mhurhangee/patent-ind-claim-en huggingface dataset:
A layered composite, comprising: 1.1. a foam core made of a plastic foam; 1.2. a first cover layer and a second cover layer , between which the foam core is arranged, wherein at least one of the cover layers is a fibre material layer containing reinforcement fibres embedded in plastic, preferably in the form of one or more plies of a textile sheet structure; 1.3. a plastic resin which fills intermediate spaces between the cover layers in and around the foam core and holds the cover layers and the foam core together; and 1.4. a fire protection layer made of a composite material on a side of the fibre material layer facing away from the foam core , 1.5. wherein the composite material contains hollow micro-bodies made of ceramics or glass in a plastic material . 1.1. a foam core made of a plastic foam; 1.2. a first cover layer and a second cover layer , between which the foam core is arranged, wherein at least one of the cover layers is a fibre material layer containing reinforcement fibres embedded in plastic, preferably in the form of one or more plies of a textile sheet structure; 1.3. a plastic resin which fills intermediate spaces between the cover layers in and around the foam core and holds the cover layers and the foam core together; and 1.4. a fire protection layer made of a composite material on a side of the fibre material layer facing away from the foam core , 1.5. wherein the composite material contains hollow micro-bodies made of ceramics or glass in a plastic material .
A manufacturing method of a thin-film transistor, TFT, comprising: depositing a first metal film layer on the substrate by a first direct current, DC, sputtering method; depositing a second metal film layer on the first metal film layer by a second DC sputtering method; completely oxidizing the second metal film layer to form a second metal oxide film layer , partly oxidizing the first metal film layer to form a first metal oxide film layer , to obtain an unoxidized part of the first metal film layer covered by the first metal oxide film layer , wherein the unoxidized part of the first metal film layer is a gate electrode layer; the first metal oxide film layer is a gate insulating layer; and the second metal oxide film layer is an active layer; and after completely oxidizing the second metal film layer to form the second metal oxide film layer , forming a source electrode and a drain electrode on the second metal oxide film layer by a third DC sputtering method, wherein a material of the source electrode and the drain electrode is a metallic material. depositing a first metal film layer on the substrate by a first direct current, DC, sputtering method; depositing a second metal film layer on the first metal film layer by a second DC sputtering method; completely oxidizing the second metal film layer to form a second metal oxide film layer , partly oxidizing the first metal film layer to form a first metal oxide film layer , to obtain an unoxidized part of the first metal film layer covered by the first metal oxide film layer , wherein the unoxidized part of the first metal film layer is a gate electrode layer; the first metal oxide film layer is a gate insulating layer; and the second metal oxide film layer is an active layer; and after completely oxidizing the second metal film layer to form the second metal oxide film layer , forming a source electrode and a drain electrode on the second metal oxide film layer by a third DC sputtering method, wherein a material of the source electrode and the drain electrode is a metallic material.
Aquatic activity fin comprising a foot support portion configured for fixing to a person's foot, and a fin portion extending from the foot support portion substantially along a base plane ( P ), the fin portion comprising a support frame , a plurality of hydrofoil blades mounted pivotally to the support frame via pivot couplings , and a mechanism for limiting the maximum blade pivot angle β of each hydrofoil blade, the mechanism for limiting the maximum blade pivot angle comprising bidirectional angle stops configured to allow pivoting of the hydrofoil blade from the a thrust position where a trailing edge of the hydrofoil blade is above said base plane ( P ), to a return position where the trailing edge is below said base plane ( P ) characterized in that the bidirectional angle stops are configured to stop the hydrofoil blade in the thrust position such that an angle ( γ ) of a chord line ( C ) of the hydrofoil blade with respect to the base plane ( P ) is in a range of 3 to 30 degrees, and in that the bidirectional angle stops are configured to stop the hydrofoil blade in the return position such that an angle of the chord line ( C ) of the hydrofoil blade with respect to the base plane P is in a range of 70 to 90 degrees .
An attachment mechanism adapted for attachment of an armor element to a body to be protected by said armor element, said attachment mechanism having a central axis (X) and comprising a first unit and a second unit which are adapted to engage with each other to provide said attachment, said first unit comprising a first static member and said second unit comprising a second static member and a working member , one of which static members is adapted for fixed attachment to said armor element, and the other is adapted for fixed attachment to said body to be protected, wherein said second unit being configured for assuming a first, disengaged position, in which said working member is disengaged from said first unit such that said armor element and said body to be protected are detached from one another and a second, engaged position in which a first engagement of said working member with said first unit is provided such that said armor element and said body to be protected are fixedly attached to one another, and wherein said working member further comprises a locking member configured for a second engagement with said first unit to prevent disengagement of said working member from said first unit, thereby retaining said first unit and said second unit fixedly attached to one another at said second, engaged position, characterized in that said first unit further comprises a dynamic member configured for being dynamically displaceable with respect to said first static member, and wherein said first static member is configured for engagement with said locking member, whilst said dynamic member is configured for engagement with the working member of the second unit.
A method, comprising: measuring at least one of the conductivity or resistance on a surface of a substrate comprising an antimicrobial system, wherein the antimicrobial system comprises a first coating , wherein the first coating comprises an antimicrobial compound, wherein the antimicrobial compound comprises a first end and a second end opposite the first end with a hydrocarbon chain therebetween, wherein the antimicrobial compound comprises a cationic functional group on the first end and a silane group on the second end,_wherein the silane group at least one of binds or couples to the surface of the substrate and the cationic functional group on the first end extends outwardly from the surface of the substrate; comparing the measured conductivity or resistance to a reference value; and determining a presence or an absence of the first coating on the surface . measuring at least one of the conductivity or resistance on a surface of a substrate comprising an antimicrobial system, wherein the antimicrobial system comprises a first coating , wherein the first coating comprises an antimicrobial compound, wherein the antimicrobial compound comprises a first end and a second end opposite the first end with a hydrocarbon chain therebetween, wherein the antimicrobial compound comprises a cationic functional group on the first end and a silane group on the second end,_wherein the silane group at least one of binds or couples to the surface of the substrate and the cationic functional group on the first end extends outwardly from the surface of the substrate; comparing the measured conductivity or resistance to a reference value; and determining a presence or an absence of the first coating on the surface .
Nozzle needle for an injector for injecting fuel, having at least one guide portion with a recess and a guide surface , wherein the guide surface is designed to rest on an inner face of a nozzle body of the injector , the recess at least partly delimits the guide surface and is configured to allow a fuel flow along the guide portion , and the guide surface is guided in a helical manner about the longitudinal axis of the nozzle needle , wherein the guide surface extends substantially over an angular segment of 60 degrees to 90 degrees, in particular of 65 degrees to 75 degrees in the projection plane, wherein the at least one guide surface , when projected onto a projection plane (A-A) arranged at right angles to the longitudinal axis of the nozzle needle , overlaps with itself or with a further guide surface , and the guide portion has at least one guide tooth which is guided in a helical manner about the longitudinal axis , wherein the guide surface is arranged radially at the outside on the guide tooth , characterized in that the guide tooth has an involute toothing.
Method for detecting light in a microscope , having an arrangement of a plurality of Silicon Photomultipliers (SiPM) , wherein each SiPM comprises an array of single-photon avalanche diodes (SPAD) and forms a pixel, wherein the arrangement has a greater surface-area than the incident light, and wherein for each SiPM only the SPADs which are acted on with a specific minimum intensity of light are activated and/or evaluated so that only the SPADs which contribute to a high signal-to-noise ratio are activated, and wherein for each SiPM the SPADs whose function is inadequate or defective are deactivated or not evaluated.
A polyacetal resin composition, comprising 100 parts by mass of (A) polyacetal resin, and 0.05 parts by mass to 5 parts by mass of (B) fatty acid monohydrazide, wherein the (B) fatty acid monohydrazide comprises at least (B1) one type of fatty acid monohydrazide having 18 to 42 carbon atoms represented by the following general formula , and (B2) one type of fatty acid monohydrazide having 3 to 17 carbon atoms represented by the following general formula , where n is an integer of 16 to 40 in a case of the component (B1), and n is an integer of 1 to 15 in a case of the component (B2). 100 parts by mass of (A) polyacetal resin, and 0.05 parts by mass to 5 parts by mass of (B) fatty acid monohydrazide, wherein the (B) fatty acid monohydrazide comprises at least (B1) one type of fatty acid monohydrazide having 18 to 42 carbon atoms represented by the following general formula , and (B2) one type of fatty acid monohydrazide having 3 to 17 carbon atoms represented by the following general formula , where n is an integer of 16 to 40 in a case of the component (B1), and n is an integer of 1 to 15 in a case of the component (B2).
A treatment liquid composition for ink jet pigment textile printing for attachment to a fabric in ink jet pigment textile printing, the treatment liquid composition for ink jet pigment textile printing comprising: a cationic compound; a nonionic fluorine-based surfactant; a resin particle; and water, wherein the nonionic fluorine-based surfactant has an HLB value within a range of 6 or more and 13 or less. a cationic compound; a nonionic fluorine-based surfactant; a resin particle; and water, wherein the nonionic fluorine-based surfactant has an HLB value within a range of 6 or more and 13 or less.
Apparatus configured to sense systemic blood pressure of a patient, the apparatus comprising: a patient-testing station comprising: pressure-sensing apparatus configured to be placed in contact with a portion of a body of the patient; a camera configured to acquire one or more images of the patient; a surface having a plurality of markings thereon and configured to be disposed in a vicinity of the patient during acquisition of the one or more images of the patient; and at least one computer processor configured to: estimate a location of a heart of the patient, by analyzing the one or more images of the patient; estimate a difference in height between the portion of the patient's body that is in contact with the pressure-sensing apparatus and the estimated location of the patient's heart, by identifying at least some of the markings within the one or more images of the patient and using the markings as a reference to determine a height of the patient's heart with respect to the patient-testing station , or a portion thereof; and generate an output, at least partially in response thereto. pressure-sensing apparatus configured to be placed in contact with a portion of a body of the patient; a camera configured to acquire one or more images of the patient; a surface having a plurality of markings thereon and configured to be disposed in a vicinity of the patient during acquisition of the one or more images of the patient; and at least one computer processor configured to: estimate a location of a heart of the patient, by analyzing the one or more images of the patient; estimate a difference in height between the portion of the patient's body that is in contact with the pressure-sensing apparatus and the estimated location of the patient's heart, by identifying at least some of the markings within the one or more images of the patient and using the markings as a reference to determine a height of the patient's heart with respect to the patient-testing station , or a portion thereof; and generate an output, at least partially in response thereto. estimate a location of a heart of the patient, by analyzing the one or more images of the patient; estimate a difference in height between the portion of the patient's body that is in contact with the pressure-sensing apparatus and the estimated location of the patient's heart, by identifying at least some of the markings within the one or more images of the patient and using the markings as a reference to determine a height of the patient's heart with respect to the patient-testing station , or a portion thereof; and generate an output, at least partially in response thereto.
A trampoline including: a frame adapted to rest on the ground or be mounted on a plurality of spaced apart legs ; a plurality of spaced apart flexible and resilient plates connected to said frame against relative movement therebetween and extending upwards therefrom; a jumping mat extending between said spaced apart flexible and resilient plates and being operatively connected at or adjacent its periphery thereto, said plates terminating in respective upper free ends positioned adjacent the periphery of the mat and being arranged for movement inwards and outwards towards the opposite side of said mat in response to a user jumping on said mat ; and plate support means operatively connected to said frame and arranged to engage said plurality of plates intermediate said frame and said mat . a frame adapted to rest on the ground or be mounted on a plurality of spaced apart legs ; a plurality of spaced apart flexible and resilient plates connected to said frame against relative movement therebetween and extending upwards therefrom; a jumping mat extending between said spaced apart flexible and resilient plates and being operatively connected at or adjacent its periphery thereto, said plates terminating in respective upper free ends positioned adjacent the periphery of the mat and being arranged for movement inwards and outwards towards the opposite side of said mat in response to a user jumping on said mat ; and plate support means operatively connected to said frame and arranged to engage said plurality of plates intermediate said frame and said mat .
An unmanned vehicle that moves automatically within an environment, in particular a cleaning robot, with a detection system for detecting object data in an environment of the vehicle and a calculating means for generating an area map based on recorded object data, wherein the area map has positions of objects located within the environment, characterized in that the area map has information about a position of an external illuminating device designed separately from the vehicle , as well as one or several items of information about the illuminating device , wherein the information is selected from the following group: Light intensity, emission spectrum, position of a partial area of an environment that can be illuminated by the illuminating device , and/or size of a partial area of an environment that can be illuminated by the illuminating device .
A method of communications, comprising: receiving , by a multicast coordination entity, MCE, a plurality of channel status reports from respective eNodeBs, eNBs, wherein each channel status report includes channel information associated with a respective eNB for one of a plurality of channels in a contention based radio frequency band; selecting a channel for an eNB among the plurality of channels based on the plurality of channel status reports, wherein the selected channel is available to be used for an evolved multimedia broadcast multicast service eMBMS; and prompting the eNB to provide the eMBMS using the selected channel. receiving , by a multicast coordination entity, MCE, a plurality of channel status reports from respective eNodeBs, eNBs, wherein each channel status report includes channel information associated with a respective eNB for one of a plurality of channels in a contention based radio frequency band; selecting a channel for an eNB among the plurality of channels based on the plurality of channel status reports, wherein the selected channel is available to be used for an evolved multimedia broadcast multicast service eMBMS; and prompting the eNB to provide the eMBMS using the selected channel.
A method of grinding an inorganic particulate material, comprising grinding said material in a stirred mill in the presence of a grinding media comprising rod-shaped particles, characterised in that said rod-shaped particles have an aspect ratio of more than 2:1, wherein the aspect ratio of a rod-shaped particle is the ratio of the longest dimension of the rod-shaped particle to the shortest dimension, and wherein the longest dimension is the axial length of the rod-shaped particle.
A cleaning device comprising: a vacuum cleaner including a dust collecting container ; and a docking station to which the dust collecting container is connected, wherein the docking station comprises: a suction device configured to produce a suction airflow moving along a suction flow path from the dust collecting container to the suction device , a collector configured to collect foreign substances that are moved by the suction airflow, a flow adjusting device comprising a flow path valve provided in the suction flow path and configured to open or close the suction flow path , and a motor configured to transmit power to the flow path valve , and a controller configured to: control the suction device to operate based on a connection of the dust collecting container to the docking station , and control the flow adjusting device to move the flow path valve in the suction flow path to irregularly change the suction airflow at the dust collecting container while the suction device operates. a vacuum cleaner including a dust collecting container ; and a docking station to which the dust collecting container is connected, wherein the docking station comprises: a suction device configured to produce a suction airflow moving along a suction flow path from the dust collecting container to the suction device , a collector configured to collect foreign substances that are moved by the suction airflow, a flow adjusting device comprising a flow path valve provided in the suction flow path and configured to open or close the suction flow path , and a motor configured to transmit power to the flow path valve , and a controller configured to: control the suction device to operate based on a connection of the dust collecting container to the docking station , and control the flow adjusting device to move the flow path valve in the suction flow path to irregularly change the suction airflow at the dust collecting container while the suction device operates. a suction device configured to produce a suction airflow moving along a suction flow path from the dust collecting container to the suction device , a collector configured to collect foreign substances that are moved by the suction airflow, a flow adjusting device comprising a flow path valve provided in the suction flow path and configured to open or close the suction flow path , and a motor configured to transmit power to the flow path valve , and a controller configured to: control the suction device to operate based on a connection of the dust collecting container to the docking station , and control the flow adjusting device to move the flow path valve in the suction flow path to irregularly change the suction airflow at the dust collecting container while the suction device operates. control the suction device to operate based on a connection of the dust collecting container to the docking station , and control the flow adjusting device to move the flow path valve in the suction flow path to irregularly change the suction airflow at the dust collecting container while the suction device operates.
Brush-holder of a rotating electrical machine for a vehicle comprising at least two cages (3.1, 3.3) used respectively to house at least one brush (5.1; 5.3), and an inter-brush connector , describing a ring-portion form, to which are intended to be soldered braids (17.1, 17.3) of said brushes (5.1; 5.3) of the same polarity, characterized in that said cages (3.1, 3.3) are each provided with at least one lug extending axially relative to an axis of the brush-holder , in that said inter-brush connector is held only by elastic deformation thereof against the lugs of the brush cages (3.1, 3.3), the inter-brush connector being compressed at its outer periphery between the opposing lugs of one relative to the other so as to ensure that it is held mechanically, in that it comprises a third lug stemming from a cage (3.2) accommodating a third brush (5.2) having a different polarity from the first two brushes (5.1, 5.3) against which said inter-brush connector also comes to bear, and in that it also comprises an insulating element positioned around a part of said inter-brush connector so as to ensure an insulation between the cage (3.2) housing the third brush (5.2) and said inter-brush connector linked electrically to the first two brushes (5.1, 5.3).