mhurhangee/patent-ind-claim-en huggingface dataset:
Slipring device comprising a first part and a second part arranged rotatably against each other about a center axis , the first part comprises a first housing holding at least a first slipring component , the second part comprises a second housing holding at least a second slipring component , and a first bearing is arranged between the first housing and the second housing , characterized in, that the first housing comprises a hollow shaft which holds the second part and/or the second housing , the hollow shaft comprising at least one bayonet lock notch , the first housing further comprises a locking ring having at least one bayonet lock protrusion oriented in a radial direction to the center axis matching to the at least one bayonet lock notch ,wherein a second bearing is arranged between the second housing and the locking ring , wherein the locking ring is attached to the outside of the hollow shaft and is configured to press against a spring between the locking ring and the second housing into a direction of the center axis to hold the second housing against the first housing in a defined position.
A system for detecting a foreign object, comprising: a first sensor mounted adjacent to a bezel for a magnetic card reader device, the first sensor providing a first signal that varies when a foreign object is placed adjacent to an exterior portion of the bezel; a second sensor mounted adjacent to the bezel, the second sensor providing a second signal that varies when a foreign object is placed adjacent to the exterior portion of the bezel, the second sensor operating according to a different technology than the first sensor; and a controller coupled to the first sensor and the second sensor, the controller configured to receive the first signal and the second signal; wherein the first sensor is capacitive-based and includes at least three plates mounted adjacent to the bezel, each of the three plates coupled to the controller, the at least three plates forming capacitive pairs with each pair comprising two of the at least three plates, and wherein the controller is configured to sequentially apply a reference signal to a selected one of the two plates in each capacitive pair and to receive a measurement signal from the other of the two plates in each capacitive pair, and wherein the measurement signal from each capacitive pair corresponds to the first signal; wherein the controller is configured to generate an alarm signal when a majority of the measurement signals and the second signal differ from associated predetermined baseline signals by at least associated predetermined thresholds. a first sensor mounted adjacent to a bezel for a magnetic card reader device, the first sensor providing a first signal that varies when a foreign object is placed adjacent to an exterior portion of the bezel; a second sensor mounted adjacent to the bezel, the second sensor providing a second signal that varies when a foreign object is placed adjacent to the exterior portion of the bezel, the second sensor operating according to a different technology than the first sensor; and a controller coupled to the first sensor and the second sensor, the controller configured to receive the first signal and the second signal; wherein the first sensor is capacitive-based and includes at least three plates mounted adjacent to the bezel, each of the three plates coupled to the controller, the at least three plates forming capacitive pairs with each pair comprising two of the at least three plates, and wherein the controller is configured to sequentially apply a reference signal to a selected one of the two plates in each capacitive pair and to receive a measurement signal from the other of the two plates in each capacitive pair, and wherein the measurement signal from each capacitive pair corresponds to the first signal; wherein the controller is configured to generate an alarm signal when a majority of the measurement signals and the second signal differ from associated predetermined baseline signals by at least associated predetermined thresholds.
A sintered MnZn ferrite body, characterized in that said sintered MnZn ferrite body contains main components comprising 53.30 to 53.80% by mol of Fe calculated as Fe 2 O 3 , 6.90 to 9.50% by mol Zn calculated as ZnO, and the balance of Mn calculated as MnO, and sub-components comprising 0.003 to 0.020 parts by mass of Si calculated as SiO 2 , more than 0 parts and 0.35 parts or less by mass of Ca calculated as CaCO 3 , 0.30 to 0.50 parts by mass of Co calculated as Co 3 O 4 , 0.03 to 0.10 parts by mass of Zr calculated as ZrO 2 , and 0 to 0.05 parts by mass of Ta calculated as Ta 2 O 5 , per 100 parts by mass in total of the main components, calculated as the oxides, and has an average crystal grain size of 3 μm or more and less than 8 μm, and a density of 4.65 g/cm 3 or more. main components comprising 53.30 to 53.80% by mol of Fe calculated as Fe 2 O 3 , 6.90 to 9.50% by mol Zn calculated as ZnO, and the balance of Mn calculated as MnO, and sub-components comprising 0.003 to 0.020 parts by mass of Si calculated as SiO 2 , more than 0 parts and 0.35 parts or less by mass of Ca calculated as CaCO 3 , 0.30 to 0.50 parts by mass of Co calculated as Co 3 O 4 , 0.03 to 0.10 parts by mass of Zr calculated as ZrO 2 , and 0 to 0.05 parts by mass of Ta calculated as Ta 2 O 5 , per 100 parts by mass in total of the main components, calculated as the oxides, and has an average crystal grain size of 3 μm or more and less than 8 μm, and a density of 4.65 g/cm 3 or more.
A DNA hypomethylating agent consisting of 5-aza-2'-deoxycytidine (5-AZA-CdR) and at least one immunomodulatory agent and optionally at least one targeted therapy agent, for use in the treatment and/or in the prevention of cancer wherein the immunomodulating agent is an anti-CTLA-4 antibody and the targeted therapy agent is selected from the group consisting of: a MAP kinase pathway inhibitor or a WNT pathway inhibitor, preferably the MAP kinase pathway inhibitor is selected from the group consisting of : a BRAF inhibitor, a MEK inhibitor, a PI3K inhibitor or a c-KIT inhibitor, preferably the BRAF inhibitor is selected from the group consisting of: GDC-0879, PLX-4720, Sorafenib Tosylate, dabrafenib or LGX818, preferably the MEK inhibitor is selected from the group consisting in: GSK1120212, selumetinib or MEK162, preferably the WNT pathway inhibitor is selected from the group consisting of: a beta catenin inhibitor or a frizzled inhibitor, preferably the beta catenin inhibitor is selected from the group consisting of: niclosamide, XAV-939, FH 535 or ICG 001.
A user equipment, UE, comprising: a display configured to render a virtual reality video; a processor configured to generate metadata including information related to a trajectory of at least one viewport of the UE, the viewport being a part of the virtual reality video displayed and viewed by a user; and a communication unit configured to transmit the metadata, to a server or another UE, to share the trajectory of the at least one viewport, wherein the metadata includes flag information, and the flag information is set to one of a first value indicating that viewport coordinates for a current frame is transmitted, a second value indicating that viewport coordinates for the current frame is copied from viewport coordinates of a previous frame and a third value indicating that viewport coordinates for the current frame is linearly interpolated from viewport coordinates of previous and next frames which have the flag information set to the first value. a display configured to render a virtual reality video; a processor configured to generate metadata including information related to a trajectory of at least one viewport of the UE, the viewport being a part of the virtual reality video displayed and viewed by a user; and a communication unit configured to transmit the metadata, to a server or another UE, to share the trajectory of the at least one viewport, wherein the metadata includes flag information, and the flag information is set to one of a first value indicating that viewport coordinates for a current frame is transmitted, a second value indicating that viewport coordinates for the current frame is copied from viewport coordinates of a previous frame and a third value indicating that viewport coordinates for the current frame is linearly interpolated from viewport coordinates of previous and next frames which have the flag information set to the first value.
A system for predicting a shape of an anatomical structure, the system comprising: at least one database configured to store a first set of training models, a second set of training models, and a subject model, wherein each model in the first set of training models corresponds to a model in the second set of training models, wherein the first set of training models and the subject model are characterized by a first parameter, and wherein the second set of training models is characterized by a second parameter; a training analysis module configured to determine a relationship between the first set of training models and the second set of training models; a subject analysis module configured to determine a relationship between the subject model and the first set of training models; and a prediction module configured to generate a predicted shape based on the relationship between the first set of training models and the second set of training models and on the relationship between the subject model and the first set of training models, the predicted shape being characterized by the second parameter, wherein the first set of training models comprises 2D medical image data or 2D anatomical models, and the second set of training models comprises 3D anatomical models. at least one database configured to store a first set of training models, a second set of training models, and a subject model, wherein each model in the first set of training models corresponds to a model in the second set of training models, wherein the first set of training models and the subject model are characterized by a first parameter, and wherein the second set of training models is characterized by a second parameter; a training analysis module configured to determine a relationship between the first set of training models and the second set of training models; a subject analysis module configured to determine a relationship between the subject model and the first set of training models; and a prediction module configured to generate a predicted shape based on the relationship between the first set of training models and the second set of training models and on the relationship between the subject model and the first set of training models, the predicted shape being characterized by the second parameter, wherein the first set of training models comprises 2D medical image data or 2D anatomical models, and the second set of training models comprises 3D anatomical models.
A production plant for producing flat, stackable products of the food industry, particularly preferably flat bakery products, with a pre-treatment plant, a transport means/transport device downstream thereof and a post-treatment plant downstream of the transport means, wherein the transport means has a first transfer station at the inlet of the transport device , at least two conveyor belts downstream of the first transfer station and, downstream of the at least two conveyor belts , a second transfer station at the outlet of the transport device , and wherein the first transfer station has a first manipulator , by which the products can be stacked one on top of the other and/or unstacked, and wherein the second transfer station has a second manipulator , by which the products can be stacked one on top of the other and/or unstacked so that the products can be stored in the transport device by forming stacks of the products , characterized in that the transport device is provided as an in-line transport device of the production plant and in that a control means for controlling the manipulators and for individually actuating the individual conveyor belts is provided so that the conveying direction and/or conveying speed of the respective conveyor belt can be changed.
A method , implemented at a computer system that includes one or more processors , for performing breakpoint detection via a cache, the method comprising: detecting an occurrence of a memory access; and based at least on detecting the occurrence of the memory access, identifying whether any cache line of the cache matches an address associated with the memory access, and when a cache line does match the address associated with the memory access, determining that no breakpoint was encountered; or when no cache line matches the address associated with the memory access, identifying whether any cache line matches the address associated with the memory access when one or more flag bits, being part of the cache line, are ignored, and when a cache line does match the address associated with the memory access when the one or more flag bits are ignored, performing a check for whether a breakpoint was encountered; or when no cache line matches the address associated with the memory access when the one or more flag bits are ignored, processing a cache miss. detecting an occurrence of a memory access; and based at least on detecting the occurrence of the memory access, identifying whether any cache line of the cache matches an address associated with the memory access, and when a cache line does match the address associated with the memory access, determining that no breakpoint was encountered; or when no cache line matches the address associated with the memory access, identifying whether any cache line matches the address associated with the memory access when one or more flag bits, being part of the cache line, are ignored, and when a cache line does match the address associated with the memory access when the one or more flag bits are ignored, performing a check for whether a breakpoint was encountered; or when no cache line matches the address associated with the memory access when the one or more flag bits are ignored, processing a cache miss.
Device for storing and transporting cladding components of vehicles, in particular bumpers, comprising - a first receiving portion and a second receiving portion onto which the cladding component can be placed for storage and transport, - a support structure on which the first receiving portion and the second receiving portion are secured at a distance (D) from each other, wherein the support structure comprises a first support arm and a second support arm , wherein the first receiving portion is secured on the first support arm and the second receiving portion is secured on the second support arm , and - an adjustment device which interacts with the support structure and with which the distance (D) between the first receiving portion and the second receiving portion is modifiable, wherein the first support arm and/or the second support arm are movable with the adjustment device in order to modify the distance (D) between the first receiving portion and the second receiving portion , characterized in that the adjustment device comprises a lever , rotatable about a lever axis (H) and having a first lever portion , and a first coupling bar , wherein the first coupling bar is connected to the first support arm and is connected in the first lever portion to the lever . - a first receiving portion and a second receiving portion onto which the cladding component can be placed for storage and transport, - a support structure on which the first receiving portion and the second receiving portion are secured at a distance (D) from each other, wherein the support structure comprises a first support arm and a second support arm , wherein the first receiving portion is secured on the first support arm and the second receiving portion is secured on the second support arm , and - an adjustment device which interacts with the support structure and with which the distance (D) between the first receiving portion and the second receiving portion is modifiable, wherein the first support arm and/or the second support arm are movable with the adjustment device in order to modify the distance (D) between the first receiving portion and the second receiving portion ,
A method of manufacture of an electrochemical sensor biocomposite precursor comprising the steps of: preparing an adherent electrically conductive biocomposite comprising a mixture of a colloidal suspension in an aqueous liquid phase; the mixture including: polycationic conductive polymer particles; an anionic polyelectrolyte; or pre-existing composites of polycationic conducting polymers and anionic polyelectrolytes a biological affinity agent; and an optional buffer; applying the mixture to a region of an electroconductive surface; and removing water to allow adhesion of the biocomposite to the region of the surface. preparing an adherent electrically conductive biocomposite comprising a mixture of a colloidal suspension in an aqueous liquid phase; the mixture including: polycationic conductive polymer particles; an anionic polyelectrolyte; or pre-existing composites of polycationic conducting polymers and anionic polyelectrolytes a biological affinity agent; and an optional buffer; applying the mixture to a region of an electroconductive surface; and removing water to allow adhesion of the biocomposite to the region of the surface. polycationic conductive polymer particles; an anionic polyelectrolyte; or pre-existing composites of polycationic conducting polymers and anionic polyelectrolytes a biological affinity agent; and an optional buffer; applying the mixture to a region of an electroconductive surface; and removing water to allow adhesion of the biocomposite to the region of the surface.
A method of treating a siliceous or metal (M) oxide-containing subterranean formation penetrated by a well comprising: pumping into the formation a surface modifying treatment agent having a metallic anchor and a hydrophobic tail; and binding the metal of the metallic anchor of the surface modifying treatment agent to the siliceous formation or the metal, M, of the metal (M) oxide-containing subterranean formation. pumping into the formation a surface modifying treatment agent having a metallic anchor and a hydrophobic tail; and binding the metal of the metallic anchor of the surface modifying treatment agent to the siliceous formation or the metal, M, of the metal (M) oxide-containing subterranean formation.
A camera structure, comprising: a universal shaft , an outer gimbal support , an inner gimbal support accommodated in the outer gimbal support , a gimbal carrier , a first driving mechanism , a second driving mechanism , and a camera module ; wherein the camera module is movably connected to the outer gimbal support , and the camera module is fixedly connected to the gimbal carrier ; two supporting portions of the universal shaft that are axially distributed along a first axis are hinged to the outer gimbal support , and two supporting portions of the universal shaft that are axially distributed along a second axis are hinged to the inner gimbal support , wherein the first axis intersects with the second axis; the first driving mechanism is connected to the outer gimbal support and the inner gimbal support , to drive the inner gimbal support to rotate relative to the outer gimbal support along the first axis and/or the second axis; the gimbal carrier is slidably connected to a bottom portion of the inner gimbal support ; and characterised in that the second driving mechanism is connected to the inner gimbal support and the gimbal carrier , to drive the gimbal carrier to rotate relative to the inner gimbal support along a third axis, wherein the third axis is perpendicular to the first axis and the second axis. the camera module is movably connected to the outer gimbal support , and the camera module is fixedly connected to the gimbal carrier ; two supporting portions of the universal shaft that are axially distributed along a first axis are hinged to the outer gimbal support , and two supporting portions of the universal shaft that are axially distributed along a second axis are hinged to the inner gimbal support , wherein the first axis intersects with the second axis; the first driving mechanism is connected to the outer gimbal support and the inner gimbal support , to drive the inner gimbal support to rotate relative to the outer gimbal support along the first axis and/or the second axis; the gimbal carrier is slidably connected to a bottom portion of the inner gimbal support ; and characterised in that the second driving mechanism is connected to the inner gimbal support and the gimbal carrier , to drive the gimbal carrier to rotate relative to the inner gimbal support along a third axis, wherein the third axis is perpendicular to the first axis and the second axis.
A vehicular roof having a frame which at least partially encloses a roof opening, which is either closed or at least partially released by means of a lid element, and/or serves for storing and fixating a rigid roof panel forming a hard-top section, the frame having a longitudinal beam on either of its two sides relative to a vertical longitudinal center plane of the roof and at least one transverse beam which connects the two longitudinal beams to each other, characterized in that the longitudinal beams and the at least one transverse beam are each made of a sheet metal and are connected to each other via joint lines made of polyurethane foam, the joint lines being formed by polyurethane foaming, joints being formed between the longitudinal beams and the transverse beam , the joints being straight or curved and being enclosed by the polyurethane foam forming the corresponding joint line, or in that the transverse beam and the two longitudinal beams overlap in the area of the joint lines formed by polyurethane foam.
A polyfluoroalkyl phosphoric acid ester represented by the general formula: [C n F 2n+1 (CH 2 CF 2 ) a (CF 2 CF 2 ) b (CH 2 CH 2 ) c O] m P(O)(OH) 3-m [I] wherein n is an integer of 1 to 6, a is an integer of 1 to 4, b is an integer of 1 to 3, c is an integer of 1 to 3, and m is an integer of 1 to 3, or a salt thereof.