mhurhangee/ep-ind-claims huggingface dataset:
Door assembly with a door frame, a door leaf that can pivot relative to the door frame, and an electronic lock installed on or in the door leaf with a motor-operated bolt for locking the door leaf to the door frame, whereby an electronic identifier is installed on or in the door frame, whereby the lock contains a reader for the electronic identifier, and whereby the lock contains an electronic evaluator for verifying the closed state of the door leaf, characterised in that the reader contains a motion sensor that records movement of the door leaf, whereby the reader and the motion sensor are electrically and/or electronically connected to the electronic evaluator and the electronic evaluator uses an evaluation process that compares the signal from the reader with the signal from the motion sensor to verify the closed state of the door leaf.
A multimeric protein structure comprising at least two monomers of a therapeutic protein, said monomers being covalently linked to one another via a non-peptidic linking moiety, the multimeric protein structure featuring a characteristic selected from the group consisting of: (a) a biological activity upon subjecting the multimeric protein structure to physiological conditions for one day, which is at least 10 % higher than an activity of a native form of said therapeutic protein upon subjecting said native form of said protein to said physiological conditions for one day; (b) a biological activity which decreases upon subjecting the multimeric protein structure to physiological conditions for one day by a percentage which is at least 10 % less than the percentage by which an activity of said native form of said therapeutic protein decreases upon subjecting said native form of said protein to said physiological conditions for one day; and (c) a circulating half-life in a physiological system which is higher by at least 20 % than a circulating half-life of said native form of said protein, said therapeutic protein being selected from the group consisting of a TNF-α and fragments thereof, and said biological activity being binding to a TNF-α receptor. wherein said at least one non-peptidic linking moiety has a general formula: -X 1 -(CR 1 R 2 -CR 3 R 4 -Y)n-X 2 - wherein each of X 1 and X 2 is a functional group that forms a covalent bond with at least one of said monomers; Y is O, S or NR 5; n is 3, 4, 5, 6, 7 or 8; and each of R 1, R 2, R 3, R 4 and R 5 is independently selected from the group consisting of hydrogen, alkyl, cycloalkyl, alkenyl, alkynyl, alkoxy, hydroxy, oxo, thiol and thioalkoxy. (a) a biological activity upon subjecting the multimeric protein structure to physiological conditions for one day, which is at least 10 % higher than an activity of a native form of said therapeutic protein upon subjecting said native form of said protein to said physiological conditions for one day; (b) a biological activity which decreases upon subjecting the multimeric protein structure to physiological conditions for one day by a percentage which is at least 10 % less than the percentage by which an activity of said native form of said therapeutic protein decreases upon subjecting said native form of said protein to said physiological conditions for one day; and (c) a circulating half-life in a physiological system which is higher by at least 20 % than a circulating half-life of said native form of said protein, said therapeutic protein being selected from the group consisting of a TNF-α and fragments thereof, and said biological activity being binding to a TNF-α receptor. wherein said at least one non-peptidic linking moiety has a general formula: -X 1 -(CR 1 R 2 -CR 3 R 4 -Y)n-X 2 - wherein each of X 1 and X 2 is a functional group that forms a covalent bond with at least one of said monomers; Y is O, S or NR 5; n is 3, 4, 5, 6, 7 or 8; and each of R 1, R 2, R 3, R 4 and R 5 is independently selected from the group consisting of hydrogen, alkyl, cycloalkyl, alkenyl, alkynyl, alkoxy, hydroxy, oxo, thiol and thioalkoxy.
A method comprising: detecting, in an image captured by a camera of a first autonomous moving body, a person appearance area, onto which first light of a first color is radiated by an apparatus mounted on a second autonomous moving body and in which a person will appear, wherein the captured image is an image of scene in a moving direction of the first autonomous moving body; and radiating, using a presentation unit of the first autonomous moving body, second light (211, 212) onto the person appearance area to notify the person that the first autonomous moving body has recognized the person appearance area as a result of the detecting. detecting, in an image captured by a camera of a first autonomous moving body, a person appearance area, onto which first light of a first color is radiated by an apparatus mounted on a second autonomous moving body and in which a person will appear, wherein the captured image is an image of scene in a moving direction of the first autonomous moving body; and radiating, using a presentation unit of the first autonomous moving body, second light (211, 212) onto the person appearance area to notify the person that the first autonomous moving body has recognized the person appearance area as a result of the detecting.
A sliding component comprising: a pair of sliding parts which slide relative to each other, wherein one of the sliding parts is a stationary-side seal ring and the other of the sliding parts is a rotating-side seal ring, wherein the rotating-side seal ring is formed to have a larger outer diameter and a smaller inner diameter than the stationary-side seal ring, ring, wherein at least one groove into which a claw of a rotational force transmission member for transmitting a rotational force of a rotating shaft is loosely fitted is provided on an outer periphery of the rotating-side seal ring, characterised in that a sliding face of the stationary-side seal ring is provided with a fluid circulation groove which communicates with a high-pressure fluid side via an entrance portion and an exit portion and is separated from a low-pressure fluid side by a land portion, wherein a width of the at least one groove in a circumferential direction is smaller than a length in the circumferential direction between the entrance portion and the exit portion of the fluid circulation groove, and wherein WMR / WSR is set within a range of 0.75 < WMR / WSR < 1.4, where WMR is a face width defined between an inner diameter of the at least one groove of the rotating-side seal ring and an inner diameter of the sliding face of the stationary-side seal ring, and WSR is a face width of a sliding face of the stationary-side seal ring. a pair of sliding parts which slide relative to each other, wherein one of the sliding parts is a stationary-side seal ring and the other of the sliding parts is a rotating-side seal ring, wherein the rotating-side seal ring is formed to have a larger outer diameter and a smaller inner diameter than the stationary-side seal ring, ring, wherein at least one groove into which a claw of a rotational force transmission member for transmitting a rotational force of a rotating shaft is loosely fitted is provided on an outer periphery of the rotating-side seal ring, characterised in that a sliding face of the stationary-side seal ring is provided with a fluid circulation groove which communicates with a high-pressure fluid side via an entrance portion and an exit portion and is separated from a low-pressure fluid side by a land portion, wherein a width of the at least one groove in a circumferential direction is smaller than a length in the circumferential direction between the entrance portion and the exit portion of the fluid circulation groove, and wherein WMR / WSR is set within a range of 0.75 < WMR / WSR < 1.4, where WMR is a face width defined between an inner diameter of the at least one groove of the rotating-side seal ring and an inner diameter of the sliding face of the stationary-side seal ring, and WSR is a face width of a sliding face of the stationary-side seal ring.
A transparent glass article, comprising: a glass substrate; and an antireflective layer having a total reflectance of less than about 2% at wavelengths in a range from about 450 nanometers to about 1000 nanometers disposed on a surface of the glass substrate; wherein the antireflective layer comprises a plurality of nominally hexagonally packed nanoparticles (112, 112a, 112b) disposed in a monolayer on the surface of the glass substrate, wherein at least a portion of the plurality of nominally hexagonally packed nanoparticles (112, 112a, 112b) are separated from each other by a gap; and wherein at least a portion of the plurality of nominally hexagonally packed nanoparticles (112, 112a, 112b) is partially embedded in the surface of the glass substrate. a glass substrate; and an antireflective layer having a total reflectance of less than about 2% at wavelengths in a range from about 450 nanometers to about 1000 nanometers disposed on a surface of the glass substrate; wherein the antireflective layer comprises a plurality of nominally hexagonally packed nanoparticles (112, 112a, 112b) disposed in a monolayer on the surface of the glass substrate, wherein at least a portion of the plurality of nominally hexagonally packed nanoparticles (112, 112a, 112b) are separated from each other by a gap; and wherein at least a portion of the plurality of nominally hexagonally packed nanoparticles (112, 112a, 112b) is partially embedded in the surface of the glass substrate.
A method of wireless communication, comprising: receiving, by a user equipment, UE, a grant identifying an uplink resource allocation per subframe of less than one physical resource block, PRB, defined in a wireless standard, wherein the grant identifies a number of subframes to which a transport block, associated with the uplink resource allocation, is to be mapped; and determining, by the UE, a frequency hopping technique based at least in part on the number of subframes, wherein the frequency hopping technique is within a narrowband that contains the uplink resource allocation, wherein the UE is configured to deactivate the frequency hopping technique when the grant identifies the uplink resource allocation of less than one PRB. receiving, by a user equipment, UE, a grant identifying an uplink resource allocation per subframe of less than one physical resource block, PRB, defined in a wireless standard, wherein the grant identifies a number of subframes to which a transport block, associated with the uplink resource allocation, is to be mapped; and determining, by the UE, a frequency hopping technique based at least in part on the number of subframes, wherein the frequency hopping technique is within a narrowband that contains the uplink resource allocation, wherein the UE is configured to deactivate the frequency hopping technique when the grant identifies the uplink resource allocation of less than one PRB.
A process for coding a fold wrapped food concentrate tablet comprising the steps of: a) first laser ablating a code on a packaging material, wherein the packaging material comprises a printed plastic film and/or printed paper film; b) then fold wrap the tablet with the laser coded packaging material. a) first laser ablating a code on a packaging material, wherein the packaging material comprises a printed plastic film and/or printed paper film; b) then fold wrap the tablet with the laser coded packaging material.
A system for a moving vessel comprising: a) a projector mounted on the moving vessel displaying a visual media content on a wall of a tunnel surroundings the moving vessel; b) a receiver for wirelessly receiving the visual and an audio media content from a server aboard the moving vessel; c) a transmitter for wirelessly transmitting to a user's cell phone or a user's Bluetooth device the audio associated with the visual media content displayed on the wall of the tunnel by the projector; and d) a server aboard the moving vessel comprising a receiver to receive visual and audio media content from the central server, a transmitter to transmit the visual and audio media content to the projector, a processor to process the visual and audio content a central server comprising a receiver and a transmitter to communicate with the server aboard the vessel for update, schedule and maintenance purposes; and sending the visual and audio media content to the server aboard vessel. a) a projector mounted on the moving vessel displaying a visual media content on a wall of a tunnel surroundings the moving vessel; b) a receiver for wirelessly receiving the visual and an audio media content from a server aboard the moving vessel; c) a transmitter for wirelessly transmitting to a user's cell phone or a user's Bluetooth device the audio associated with the visual media content displayed on the wall of the tunnel by the projector; and d) a server aboard the moving vessel comprising a receiver to receive visual and audio media content from the central server, a transmitter to transmit the visual and audio media content to the projector, a processor to process the visual and audio content a central server comprising a receiver and a transmitter to communicate with the server aboard the vessel for update, schedule and maintenance purposes; and sending the visual and audio media content to the server aboard vessel.
A method of production of a langatate-based single crystal using the Czochralski method of pulling up a crystal from a starting material solution so as to grow a langatate-based single crystal, in which method of production of a langatate-based single crystal, an atmospheric gas growing said langatate-based single crystal is a mixed gas comprised of an inert gas in which an oxidizing gas is contained in an amount greater than 5 vol% and no more than 15 vol%, and wherein said langatate-based single crystal is La 3 Ta 0.5 Ga 5.5-x Al x 0 14 (0 ≤ x < 5.5). in which method of production of a langatate-based single crystal, an atmospheric gas growing said langatate-based single crystal is a mixed gas comprised of an inert gas in which an oxidizing gas is contained in an amount greater than 5 vol% and no more than 15 vol%, and wherein said langatate-based single crystal is La 3 Ta 0.5 Ga 5.5-x Al x 0 14 (0 ≤ x < 5.5).
A flow rate measurement device comprising: a flow rate signal detection unit for detecting a flow rate signal of a fluid to be measured flowing through a flow path; a flow rate calculation unit for calculating a flow rate from the flow rate signal detected by the flow rate signal detection unit; an oscillation circuit for generating a reference clock, the oscillation circuit being configured on a same semiconductor or on a same printed board as an electronic circuit, and the electronic circuit realizing the flow rate signal detection unit and the flow rate calculation unit; a temperature calculation unit for calculating a temperature of the electronic circuit from a frequency change resulting from a temperature change of the oscillation circuit; and a flow rate correction unit for correcting the flow rate calculated by the flow rate calculation unit by obtaining an offset flow rate at a desired temperature, based on the temperature calculated by the temperature calculation unit and a preliminarily obtained relationship between a temperature and an offset flow rate. a flow rate signal detection unit for detecting a flow rate signal of a fluid to be measured flowing through a flow path; a flow rate calculation unit for calculating a flow rate from the flow rate signal detected by the flow rate signal detection unit; an oscillation circuit for generating a reference clock, the oscillation circuit being configured on a same semiconductor or on a same printed board as an electronic circuit, and the electronic circuit realizing the flow rate signal detection unit and the flow rate calculation unit; a temperature calculation unit for calculating a temperature of the electronic circuit from a frequency change resulting from a temperature change of the oscillation circuit; and a flow rate correction unit for correcting the flow rate calculated by the flow rate calculation unit by obtaining an offset flow rate at a desired temperature, based on the temperature calculated by the temperature calculation unit and a preliminarily obtained relationship between a temperature and an offset flow rate.
A toy building block, formed of at least one blank (x11, x21), the toy building block comprising side walls, at least one pair of flaps (x12, x13) and at least one partition located inside the toy building block, wherein the partition extends between at least two side walls, wherein each of the flaps in the pair of flaps (x12, x13) is formed by an edge part of the at least one blank bent inwards the toy building block, wherein the flaps (x12, x13) in the pair are adjacent to each other and the partition is coupled with the flaps (x12, x13) by means of notches (x25, x26) to maintain the flaps adjacent to each other, characterized in that the partition is located in a plane which is not parallel to the planes of the side walls.
Luminaire comprising: - a DCL connector plug which is to be mechanically and electrically connected to a DCL connector socket integrated in a support, such as a wall or a ceiling, provided with a support surface; - a luminaire casing from which the DCL connector plug extends, the luminaire casing comprising a protecting part having a contact surface which is configured to be positioned against or close to the support surface when the DCL connector plug is mechanically and electrically connected to the DCL connector socket; and - an electronic board arranged in the luminaire casing, characterised in that the luminaire casing comprises a receiving housing which is configured to receive a fixing hook belonging to the DCL connector socket when the DCL connector plug is mechanically and electrically connected to the DCL connector socket, and the electronic board is provided with a through-opening, the luminaire casing comprising a receiving part which delimits the receiving housing and extends through the through-opening. - a DCL connector plug which is to be mechanically and electrically connected to a DCL connector socket integrated in a support, such as a wall or a ceiling, provided with a support surface; - a luminaire casing from which the DCL connector plug extends, the luminaire casing comprising a protecting part having a contact surface which is configured to be positioned against or close to the support surface when the DCL connector plug is mechanically and electrically connected to the DCL connector socket; and - an electronic board arranged in the luminaire casing, characterised in that the luminaire casing comprises a receiving housing which is configured to receive a fixing hook belonging to the DCL connector socket when the DCL connector plug is mechanically and electrically connected to the DCL connector socket, and the electronic board is provided with a through-opening, the luminaire casing comprising a receiving part which delimits the receiving housing and extends through the through-opening.
A peptide hydrogel, comprising: nanoparticles encapsulated within the peptide hydrogel, wherein the nanoparticles comprise a nucleic acid molecule complexed with a first amphiphilic cationic β-hairpin peptide that is unfolded and not in a β-hairpin conformation, and wherein: the peptide hydrogel is formed from a fibrillar network of a second amphiphilic cationic β-hairpin peptide that is in a β-hairpin conformation.
A foldable protection shield comprising a first pair of mesh struts and a second pair of mesh struts, wherein a mesh can be fixed to the mesh struts, characterised in that the first pair of mesh struts is rigidly connected together to form a first framework element and that the second pair of mesh struts is rigidly connected together to form a second framework element in such a way that the first framework element is pivotable relative to the second framework element.
Storage and mixing device for the production of a bone cement dough from a monomer liquid (4, 204) and a cement powder (5, 205) as starting components of the bone cement, the storage and mixing device comprising a receptacle (2, 202), in which a monomer liquid container (3, 203) is arranged, whereby the monomer liquid container (3, 203) contains the monomer liquid (4, 204), a cartridge (1, 201) containing the cement powder (5, 205), a feed plunger (6, 206) which is arranged in the receptacle (2, 202), whereby the feed plunger (6, 206) is movable in a longitudinal direction of the receptacle (2, 202) and is accessible from a rear side of the receptacle (2, 202), and a dispensing plunger (7, 207) which is arranged in the cartridge (1, 201), whereby the dispensing plunger (7, 207) is shiftable in a longitudinal direction in the inside of the cartridge (1, 201), whereby the front side of the receptacle (2, 202) is connected or connectable to the rear side of the cartridge (1, 201) such that an internal space of the receptacle (2, 202) is connected to an internal space of the cartridge (1, 201) such as to be permeable to the monomer liquid (4, 204), whereby the connection is detachable, and whereby a first securing means (8, 208) is provided on the rear side of the receptacle (2, 202) and a second securing means (9, 209) is provided on the rear side of the cartridge (1, 201), whereby the first securing means (8, 208) and the second securing means (9, 209) are identical or congeneric, characterized in that a closable feedthrough (14, 214) into the internal space of the cartridge (1, 201) is provided on the rear side of the cartridge (1, 201), in particular in the dispensing plunger (7, 207) of the cartridge (1, 201).
A water skateboard apparatus, comprising: a loading component and a number of skateboard bodies that are pushed forward together, wherein the number of the skateboard bodies are spaced apart, the loading component is detachably connected to top surfaces of the number of the skateboard bodies, and a propulsion power is jointly provided by the number of the skateboard bodies, wherein the skateboard bodies comprise a hollow board, a battery module for storing and outputting electrical energy, and a propulsion module for providing propulsion, wherein the battery module and the propulsion module are both detachably connected into the hollow board, the battery module and the propulsion module are electrically connected, a tail end of the hollow board has a water spout, and the propulsion module is hermetically connected to the water spout; and wherein the water skateboard apparatus further comprises at least one rudder body, the rudder body being detachably connected to the loading component. a hollow board, a battery module for storing and outputting electrical energy, and a propulsion module for providing propulsion, wherein the battery module and the propulsion module are both detachably connected into the hollow board, the battery module and the propulsion module are electrically connected, a tail end of the hollow board has a water spout, and the propulsion module is hermetically connected to the water spout; and wherein the water skateboard apparatus further comprises at least one rudder body, the rudder body being detachably connected to the loading component.