mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a biocompatible interface comprising graphene-related materials (G-biointerface) in vitro for remote manipulation of electrical properties of cell membrane by electromagnetic radiation, wherein the graphene-related materials are selected from single-layered graphene; multi-layered graphene; graphite; polycyclic aromatic hydrocarbons; carbon nanotubes; fullerenes; various graphene nanostructures of different dimensionalities such as graphene nanoparticles, or graphene quantum dots, graphene nanoribbons, graphene nanomeshes, graphene nanodisks, graphene foams, graphene nanopillars; any combinations of graphene-related materials, substituted graphene-related materials such as the substitution of carbon atoms with N, B, P, S, Si, or others; and graphene-related materials functionalized with reactive functional groups such as carboxyl groups, esters, amides, thiols, hydroxyl groups, diol groups, ketone groups, sulfonate groups, carbonyl groups, aryl groups, epoxy groups, phenol groups, phosphonic acids, amine groups, porphyrin, pyridine, polymers; graphene oxide; graphite oxide; reduced graphene oxide; and combinations thereof.
A device for detecting a collision of a handling device with an obstacle, comprising at least one gas-filled chamber , which is surrounded by a flexible shell being deformable by collision with an obstacle and comprising a flexible support structure , wherein the support structure forms a damping element, which together with the shell mechanically damps the forces acting during a collision, and further comprising a pressure sensor for measuring the gas pressure inside the chamber, wherein the chamber , the shell , the support structure and the pressure sensor form a sensor body, which at least comprises a first and a second region, which are attachable to the handling device so as to cover a first or a second region of the handling device, characterized in that the shell and the support structure are integrally formed with each other and provide a mutually different degree of damping in the first and in the second region of the sensor body, wherein the shell and the support structure are manufactured by a generative manufacturing process, in particular in layers, such as, e.g., by selective laser sintering.
A method for manufacturing loops of magnetic circuits for a multi-phase transformer from a magnetic strip , the method being characterized by at least the steps of: a) providing a magnetic strip of constant width in the form of a cylindrical roll extending along a longitudinal axis (X); b) cutting the roll into sections to extract therefrom first and second half-rolls (14; 16) of longitudinal axis (X14; X16) wherein each half-rolls comprises a respective boundary surface (14a; 16a) which is formed once it is separated from the other half-roll (14; 16), wherein the roll is cut slantwise relative to the longitudinal axis (X), such that the orientation of the boundary surfaces (14a; 16a) is opposite: the first half-roll comprises a boundary surface outwardly oriented relative to its longitudinal axis (X14), while the second half-roll comprises a boundary surface inwardly oriented relative to its longitudinal axis (X16); c) aligning the first and second half-rolls into conformity to form two loops , including at least one sub-step of reversely unwinding and rewinding the second half-roll on a mandrel . a) providing a magnetic strip of constant width in the form of a cylindrical roll extending along a longitudinal axis (X); b) cutting the roll into sections to extract therefrom first and second half-rolls (14; 16) of longitudinal axis (X14; X16) wherein each half-rolls comprises a respective boundary surface (14a; 16a) which is formed once it is separated from the other half-roll (14; 16), wherein the roll is cut slantwise relative to the longitudinal axis (X), such that the orientation of the boundary surfaces (14a; 16a) is opposite: the first half-roll comprises a boundary surface outwardly oriented relative to its longitudinal axis (X14), while the second half-roll comprises a boundary surface inwardly oriented relative to its longitudinal axis (X16); c) aligning the first and second half-rolls into conformity to form two loops , including at least one sub-step of reversely unwinding and rewinding the second half-roll on a mandrel .
A wireless transmit/receive unit, WTRU, comprising: a processor configured to: determine that a first set of resources used with a new radio, NR, radio access technology, RAT, at least partially overlaps with a second set of resources used with a long term evolution, LTE, RAT; determine that a transmission using the NR RAT is to be received within at least an overlapping portion of the first and the second sets of resources; receive an indication of locations of cell specific reference signals, CRSs, associated with the LTE RAT, wherein at least a subset of the CRSs are located within the overlapping portion of the first and second sets of resources; determine a set of resource elements, REs, that correspond to the locations of the CRSs within the overlapping portion of the first and second sets of resources; receive a signal over at least the overlapping portion of the first and second sets of resources, wherein the signal comprises the transmission associated with the NR RAT; and decode the transmission associated with the NR RAT from the signal, wherein the decoding comprises ignoring the set of REs that correspond to the locations of the CRSs within the overlapping portion of the first and second sets of resources. determine that a first set of resources used with a new radio, NR, radio access technology, RAT, at least partially overlaps with a second set of resources used with a long term evolution, LTE, RAT; determine that a transmission using the NR RAT is to be received within at least an overlapping portion of the first and the second sets of resources; receive an indication of locations of cell specific reference signals, CRSs, associated with the LTE RAT, wherein at least a subset of the CRSs are located within the overlapping portion of the first and second sets of resources; determine a set of resource elements, REs, that correspond to the locations of the CRSs within the overlapping portion of the first and second sets of resources; receive a signal over at least the overlapping portion of the first and second sets of resources, wherein the signal comprises the transmission associated with the NR RAT; and decode the transmission associated with the NR RAT from the signal, wherein the decoding comprises ignoring the set of REs that correspond to the locations of the CRSs within the overlapping portion of the first and second sets of resources.
An integrated flow meter and control valve including: - a flow tube providing a flow channel extending between an inlet- and an outlet opening; - a substantially watertight meter housing providing a compartment , extending from the flow tube; - a metering unit arranged inside the compartment for measuring the flow of a medium flowing through the flow channel, and - an electrical valve actuator arranged inside the compartment and adapted to control a flow control element arranged inside the flow channel, said electrical valve actuator including an electric motor connected to a valve stem via a gear train; - a control module including a wireless communication device arranged inside the compartment; and - a self-contained power supply arranged inside the compartment; characterized in that meter housing is formed as an integrated part of the flow tube with the compartment having a primary opening for insertion of the metering unit and a secondary sealable opening for insertion of the electrical valve actuator . - a flow tube providing a flow channel extending between an inlet- and an outlet opening; - a substantially watertight meter housing providing a compartment , extending from the flow tube; - a metering unit arranged inside the compartment for measuring the flow of a medium flowing through the flow channel, and - an electrical valve actuator arranged inside the compartment and adapted to control a flow control element arranged inside the flow channel, said electrical valve actuator including an electric motor connected to a valve stem via a gear train; - a control module including a wireless communication device arranged inside the compartment; and - a self-contained power supply arranged inside the compartment;
A catalyst system comprising a supported catalyst containing a) a solid support, which is a solid methylaluminoxane composition wherein: i) the aluminum content is in the range of 36 to 41 wt%, based on the solid methylaluminoxane composition, and ii) the mole fraction of methyl groups derived from the trimethylaluminum component relative to the total number of moles of methyl groups is 12 mol % or lower and b) a catalyst thereon which is a metal complex of the formula CyLMZ p , wherein M is titanium Z is an anionic ligand, p is number of 1 to 2, preferably 2, Cy is a cyclopentadienyl-type ligand and L is an amidinate ligand of the formula wherein the amidine-containing ligand is covalently bonded to the metal M via the imine nitrogen atom, and Sub1 is a substituent comprising a group 14 atom through which Sub1 is bonded to the imine carbon atom and Sub2 is a substituent comprising a heteroatom of group 15, through which Sub2 is bonded to the imine carbon atom. a) a solid support, which is a solid methylaluminoxane composition wherein: i) the aluminum content is in the range of 36 to 41 wt%, based on the solid methylaluminoxane composition, and ii) the mole fraction of methyl groups derived from the trimethylaluminum component relative to the total number of moles of methyl groups is 12 mol % or lower and i) the aluminum content is in the range of 36 to 41 wt%, based on the solid methylaluminoxane composition, and ii) the mole fraction of methyl groups derived from the trimethylaluminum component relative to the total number of moles of methyl groups is 12 mol % or lower and b) a catalyst thereon which is a metal complex of the formula CyLMZ p , wherein M is titanium Z is an anionic ligand, p is number of 1 to 2, preferably 2, Cy is a cyclopentadienyl-type ligand and L is an amidinate ligand of the formula wherein the amidine-containing ligand is covalently bonded to the metal M via the imine nitrogen atom, and Sub1 is a substituent comprising a group 14 atom through which Sub1 is bonded to the imine carbon atom and Sub2 is a substituent comprising a heteroatom of group 15, through which Sub2 is bonded to the imine carbon atom. M is titanium Z is an anionic ligand, p is number of 1 to 2, preferably 2, Cy is a cyclopentadienyl-type ligand and L is an amidinate ligand of the formula wherein the amidine-containing ligand is covalently bonded to the metal M via the imine nitrogen atom, and Sub1 is a substituent comprising a group 14 atom through which Sub1 is bonded to the imine carbon atom and Sub2 is a substituent comprising a heteroatom of group 15, through which Sub2 is bonded to the imine carbon atom.
A device for protecting crop plants (P) and/or sown seeds (S) against unwanted plants or weed, comprising: a reusable, ribbon or rope-shaped structure to which a plurality of annular elements are attached spaced apart from one another, wherein the structure is designed to be applied to a cultivated surface (F) so that each element marks the location (O) of a useful plant (P) or its sown seed (S), and wherein each element has a detectable means to mark the respective location (01, O2, ... On) for detection by machine to manage mechanical weed control, characterized in that below each of the detectable means at least one fixing element is arranged to be inserted into a root ball (B) of the respective plant (P) or seed (S). a reusable, ribbon or rope-shaped structure to which a plurality of annular elements are attached spaced apart from one another, wherein the structure is designed to be applied to a cultivated surface (F) so that each element marks the location (O) of a useful plant (P) or its sown seed (S), and wherein each element has a detectable means to mark the respective location (01, O2, ... On) for detection by machine to manage mechanical weed control, characterized in that below each of the detectable means at least one fixing element is arranged to be inserted into a root ball (B) of the respective plant (P) or seed (S).
An ophthalmic surgical instrument comprising: an elongate tubular member having a proximal end , a distal end , and a lumen extending therebetween, the elongate tubular member being configured to penetrate a body cavity of a patient; a flexible wicking member retractably extending beyond the distal end of the elongate tubular member, the wicking member comprising a loop or plurality of fibers configured to secure a volume of treatment fluid delivered through the lumen to the wicking member for application from the wicking member to target tissue in the body cavity; and wherein the wicking member is configured to be retracted into the tubular member . an elongate tubular member having a proximal end , a distal end , and a lumen extending therebetween, the elongate tubular member being configured to penetrate a body cavity of a patient; a flexible wicking member retractably extending beyond the distal end of the elongate tubular member, the wicking member comprising a loop or plurality of fibers configured to secure a volume of treatment fluid delivered through the lumen to the wicking member for application from the wicking member to target tissue in the body cavity; and wherein the wicking member is configured to be retracted into the tubular member .
A light emitting device comprising: a light emitting element having an emission peak wavelength in a range of 380 nm or more and 490 nm or less; and a red fluorescent material which is excited by the light from the light emitting element to emit light having at least one light emission peak wavelength in a range of 580 nm or more and 680 nm or less, wherein a ratio of the photon flux R of red light in a range of 620 nm or more and 700 nm or less to the photon flux B of blue light in a range of 400 nm or more and 490 nm or less, the ratio R/B is in a range of more than 20 and 200 or less wherein the red fluorescent material comprises a fluorescent material that comprises an Eu 2+ -activated silicon nitride comprising at least one element selected from Sr and Ca, and Al in the composition thereof, and wherein the light emission spectrum of the light emitting device has at least one light emission peak in a range of 580 nm or more and 680 nm or less and the full width at half maximum of the emission peak is 40 nm or more and 110 nm or less. a light emitting element having an emission peak wavelength in a range of 380 nm or more and 490 nm or less; and a red fluorescent material which is excited by the light from the light emitting element to emit light having at least one light emission peak wavelength in a range of 580 nm or more and 680 nm or less, wherein a ratio of the photon flux R of red light in a range of 620 nm or more and 700 nm or less to the photon flux B of blue light in a range of 400 nm or more and 490 nm or less, the ratio R/B is in a range of more than 20 and 200 or less wherein the red fluorescent material comprises a fluorescent material that comprises an Eu 2+ -activated silicon nitride comprising at least one element selected from Sr and Ca, and Al in the composition thereof, and wherein the light emission spectrum of the light emitting device has at least one light emission peak in a range of 580 nm or more and 680 nm or less and the full width at half maximum of the emission peak is 40 nm or more and 110 nm or less.
Device for compacting a fiber strip on a spinning machine with a revolving compaction element that is supplied with suction air and is held on a housing , wherein the suction air is guided to the compaction element via a suction air duct , provided in the housing , with a first section and a second section , wherein the first section of the suction air duct is delimited by the compaction element , and a connection of the first section to a vacuum source is provided via the second section of the suction air duct , characterized in that an air duct that is independent of the suction air duct and has a first duct part , an indicator duct , and a second duct part is provided, wherein - the indicator duct is arranged between the first duct part and the second duct part and is at least partially transparent; - the first duct part is connected to the first section of the suction air duct ; - the second duct part is connected to an opening in the housing to the environment; - an indicator element that is freely movable over the length of the indicator duct is provided in the indicator duct . - the indicator duct is arranged between the first duct part and the second duct part and is at least partially transparent; - the first duct part is connected to the first section of the suction air duct ; - the second duct part is connected to an opening in the housing to the environment; - an indicator element that is freely movable over the length of the indicator duct is provided in the indicator duct .
A screen component comprises a screen body and at least one vibration assembly , wherein the vibration assembly comprises a movable member , made from a giant magnetostrictive material, and at least one coil surrounding the movable member , wherein a part of the movable member is in contact with the screen body ; wherein the at least one coil forms a magnetic field when the coil is supplied with an input current, wherein the movable member is configured to deform under the effect of the magnetic field, wherein the magnetic field is configured to change according to a change in parameter of the input current, and wherein a deformation amount of the movable member is configured to change according to the change in magnetic field of the coil to drive the screen body to vibrate to output corresponding sound information by the screen component; the vibration assembly further comprises a conduction member mounted at an output end of the movable member , the conduction member being in contact with the screen body and is configured to thrust the screen body to be elastically deformed; characterized in that the vibration assembly further comprises a protective cover fixedly connected to the conduction member , the protective cover being provided with a hollow limiting space and arranged to cover the movable member , the output end of the movable member being limited in the limiting space to limit circumferential offset of the movable member . wherein the at least one coil forms a magnetic field when the coil is supplied with an input current, wherein the movable member is configured to deform under the effect of the magnetic field, wherein the magnetic field is configured to change according to a change in parameter of the input current, and wherein a deformation amount of the movable member is configured to change according to the change in magnetic field of the coil to drive the screen body to vibrate to output corresponding sound information by the screen component; the vibration assembly further comprises a conduction member mounted at an output end of the movable member , the conduction member being in contact with the screen body and is configured to thrust the screen body to be elastically deformed; characterized in that the vibration assembly further comprises a protective cover fixedly connected to the conduction member , the protective cover being provided with a hollow limiting space and arranged to cover the movable member , the output end of the movable member being limited in the limiting space to limit circumferential offset of the movable member .
A product manifold for use with a portable oxygen concentrator , the product manifold , comprising: a first product port , a second product port , an accumulator port , and an output port ; a flow path operatively coupling each of the first product port , the second product port , the accumulator port , and the output port to one another; first, second, and third control ports , characterised in that each of the control ports has an orifice defined by a body having a thickness and fluidly coupling the flow path ; a first orifice is associated with the first control port and disposed in a first portion of the flow path ; a second orifice is associated with the second control port and disposed in a second portion of the flow path ; and a third orifice is associated with the third control port and disposed in a third portion of the flow path ; each of the first orifice , the second orifice , and the third orifice comprises a flow hole extending between a first surface and a second opposite surface , the first surface forming a first edge adjacent the flow hole and the second surface forming a second edge adjacent the flow hole ; each of the first orifice , the second orifice , and the third orifice is formed by an electrical forming process and has a thickness of between about 0,0635 mm (0.0025 inches) and about 0.1016 mm (0.004 inches); and wherein the first and second edges are manufactured to be substantially the same, so that each of the first, second and third orifices is configured to provide bidirectional flow tolerance of approximately +/-2.5%. a first product port , a second product port , an accumulator port , and an output port ; a flow path operatively coupling each of the first product port , the second product port , the accumulator port , and the output port to one another; first, second, and third control ports , characterised in that each of the control ports has an orifice defined by a body having a thickness and fluidly coupling the flow path ; a first orifice is associated with the first control port and disposed in a first portion of the flow path ; a second orifice is associated with the second control port and disposed in a second portion of the flow path ; and a third orifice is associated with the third control port and disposed in a third portion of the flow path ; each of the first orifice , the second orifice , and the third orifice comprises a flow hole extending between a first surface and a second opposite surface , the first surface forming a first edge adjacent the flow hole and the second surface forming a second edge adjacent the flow hole ; each of the first orifice , the second orifice , and the third orifice is formed by an electrical forming process and has a thickness of between about 0,0635 mm (0.0025 inches) and about 0.1016 mm (0.004 inches); and wherein the first and second edges are manufactured to be substantially the same, so that each of the first, second and third orifices is configured to provide bidirectional flow tolerance of approximately +/-2.5%.