of the manifold, each printhead chip of the first row receiving ink from the first and second rows of outlets; and a second row of butting printhead chips mounted to the lower surface of the manifold, the second row of printhead chips being parallel and aligned with the first row of printhead chips, each printhead chip of the second row receiving ink from the third and fourth rows of outlets, wherein: the ink supply channels are arranged in pairs, the ink supply channels in each respective pair being separated by a longitudinal dividing wall ; the pairs of ink supply channels are separated by a longitudinal central wall , the longitudinal central wall being relatively thicker than the longitudinal dividing walls such that a distance between the first and second ink delivery groups is greater than a distance between the first and second rows of outlets or the third and fourth rows of outlets a rigid elongate manifold having first, second, third and fourth parallel ink supply channels extending along the manifold and corresponding first, second, third and fourth parallel rows of outlets defined in the manifold, each row of outlets being in fluid communication with a respective one of the ink supply channels , wherein a first ink delivery group contains the first and second rows of outlets and a second ink delivery group contains the third and fourth rows of outlets; a first row of butting printhead chips mounted to a unitary lower surface of the manifold, each printhead chip of the first row receiving ink from the first and second rows of outlets; and a second row of butting printhead chips mounted to the lower surface of the manifold, the second row of printhead chips being parallel and aligned with the first row of printhead chips, each printhead chip of the second row receiving ink from the third and fourth rows of outlets, the ink supply channels are arranged in pairs, the ink supply channels in each respective pair being separated by a longitudinal dividing wall ; the pairs of ink supply channels are separated by a longitudinal central wall , the longitudinal central wall being relatively thicker than the longitudinal dividing walls such that a distance between the first and second ink delivery groups is greater than a distance between the first and second rows of outlets or the third and fourth rows of outlets
A compound of Formula IV: or a pharmaceutically acceptable salt thereof, wherein: a dashed line indicates an optional bond; X is a bond, CO, or CR 7 R 8 ; k is 0-2; Z is halo, methoxy or C 1-3 alkyl optionally substituted with halo; R 1 and R 2 are each independently, H, C 1-3 alkyl, methoxy, halo or OH; or R 1 and R 2 taken together with the atoms to which they are attached form a 5-6 membered ring; or R 1 and X taken together with the atoms to which they are attached form a 5-6 membered ring; R 3 is H, C 1-3 alkyl, methoxy, halo, OH, COOR 12 , CR 13 R 14 OH, COHNR 15 , cycloalkyl, or heteroaryl; R 4 is a bond or CR 9 R 10 ; U is C, N, S, or O; R' is a halo, heteroaryl, C 1-6 alkoxy, C 1-6 alkyl, heterocycloalkyl, CN cycloalkyl, CO 2 (C 1-6 alkyl), or CO(C 1-6 alkyl); or two R' taken together with the atoms to which they are attached form a 5-6-membered ring; R 7 and R 8 are each, independently, H or C 1-3 alkyl, or CONH 2 , wherein said C 1-3 alkyl is optionally substituted with halo; R 9 and R 10 are each, independently, H or C 1-3 alkyl, wherein said C 1-3 alkyl is optionally substituted with halo; R 12 , R 13 , R 14 and R 15 are each independently H or C 1-3 alkyl. R 16 is H or C 1-3 alkyl; R 17 is H, halo, or C 1-3 alkyl; I is 0-3; m is 0-3; n is 0-3, and p is 1-3. a dashed line indicates an optional bond; X is a bond, CO, or CR 7 R 8 ; k is 0-2; Z is halo, methoxy or C 1-3 alkyl optionally substituted with halo; R 1 and R 2 are each independently, H, C 1-3 alkyl, methoxy, halo or OH; or R 1 and R 2 taken together with the atoms to which they are attached form a 5-6 membered ring; or R 1 and X taken together with the atoms to which they are attached form a 5-6 membered ring; R 3 is H, C 1-3 alkyl, methoxy, halo, OH, COOR 12 , CR 13 R 14 OH, COHNR 15 , cycloalkyl, or heteroaryl; R 4 is a bond or CR 9 R 10 ; U is C, N, S, or O; R' is a halo, heteroaryl, C 1-6 alkoxy, C 1-6 alkyl, heterocycloalkyl, CN cycloalkyl, CO 2 (C 1-6 alkyl), or CO(C 1-6 alkyl); or two R' taken together with the atoms to which they are attached form a 5-6-membered ring; R 7 and R 8 are each, independently, H or C 1-3 alkyl, or CONH 2 , wherein said C 1-3 alkyl is optionally substituted with halo; R 9 and R 10 are each, independently, H or C 1-3 alkyl, wherein said C 1-3 alkyl is optionally substituted with halo; R 12 , R 13 , R 14 and R 15 are each independently H or C 1-3 alkyl. R 16 is H or C 1-3 alkyl; R 17 is H, halo, or C 1-3 alkyl; I is 0-3; m is 0-3; n is 0-3, and p is 1-3.