mhurhangee/ep-ind-claims huggingface dataset:
Coating device for coating components with a coating agent, namely for coating motor vehicle body components with a paint, with a) a print head (10; 14; 22; 32) for applying the coating agent to the component, and b) a coating agent supply for supplying the print head (10; 14; 22; 32) with the coating agent to be applied, the coating agent flowing from the coating agent supply to the print head (10; 14; 22; 32) at a specific coating agent pressure (p) and a specific flow rate, characterized in c) that said coating agent supply comprises a cartridge dispenser having a coating agent-filled cartridge with a cartridge outlet for dispensing said coating agent and a cartridge inlet for introducing a displacement fluid which displaces said coating agent in said cartridge and ejects it through said cartridge outlet, and d) in that the flow rate of the coating agent at the print head is precisely controllable by controlling the displacement fluid introduced into the cartridge, so that defined application conditions can also be set in this way. a) a print head (10; 14; 22; 32) for applying the coating agent to the component, and b) a coating agent supply for supplying the print head (10; 14; 22; 32) with the coating agent to be applied, the coating agent flowing from the coating agent supply to the print head (10; 14; 22; 32) at a specific coating agent pressure (p) and a specific flow rate, characterized in c) that said coating agent supply comprises a cartridge dispenser having a coating agent-filled cartridge with a cartridge outlet for dispensing said coating agent and a cartridge inlet for introducing a displacement fluid which displaces said coating agent in said cartridge and ejects it through said cartridge outlet, and d) in that the flow rate of the coating agent at the print head is precisely controllable by controlling the displacement fluid introduced into the cartridge, so that defined application conditions can also be set in this way.
A device for remote ischemic preconditioning, the device comprising: - a cuff with a width selected to be 1/3 or greater of a limb circumference to fit about a limb of a subject in a deflated state, the cuff configured to be inflated from the deflated state to an inflated state to at least substantially reduce a blood flow through the limb, - a controller connected to said cuff, said controller is configured to inflate and deflate said cuff according to a preconditioning treatment protocol, said treatment protocol includes a plurality of treatment cycles, said cuff is configured to assure a limb occlusion pressure equal or less than a systolic blood pressure of said subject, said treatment cycles comprising the intervals of: - cuff inflation, during which said controller inflates said cuff to at least said limb occlusion pressure, - an ischemic duration, during which said controller maintains said cuff at or above said limb occlusion pressure but at or below the systolic blood pressure of the subject for at least a portion of said ischemic duration, the ischemic duration lasting for at least about a minute, - cuff deflation, during which said controller deflates said cuff to said deflated state, and - a reperfusion duration, wherein said controller is configured to detect said systolic blood pressure of said subject during at least one of said treatment cycles when said cuff is at or above said limb occlusion pressure but below a previously detected systolic blood pressure of the subject, whereby said systolic blood pressure is detected without reperfusion of said limb. - a cuff with a width selected to be 1/3 or greater of a limb circumference to fit about a limb of a subject in a deflated state, the cuff configured to be inflated from the deflated state to an inflated state to at least substantially reduce a blood flow through the limb, - a controller connected to said cuff, said controller is configured to inflate and deflate said cuff according to a preconditioning treatment protocol, said treatment protocol includes a plurality of treatment cycles, - cuff inflation, during which said controller inflates said cuff to at least said limb occlusion pressure, - an ischemic duration, during which said controller maintains said cuff at or above said limb occlusion pressure but at or below the systolic blood pressure of the subject for at least a portion of said ischemic duration, the ischemic duration lasting for at least about a minute, - cuff deflation, during which said controller deflates said cuff to said deflated state, and - a reperfusion duration,
A gas flow adjusting device used at the upstream of a suction source of a gas inlet end of an internal combustion engine, the gas flow adjusting device comprising: a tube body, including two openings and an accommodating space between the two openings; a first horizontal shaft and a second horizontal shaft, which are disposed in the accommodating space of the tube body and spaced apart from each other along an axial direction of the tube body; two leaf structures, pivoted on the first horizontal shaft and having a swinging direction identical to the axial direction; a torsional spring, sleeved around the second horizontal shaft and providing a resilient force along the axial direction of the tube body; and two linkage assemblies, connected to the two leaf structures respectively, wherein each of the two linkage assemblies is connected to the second horizontal shaft and the torsional spring, wherein each of the two leaf structures is spaced apart from an interior surface of the tube body to form a gas passage, such that parts of the accommodating space at both sides of the two leaf structures keep in communication by the gas passage. a tube body, including two openings and an accommodating space between the two openings; a first horizontal shaft and a second horizontal shaft, which are disposed in the accommodating space of the tube body and spaced apart from each other along an axial direction of the tube body; two leaf structures, pivoted on the first horizontal shaft and having a swinging direction identical to the axial direction; a torsional spring, sleeved around the second horizontal shaft and providing a resilient force along the axial direction of the tube body; and two linkage assemblies, connected to the two leaf structures respectively, wherein each of the two linkage assemblies is connected to the second horizontal shaft and the torsional spring, wherein each of the two leaf structures is spaced apart from an interior surface of the tube body to form a gas passage, such that parts of the accommodating space at both sides of the two leaf structures keep in communication by the gas passage.
A compound of the formula: wherein R 1 is methyl, ethyl or cyclopropyl; R 2 is hydrogen, methyl, or ethyl; R 3 is methyl or and R 4 is C2-C4 alkyl selected from the group consisting of ethyl, n-propyl, isopropyl, cyclopropyl, n-butyl, sec-butyl, isobutyl, tert-butyl, and cyclobutyl, or or a pharmaceutically acceptable salt thereof. wherein R 1 is methyl, ethyl or cyclopropyl; R 2 is hydrogen, methyl, or ethyl; R 3 is methyl or and R 4 is C2-C4 alkyl selected from the group consisting of ethyl, n-propyl, isopropyl, cyclopropyl, n-butyl, sec-butyl, isobutyl, tert-butyl, and cyclobutyl, or
A hydrophilic film, comprising: a base film made of an organic resin material; and a surface layer containing particles, the surface layer being formed on a first surface of the base film and having an arithmetic mean surface roughness Ra as defined in JIS B 0601 of from 1 nm to 1000 nm at a reference length of 100 μm, as determined by calculation from a cross-sectional curve observed and measured using a surface shape measuring apparatus, a scanning probe microscope or an electron microscope, wherein the particles are at least one selected from tungsten oxide particles and tungsten oxide composite particles, have crystal structure, and exist in a state in which their crystal directions are not oriented, as determined by X-ray diffraction or back scattering electron diffraction, and wherein the mean particle diameter of the particles is in a range of not less than 2.7 nm nor more than 75 nm, as determined by image analysis of an SEM or TEM picture, and the aspect ratio of the particles is in a range of not less than 1 nor more than 3.5, as determined by image analysis of an SEM or TEM picture. a base film made of an organic resin material; and a surface layer containing particles, the surface layer being formed on a first surface of the base film and having an arithmetic mean surface roughness Ra as defined in JIS B 0601 of from 1 nm to 1000 nm at a reference length of 100 μm, as determined by calculation from a cross-sectional curve observed and measured using a surface shape measuring apparatus, a scanning probe microscope or an electron microscope, wherein the particles are at least one selected from tungsten oxide particles and tungsten oxide composite particles, have crystal structure, and exist in a state in which their crystal directions are not oriented, as determined by X-ray diffraction or back scattering electron diffraction, and wherein the mean particle diameter of the particles is in a range of not less than 2.7 nm nor more than 75 nm, as determined by image analysis of an SEM or TEM picture, and the aspect ratio of the particles is in a range of not less than 1 nor more than 3.5, as determined by image analysis of an SEM or TEM picture.
A method for providing speech interactive content, the method comprising: monitoring media content (1209, 1905) streamed from a content provider, the media content comprising both non-interactive content and interactive content (1105, 1205, 1307, 1907) in at least an audio or video format; detecting a first event in the monitored media content, wherein the first event in the media content is in the form of metadata, the first event comprising information indicating a start time for activating a speech recognizer (103a, 103b, 304, 403, 503, 703, 803) to start listening for a voice command spoken by a user (104, 301, 401, 501, 701, 801, 1107, 1207, 1903); in response to detecting the first event in the monitored media content, activating the speech recognizer at said start time; while the speech recognizer is activated, receiving the voice command spoken by the user and detected by the speech recognizer; and in accordance with a determination that the detected voice command spoken by the user corresponds to an action phrase, causing an action associated with the action phrase to be performed. monitoring media content (1209, 1905) streamed from a content provider, the media content comprising both non-interactive content and interactive content (1105, 1205, 1307, 1907) in at least an audio or video format; detecting a first event in the monitored media content, wherein the first event in the media content is in the form of metadata, the first event comprising information indicating a start time for activating a speech recognizer (103a, 103b, 304, 403, 503, 703, 803) to start listening for a voice command spoken by a user (104, 301, 401, 501, 701, 801, 1107, 1207, 1903); in response to detecting the first event in the monitored media content, activating the speech recognizer at said start time; while the speech recognizer is activated, receiving the voice command spoken by the user and detected by the speech recognizer; and in accordance with a determination that the detected voice command spoken by the user corresponds to an action phrase, causing an action associated with the action phrase to be performed.
An audio headset, comprising: a pair of earphones; a nape-band, the earphones being secured to the nape-band at respective ends of the nape-band; characterised in that it further comprises a suspension element having (i) a first end connected to the headset at a location in front of a user's first ear when the user is wearing the headset, and (ii) a second end connected to the headset at a location in front of a user's second ear when the user is wearing the headset, whereby the suspension element at least partially wraps around a portion of a top of both ears of the user to support the headset when the headset is being worn by the user. a pair of earphones; a nape-band, the earphones being secured to the nape-band at respective ends of the nape-band; characterised in that it further comprises a suspension element having (i) a first end connected to the headset at a location in front of a user's first ear when the user is wearing the headset, and (ii) a second end connected to the headset at a location in front of a user's second ear when the user is wearing the headset, whereby the suspension element at least partially wraps around a portion of a top of both ears of the user to support the headset when the headset is being worn by the user.
A portable testing apparatus adapted to be placed within a laser powder bed fusion additive manufacturing device, wherein the additive manufacturing device includes a laser for generating a non-stationary laser beam and a build plane positioned at a predetermined location relative to the non-stationary laser beam, and wherein the portable testing apparatus includes: (a) a support having an upper surface, wherein the upper surface is positioned parallel to and above the build plane of the laser powder bed fusion additive manufacturing device, and wherein the upper surface is adapted to receive and absorb laser light generated by the non-stationary laser beam; (b) a plurality of pin-hole defining structures (300, 400, 500, 600) mounted at predetermined locations in the support such that each pin-hole is positioned to receive the laser light generated by the non-stationary laser beam; (c) a fiber optic cable disposed within each pin-hole defining structure (300, 400, 500, 600), wherein each fiber optic cable has a proximal end at which the laser light is received through the pin-hole and a distal end to which the laser light is delivered; and (d) a photodetector located at the distal end of each fiber optic cable, wherein the photodetector converts the laser light delivered to the photodetector into electrical voltage output signals that are based on intensity of the laser light received through each pin-hole, characterized in that each pin-hole is elevated at a predetermined height above the upper surface of the support and parallel thereto. (a) a support having an upper surface, wherein the upper surface is positioned parallel to and above the build plane of the laser powder bed fusion additive manufacturing device, and wherein the upper surface is adapted to receive and absorb laser light generated by the non-stationary laser beam; (b) a plurality of pin-hole defining structures (300, 400, 500, 600) mounted at predetermined locations in the support such that each pin-hole is positioned to receive the laser light generated by the non-stationary laser beam; (c) a fiber optic cable disposed within each pin-hole defining structure (300, 400, 500, 600), wherein each fiber optic cable has a proximal end at which the laser light is received through the pin-hole and a distal end to which the laser light is delivered; and (d) a photodetector located at the distal end of each fiber optic cable, wherein the photodetector converts the laser light delivered to the photodetector into electrical voltage output signals that are based on intensity of the laser light received through each pin-hole,
A method of requesting system information implemented by a User Equipment, UE, comprising: sending a first random access request to a base station, wherein the first random access request carries at least one pilot code for identifying to-be-requested system information; monitoring a response message corresponding to the first random access request within a preset time period, wherein the response message comprises a pilot code identifier of the pilot code of the to-be-requested system information which is determined by the base station for response; characterized in that the method further comprises: determining by the UE whether the to-be-requested system information is successfully requested based on whether the pilot code identifier contained in the response message corresponds to the pilot code carried in the random access request; and if the to-be-requested system information is determined to be successfully requested, monitoring and receiving the to-be-requested system information within a transmission window of to-be-requested system information corresponding to the pilot code identifier; wherein the response message has a format that consists of one or more sub-packet headers, and the pilot code identifier is carried by a sub-packet header of the response message. sending a first random access request to a base station, wherein the first random access request carries at least one pilot code for identifying to-be-requested system information; monitoring a response message corresponding to the first random access request within a preset time period, wherein the response message comprises a pilot code identifier of the pilot code of the to-be-requested system information which is determined by the base station for response; characterized in that the method further comprises: determining by the UE whether the to-be-requested system information is successfully requested based on whether the pilot code identifier contained in the response message corresponds to the pilot code carried in the random access request; and if the to-be-requested system information is determined to be successfully requested, monitoring and receiving the to-be-requested system information within a transmission window of to-be-requested system information corresponding to the pilot code identifier; wherein the response message has a format that consists of one or more sub-packet headers, and the pilot code identifier is carried by a sub-packet header of the response message. determining by the UE whether the to-be-requested system information is successfully requested based on whether the pilot code identifier contained in the response message corresponds to the pilot code carried in the random access request; and if the to-be-requested system information is determined to be successfully requested, monitoring and receiving the to-be-requested system information within a transmission window of to-be-requested system information corresponding to the pilot code identifier; wherein the response message has a format that consists of one or more sub-packet headers, and the pilot code identifier is carried by a sub-packet header of the response message.
Food preparation device comprising: - a feed chute and - a juice extraction tool arranged to rotate about an axis of rotation, with a part forming a pressing screw with at least one pressing thread formed on the surface of the pressing screw arranged so as to guide the food to be pressed from a first portion of the juice extraction tool to a second portion of the juice extraction tool, the feed chute having a lower part which runs around the axis of rotation, the juice extraction tool comprising, upstream of the first portion of the juice extraction tool, a first tier forming a boring screw with at least one boring thread formed on the surface of the boring screw which is arranged to bore into and break up food coming from the feed chute and guide it from the feed chute towards the pressing screw, said at least one pressing thread being distinct from said at least one boring thread, characterised in that the juice extraction tool comprises at least one leading edge (32a, 32b) between said at least one boring thread and said at least one pressing thread, and in that said at least one leading edge (32a, 32b) extends peripherally from the boring screw. - a feed chute and - a juice extraction tool arranged to rotate about an axis of rotation, with a part forming a pressing screw with at least one pressing thread formed on the surface of the pressing screw arranged so as to guide the food to be pressed from a first portion of the juice extraction tool to a second portion of the juice extraction tool,
Manipulator for an ultra-high vacuum chamber comprising an annular proximal base that can be securely anchored externally around an access opening of a tank of the ultra-high vacuum chamber, a distal base connected to the proximal base by means of a bellows element with an inner space in communication with the ultra-high vacuum chamber through the access opening, a sample-carrying column attached to the distal base and that passes through said inner space of the bellows element, dimensioned to extend through the proximal base and said access opening to the ultra-high vacuum chamber, a movement system for moving the distal base in relation to the proximal base, wherein the movement system comprises six actuators each one actuated by respective electric motors radially arranged around the bellows element and connected to the proximal base in an articulated manner by means of respective proximal ball joints and connected to the distal base in an articulated manner by means of respective distal ball joints, and wherein the bellows element comprises a vacuum bellows comprising convolutions.
A method for cross-linking of an organic transition metal complex into a multi-dimensional network, comprising performing a first reaction which comprises - a first reactant in the form of an organic transition metal complex and - a second reactant for the formation of a multi-dimensional network, wherein the transition metal complex is cross-linked during the reaction into the forming multi-dimensional network by formation of covalent bonds, and wherein - the transition metal complex comprises at least two anchor groups of a first anchor group species for the covalent bonding of the transition metal complex into the multi-dimensional network and - the second reactant comprises at least one anchor group of a second anchor group species, and wherein the cross-linking of the transition metal complex proceeds by reaction of the at least two anchor groups of the transition metal complex with one second anchor group of a second reactant each, and wherein - the cross-linking is not a (co)polymerization, and wherein - the second reactant and the first reactant are not identical. - a first reactant in the form of an organic transition metal complex and - a second reactant for the formation of a multi-dimensional network, - the transition metal complex comprises at least two anchor groups of a first anchor group species for the covalent bonding of the transition metal complex into the multi-dimensional network and - the second reactant comprises at least one anchor group of a second anchor group species, and wherein - the cross-linking is not a (co)polymerization, and wherein - the second reactant and the first reactant are not identical.