mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling an air conditioning device , said air conditioning device being capable of changing an object condition of a building , such as temperature, humidity, while the air conditioning device is operated and during a period of time in which the operation of the air conditioning device has a continued effect, characterized in that the controlling of said device is carried out based on the energy balance of the building at a time (t), said energy balance being determined based on the following input parameters: a) a prognosis of a time-dependent development of environmental parameters in an area around the building , the environmental parameters in said area having an effect on the object condition, while taking into account that another environmental parameter, i.e., a position of the sun outside said area, does not have any effect on the building, because rays of sunshine are prevented from impinging on the building by an adjacent obstruction, b) the time-dependent effect of the environmental parameters on a section of said building , said effect being determined by the object characteristics that are temporally relevant, and c) the time-dependent effect of the air conditioning device on the building , so that a section of said building reaches a certain object condition within a defined range of object conditions at a later point in time (t+1). a) a prognosis of a time-dependent development of environmental parameters in an area around the building , the environmental parameters in said area having an effect on the object condition, while taking into account that another environmental parameter, i.e., a position of the sun outside said area, does not have any effect on the building, because rays of sunshine are prevented from impinging on the building by an adjacent obstruction, b) the time-dependent effect of the environmental parameters on a section of said building , said effect being determined by the object characteristics that are temporally relevant, and c) the time-dependent effect of the air conditioning device on the building , so that a section of said building reaches a certain object condition within a defined range of object conditions at a later point in time (t+1).
Microfocus X-ray tube for a high-resolution X-ray device, comprising a housing , an electron beam source for generating an electron beam , and a focusing lens comprising a coil for focusing the electron beam onto a target , wherein the housing has a housing section surrounding the focusing lens , and the X-ray tube has an essentially rotationally-symmetrical, annular cooling chamber that is configured for the passage of a liquid cooling medium, characterized in that the cooling chamber is arranged in the housing, outside on the housing section surrounding the focusing lens, , next to the focusing lens, or in the housing section , surrounding the focusing lens, immediately next to the coil , wherein the cooling chamber extends predominantly in a radial manner, wherein the radial extension of the cooling chamber is adapted to the radial extension of the coil of the focusing lens .
A method for allocating a licence by a first controller called a licence server controller for using an industrial tool such as a screwdriver, the licence server controller controlling the use of a first tool and communicating through a computer network with at least one second controller called standard controller controlling a second tool, the first licence server controller having a licence server function for allocating a licence authorising the operation of the second tool, said method including the following steps: - selecting and requesting, by a technician, a function on the at least one second standard controller which requires the allocation of a licence, - transmitting a licence allocation request, by the second standard controller , to the licence server controller , - analysing the received request by the first licence server controller , - transmitting data authorising the use of the tool with said function, by the first licence server controller , to the standard controller , - activating, by the technician, a substitute controller function in a third controller selected to become a substitute controller, said activation triggering the emission, by the substitute controller, of a message to the first licence server controller informing that it is its substitute, the reception of this message triggering, by the first licence server controller , the transmission in real time to this third controller of the current state of licences allocated by this first controller , the substitute controller responding to licence requests emitted by the standard controller instead of the licence server controller in the event of failures to allocate licences. - selecting and requesting, by a technician, a function on the at least one second standard controller which requires the allocation of a licence, - transmitting a licence allocation request, by the second standard controller , to the licence server controller , - analysing the received request by the first licence server controller , - transmitting data authorising the use of the tool with said function, by the first licence server controller , to the standard controller , - activating, by the technician, a substitute controller function in a third controller selected to become a substitute controller,
A fiber optic module comprising: a body that is monolithic and transmissive to light having a predetermined wavelength, the body comprising: a fiber tray recess ; a fiber-end datum surface ; a plurality of lens surfaces spaced apart from the fiber-end datum surface , wherein the plurality of lens surfaces , the fiber-end datum surface , and intervening portions of the body define a plurality of lenses each having a linear optical axis; and a fiber tray comprising: a plurality of fiber support features disposed on the first surface, wherein: the plurality of fiber support features is configured to receive a plurality of optical fibers; and the fiber tray is disposed within the fiber tray recess and secured to the body such that the plurality of fiber support features is substantially aligned with the linear optical axes of the plurality of lenses. a body that is monolithic and transmissive to light having a predetermined wavelength, the body comprising: a fiber tray recess ; a fiber-end datum surface ; a plurality of lens surfaces spaced apart from the fiber-end datum surface , wherein the plurality of lens surfaces , the fiber-end datum surface , and intervening portions of the body define a plurality of lenses each having a linear optical axis; and a fiber tray recess ; a fiber-end datum surface ; a plurality of lens surfaces spaced apart from the fiber-end datum surface , wherein the plurality of lens surfaces , the fiber-end datum surface , and intervening portions of the body define a plurality of lenses each having a linear optical axis; and a fiber tray comprising: a plurality of fiber support features disposed on the first surface, wherein: the plurality of fiber support features is configured to receive a plurality of optical fibers; and the fiber tray is disposed within the fiber tray recess and secured to the body such that the plurality of fiber support features is substantially aligned with the linear optical axes of the plurality of lenses. the plurality of fiber support features is configured to receive a plurality of optical fibers; and the fiber tray is disposed within the fiber tray recess and secured to the body such that the plurality of fiber support features is substantially aligned with the linear optical axes of the plurality of lenses.
Centrifugal pump comprising a communication unit with a first communication interface to connect the centrifugal pump to a local communication device and a second communication interface to connect the centrifugal pump to a local or global network for communication with a remote communication device , characterised by a connector that connects the first and second communication interfaces so that a direct communication connection can be established between the local communication device and the remote communication device of a service centre via the connector .
A barrier system for public roads comprising at least one standing container , which comprises a floor wall (3.5), four side walls (3.1, 3.2, 3.3, 3.4), an intermediate floor and a functional space , wherein an intermediate space between the floor wall (3.5) and the intermediate floor may be covered with a liquid, characterized in that a volume enclosed by the side walls (3.1,3.2,3.3,3.4) and the floor wall (3.5) of the standing container (3.5) is divided by the intermediate floor into the intermediate space on the floor side and an upper functional space , wherein the functional space is delimited on all sides by side wall sections of the side walls (3.1, 3.2, 3.3, 3.4) and wherein the intermediate space on a second, third and fourth side wall (3.2; 3.3; 3.4) is separated by a small-scale truss structure made consisting of square rods (11.1; 11.2; 11.3), and an opening is formed on a first side wall which extends over essentially the entire width of the intermediate space between the side walls.
A battery, comprising an electrode assembly and a component for collecting a current which are configured to be assembled by means of an external tool for fixing and clamping the component ,wherein the component is formed integrally by a piece of metal that is in the form of a sheet, the component is arranged to electrically connect an electrode assembly to the outside, the component comprises an introducing body and a connection body bendably arranged relative to the introducing body, the connection body is connected to a tab of the electrode assembly , the introducing body is electronically connected to the outside, and the introducing body extends along the side of the electrode assembly ; wherein the introducing body comprises a holding arrangement and an inner connecting structure connecting the holding arrangement and the connection body , the holding arrangement protrudes relative to the inner connecting structure and in a direction that is away from the electrode assembly , an accommodating space formed between a surface of the holding arrangement adjacent to the electrode assembly and a surface of the electrode assembly , the accommodating space is used to place the external tool.
A process for manufacturing 2-isobutyl-6-(3-(methylamino)azetidin-1-yl)pyrimidin-4-amine of Formula (I): said process comprising the following steps: (a) reacting 6-chloro-2-isobutylpyrimidin-4-amine of Formula (III): with a N-protected N-methylazetidin-3-amine of Formula (IV): wherein R P is a protecting group selected from Carbobenzyloxy (Cbz), p-Methoxybenzyl carbonyl (Moz), tert-Butyloxycarbonyl (Boc), 9-Fluorenylmethyloxycarbonyl (Fmoc) and 2,2,2-Trichloroethoxycarbonyl (Troc); in an organic solvent being dimethylsulfoxide; in the presence of a base being potassium carbonate; at a temperature ranging from 85 to 125°C; the initial molar ratio between said compound of Formula (IV) and said compound of Formula (III) ranging from 0.85 to 1.25; so as to obtain an intermediate protected compound of Formula (II): and (b) performing a N-deprotection of said compound of Formula (II); so as to obtain said compound of Formula (I). (a) reacting 6-chloro-2-isobutylpyrimidin-4-amine of Formula (III): with a N-protected N-methylazetidin-3-amine of Formula (IV): wherein R P is a protecting group selected from Carbobenzyloxy (Cbz), p-Methoxybenzyl carbonyl (Moz), tert-Butyloxycarbonyl (Boc), 9-Fluorenylmethyloxycarbonyl (Fmoc) and 2,2,2-Trichloroethoxycarbonyl (Troc); in an organic solvent being dimethylsulfoxide; in the presence of a base being potassium carbonate; at a temperature ranging from 85 to 125°C; the initial molar ratio between said compound of Formula (IV) and said compound of Formula (III) ranging from 0.85 to 1.25; so as to obtain an intermediate protected compound of Formula (II): and in an organic solvent being dimethylsulfoxide; in the presence of a base being potassium carbonate; at a temperature ranging from 85 to 125°C; the initial molar ratio between said compound of Formula (IV) and said compound of Formula (III) ranging from 0.85 to 1.25; (b) performing a N-deprotection of said compound of Formula (II); so as to obtain said compound of Formula (I).
Ceiling assembly for a vehicle , comprising a first and a second carrier component , which are arranged next to each other, and at least one connecting component , by means of which the two carrier components are connected to each other, wherein each of the two carrier components has a coupling element for the pivotable mounting of a ceiling flap characterized in that - the ceiling assembly is equipped with a plurality of illuminating devices for illuminating a passenger compartment of the rail vehicle , said illuminating devices being fastened to the two carrier components , - the ceiling assembly comprises a first translucent concealing unit , which conceals the first carrier component from below, and a second translucent concealing unit , which conceals the second carrier component from below, and - the first concealing unit is fastened releasably to a web , which is fastened to the connecting component , and to the first carrier component , and the second concealing unit is fastened releasably to the web and to the second carrier component . - the ceiling assembly is equipped with a plurality of illuminating devices for illuminating a passenger compartment of the rail vehicle , said illuminating devices being fastened to the two carrier components , - the ceiling assembly comprises a first translucent concealing unit , which conceals the first carrier component from below, and a second translucent concealing unit , which conceals the second carrier component from below, and - the first concealing unit is fastened releasably to a web , which is fastened to the connecting component , and to the first carrier component , and the second concealing unit is fastened releasably to the web and to the second carrier component .
A method for establishing a session, comprising: establishing, by a session management function, SMF, entity, a first Protocol Data Unit, PDU, session, wherein a service of the first PDU session is provided by a second user plane function, UPF; sending, by an access and mobility management function, AMF, entity, a first message to user equipment, UE, wherein the first message instructs the UE to send a request for establishing a second PDU session; receiving, by the AMF entity, a second message indicating the request for establishing the second PDU session from the UE, wherein the second message comprises a first PDU session identifier, ID, of the first PDU session and a second PDU session ID of the second PDU session; determining, by the AMF entity, the SMF entity based on the first PDU session ID and an association between the first PDU session ID and a SMF ID associated with the SMF entity, wherein the association is stored in the AMF entity; and establishing, by the SMF entity, the second PDU session, wherein a service of the second PDU session is provided by a first UPF. establishing, by a session management function, SMF, entity, a first Protocol Data Unit, PDU, session, wherein a service of the first PDU session is provided by a second user plane function, UPF; sending, by an access and mobility management function, AMF, entity, a first message to user equipment, UE, wherein the first message instructs the UE to send a request for establishing a second PDU session; receiving, by the AMF entity, a second message indicating the request for establishing the second PDU session from the UE, wherein the second message comprises a first PDU session identifier, ID, of the first PDU session and a second PDU session ID of the second PDU session; determining, by the AMF entity, the SMF entity based on the first PDU session ID and an association between the first PDU session ID and a SMF ID associated with the SMF entity, wherein the association is stored in the AMF entity; and establishing, by the SMF entity, the second PDU session, wherein a service of the second PDU session is provided by a first UPF.
An apparatus for installing pipes in ground , the apparatus being configured to install pipes connected to a drilling tool and drill the drilling tool into the ground together with the pipes , the apparatus comprising a feed beam attachable or connectable to a boom of a drilling rig , the feed beam comprising a guide extending in a longitudinal direction , a feeder , the guide being configured to hold and guide the feeder , the feeder being movable in the longitudinal direction in relation to the feed beam , a drilling machine attached to the feeder and movable in relation to the feed beam , the drilling machine being configured to be attached to the drilling tool by one or more drill rods which in a drilling operation extend inside one or a plurality of the pipes in the longitudinal direction , and a first arm attached to the feed beam , the first arm having a gripper for gripping and/or holding the drill rod , wherein the first arm is movable in relation to the feed beam between an inactive position and an active position, wherein in the active position of the first arm the gripper of the first arm is configured to grip and/or hold the drill rod . a feed beam attachable or connectable to a boom of a drilling rig , the feed beam comprising a guide extending in a longitudinal direction , a feeder , the guide being configured to hold and guide the feeder , the feeder being movable in the longitudinal direction in relation to the feed beam , a drilling machine attached to the feeder and movable in relation to the feed beam , the drilling machine being configured to be attached to the drilling tool by one or more drill rods which in a drilling operation extend inside one or a plurality of the pipes in the longitudinal direction , and a first arm attached to the feed beam , the first arm having a gripper for gripping and/or holding the drill rod , wherein the first arm is movable in relation to the feed beam between an inactive position and an active position, wherein in the active position of the first arm the gripper of the first arm is configured to grip and/or hold the drill rod .
A glass article, comprising: a first surface; a second surface; an asymmetric stress profile extending from the first surface to the second surface; a first compressive stress layer extending from the first surface to a first depth of compression in the glass article; a second compressive stress layer extending from the second surface to a second depth of compression in the glass article; and a warpage height, wherein a ratio of the first depth of compression to the second depth of compression is at least 1.5:1, and the warpage height is less than 1% of a maximum dimension of the glass article. a first surface; a second surface; an asymmetric stress profile extending from the first surface to the second surface; a first compressive stress layer extending from the first surface to a first depth of compression in the glass article; a second compressive stress layer extending from the second surface to a second depth of compression in the glass article; and a warpage height, wherein a ratio of the first depth of compression to the second depth of compression is at least 1.5:1, and the warpage height is less than 1% of a maximum dimension of the glass article.
A composition comprising a biopolymer comprising monomers B, C, X and Y, or at least two biopolymers comprising monomers B, C and X and monomers B, C and Y, respectively, wherein B comprises repeats of pentapeptide VPGXG (SEQ ID NO: 7), preferably B is an amino acid sequence comprising SEQ ID NO: 2, C is an amino acid sequence comprising SEQ ID NO: 3, X is an amino acid sequence comprising SEQ ID NO: 4, and Y comprises 1 to 15 repeats of SEQ ID NO: 8, preferably Y is an amino acid sequence comprising SEQ ID NO: 5. B comprises repeats of pentapeptide VPGXG (SEQ ID NO: 7), preferably B is an amino acid sequence comprising SEQ ID NO: 2, C is an amino acid sequence comprising SEQ ID NO: 3, X is an amino acid sequence comprising SEQ ID NO: 4, and Y comprises 1 to 15 repeats of SEQ ID NO: 8, preferably Y is an amino acid sequence comprising SEQ ID NO: 5.
An apparatus for recognizing a proximity motion using sensors , the apparatus comprising: a first sensor ; a second sensor configured to sense an input space at a distance farther than a predetermined distance from a reference surface ; and an information transfer controller to transfer information related to a transition of an input object , between the first sensor and the second sensor , in response to the transition of the input object occurring between a first input space and a second input space, wherein the information related to the transition of the input object when the transition occurs between the first input space and the second input space comprises a coordinate of the input object being sensed in a corresponding input space; wherein the first sensor is configured to sense the first input space at a distance closer than the predetermined distance from the reference surface for recognizing a proximate motion, and wherein the second input space is sensed by the second sensor at a distance farther than the predetermined distance from the reference surface , and characterized in that the second sensor is configured to sense the input object by sensing a change in light with respect to the input object over time by sensing a change in an intensity of light in each pixel of the second sensor . a first sensor ; a second sensor configured to sense an input space at a distance farther than a predetermined distance from a reference surface ; and an information transfer controller to transfer information related to a transition of an input object , between the first sensor and the second sensor , in response to the transition of the input object occurring between a first input space and a second input space, wherein the information related to the transition of the input object when the transition occurs between the first input space and the second input space comprises a coordinate of the input object being sensed in a corresponding input space; wherein the first sensor is configured to sense the first input space at a distance closer than the predetermined distance from the reference surface for recognizing a proximate motion, and wherein the second input space is sensed by the second sensor at a distance farther than the predetermined distance from the reference surface , and characterized in that the second sensor is configured to sense the input object by sensing a change in light with respect to the input object over time by sensing a change in an intensity of light in each pixel of the second sensor .