mhurhangee/patent-ind-claim-en huggingface dataset:
Shading and illumination system for a room in a building , with - at least one shading device for shading viewing openings , in particular windows, of the building , - at least one illumination device for illuminating the room , - at least one external sensor for detecting at least one external parameter (P out ) acting on the room from outside, - at least one internal sensor for detecting i. a 3D image of the room , ii. at least one position (x, y, z) of a person (P) present in the room in this 3D image and iii. a viewing direction (x view , y view , z view ) of this at least one person (P) and - a control unit for actuating the at least one shading device and the at least one illumination device , wherein the at least one shading device and the at least one illumination device are actuatable by the control unit depending on the values measured by the external sensor and by the internal sensor , characterized in that a light parameter (L) acting on the person (P), in particular on an eye of the person (P), is determinable depending on the detected viewing direction (x view , y view , z view ) and on the detected position (x, y, z) and on the 3D image of the room and depending on the at least one external parameter (P out ), wherein the at least one shading device and/or the at least one illumination device are/is actuatable depending on this light parameter (L) acting on the person (P). - at least one shading device for shading viewing openings , in particular windows, of the building , - at least one illumination device for illuminating the room , - at least one external sensor for detecting at least one external parameter (P out ) acting on the room from outside, - at least one internal sensor for detecting i. a 3D image of the room , ii. at least one position (x, y, z) of a person (P) present in the room in this 3D image and iii. a viewing direction (x view , y view , z view ) of this at least one person (P) and i. a 3D image of the room , ii. at least one position (x, y, z) of a person (P) present in the room in this 3D image and iii. a viewing direction (x view , y view , z view ) of this at least one person (P) and - a control unit for actuating the at least one shading device and the at least one illumination device , wherein the at least one shading device and the at least one illumination device are actuatable by the control unit depending on the values measured by the external sensor and by the internal sensor ,
A carbon fiber preform defining an annulus or a cylinder extending along a central longitudinal axis , the fiber preform comprising: a plurality of layers extending in an axial direction and a circumferential direction relative to the longitudinal axis, wherein each layer of the plurality of layers comprises a continuous fiber fabric including a woven fabric comprising: a plurality of elongate axial fibers extending substantially in the axial direction; and a plurality of elongate circumferential fibers extending substantially in the circumferential direction, wherein at least 40% of fibers of the woven fabric extend substantially in the axial direction; and a plurality of elongate radial fibers extending substantially in the radial direction relative to the longitudinal axis, wherein the plurality of elongate radial fibers mechanically bind one or more adjacent layers of the plurality of layers. a plurality of layers extending in an axial direction and a circumferential direction relative to the longitudinal axis, wherein each layer of the plurality of layers comprises a continuous fiber fabric including a woven fabric comprising: a plurality of elongate axial fibers extending substantially in the axial direction; and a plurality of elongate circumferential fibers extending substantially in the circumferential direction, wherein at least 40% of fibers of the woven fabric extend substantially in the axial direction; and a plurality of elongate axial fibers extending substantially in the axial direction; and a plurality of elongate circumferential fibers extending substantially in the circumferential direction, wherein at least 40% of fibers of the woven fabric extend substantially in the axial direction; and a plurality of elongate radial fibers extending substantially in the radial direction relative to the longitudinal axis, wherein the plurality of elongate radial fibers mechanically bind one or more adjacent layers of the plurality of layers.
A method of preparing a positive active material for a rechargeable lithium battery, the method comprising: mixing a salt of Zr and a first solvent to form a salt solution; mixing a chelating agent and a second solvent to form a chelating agent solution; mixing the salt solution and the chelating agent solution to form a first mixed solution; mixing the first mixed solution and a homogenizer to form a second mixed solution; mixing at least one core material selected from a nickel-based composite oxide represented by Chemical Formula 1 or a lithium manganese oxide represented by Chemical Formula 2 and the second mixed solution to form a mixture; and heat-treating the mixture to coat a surface of the core material with a lithium metal oxide represented by Chemical Formula 3: Chemical Formula 1 LiNi x Co y Mn 1-x-y O 2 wherein 0.1≤x≤0.8, and 0.1≤y≤0.8, Chemical Formula 2 Li a Mn b O c wherein 1≤a≤2, 1≤b≤2, and 2≤c≤4, and Chemical Formula 3 Li 2 MO 3 wherein M is tetravalent Zr. mixing a salt of Zr and a first solvent to form a salt solution; mixing a chelating agent and a second solvent to form a chelating agent solution; mixing the salt solution and the chelating agent solution to form a first mixed solution; mixing the first mixed solution and a homogenizer to form a second mixed solution; mixing at least one core material selected from a nickel-based composite oxide represented by Chemical Formula 1 or a lithium manganese oxide represented by Chemical Formula 2 and the second mixed solution to form a mixture; and heat-treating the mixture to coat a surface of the core material with a lithium metal oxide represented by Chemical Formula 3: Chemical Formula 1 LiNi x Co y Mn 1-x-y O 2 wherein 0.1≤x≤0.8, and 0.1≤y≤0.8, Chemical Formula 2 Li a Mn b O c wherein 1≤a≤2, 1≤b≤2, and 2≤c≤4, and Chemical Formula 3 Li 2 MO 3 wherein M is tetravalent Zr.
A method for a mobile communication system, the method comprising: sending (S41, S42) a Tracking Area Update, TAU, request message from a User Equipment, UE , to a new Mobility Management Entity, MME , via an evolved Node B, eNB , in a TAU procedure with MME change; and activating a user plane setup procedure if the new MME receives a Downlink Data Notification, DDN, message from a Serving Gateway, SGW , while the UE is connected to the new MME via the eNB in the TAU procedure, wherein the user plane setup procedure is activated by sending (S52) an S1-AP initial context setup request message from the new MME to the eNB even if an active flag is not set in the TAU request message. sending (S41, S42) a Tracking Area Update, TAU, request message from a User Equipment, UE , to a new Mobility Management Entity, MME , via an evolved Node B, eNB , in a TAU procedure with MME change; and activating a user plane setup procedure if the new MME receives a Downlink Data Notification, DDN, message from a Serving Gateway, SGW , while the UE is connected to the new MME via the eNB in the TAU procedure, wherein the user plane setup procedure is activated by sending (S52) an S1-AP initial context setup request message from the new MME to the eNB even if an active flag is not set in the TAU request message.
A temperature sensor assembly for measuring temperature of a hydrocarbon fluid flowing in a conduit , the assembly comprising: a temperature sensor ; and a thermowell body housing the temperature sensor and configured to be embedded in a wall defining the conduit , characterized by the thermowell body comprising a front-end disk having a front face for interfacing with the fluid, the front face being configured to be flush with the wall defining the conduit and a groove disposed behind the front-end disk , the groove extending radially inward of the front face and defining a cavity in which the fluid can circulate, wherein the groove is configured to minimize the cross-sectional area of the thermowell body proximate the location of the temperature sensor. a temperature sensor ; and a thermowell body housing the temperature sensor and configured to be embedded in a wall defining the conduit , characterized by the thermowell body comprising a front-end disk having a front face for interfacing with the fluid, the front face being configured to be flush with the wall defining the conduit and a groove disposed behind the front-end disk , the groove extending radially inward of the front face and defining a cavity in which the fluid can circulate, wherein the groove is configured to minimize the cross-sectional area of the thermowell body proximate the location of the temperature sensor.
A method for exposing virtual disk images on a user device , where the user device is running an HTML5 KVM virtual media client in a Web browser of the user device, and where the user device has established a KVM session with a KVM device associated with a server , the method comprising: obtaining a selected disk image file for use by the user device; sending a message to the server that the disk image file is available for use; using the HTML5 KVM virtual media client of the user device, to expose the disk image file for use to the server, wherein mounting the disk image file includes mounting the disk image file in accordance with requirements of an operating system running on the server; using the server to send a request message to the HTML5 KVM virtual media client of the user device requesting a specific portion of the disk image file; using the HTML5 KVM virtual media client to receive the request message; using a script engine running in the Web browser to create a new file available to the Web browser of just the portion requested by the server, and therefore avoiding the need to provide direct access to information represented by the disk image file that is either stored on the user device or available to the user device; and transmitting the new file to the server, wherein the operation of using a script engine running in the Web browser comprises using a script engine to determine an offset into the disk image file and a specific number of bytes making up the specific portion of the disk image file being requested, using the script engine to copy the specific number of bytes into a sandbox of the Web browser, and saving the specific number of bytes as the new file. obtaining a selected disk image file for use by the user device; sending a message to the server that the disk image file is available for use; using the HTML5 KVM virtual media client of the user device, to expose the disk image file for use to the server, wherein mounting the disk image file includes mounting the disk image file in accordance with requirements of an operating system running on the server; using the server to send a request message to the HTML5 KVM virtual media client of the user device requesting a specific portion of the disk image file; using the HTML5 KVM virtual media client to receive the request message; using a script engine running in the Web browser to create a new file available to the Web browser of just the portion requested by the server, and therefore avoiding the need to provide direct access to information represented by the disk image file that is either stored on the user device or available to the user device; and transmitting the new file to the server, wherein the operation of using a script engine running in the Web browser comprises using a script engine to determine an offset into the disk image file and a specific number of bytes making up the specific portion of the disk image file being requested, using the script engine to copy the specific number of bytes into a sandbox of the Web browser, and saving the specific number of bytes as the new file.
Valve assembly for a fluid injection valve , comprising a valve needle and an armature of an electro-magnetic actuator assembly , wherein - the armature is axially displaceable relative to the valve needle along a longitudinal axis (L), - the armature comprises a recess at an upper side , the recess having a first circumferential surface and a first bottom surface , and a second circumferential surface defining a central bore which extends from the first bottom surface to a lower side of the armature , opposite of the upper side , - the valve needle comprises a retaining element fixed to a shaft of the valve needle , the retaining element having a first external circumferential surface and a second bottom surface and the shaft having a second external circumferential surface , - at least a portion of the retaining element is arranged in the recess so that the first bottom surface opposes the second bottom surface and the shaft extends through the central bore , - the recess and the retaining element are dimensioned such that a first radial gap (G1) is established between the first circumferential surface and the first external circumferential surface for establishing a first fluid leakage path from the upper side to the first bottom surface , and - the shaft and the central bore are dimensioned such that a second radial gap (G2) is established between the second circumferential surface and the second external circumferential surface for establishing a second fluid leakage path from the lower side to the first bottom surface . - the armature is axially displaceable relative to the valve needle along a longitudinal axis (L), - the armature comprises a recess at an upper side , the recess having a first circumferential surface and a first bottom surface , and a second circumferential surface defining a central bore which extends from the first bottom surface to a lower side of the armature , opposite of the upper side , - the valve needle comprises a retaining element fixed to a shaft of the valve needle , the retaining element having a first external circumferential surface and a second bottom surface and the shaft having a second external circumferential surface , - at least a portion of the retaining element is arranged in the recess so that the first bottom surface opposes the second bottom surface and the shaft extends through the central bore , - the recess and the retaining element are dimensioned such that a first radial gap (G1) is established between the first circumferential surface and the first external circumferential surface for establishing a first fluid leakage path from the upper side to the first bottom surface , and - the shaft and the central bore are dimensioned such that a second radial gap (G2) is established between the second circumferential surface and the second external circumferential surface for establishing a second fluid leakage path from the lower side to the first bottom surface .
A block copolymer comprising a polyethylene glycol segment connected with a polyamino acid derivative segment including an aspartic acid derivative and/or a glutamic acid derivative, and the polyamino acid derivative segment having a physiologically active substance with a hydroxyl group linked through a bond or a linking group having a carboxyl group to a side chain carboxyl group of the derivative, wherein the hydroxyl group of the physiologically active substance forms an ester bond with the side chain carboxyl group of the derivative or the carboxyl group included in the linking group, wherein the molecular weight of the block copolymer is from 2 kilodaltons to 15 kilodaltons, and the light scattering intensity of a 1 mg/mL aqueous solution of the block copolymer as measured with a laser light scattering photometer under the measurement conditions of a measurement temperature of 25°C, a scattering angle of 90°, and a wavelength of 632.8 nm, is at least twice or more the light scattering intensity of toluene measured under the same measurement conditions, wherein the polyamino acid derivative segment is constructed from aspartic acid and/or glutamic acid, wherein the mass content of the polyethylene glycol segment in the block copolymer is from 10% by mass to 80% by mass, wherein the mass content of the physiologically active substance having the hydroxyl group in the block copolymer is from 10% by mass to 60% by mass, and wherein the physiologically active substance with a hydroxyl group is one or more physiologically active substances selected from the group consisting of a camptothecin derivative, a taxane derivative, a resorcinol derivative, an anthracycline derivative, a rapamycin derivative, a cytidine-based antimetabolite, a folic acid antimetabolite, a purine-based antimetabolite, a fluorinated pyrimidine-based antimetabolite, a platinum derivative, a mitomycin derivative, a bleomycin derivative, a vinca alkaloid derivative, a podophyllotoxin derivative, a halichondrin derivative, a staurosporine derivative, a thalidomide derivative, a vitamin A derivative, a combretastatin derivative, an antiandrogen agent, an antiestrogen agent, a hormone agent, a tacrolimus derivative, a steroid derivative, a polyene-based antibiotic substance, an azole-based derivative, a candin-based derivative, and a pyrimidine derivative.
A sliding door comprising: a panel configured to slide along a path ; and a holding member transversely disposed with respect to said path in a location along said path, said holding member having a first side portion coupled to a second side portion , said second side portion being spaced apart from said first side portion thereby defining a channel , therebetween, said channel being configured for receiving therein at least a segment of said panel , said holding member further including an abutting portion transversely extending inside said channel from said first side portion defining an opening between an edge thereof and said second side portion , said opening being configured to allow sliding of said segment therethrough; characterized in that the sliding door further comprises a stop member displaceable between an engaged state in which a first end of said stop member engages said abutting portion and said first side portion, and a second end of said stop member engages said segment thereby precluding sliding of said panel at least in a direction towards said abutting portion and a disengaged state in which said stop member disengages from said segment thereby allowing sliding of said panel towards said abutting portion; wherein said stop member is configured such that in said engaged state compressive forces are exerted on said segment and said stop member whereby sliding of said panel towards said abutting portion is opposed. a panel configured to slide along a path ; and a holding member transversely disposed with respect to said path in a location along said path, said holding member having a first side portion coupled to a second side portion , said second side portion being spaced apart from said first side portion thereby defining a channel , therebetween, said channel being configured for receiving therein at least a segment of said panel , said holding member further including an abutting portion transversely extending inside said channel from said first side portion defining an opening between an edge thereof and said second side portion , said opening being configured to allow sliding of said segment therethrough; characterized in that the sliding door further comprises a stop member displaceable between an engaged state in which a first end of said stop member engages said abutting portion and said first side portion, and a second end of said stop member engages said segment thereby precluding sliding of said panel at least in a direction towards said abutting portion and a disengaged state in which said stop member disengages from said segment thereby allowing sliding of said panel towards said abutting portion; wherein said stop member is configured such that in said engaged state compressive forces are exerted on said segment and said stop member whereby sliding of said panel towards said abutting portion is opposed.
A housing , wherein the housing comprises a cover disk having a cylindrical wall and a central receptacle having a hub for mounting a ventilator having a diagonal ventilator wheel, wherein multiple three-dimensionally curved impeller vanes (S) are arranged around the hub , wherein the impeller vanes (S) are connected in a materially-joined manner to the cylindrical wall and the housing is produced in one work step for this purpose and wherein the central receptacle of the housing forms a shaft base , characterized in that said shaft base this base is provided on the shaft side, thus on the side facing toward the ventilator wheel, with an asymmetrically embodied ribbing, formed from several webs or ribs (R) arranged in a star shape.
A circuit board arrangement , comprising at least one first circuit board and a second circuit board , wherein the circuit boards are arranged in a parallel orientation to one another in different planes, and wherein at least one rigid connection element is arranged between the circuit boards , wherein the connection element comprises an exterior housing , which encloses an internal conductor part of the connection element , and wherein a first end (9.1) of the exterior housing is connected to the first circuit board and a second end (9.2) of the exterior housing is connected to the second circuit board , in an electrically conductive manner, to constitute a first electrical path, and wherein a first end (10.1) of the internal conductor part is connected to the first circuit board and a second end (10.2) of the internal conductor part is connected to the second circuit board , in an electrically conductive manner, to constitute a second electrical path, characterized in that the first circuit board comprises a first through hole , wherein the first through hole and the connection element are configured such that the connection element is insertable into the first through hole from an outer side (2.1) of the first circuit board which is averted from the second circuit board , wherein a front end (8.1) of the connection element which is fed through the first through hole , in a terminal position of the connection element , is contact-connected with the second circuit board and the connection element constitutes the electrical paths.