mhurhangee/patent-ind-claim-en huggingface dataset:
A suction actuated valve, for a dry powder inhaler, comprising: a compressed air lumen ; a control chamber for providing suction; and a trigger assembly, in fluid communication with the control chamber , comprising: a displaceable membrane contained within the control chamber and displaceable within the control chamber, the displaceable membrane configured to seal the control chamber such that suction provided by the control chamber displaces at least a portion of the displaceable membrane to provide an opening force to the trigger assembly for moving the trigger assembly from a closed configuration to an open configuration; and a trigger coupled to the displaceable membrane , the trigger configured, in the closed configuration, to occlude the compressed air lumen and configured, in the open configuration, to open the compressed air lumen ; characterised in that the trigger has a first cross-sectional area and the displaceable membrane has a second cross-sectional area greater than the first cross-sectional area such that when suction is provided by the control chamber the displaceable membrane provides a mechanical advantage for moving the trigger from the closed configuration to the open configuration. a compressed air lumen ; a control chamber for providing suction; and a trigger assembly, in fluid communication with the control chamber , comprising: a displaceable membrane contained within the control chamber and displaceable within the control chamber, the displaceable membrane configured to seal the control chamber such that suction provided by the control chamber displaces at least a portion of the displaceable membrane to provide an opening force to the trigger assembly for moving the trigger assembly from a closed configuration to an open configuration; and a trigger coupled to the displaceable membrane , the trigger configured, in the closed configuration, to occlude the compressed air lumen and configured, in the open configuration, to open the compressed air lumen ; a displaceable membrane contained within the control chamber and displaceable within the control chamber, the displaceable membrane configured to seal the control chamber such that suction provided by the control chamber displaces at least a portion of the displaceable membrane to provide an opening force to the trigger assembly for moving the trigger assembly from a closed configuration to an open configuration; and a trigger coupled to the displaceable membrane , the trigger configured, in the closed configuration, to occlude the compressed air lumen and configured, in the open configuration, to open the compressed air lumen ; characterised in that the trigger has a first cross-sectional area and the displaceable membrane has a second cross-sectional area greater than the first cross-sectional area such that when suction is provided by the control chamber the displaceable membrane provides a mechanical advantage for moving the trigger from the closed configuration to the open configuration.
A drone accessory adapted to be removably attached to a drone comprising a directional-adjustable camera , the drone accessory comprising at least one camera , a directional-adjustable device and a processor in communication with the at least one camera and the directional-adjustable device , wherein - the at least one camera being configured to capturing images of the directional-adjustable camera of the drone and transmitting the images to the processor, and - the processor being configured to, in response to receiving the images of the directional-adjustable camera of the drone , determining a viewing direction of the directional-adjustable camera of the drone , and directing the directional-adjustable device in the determined viewing direction. - the at least one camera being configured to capturing images of the directional-adjustable camera of the drone and transmitting the images to the processor, and - the processor being configured to, in response to receiving the images of the directional-adjustable camera of the drone , determining a viewing direction of the directional-adjustable camera of the drone , and directing the directional-adjustable device in the determined viewing direction.
An electronic device , comprising: a first housing structure ; a second housing structure ; and a hinge structure configured to connect the first and second housing structures , the hinge structure comprising: a metallic bracket including a first conductive part , a second conductive part , a first cylindrical through hole , and a second cylindrical through hole ; a first cylindrical insulating bushing at least partially positioned inside the first through hole ; a second cylindrical insulating bushing at least partially positioned inside the second through hole , wherein the second cylindrical insulating bushing is disposed in parallel and apart from the first cylindrical insulating bushing; a first conductive shaft contacting the first conductive part and extending through the first insulating bushing ; a second conductive shaft contacting the second conductive part and extending through the second insulating bushing ; and a conductive connector contacting the first conductive shaft and the second conductive shaft and configured to form an electrical path from the first conductive part to the second conductive part through the first conductive shaft , the conductive connector , and the second conductive shaft . a first housing structure ; a second housing structure ; and a hinge structure configured to connect the first and second housing structures , the hinge structure comprising: a metallic bracket including a first conductive part , a second conductive part , a first cylindrical through hole , and a second cylindrical through hole ; a first cylindrical insulating bushing at least partially positioned inside the first through hole ; a second cylindrical insulating bushing at least partially positioned inside the second through hole , wherein the second cylindrical insulating bushing is disposed in parallel and apart from the first cylindrical insulating bushing; a first conductive shaft contacting the first conductive part and extending through the first insulating bushing ; a second conductive shaft contacting the second conductive part and extending through the second insulating bushing ; and a conductive connector contacting the first conductive shaft and the second conductive shaft and configured to form an electrical path from the first conductive part to the second conductive part through the first conductive shaft , the conductive connector , and the second conductive shaft .
An axial fan comprising an electric motor , an impeller and a hub of the impeller , the hub comprising a central portion connected to the movable part of the electric motor in such a way as to be rotated about an axis (R) of rotation, the hub also comprising an outer annular portion connected to the central portion by an intermediate portion , characterised in that the intermediate portion comprises a plurality of elasto-plastic blades , each elasto-plastic blade having a rectangular shape defined by a longitudinal dimension (L) extending radially relative to the axis of rotation, a transversal dimension (T) extending parallel to the axis of rotation and a thickness (S) that is much less than its longitudinal dimension (L) and that is reduced with respect to the transversal dimension (T), each elasto-plastic blade constituting an I-shaped beam, the elasto-plastic blades being arranged radially and angularly distributed about the axis of rotation, the elasto-plastic blades being able to prevent the impeller from moving axially parallel to the axis of rotation (R), to prevent the impeller from moving radially perpendicular to the axis of rotation and to prevent a bending of the impeller with movements normal to the plane in which the impeller itself lies, the elasto-plastic blades allowing on the other hand a movement with torsional bending around the axis of rotation so as to allow the damping of the resonance frequencies of the fan.
Process for dyeing keratin fibres in which a mixture is applied to the said fibres, this mixture being obtained from: • a dye composition comprising at least one oxidation dye precursor, and • an aqueous oxidizing composition comprising at least one chemical oxidizing agent, • at least one of the compositions being dispensed from a pressurized container, • the mixture of the two compositions comprising at least one thickening polymer chosen from : - nonionic or cationic associative polymer chosen from cationic or nonionic associative cellulose derivatives, - anionic non-associative polymer chosen from anionic polymers not bearing sugar units chosen from crosslinked acrylic or methacrylic acid homopolymers or copolymers, - and mixtures thereof. • a dye composition comprising at least one oxidation dye precursor, and • an aqueous oxidizing composition comprising at least one chemical oxidizing agent, • at least one of the compositions being dispensed from a pressurized container, • the mixture of the two compositions comprising at least one thickening polymer chosen from : - nonionic or cationic associative polymer chosen from cationic or nonionic associative cellulose derivatives, - anionic non-associative polymer chosen from anionic polymers not bearing sugar units chosen from crosslinked acrylic or methacrylic acid homopolymers or copolymers, - and mixtures thereof. - nonionic or cationic associative polymer chosen from cationic or nonionic associative cellulose derivatives, - anionic non-associative polymer chosen from anionic polymers not bearing sugar units chosen from crosslinked acrylic or methacrylic acid homopolymers or copolymers, - and mixtures thereof. - and mixtures thereof.
A packet processing method, wherein the method comprises: receiving , by a network node, a packet carrying a segment routing header SRH, wherein the SRH comprises one or more type-length-value TLV fields and a TLV processing attribute, and the TLV processing attribute indicates whether the network node needs to process the TLV fields comprised in the SRH; and determining , by the network node based on the TLV processing attribute, processing of the TLV fields comprised in the SRH, wherein the SRH further comprises a plurality of segment identifiers SIDs that are in a one-to-one correspondence with a plurality of segment endpoint nodes on a forwarding path of the packet, the plurality of segment endpoint nodes are nodes that have a segment routing function on the forwarding path of the packet, the network node is any one of the segment endpoint nodes, and the TLV processing attribute is set in a SID corresponding to the network node, characterized in that that the TLV processing attribute is set in the SID of the network node comprises: the TLV processing attribute is set through a function type of the SID corresponding to the network node; or the TLV processing attribute is set through a field in the SID corresponding to the network node. receiving , by a network node, a packet carrying a segment routing header SRH, wherein the SRH comprises one or more type-length-value TLV fields and a TLV processing attribute, and the TLV processing attribute indicates whether the network node needs to process the TLV fields comprised in the SRH; and determining , by the network node based on the TLV processing attribute, processing of the TLV fields comprised in the SRH, wherein the SRH further comprises a plurality of segment identifiers SIDs that are in a one-to-one correspondence with a plurality of segment endpoint nodes on a forwarding path of the packet, the plurality of segment endpoint nodes are nodes that have a segment routing function on the forwarding path of the packet, the network node is any one of the segment endpoint nodes, and the TLV processing attribute is set in a SID corresponding to the network node, characterized in that that the TLV processing attribute is set in the SID of the network node comprises: the TLV processing attribute is set through a function type of the SID corresponding to the network node; or the TLV processing attribute is set through a field in the SID corresponding to the network node.
An eyewear lens for reducing transmittance in at least two regions of the visible light spectrum, comprising: a first controlled, limited blocking filter having a peak blocking wavelength between 430 nm and 480 nm, and a minimum transmittance at the peak blocking wavelength of between 55% and 75%; and a second controlled, limited blocking filter having a peak blocking wavelength between 530 nm and 620 nm, and a minimum transmittance at the peak blocking wavelength of ≥ 65%, wherein an overall luminous transmittance of the eyewear lens is ≥ 75%. a first controlled, limited blocking filter having a peak blocking wavelength between 430 nm and 480 nm, and a minimum transmittance at the peak blocking wavelength of between 55% and 75%; and a second controlled, limited blocking filter having a peak blocking wavelength between 530 nm and 620 nm, and a minimum transmittance at the peak blocking wavelength of ≥ 65%, wherein an overall luminous transmittance of the eyewear lens is ≥ 75%.
A safety pen needle assembly comprising: a hub ; a needle fixed to said hub, said needle having a distal end , formed for insertion into a patient, and a proximal end ; characterized in that the safety pen needle assembly further comprises: a leafspring secured to said hub by a frangible connection , said frangible connection being rupturable, wherein with rupture of said frangible connection , a free end of said leafspring is urged to cover said proximal end of said needle . a hub ; a needle fixed to said hub, said needle having a distal end , formed for insertion into a patient, and a proximal end ; characterized in that the safety pen needle assembly further comprises: a leafspring secured to said hub by a frangible connection , said frangible connection being rupturable, wherein with rupture of said frangible connection , a free end of said leafspring is urged to cover said proximal end of said needle .
A method by a mobile station, MS, for configuring a wireless back haul link between Base Stations, BSs, in a wireless communication system, the method comprising: receiving system information, SI, for each of a first BS being a BS already deployed which transmits a first code and a second BS being a BS newly deployed which transmits a second code; transmitting , to the first BS, a message including the SI for the second BS; after transmitting the message, receiving , from the first BS, a request message to transmit a third code to the second BS; and in response to the request message, transmitting , to the second BS, the third code, the third code commanding the second BS to start performing a link configuration procedure with the first BS for configuring a wireless back haul link between the first BS and the second BS, wherein the first code is a code transmitted from a BS which is already deployed, and wherein the second code is a code transmitted from a BS which is newly deployed. receiving system information, SI, for each of a first BS being a BS already deployed which transmits a first code and a second BS being a BS newly deployed which transmits a second code; transmitting , to the first BS, a message including the SI for the second BS; after transmitting the message, receiving , from the first BS, a request message to transmit a third code to the second BS; and in response to the request message, transmitting , to the second BS, the third code, the third code commanding the second BS to start performing a link configuration procedure with the first BS for configuring a wireless back haul link between the first BS and the second BS, wherein the first code is a code transmitted from a BS which is already deployed, and wherein the second code is a code transmitted from a BS which is newly deployed.
A unit dose machine dish wash detergent product comprising at least one transparent solid part, wherein the transparent solid part comprises detergent active, and wherein the at least one transparent part has a total Light transmittance of at least 30 %, based on a path-length of 10 mm; and wherein the at least one transparent part has a degree of Light scattering of less than 50 %, wherein the transparent solid part comprises a combination of a a) chiral aminopolycarboxylate and b) an organic acid, wherein the transparent solid part has c) a water content of from 2 to 30 wt. %.
A solar cell comprising: a substrate ; a back electrode layer on the substrate ; a light absorbing layer on the back electrode layer; a buffer layer on the light absorbing layer ; and a window layer on the buffer layer , wherein the buffer layer is formed from a chemical compound (Mg x Zn 1-x )O, in which the x has a value in a range of 0.1 to 0.5 and its band gap energy is in a range of 3.3eV to 3.6eV, characterized in that the light absorbing layer is a copper(Cu)-indium(In)-gallium(Ga)-selenium(Se) crystal based light absorbing layer comprising a first portion and a second portion on the back electrode layer ; wherein the first portion of the light absorbing layer has a chemical formula of (Cu(In,Ga)Se 2 ) and is disposed on the back electrode layer , wherein the second portion of the light absorbing layer which further comprises zinc(Zn) has a chemical formula of (Cu(In,Ga)Se 2 ):Zn and is formed between the first portion of the light absorbing layer and the buffer layer , wherein window layer has a chemical formula of (ZnO:Ga), wherein a mass ratio of Ga in the ZnO:Ga of the window layer is in a range of 0.1% to 3%, wherein a band gap energy of the first portion of the light absorbing layer is in a range of 1.1eV to 1.2eV, wherein the band gap energy of the second portion of the light absorbing layer is in a range of 2.4eV to 2.8eV,and wherein the band gap energy of the window layer is in a range of 3.6eV to 3.8eV. a substrate ; a back electrode layer on the substrate ; a light absorbing layer on the back electrode layer; a buffer layer on the light absorbing layer ; and a window layer on the buffer layer , wherein the buffer layer is formed from a chemical compound (Mg x Zn 1-x )O, in which the x has a value in a range of 0.1 to 0.5 and its band gap energy is in a range of 3.3eV to 3.6eV, characterized in that the light absorbing layer is a copper(Cu)-indium(In)-gallium(Ga)-selenium(Se) crystal based light absorbing layer comprising a first portion and a second portion on the back electrode layer ; wherein the first portion of the light absorbing layer has a chemical formula of (Cu(In,Ga)Se 2 ) and is disposed on the back electrode layer , wherein the second portion of the light absorbing layer which further comprises zinc(Zn) has a chemical formula of (Cu(In,Ga)Se 2 ):Zn and is formed between the first portion of the light absorbing layer and the buffer layer , wherein window layer has a chemical formula of (ZnO:Ga), wherein a mass ratio of Ga in the ZnO:Ga of the window layer is in a range of 0.1% to 3%, wherein a band gap energy of the first portion of the light absorbing layer is in a range of 1.1eV to 1.2eV, wherein the band gap energy of the second portion of the light absorbing layer is in a range of 2.4eV to 2.8eV,and wherein the band gap energy of the window layer is in a range of 3.6eV to 3.8eV.
A method for placing an indicia on a composite structure , the composite structure being formed from one or more layers of fiber-reinforced polymers and/or from one or more sandwich panels, the method comprising: printing the indicia on a first film surface of a coating film comprised of any one or a combination of polyurethane, polyamide, polyester, and epoxy, wherein the coating film is in a partially cured state when the printing of the indicia is performed: securing the coating film such that the coating film is substantially flat, wherein the securing of the coating film is performed prior to the printing of the indicia on the first film surface , wherein the securing of the coating film comprises securing the coating film such that the coating film is substantially prevented from moving while the printing of the indicia on the first film surface is performed; partially curing the composite structure such that the composite structure is in a partially cured state, wherein the partially cured state of the coating film and the composite structure indicates respectively the coating film and the composite structure being impregnated, coated, and/or saturated with a resin or other adhesive, which has changed from a liquid to a pliable solid state, but which has not fully polymerized or hardened; thereafter positioning the coating film on the composite structure such that a second film surface of the coating film faces and is positioned against a surface of the composite structure , wherein the second film surface is opposite the first film surface of the coating film ; and co-curing the coating film and the composite structure , wherein the co-curing comprises co-curing the coating film and the composite structure while the coating film and the composite structure are engaged with a mold tooling . securing the coating film such that the coating film is substantially flat, wherein the securing of the coating film is performed prior to the printing of the indicia on the first film surface , wherein the securing of the coating film comprises securing the coating film such that the coating film is substantially prevented from moving while the printing of the indicia on the first film surface is performed; partially curing the composite structure such that the composite structure is in a partially cured state, wherein the partially cured state of the coating film and the composite structure indicates respectively the coating film and the composite structure being impregnated, coated, and/or saturated with a resin or other adhesive, which has changed from a liquid to a pliable solid state, but which has not fully polymerized or hardened; thereafter positioning the coating film on the composite structure such that a second film surface of the coating film faces and is positioned against a surface of the composite structure , wherein the second film surface is opposite the first film surface of the coating film ; and co-curing the coating film and the composite structure , wherein the co-curing comprises co-curing the coating film and the composite structure while the coating film and the composite structure are engaged with a mold tooling .
Roll stabilizer for a motor vehicle, having an actuator with a housing with a first stabilizer element coupled to said housing and with an electric motor situated in the housing , wherein a transmission is coupled at a drive side to the electric motor , and the transmission is coupled at an output side to a second stabilizer element , such that the stabilizer elements are electromechanically rotatable relative to one another, wherein the transmission is arranged substantially within the electric motor, and the end regions of the stabilizer elements are arranged within the rotor and project into the transmission housing , characterized in that the end regions each have an external toothing , wherein the transmission housing is mounted so as to be rotatable about the end regions .