mhurhangee/patent-ind-claim-en huggingface dataset:
Computer implemented method for a pitch angle recognition of a steering column in a vehicle, the method comprising the following steps carried out by computer hardware components: - measuring first acceleration data by means of a first acceleration sensor ; - measuring second acceleration data by means of a second acceleration sensor ; - determining drift data of at least one of the first acceleration sensor and the second acceleration sensor based on the first acceleration data and the second acceleration data; and - determining a pitch angle of the steering column based on the drift data, the first acceleration data and the second acceleration data. - measuring first acceleration data by means of a first acceleration sensor ; - measuring second acceleration data by means of a second acceleration sensor ; - determining drift data of at least one of the first acceleration sensor and the second acceleration sensor based on the first acceleration data and the second acceleration data; and - determining a pitch angle of the steering column based on the drift data, the first acceleration data and the second acceleration data.
A method for assigning a tributary port number, comprising: receiving a service path request message which is sent by a neighboring node and carries a service type, wherein the service path request message requests to establish a service path used to bear an optical channel data unit, ODU, service of the service type; reserving, according to the service type in the service path request message, a free tributary slot resource used to bear the ODU service in an OTU link, and assigning a tributary port number to the free tributary slot resource, wherein the assigning the tributary port number to the free tributary slot resource comprises: if a multiplex structure identifier, MSI, byte in the OTU link indicates a service type of the ODU service, assigning a tributary port number which is different from a tributary port number used by an ODU service having the same type in the OTU link to the free tributary slot resource; or if the MSI byte in the OTU link does not indicate a service type of the ODU service, assigning a tributary port number which is different from a tributary port number used by any type of ODU service in the OTU link to the free tributary slot resource; and sending a service path acknowledgment message to the neighboring node, wherein the service path acknowledgment message carries the tributary port number assigned to the free tributary slot resource. receiving a service path request message which is sent by a neighboring node and carries a service type, wherein the service path request message requests to establish a service path used to bear an optical channel data unit, ODU, service of the service type; reserving, according to the service type in the service path request message, a free tributary slot resource used to bear the ODU service in an OTU link, and assigning a tributary port number to the free tributary slot resource, wherein the assigning the tributary port number to the free tributary slot resource comprises: if a multiplex structure identifier, MSI, byte in the OTU link indicates a service type of the ODU service, assigning a tributary port number which is different from a tributary port number used by an ODU service having the same type in the OTU link to the free tributary slot resource; or if the MSI byte in the OTU link does not indicate a service type of the ODU service, assigning a tributary port number which is different from a tributary port number used by any type of ODU service in the OTU link to the free tributary slot resource; and sending a service path acknowledgment message to the neighboring node, wherein the service path acknowledgment message carries the tributary port number assigned to the free tributary slot resource.
A pad (1; 1') for administering a cardiac massage comprising: - a first layer configured for being applied on the chest of a patient; and - a second layer coupled to said first layer, the second layer being configured for receiving an action by an operator administering the cardiac massage, characterized in that : said first layer is made of a material having an average value of the transmitted force, in an impact test at ambient conditions according to EN1621-1 at an energy of 10 J, lower than 25 kN. - a first layer configured for being applied on the chest of a patient; and - a second layer coupled to said first layer, the second layer being configured for receiving an action by an operator administering the cardiac massage,
A vaccine formulation comprising an effective amount of an adjuvant composition, the adjuvant composition comprising a carbohydrate linked to chitosan to form a Schiff base and an antigen, wherein the carbohydrate is an open ring mannose moiety, wherein the vaccine is formulated for administration in food or drinking water, and wherein the Schiff base is optionally reduced and wherein the effective amount is an amount of composition that, when administered to a subject for enhancing the immune response of the subject, is capable of increasing the immune response of the subject.
A method of wireless communications performed by a user equipment, UE operating on both a first radio access interface and a second radio access interface, the method comprising: performing one or more Sidelink, SL, procedures on the first radio access interface, the one or more SL procedures comprising a first SL procedure triggered for a first SL connection corresponding to a first destination on the second radio access interface, the first SL connection being between the UE and a first target UE of the first destination; triggering, in response to at least one triggering event associated with the first target UE and the second radio access interface, a Medium Access Control, MAC, reset operation for the first SL connection; and in response to triggering the MAC reset operation: canceling the first SL procedure in a case that the first SL procedure is associated only with the first SL connection, and refraining from canceling the first SL procedure on the first radio access interface in a case that the first SL procedure is not only associated with the first SL connection, wherein the first radio access interface is one of a New Radio, NR, Uu interface or a Long Term Evolution, LTE, Uu interface associated with at least one serving cell, and the second radio access interface is one of an NR PC5 interface or an LTE PC5 interface. performing one or more Sidelink, SL, procedures on the first radio access interface, the one or more SL procedures comprising a first SL procedure triggered for a first SL connection corresponding to a first destination on the second radio access interface, the first SL connection being between the UE and a first target UE of the first destination; triggering, in response to at least one triggering event associated with the first target UE and the second radio access interface, a Medium Access Control, MAC, reset operation for the first SL connection; and in response to triggering the MAC reset operation: canceling the first SL procedure in a case that the first SL procedure is associated only with the first SL connection, and refraining from canceling the first SL procedure on the first radio access interface in a case that the first SL procedure is not only associated with the first SL connection, canceling the first SL procedure in a case that the first SL procedure is associated only with the first SL connection, and refraining from canceling the first SL procedure on the first radio access interface in a case that the first SL procedure is not only associated with the first SL connection, wherein the first radio access interface is one of a New Radio, NR, Uu interface or a Long Term Evolution, LTE, Uu interface associated with at least one serving cell, and the second radio access interface is one of an NR PC5 interface or an LTE PC5 interface.
An electric-powered vehicle , comprising: an axle body that includes an axle and drive wheels connected to both ends of the axle ; a magnetic geared motor for rotating the axle , the magnetic geared motor including a stator , a low-speed rotor , and a high-speed rotor ; a vehicle structure supported by the axle body ; a motor support for connecting the vehicle structure and the stator , and supporting the magnetic geared motor by the vehicle structure ; and an elastic coupling for coupling the low-speed rotor and the axle such that a rotational force of the low-speed rotor is transmittable to the axle . an axle body that includes an axle and drive wheels connected to both ends of the axle ; a magnetic geared motor for rotating the axle , the magnetic geared motor including a stator , a low-speed rotor , and a high-speed rotor ; a vehicle structure supported by the axle body ; a motor support for connecting the vehicle structure and the stator , and supporting the magnetic geared motor by the vehicle structure ; and an elastic coupling for coupling the low-speed rotor and the axle such that a rotational force of the low-speed rotor is transmittable to the axle .
A polyethylene having (i) an entanglement molecular weight of 9500 g/mol to 13000 g/mol, wherein the entanglement molecular weight is measured as described in the description, (ii) a melt flow rate ratio (MFRR 21.6/5 ) of 16 to 25, wherein the melt flow rate ratio is a value obtained by dividing the melt index measured at 190 °C under a load of 21.6 kg by the melt index measured at 190 °C under a load of 5 kg in accordance with ASTM D 1238, and (iii) a molecular weight distribution (Mw/Mn) of 5.5 to 10, measured as described in the description, wherein the polyethylene is an ethylene homopolymer.
Method for operating a slope clearing system of a blending bed, in particular of a circular blending bed for removing raw materials of a semicircular bulk material stockpile , which has an end face , wherein the bulk material is transported in the direction of a central post by means of a conveying device attached to the vertical central post , and wherein the conveying device has a plurality of conveying elements attached to a circulating transport means , characterized in that the conveying elements engage in the end face of the bulk material stockpile to remove the bulk material and the conveying device is moved along the end face of the bulk material stockpile . wherein the bulk material is transported in the direction of a central post by means of a conveying device attached to the vertical central post , and wherein the conveying device has a plurality of conveying elements attached to a circulating transport means , characterized in that the conveying elements engage in the end face of the bulk material stockpile to remove the bulk material and the conveying device is moved along the end face of the bulk material stockpile .
A cogged drive arrangement for an endless belt conveyor for a feederhouse of an agricultural combine , wherein the endless belt conveyor has two endless belts , the cogged drive arrangement comprising a first drive wheel having an axis of rotation, a hub extending around the axis of rotation, flanges fixed to an outer edge of the hub and extending outward from the hub and a plurality of cogs fixed to the outer ends of the flanges , wherein the hub has a first end extending in a first direction parallel to the axis of rotation and away from an axial midpoint of the hub , and a second end extending in a second direction parallel to the axis of rotation and away from the axial midpoint of the hub , characterized in that the first end of the hub is conical and tapers inwardly toward the driveshaft and that the second end of the hub is conical and tapers inwardly toward the driveshaft .
A process of forming a Ziegler-Natta catalyst component comprising: contacting an alkyl magnesium compound with an alcohol and a first organoaluminum compound to form a magnesium dialkoxide compound wherein the first organoaluminum compound is trimethyl aluminum (TMA), triisobutyl aluminum (TIBAl), triethyl aluminum (TEAl) or tri-n-octylaluminum (TNOAl); contacting the magnesium dialkoxide compound with a titanating agent to form reaction product "A"; reacting reaction product "A" with TiCl 4 to form reaction product "B"; reacting reaction product "B" with a second organoaluminum compound to form a Ziegler-Natta catalyst component; and contacting the Ziegler-Natta catalyst component with an activator, wherein the activator is TiBAl. contacting an alkyl magnesium compound with an alcohol and a first organoaluminum compound to form a magnesium dialkoxide compound wherein the first organoaluminum compound is trimethyl aluminum (TMA), triisobutyl aluminum (TIBAl), triethyl aluminum (TEAl) or tri-n-octylaluminum (TNOAl); contacting the magnesium dialkoxide compound with a titanating agent to form reaction product "A"; reacting reaction product "A" with TiCl 4 to form reaction product "B"; reacting reaction product "B" with a second organoaluminum compound to form a Ziegler-Natta catalyst component; and contacting the Ziegler-Natta catalyst component with an activator, wherein the activator is TiBAl.
Seating device, in particular airplane seating device, with at least one lateral baggage bar (10a; 10b), which is configured to be mounted underneath a seat (12a; 12b) on a side of the seat (12a; 12b) facing toward an aisle of a passenger cabin, the lateral baggage bar (10a; 10b) extending from its front end (34a; 34b) at least substantially parallel to the cabin floor toward a rear region of the seat (12a; 12b), and with at least one carrier element (14a; 14b) that is configured to receive a support force, characterised in that the carrier element (14a; 14b) is realized by a step element providing a stepping zone that is elevated with respect to the cabin floor, and that the carrier element (14a; 14b) and the baggage bar (10a; 10b) have at least one coupling point (16a; 16b) via which the baggage bar (10a; 10b) and the carrier element (14a; 14b) are connected to each other in a form-fit and/or force-fit manner and/or by substance-to-substance bond, the coupling point (16a; 16b) being configured to transfer at least a portion of the support force from the carrier element (14a; 14b) to the baggage bar (10a; 10b). with at least one lateral baggage bar (10a; 10b), which is configured to be mounted underneath a seat (12a; 12b) on a side of the seat (12a; 12b) facing toward an aisle of a passenger cabin, the lateral baggage bar (10a; 10b) extending from its front end (34a; 34b) at least substantially parallel to the cabin floor toward a rear region of the seat (12a; 12b), and with at least one carrier element (14a; 14b) that is configured to receive a support force, characterised in that the carrier element (14a; 14b) is realized by a step element providing a stepping zone that is elevated with respect to the cabin floor, and that the carrier element (14a; 14b) and the baggage bar (10a; 10b) have at least one coupling point (16a; 16b) via which the baggage bar (10a; 10b) and the carrier element (14a; 14b) are connected to each other in a form-fit and/or force-fit manner and/or by substance-to-substance bond, the coupling point (16a; 16b) being configured to transfer at least a portion of the support force from the carrier element (14a; 14b) to the baggage bar (10a; 10b).
A coil unit (U1, U2, U3) for contactless power transmission comprising: a non-circular flat coil that has a plurality of corner sections (C) corresponding to the corners of the coil and a non-corner section (NC) in a coil axial direction view; and a core member made of a magnetic material disposed to overlap the non-corner section (NC) of the flat coil in a coil axial direction; a thermal conductor that is disposed to overlap the corner sections (C) of the flat coil in the coil axial direction, and that has a higher thermal conductivity than the core member , characterized in that the thermal conductor and the core member do not overlap in the coil axial direction. a non-circular flat coil that has a plurality of corner sections (C) corresponding to the corners of the coil and a non-corner section (NC) in a coil axial direction view; and a core member made of a magnetic material disposed to overlap the non-corner section (NC) of the flat coil in a coil axial direction; a thermal conductor that is disposed to overlap the corner sections (C) of the flat coil in the coil axial direction, and that has a higher thermal conductivity than the core member , characterized in that the thermal conductor and the core member do not overlap in the coil axial direction.
An exhaust gas purification catalyst comprising a substrate and a catalyst layer on the substrate, the catalyst layer comprising an oxygen storage component and an inorganic porous solid, the exhaust gas purification catalyst having a pore volume distribution such that a ratio of a pore volume of pores with a diameter of from 15 nm to less than 25 nm to a pore volume of pores with a diameter of from 5 nm to less than 15 nm is 1.4 to 2.5 as measured with a mercury porosimeter, the pore volume distribution having at least one peak top in a pore diameter range of from 15 nm to less than 25 nm, and the pore volume distribution having a ratio of a pore volume of pores with a diameter of from 5 nm to less than 15 nm to a pore volume of pores with a diameter of 5 to 200 nm is 15% to 35%, and a ratio of a pore volume of pores with a diameter of from 15 nm to less than 25 nm to a pore volume of pores with a diameter of 5 to 200 nm is 25% to 55%. the catalyst layer comprising an oxygen storage component and an inorganic porous solid, the exhaust gas purification catalyst having a pore volume distribution such that a ratio of a pore volume of pores with a diameter of from 15 nm to less than 25 nm to a pore volume of pores with a diameter of from 5 nm to less than 15 nm is 1.4 to 2.5 as measured with a mercury porosimeter, the pore volume distribution having at least one peak top in a pore diameter range of from 15 nm to less than 25 nm, and the pore volume distribution having a ratio of a pore volume of pores with a diameter of from 5 nm to less than 15 nm to a pore volume of pores with a diameter of 5 to 200 nm is 15% to 35%, and a ratio of a pore volume of pores with a diameter of from 15 nm to less than 25 nm to a pore volume of pores with a diameter of 5 to 200 nm is 25% to 55%.
A method for producing a final image of a subject positioned in a field of view (FOV) of a medical imaging system, the steps comprising: a) acquiring with the imaging system a plurality of views of the subject positioned in the FOV; b) producing a composite image of the subject which provides a priori knowledge of the subject to be imaged; c) performing a HYPR image reconstruction of selected views acquired in step a), using the composite image; and d) repeating step c) a plurality of iterations to produce the final image of the subject in which an image that results during one iteration is employed for updating the composite image in the next iteration. a) acquiring with the imaging system a plurality of views of the subject positioned in the FOV; b) producing a composite image of the subject which provides a priori knowledge of the subject to be imaged; c) performing a HYPR image reconstruction of selected views acquired in step a), using the composite image; and d) repeating step c) a plurality of iterations to produce the final image of the subject in which an image that results during one iteration is employed for updating the composite image in the next iteration.
A wall-mounting assembly, comprising a hanger and a hanging plate , wherein the hanger comprises a mounting plate , a machine fixing plate , and a limiting plate ; the machine fixing plate and the limiting plate are fixed at two opposite ends of the mounting plate respectively, and are located at an upper portion and a lower portion of the mounting plate , respectively; and the hanging plate comprises a hanging plate body and a supporting plate arranged at the hanging plate body , the supporting plate is configured for supporting the mounting plate , a limiting plate mounting clearance is provided by cooperation between the hanging plate body and the supporting plate , and the liming plate mounting clearance is configured for accommodating the limiting plate ; characterized in that hanging plate body is a convex-shaped plate having a convex portion in the middle, the supporting plate is located above the convex portion of the hanging plate body , and each of two opposite ends of the supporting plate is provided with a supporting projection portion abutting against a top end of a side wall of a corresponding end of the convex portion. the hanger comprises a mounting plate , a machine fixing plate , and a limiting plate ; the machine fixing plate and the limiting plate are fixed at two opposite ends of the mounting plate respectively, and are located at an upper portion and a lower portion of the mounting plate , respectively; and the hanging plate comprises a hanging plate body and a supporting plate arranged at the hanging plate body , the supporting plate is configured for supporting the mounting plate , a limiting plate mounting clearance is provided by cooperation between the hanging plate body and the supporting plate , and the liming plate mounting clearance is configured for accommodating the limiting plate ; characterized in that hanging plate body is a convex-shaped plate having a convex portion in the middle, the supporting plate is located above the convex portion of the hanging plate body , and each of two opposite ends of the supporting plate is provided with a supporting projection portion abutting against a top end of a side wall of a corresponding end of the convex portion.