mhurhangee/patent-ind-claim-en huggingface dataset:
Drive mechanism for a first adjustment device for adjusting the orientation of the vanes in a first stage of a guide vanes assembly of a turbomachine and a second adjustment device for adjusting the orientation of the vanes in a second stage of the guide vanes assembly of the turbomachine, comprising a first adjustment device and a second adjustment device , comprising a single drive wheel that simultaneously drives the first adjustment device and the second adjustment device and a set of gears that is arranged between the drive wheel and the two adjustment devices , wherein the gearset comprises a first toothed wheel that is directly coupled with the drive wheel and with the first adjustment device, characterised in that the first toothed wheel is coupled with the second adjustment device through a secondary toothed wheel that is directly coupled with the second adjustment device and the first toothed wheel. comprising a first adjustment device and a second adjustment device , comprising a single drive wheel that simultaneously drives the first adjustment device and the second adjustment device and a set of gears that is arranged between the drive wheel and the two adjustment devices , wherein the gearset comprises a first toothed wheel that is directly coupled with the drive wheel and with the first adjustment device, characterised in that the first toothed wheel is coupled with the second adjustment device through a secondary toothed wheel that is directly coupled with the second adjustment device and the first toothed wheel.
A method for autonomous channel coordination in a wireless communication system including a plurality of access points, APs, (102a-c) wherein the APs communicate with each other via a wireless distribution system, WDS, the method comprising: a master AP coordinating with other member APs of a coordinated channel group, CCG, for selecting and configuring a WDS channel for the CCG, wherein the CCG comprises a plurality of member APs (102a-c) camping on a WDS channel used for the WDS, and wherein the master AP is a designated AP among the member APs of the CCG; the method characterized by : the master AP periodically broadcasting, multicasting or unicasting a CCG indicator, CCGI, on the WDS channel, wherein a master indicator is associated to the CCGI, the master indicator being set only by the master AP to indicate that the master AP is the master of the CCG; the master AP receiving, from a non-member AP that desires to join the CCG , a CCG addition request message ; the master AP determining whether or not to accept the non-member AP ; and the master AP sending a CCG addition response message to the non-member AP , the CCG addition response message indicating an accept or a reject for the request. a master AP coordinating with other member APs of a coordinated channel group, CCG, for selecting and configuring a WDS channel for the CCG, wherein the CCG comprises a plurality of member APs (102a-c) camping on a WDS channel used for the WDS, and wherein the master AP is a designated AP among the member APs of the CCG; the method characterized by : the master AP periodically broadcasting, multicasting or unicasting a CCG indicator, CCGI, on the WDS channel, wherein a master indicator is associated to the CCGI, the master indicator being set only by the master AP to indicate that the master AP is the master of the CCG; the master AP receiving, from a non-member AP that desires to join the CCG , a CCG addition request message ; the master AP determining whether or not to accept the non-member AP ; and the master AP sending a CCG addition response message to the non-member AP , the CCG addition response message indicating an accept or a reject for the request.
A device for driving at least one wheel of an aircraft landing gear, this device comprising: - at least one landing gear wheel , this wheel comprising a rim driven in rotation by a rim drive shaft , - an electric motor comprising a shaft , and - a mechanical transmission system between the shaft of the motor and the rim drive shaft , said system comprising a mechanical reduction gear comprising: - an input line coupled to the shaft of the motor and comprising a driving pinion , - an output line comprising a driven wheel and carried by said rim drive shaft , and - two intermediate transmission lines each comprising a wheel driven by the pinion of the input line and a pinion driving the wheel of the rim drive shaft ; characterised in that the input line comprises a floating shaft , a first end of which comprises splines engaged in complementary splines of the shaft of the motor , and a second, opposite end of which comprises the pinion , said floating shaft being centred and guided in rotation by at least one bearing and being able to swivel inside this bearing . - at least one landing gear wheel , this wheel comprising a rim driven in rotation by a rim drive shaft , - an electric motor comprising a shaft , and - a mechanical transmission system between the shaft of the motor and the rim drive shaft , said system comprising a mechanical reduction gear comprising: - an input line coupled to the shaft of the motor and comprising a driving pinion , - an output line comprising a driven wheel and carried by said rim drive shaft , and - two intermediate transmission lines each comprising a wheel driven by the pinion of the input line and a pinion driving the wheel of the rim drive shaft ;
A breathing assistance apparatus comprising a main body , a humidification compartment defined within the main body and adapted to receive a humidification chamber , a flow generator positioned within the main body , the flow generator and the humidification compartment being fluidly connected and a liquid containment compartment being interposed within the main body between the flow generator and the humidification compartment , the liquid containment compartment being fluidly connected to both the flow generator and the humidification compartment such that a gas flow path from the flow generator to the humidification compartment passes through the liquid containment compartment , and wherein the liquid containment compartment comprises: a first opening that defines an outlet for gases flow out of the liquid containment compartment to the humidification compartment , a second opening that defines an inlet for gases flow into the liquid containment compartment from the flow generator , the first opening and the second opening of the liquid containment compartment being offset from each other in at least two orthogonal spatial directions, the first opening being positioned vertically higher than the second opening , and a lower surface, wherein the second opening is positioned generally vertically higher than the lower surface, characterized in that the second opening is provided atop of a pedestal extending within the liquid containment compartment from the lower surface of the liquid containment compartment , the pedestal comprising a passage fluidly connected to the flow generator to form part of the gas flow path. a first opening that defines an outlet for gases flow out of the liquid containment compartment to the humidification compartment , a second opening that defines an inlet for gases flow into the liquid containment compartment from the flow generator , the first opening and the second opening of the liquid containment compartment being offset from each other in at least two orthogonal spatial directions, the first opening being positioned vertically higher than the second opening , and a lower surface, wherein the second opening is positioned generally vertically higher than the lower surface, characterized in that the second opening is provided atop of a pedestal extending within the liquid containment compartment from the lower surface of the liquid containment compartment , the pedestal comprising a passage fluidly connected to the flow generator to form part of the gas flow path.
A method for detecting a possible collision of a vehicle (V) with a moving object (O), comprising the steps: determining (S1) spatial positions (p) of the object (O) for a series of time points based on sensor data obtained by the vehicle (V); constructing (S2) an approximated trajectory (T) of the object (O) by approximating the spatial positions (p) of the object (O); and predicting (S3) a possible collision of the vehicle (V) with the object (O) based on the approximated trajectory (T) of the object (O) and/or based on a time-dependence of the approximated trajectory (T) of the object (O), wherein a possible collision of the vehicle (V) with the object (O) is predicted based on a curvature (K) of the approximated trajectory (T) of the object (O). determining (S1) spatial positions (p) of the object (O) for a series of time points based on sensor data obtained by the vehicle (V); constructing (S2) an approximated trajectory (T) of the object (O) by approximating the spatial positions (p) of the object (O); and predicting (S3) a possible collision of the vehicle (V) with the object (O) based on the approximated trajectory (T) of the object (O) and/or based on a time-dependence of the approximated trajectory (T) of the object (O), wherein a possible collision of the vehicle (V) with the object (O) is predicted based on a curvature (K) of the approximated trajectory (T) of the object (O).
A method for multi-point operation, comprising: causing, by an apparatus within a user equipment operating in a multipoint, multi-cell aggregation scheme with a first and a second base station, first reference information associated with a first cell and second reference information associated with a second cell grouped to the first base station to be sent to the first base station in a first time interval, wherein said first reference information is to be sent in a first time position in the first time interval and said second reference information is to be sent in a second time position in the first time interval; and causing, by the apparatus within the user equipment, at least third reference information associated with a third cell to be sent to the second base station in a different time interval, wherein each of said first, second and third reference information comprises channel quality indicator information and/or precoding control information, and is to be sent according to configuration information received from a radio network controller, , wherein said configuration information comprises information about said cells, said information indicating which of said cells belongs to which of said base stations, wherein the first and second cells belong to the first base station and the third cell belongs to the second base station. causing, by an apparatus within a user equipment operating in a multipoint, multi-cell aggregation scheme with a first and a second base station, first reference information associated with a first cell and second reference information associated with a second cell grouped to the first base station to be sent to the first base station in a first time interval, wherein said first reference information is to be sent in a first time position in the first time interval and said second reference information is to be sent in a second time position in the first time interval; and causing, by the apparatus within the user equipment, at least third reference information associated with a third cell to be sent to the second base station in a different time interval, wherein each of said first, second and third reference information comprises channel quality indicator information and/or precoding control information, and is to be sent according to configuration information received from a radio network controller, , wherein said configuration information comprises information about said cells, said information indicating which of said cells belongs to which of said base stations, wherein the first and second cells belong to the first base station and the third cell belongs to the second base station.
Method for producing an electrical line having at least one conductor , which has a wire bundle made of a number of individual wires and an insulating sheath surrounding the latter, wherein the wire bundle is guided through a shaping element along a central longitudinal axis in a feed area immediately upstream of an extruder in order to guide and to predefine its cross-sectional shape, wherein the shaping element rotates about the central longitudinal axis , and in that the insulating sheath is then applied to the wire bundle by means of the extruder , characterized in that the shaping element rotates relative to the wire bundle , and in that the individual wires in the wire bundle are untwisted or the wire bundle has a lay length of a minimum of 0.5 m.
A facility equipment operation device comprising: arrangement storing means configured for storing arrangement data associating identification information for identifying facility equipment , equipment type information for identifying a group that the facility equipment belongs to, and an installation position of the facility equipment in an objective space ; equipment capability storing means configured for storing equipment capability data associating the equipment type information and a capability related to an area affected by the facility equipment belonging to the group indicated by the associated equipment type information; operating state storing means configured for storing operating state data associating a section affected by the facility equipment currently operating from among sections dividing the objective space, and an effect exerted on the associated section by the facility equipment currently operating; equipment control information acquiring means configured for acquiring equipment control information including the identification information of controlled equipment, the controlled equipment being the facility equipment with a changed control parameter, and the changed control parameter; characterized by affected section determining means configured for computing, by referencing the arrangement data and the equipment capability data, an affected section, the affected section being a section affected by the controlled equipment ; and mismatch detecting means configured for referencing an exerted effect, the exerted effect being an effect exerted by the controlled equipment on the affected section when the controlled equipment operates according to the changed control parameter, and an effect associated with the affected section in the operating state data, and detect a mismatched state on the basis of whether or not the referenced effects are in a predetermined relationship. arrangement storing means configured for storing arrangement data associating identification information for identifying facility equipment , equipment type information for identifying a group that the facility equipment belongs to, and an installation position of the facility equipment in an objective space ; equipment capability storing means configured for storing equipment capability data associating the equipment type information and a capability related to an area affected by the facility equipment belonging to the group indicated by the associated equipment type information; operating state storing means configured for storing operating state data associating a section affected by the facility equipment currently operating from among sections dividing the objective space, and an effect exerted on the associated section by the facility equipment currently operating; equipment control information acquiring means configured for acquiring equipment control information including the identification information of controlled equipment, the controlled equipment being the facility equipment with a changed control parameter, and the changed control parameter;
A method of controlling a drilling process of a drilling machine , wherein the drilling machine comprises a control unit , at least one sensor , a percussive element and a tool , wherein an end of the tool comprises a drill bit configured to strike rock , wherein the percussive element is configured to impact the tool and the tool is configured to transfer impulse energy generated by the percussive element to the drill bit characterized in that the method during drilling comprises: - collecting measured data depending on force fed into the rock and indentation depth into the rock at an impact of the percussive element , wherein said collected data comprises data related to strain of the tool in operation, - determining a force-displacement curve based on the collected data, - determining a deviation between the force-displacement curve and a reference force-displacement curve determined based on a desired drilling process, - adjusting one or more drilling parameters related to the drilling process based on the deviation. - collecting measured data depending on force fed into the rock and indentation depth into the rock at an impact of the percussive element , wherein said collected data comprises data related to strain of the tool in operation, - determining a force-displacement curve based on the collected data, - determining a deviation between the force-displacement curve and a reference force-displacement curve determined based on a desired drilling process, - adjusting one or more drilling parameters related to the drilling process based on the deviation.
A pharmaceutical composition comprising a WT1 peptide or variant WT1 peptide for use in the treatment and/or prevention of an intraocular angiogenic disease selected from the group consisting of wet-type age-related macular degeneration, myopic macular degeneration, angioid streaks, central serous chorioretinopathy, various types of retinal pigment epitheliopathy, choroidal atrophy, choroideremia, choroidal osteoma, diabetic retinopathy, retinopathy of prematurity, rubeotic glaucoma, and corneal neovascularization, wherein the WT1 peptide or variant WT1 peptide has a binding ability to an HLA molecule, and the WT1 peptide or variant WT1 peptide comprises the following amino acid sequence: (a) any of the amino acid sequence represented by SEQ ID NO: 1 to SEQ ID NO: 39, or (b) an amino acid sequence, wherein one or two amino acids are replaced, deleted, or added in the amino acid sequence according to the above-described (a). (a) any of the amino acid sequence represented by SEQ ID NO: 1 to SEQ ID NO: 39, or (b) an amino acid sequence, wherein one or two amino acids are replaced, deleted, or added in the amino acid sequence according to the above-described (a).
A method of measuring pressure within a vacuum insulated cabinet structure , the method comprising the steps of: (i) providing a vacuum insulated cabinet structure having a storage compartment and an insulating space positioned between an interior wall of the storage compartment and an exterior wall of the storage compartment , a first temperature sensor positioned on the interior wall of the storage compartment , a second temperature sensor positioned on the exterior wall of the storage compartment , a third temperature sensor positioned to sense an ambient temperature level (T i , T o ); (ii) sensing a first temperature level (T wi ) of the interior wall of the storage compartment using the first temperature sensor ; (iii) sensing a second temperature level (T wo ) of the exterior wall of the storage compartment using the second temperature sensor ; (iv) calculating a first temperature differential (ΔT) between the second temperature level (T wo ) and the first temperature level (T wi ); (v) sensing an ambient temperature level (T i , T o ) using the third temperature sensor ; (vi) calculating an overall heat transfer coefficient (Q) using the ambient temperature level (T i , T o ), the first temperature level (T wi ), and a convective heat transfer coefficient for the exterior wall of the storage compartment; (vii) determining a first conductivity level (K) using the first temperature differential (ΔT), the overall heat transfer coefficient (Q) and a thickness (D) of the insulating space ; and (viii) determining a first pressure level (P) within the insulating space using the first conductivity level (K). (i) providing a vacuum insulated cabinet structure having a storage compartment and an insulating space positioned between an interior wall of the storage compartment and an exterior wall of the storage compartment , a first temperature sensor positioned on the interior wall of the storage compartment , a second temperature sensor positioned on the exterior wall of the storage compartment , a third temperature sensor positioned to sense an ambient temperature level (T i , T o ); (ii) sensing a first temperature level (T wi ) of the interior wall of the storage compartment using the first temperature sensor ; (iii) sensing a second temperature level (T wo ) of the exterior wall of the storage compartment using the second temperature sensor ; (iv) calculating a first temperature differential (ΔT) between the second temperature level (T wo ) and the first temperature level (T wi ); (v) sensing an ambient temperature level (T i , T o ) using the third temperature sensor ; (vi) calculating an overall heat transfer coefficient (Q) using the ambient temperature level (T i , T o ), the first temperature level (T wi ), and a convective heat transfer coefficient for the exterior wall of the storage compartment; (vii) determining a first conductivity level (K) using the first temperature differential (ΔT), the overall heat transfer coefficient (Q) and a thickness (D) of the insulating space ; and (viii) determining a first pressure level (P) within the insulating space using the first conductivity level (K).
An auxiliary turbomachinery shaft-support system comprising: a first assembly configured to axially support the shaft and comprising a rotating disc and a stator , the rotating disc having a part configured to be torsionally coupled to the shaft and a disc sliding surface , the stator comprising at least one pad , preferably at least two pads, at least one pad being coupled with an elastic component that urges the pad in the direction of the disc sliding surface ; wherein at least a pad comprises a pad contact surface cooperating with a stator contact surface when they touch each other, the pad contact surface and the stator contact surface being configured for self-aligning them, characterized in that the stator comprises at least one housing configured to contain the pad , the housing having a removable closing fixed to it, and a mechanical stop designed to contact the pad in order to prevent it from exiting the housing and wherein the elastic component is placed between the removable closing and the pad and the pad contact surface is placed on the rear side of the pad that is opposite to a pad sliding surface , the removable closing comprising the stator contact surface . a first assembly configured to axially support the shaft and comprising a rotating disc and a stator , the rotating disc having a part configured to be torsionally coupled to the shaft and a disc sliding surface , the stator comprising at least one pad , preferably at least two pads, at least one pad being coupled with an elastic component that urges the pad in the direction of the disc sliding surface ; wherein at least a pad comprises a pad contact surface cooperating with a stator contact surface when they touch each other, the pad contact surface and the stator contact surface being configured for self-aligning them, characterized in that the stator comprises at least one housing configured to contain the pad , the housing having a removable closing fixed to it, and a mechanical stop designed to contact the pad in order to prevent it from exiting the housing and wherein the elastic component is placed between the removable closing and the pad and the pad contact surface is placed on the rear side of the pad that is opposite to a pad sliding surface , the removable closing comprising the stator contact surface .