mhurhangee/ep-ind-claims huggingface dataset:
A belt equipped to support a smartphone, wherein said belt is provided with a sleeve connected to a band of the belt, wherein said sleeve is equipped with seats to accommodate at least a group of attachment to attach a rod configured to support a smartphone, characterized in that the belt further comprises a battery that is attached to the band of the belt, wherein the battery can be connected to the smartphone via a cable equipped with a plug to allow charging the battery of the smartphone and in that the belt further comprises a roller that is housed in the sleeve, wherein the cable can at least partially be rolled around the roller.
A vertical lift storage system, comprising: a storage rack configured to store load units; a lift system with an upwardly and downwardly movable carrier structure, wherein the carrier structure is configured with a carrier floor with a payload area with multiple sections configured to carry load units at respective multiple sections thereof and with first transportation means configured to insert and withdraw respective load units into and from the storage rack; characterized in that the carrier structure is configured with second transportation means configured to shift load units sideways across the payload area of the carrier floor between its sections. a storage rack configured to store load units; a lift system with an upwardly and downwardly movable carrier structure, wherein the carrier structure is configured with a carrier floor with a payload area with multiple sections configured to carry load units at respective multiple sections thereof and with first transportation means configured to insert and withdraw respective load units into and from the storage rack; characterized in that the carrier structure is configured with second transportation means configured to shift load units sideways across the payload area of the carrier floor between its sections.
A computer-implemented method of identifying a body part of a subject on which a hand-held device is used, wherein the hand-held device is for performing a personal care operation on the subject and the hand-held device comprises a head portion for contacting skin of the subject during the personal care operation, and wherein the hand-held device further comprises one or more sensors for measuring a respective parameter and generating respective measurement signals as the hand-held device is used on the skin of the subject, wherein the one or more sensors comprises at least one of: (a) a skin contact sensor, and the parameter measured by the skin contact sensor is indicative of whether the head portion is in contact with skin, (b) a skin tone sensor, and the parameter measured by the skin tone sensor is indicative of a skin tone of skin that the head portion is in contact with, or indicative of a skin tone of skin that is adjacent to the skin that the head portion is in contact with, and (c) a proximity sensor, and the parameter measured by the proximity sensor is indicative of a distance from the proximity sensor to skin adjacent to the skin that the head portion is in contact with; wherein the method comprises: - obtaining a respective measurement signal from each of the one or more sensors, each measurement signal comprising a time-series of measurements of the respective parameter as the hand-held device is used on the skin of the subject; - analysing the obtained one or more measurement signals using a trained machine learning model, MLM, to identify the body part of the subject that the hand-held device is used on, wherein the trained MLM analyses a plurality of measurements in a time window on each of the obtained one or more measurement signals to identify the body part; and - outputting an indication of the identified body part. (a) a skin contact sensor, and the parameter measured by the skin contact sensor is indicative of whether the head portion is in contact with skin, (b) a skin tone sensor, and the parameter measured by the skin tone sensor is indicative of a skin tone of skin that the head portion is in contact with, or indicative of a skin tone of skin that is adjacent to the skin that the head portion is in contact with, and (c) a proximity sensor, and the parameter measured by the proximity sensor is indicative of a distance from the proximity sensor to skin adjacent to the skin that the head portion is in contact with; - obtaining a respective measurement signal from each of the one or more sensors, each measurement signal comprising a time-series of measurements of the respective parameter as the hand-held device is used on the skin of the subject; - analysing the obtained one or more measurement signals using a trained machine learning model, MLM, to identify the body part of the subject that the hand-held device is used on, wherein the trained MLM analyses a plurality of measurements in a time window on each of the obtained one or more measurement signals to identify the body part; and - outputting an indication of the identified body part.
A hybrid polypeptide comprising a first amino acid sequence comprising a catalytic module having alpha-amylase activity and a second amino acid sequence comprising a carbohydrate-binding module, wherein said first amino acid sequence has at least 75% identity to SEQ ID NO: 24, and wherein said second amino acid sequence has at least 75% identity to any amino acid sequence selected from the group consisting of SEQ ID NO: 52, SEQ ID NO: 76, SEQ ID NO: 78, SEQ ID NO: 80, SEQ ID NO: 82, SEQ ID NO: 84, SEQ ID NO: 86, SEQ ID NO: 90, SEQ ID NO: 92, SEQ ID NO: 94, SEQ ID NO: 96, SEQ ID NO: 98, SEQ ID NO: 109, SEQ ID NO: 137, SEQ ID NO: 139, SEQ ID NO: 141 and SEQ ID NO: 143.
A process for the preparation of a chiral compound of formula comprising providing a chiral compound of formula wherein Y is a substituted or unsubstituted aryl moiety, wherein the substituted aryl moiety bears one, two or three substituents which are selected from the group consisting of halo, alkyl, and C 1 alkoxy or C 2 alkoxy or C 3 alkoxy or C 4 alkoxy or C 5 alkoxy or C 6 alkoxy; reacting the compound of formula with H 2 N-NH-CHO in a solvent to obtain a compound according to formula. providing a chiral compound of formula wherein Y is a substituted or unsubstituted aryl moiety, wherein the substituted aryl moiety bears one, two or three substituents which are selected from the group consisting of halo, alkyl, and C 1 alkoxy or C 2 alkoxy or C 3 alkoxy or C 4 alkoxy or C 5 alkoxy or C 6 alkoxy; reacting the compound of formula with H 2 N-NH-CHO in a solvent to obtain a compound according to formula.
A fluid flow valve system comprising: a fluid flow valve, wherein the fluid flow valve comprises: a housing configured with a fluid inlet port and a fluid outlet port with an outlet aperture and a valve seating bounding said outlet aperture; a sealing-member (28, 40) configured to be biased, under fluid pressure within the housing, against the valve seating so as to seal the outlet aperture; a sealing-member displacing mechanism is secured to the sealing-member (28, 40) so that displacement of the displacing mechanism in a first sense detaches the sealing-member from the valve seating so as to open the outlet aperture, while displacement of the displacing mechanism in an opposite sense allows for the sealing-member to become sealingly biased against the valve seating; and a sealing-member opening mechanism configured for displacing said sealing member against the biasing effect of the displacing mechanism so as to discharge the fluid flow valve, wherein the sealing-member (28, 40) is manipulatable by the sealing-member opening mechanism between an open position in which the sealing-member (28, 40) is detached from the valve seating and a closed position in which the sealing-member is sealingly biased against the valve seating, wherein the fluid flow valve system comprises an activating unit (60, 80, 128, 136), wherein the sealing-member opening mechanism is operable with the activating unit, wherein the activating unit is configured for selectively manipulating the sealing-member opening mechanism between an open and a closed positions, wherein said activating unit comprises a pilot valve configured for generating an operating signal responsive to a predetermined pressure-threshold at the fluid inlet port, said operating signal being configured to be transferred for operating the sealing- member opening mechanism so as to displace the sealing-member (28, 40), wherein the sealing-member opening mechanism is configured as a plunger extending from an activator. a housing configured with a fluid inlet port and a fluid outlet port with an outlet aperture and a valve seating bounding said outlet aperture; a sealing-member (28, 40) configured to be biased, under fluid pressure within the housing, against the valve seating so as to seal the outlet aperture; a sealing-member displacing mechanism is secured to the sealing-member (28, 40) so that displacement of the displacing mechanism in a first sense detaches the sealing-member from the valve seating so as to open the outlet aperture, while displacement of the displacing mechanism in an opposite sense allows for the sealing-member to become sealingly biased against the valve seating; and a sealing-member opening mechanism configured for displacing said sealing member against the biasing effect of the displacing mechanism so as to discharge the fluid flow valve,
An industrial fabric formed by warps (1; 41) and wefts (2; 42) being woven with each other, characterized in that emboss patterns (7; 47) with irregularities are formed on an apex and near the apex of a knuckle portion emerging on a front surface side in said warps and/or said wefts, wherein the emboss patterns (7; 47) are lateral stripe patterns.
Commercial vehicle pneumatic tyre of a radial type of construction, comprising a carcass and a breaker belt, which has two belt plies (8, 9) with reinforcing elements of steel cord functioning as so-called working plies, the steel cords of each belt ply (8, 9) respectively running parallel to one another with a certain steel cord spacing (4, 5), the inclination of the steel cords with respect to the circumferential direction (A-A) of the radially inner working ply being opposite to the inclination of the steel cords of the radially outer working ply and the steel cords of the two working plies (8, 9) forming an angle α of between 15° and 30° with the circumferential direction (A-A), characterized in that the radially outer working ply has a steel cord spacing of approximately 1.2 to 1.4 mm and the radially inner working ply has a steel cord spacing of between 0.5 mm and 0.8 mm and in that the difference in the steel cord spacing (4, 5) between the radially outer working ply and the radially inner working ply is > 0.2 mm, the steel cord spacing (4, 5) per 100 mm of belt width being defined as follows: (100mm - number of steel cords * diameter of a steel cord)/number of steel cords.
A composition for use in treating wounds, wherein said composition comprises Aranea diadematus, Calcium phosphoricum, Equisetum hiemale, Ferrum jodatum, Fumaria officinalis, Gentiana lutea, Geranium robertianum, Levothyroxinum, Myosotis arvensis, Nasturtium officinale, Natrium sulfuricum, Pinus silvestris, Sarsaparillae radix, Scrophularia nodosa, Teucrium scorodonia, and Veronica officinalis.
A process for oligomerising an olefin comprising contacting the olefin with a zeolite catalyst in a reactor tube of a tubular reactor having a shell that contains a temperature control fluid for removing heat of reaction from the reactor tube, in which process the olefin feed to the reactor contains at least 42 wt % of olefin, wherein operating conditions are controlled such that the reaction product mixture exiting the reactor is at a pressure of at least 55 barg and wherein the shell side temperature control fluid parameters are controlled such that the peak temperature in the reactor tube is no more than 50 degrees C above the temperature of the temperature control fluid as said fluid exits the reactor; wherein the peak temperature is measured by means of a multipoint thermocouple disposed in the reaction tube.
An oxide-dispersed metal porous body comprising a porous metal framework, and oxide particles carried in the metal framework, wherein the oxide-dispersed metal porous body has a porosity of more than or equal to 70 volume%, and wherein a material of the porous metal framework includes at least one selected from the group consisting of nickel, nickel alloy, aluminum, aluminum alloy, stainless steel, and iron, characterized in that: an external appearance of the oxide-dispersed metal porous body has a shape in a form of a sheet, a mass per unit area of the shape is 200 g/m 2 to 1500 g/m 2, wherein the unit area of the shape is a unit area of a projected area of the oxide-dispersed metal porous body having the shape in the form of a sheet, when the oxide-dispersed metal porous body is seen in a direction normal to the main surface thereof, an amount of the oxide particles carried per unit area of the shape is 10 g/m 2 to 100 g/m 2, wherein the amount of oxide particles carried per unit area of the shape is measured using the method described in the description, and each of the oxide particles includes at least one selected from a group consisting of iron oxide, nickel oxide, titanium oxide, aluminum oxide, zirconium oxide, cerium oxide, cobalt oxide, molybdenum oxide, ruthenium oxide, iridium oxide, tin oxide, and silicon oxide. an external appearance of the oxide-dispersed metal porous body has a shape in a form of a sheet, a mass per unit area of the shape is 200 g/m 2 to 1500 g/m 2, wherein the unit area of the shape is a unit area of a projected area of the oxide-dispersed metal porous body having the shape in the form of a sheet, when the oxide-dispersed metal porous body is seen in a direction normal to the main surface thereof, an amount of the oxide particles carried per unit area of the shape is 10 g/m 2 to 100 g/m 2, wherein the amount of oxide particles carried per unit area of the shape is measured using the method described in the description, and each of the oxide particles includes at least one selected from a group consisting of iron oxide, nickel oxide, titanium oxide, aluminum oxide, zirconium oxide, cerium oxide, cobalt oxide, molybdenum oxide, ruthenium oxide, iridium oxide, tin oxide, and silicon oxide.
A method for preparing cellulose ether, comprising steps of: bringing pulp into continuous contact with an alkali metal hydroxide solution in a pipe type contactor having an upward slope to generate a contact mixture, wherein the concentration of the alkali metal hydroxide solution is 23 to 60% by weight, draining the contact mixture to obtain alkali cellulose, and etherifying the alkali cellulose with an etherifying agent to obtain the cellulose ether; wherein the weight ratio of alkali metal hydroxide contained by the alkali cellulose obtained in the step of draining to the solid portion contained by the pulp is 0.3 to 1.5, and a weight ratio of alkali metal hydroxide contained by the alkali cellulose obtained in the step of draining to a solid portion contained by the pulp is controlled by changing the linear velocity of the alkali metal hydroxide solution and/or a contact zone in a pipe of the pipe type contactor. bringing pulp into continuous contact with an alkali metal hydroxide solution in a pipe type contactor having an upward slope to generate a contact mixture, wherein the concentration of the alkali metal hydroxide solution is 23 to 60% by weight, draining the contact mixture to obtain alkali cellulose, and etherifying the alkali cellulose with an etherifying agent to obtain the cellulose ether; wherein the weight ratio of alkali metal hydroxide contained by the alkali cellulose obtained in the step of draining to the solid portion contained by the pulp is 0.3 to 1.5, and a weight ratio of alkali metal hydroxide contained by the alkali cellulose obtained in the step of draining to a solid portion contained by the pulp is controlled by changing the linear velocity of the alkali metal hydroxide solution and/or a contact zone in a pipe of the pipe type contactor.
A method for controlling the interaction between a user interface displayed in a display system of a teleoperated surgical system and an input device (114, 204) of the teleoperated surgical system, the method comprising: displaying on the display system in a two-dimensional user interface state, a user interface screen including a viewing plane and a pointer; restricting movement of the input device (114, 204) based on a state of the user interface, when the user interface is in the two-dimensional user interface state, to control the pointer to a planar haptic shape; displaying on the display system in a three-dimensional user interface state, a surgical site and a surgical instrument; enabling movement of the input device (114, 204) based on the state of the user interface, when the user interface is in the three-dimensional user interface state, to move in three-dimensions to manipulate the surgical instrument within the surgical site; and transitioning the user interface between the three-dimensional user interface state and the two-dimensional user interface state; wherein the haptic shape includes a haptic plane and the user interface in the two-dimensional user interface state comprises the pointer in the user interface hovering over a clickable element in the haptic plane of the user interface; and wherein restricting the movement of the input device (114, 204) comprises restricting movement of the input device (114, 204) to decrease movement of the pointer while over the clickable element. displaying on the display system in a two-dimensional user interface state, a user interface screen including a viewing plane and a pointer; restricting movement of the input device (114, 204) based on a state of the user interface, when the user interface is in the two-dimensional user interface state, to control the pointer to a planar haptic shape; displaying on the display system in a three-dimensional user interface state, a surgical site and a surgical instrument; enabling movement of the input device (114, 204) based on the state of the user interface, when the user interface is in the three-dimensional user interface state, to move in three-dimensions to manipulate the surgical instrument within the surgical site; and transitioning the user interface between the three-dimensional user interface state and the two-dimensional user interface state; wherein the haptic shape includes a haptic plane and the user interface in the two-dimensional user interface state comprises the pointer in the user interface hovering over a clickable element in the haptic plane of the user interface; and wherein restricting the movement of the input device (114, 204) comprises restricting movement of the input device (114, 204) to decrease movement of the pointer while over the clickable element.
A cut resistant chemical handling latex glove comprising: a cured, liquid-impervious polymeric latex shell, said polymeric shell coated with a tacky adhesive coating; and an integral cut resistant liner in contact with and anchored by said tacky adhesive coating, the integral cut resistant liner comprising a cut resistant liner infiltrated with a polymeric coating; whereby upon placing the glove on a hand and contacting a cutting edge on the glove, the integral cut resistant liner slips on said tacky adhesive coating, thereby reducing cutting stress at the cutting edge. a cured, liquid-impervious polymeric latex shell, said polymeric shell coated with a tacky adhesive coating; and an integral cut resistant liner in contact with and anchored by said tacky adhesive coating, the integral cut resistant liner comprising a cut resistant liner infiltrated with a polymeric coating; whereby upon placing the glove on a hand and contacting a cutting edge on the glove, the integral cut resistant liner slips on said tacky adhesive coating, thereby reducing cutting stress at the cutting edge.
Material handling vehicle, comprising, a mast and auxiliary equipment, wherein the auxiliary equipment comprises: a first and a second support leg each comprising at least one wheel (10, 13), at least two drive motors (6, 8) each comprising at least one wheel (7,9), an energy source device for powering the at least two drive motors (6, 8), wherein at least two of the wheels are independently steerable, and further a load carrier (19, 19a) is comprised and attached to the mast in a movable manner such that a load can be lifted up along the mast, whereby all wheels (7, 9, 10, 13) of the vehicle are arranged in or on, a first and a second support leg (4, 5) characterized in that the auxiliary equipment is fixedly attached to the mast. a first and a second support leg each comprising at least one wheel (10, 13), at least two drive motors (6, 8) each comprising at least one wheel (7,9), an energy source device for powering the at least two drive motors (6, 8), wherein at least two of the wheels are independently steerable, and further a load carrier (19, 19a) is comprised and attached to the mast in a movable manner such that a load can be lifted up along the mast, whereby all wheels (7, 9, 10, 13) of the vehicle are arranged in or on, a first and a second support leg (4, 5) characterized in that the auxiliary equipment is fixedly attached to the mast.
A self-contained medication apparatus, comprising: a first container; a first seal being part of said first container; a second container pivotally connected to said first container such that said first container and said second container are operable to be moved between an open position and a closed position; a second seal being part of said second container, said first seal and said second seal separating said first container and said second container; a type of medication disposed within said first container; and a consumable liquid disposed within said second container; wherein said first seal is removed from said first container and said second seal is removed from said second container, allowing said medication and said consumable liquid to be consumed, and wherein the first container and the second container are not containing screw threads for the connection of the first container and the second container. a first container; a first seal being part of said first container; a second container pivotally connected to said first container such that said first container and said second container are operable to be moved between an open position and a closed position; a second seal being part of said second container, said first seal and said second seal separating said first container and said second container; a type of medication disposed within said first container; and a consumable liquid disposed within said second container;
Use of a genetic construct comprising a nucleic acid sequence encoding a REVOLUTA gene operatively linked to an embryo-specific promoter in a method for increasing seed size in a plant and/or increasing the number of seeds obtainable from a plant without causing the detrimental side effects that had been seen with constitutive over expression of REV throughout the plant, the method comprising introducing into a plant or into a plant cell said genetic construct.