mhurhangee/patent-ind-claim-en huggingface dataset:
Cover device for covering at least in part a depression , a planar portion, a curved portion and/or a stepped portion of at least one body part and/or vehicle element of a vehicle , the cover device being couplable to a lighting device and the cover device being formed in such a way that at least a portion of the cover device can be illuminated by the lighting device, the cover device having a strip element and, on at least one longitudinal face, at least one lip element , the at least one lip element being integrally connected to the strip element , the cover device having at least one light guide , characterised in that the at least one light guide is integrated into the cover device and couplable to at least one light source of the lighting device , the at least one light guide being extruded, injected into the cover device and/or arranged in at least one tubular cavity of the cover device , the strip element and/or at least one lip element for illumination by the lighting device being manufactured from an at least partially transparent, translucent or opaque material, the strip element and/or at least one lip element of an opaque material having at least one opening for the lighting device to shine through.
An autobelay or self-retracting lifeline device, the device incorporating an eddy current brake configuration comprising: (a) a magnetic field; and (b) an electrical conductor ; wherein the eddy current brake is configured to have a first rotating shaft and the electrical conductor is linked to, and rotates with, the shaft , wherein the magnetic field within which the electrical conductor moves is formed by one or more magnets situated on a housing or external element , said housing or external element defining a cavity inside which the shaft and electrical conductor move, wherein the eddy current brake is configured to have at least two rotational degrees of freedom, wherein a first primary axis of rotation (X) is angularly translated relative to at least one secondary or control axis of rotation (Y), the second axis of rotation (Y) being at an angle orthogonal to the first axis of rotation (X), wherein the braking action is applied to the primary axis (X), and wherein movement of the electrical conductor rotationally into or out of the magnetic field about the at least one secondary axis (Y) is used to modulate the braking action, wherein the electrical conductor is located at least partially within the magnetic field when braking occurs, and wherein interaction and relative movement between the electrical conductor and the magnetic field induces eddy current braking forces acting to resist movement of the electrical conductor and in turn acts to resist movement of the shaft . (a) a magnetic field; and (b) an electrical conductor ; wherein the eddy current brake is configured to have a first rotating shaft and the electrical conductor is linked to, and rotates with, the shaft , wherein the magnetic field within which the electrical conductor moves is formed by one or more magnets situated on a housing or external element , said housing or external element defining a cavity inside which the shaft and electrical conductor move, wherein the eddy current brake is configured to have at least two rotational degrees of freedom, wherein a first primary axis of rotation (X) is angularly translated relative to at least one secondary or control axis of rotation (Y), the second axis of rotation (Y) being at an angle orthogonal to the first axis of rotation (X), wherein the braking action is applied to the primary axis (X), and wherein movement of the electrical conductor rotationally into or out of the magnetic field about the at least one secondary axis (Y) is used to modulate the braking action, wherein the electrical conductor is located at least partially within the magnetic field when braking occurs, and wherein interaction and relative movement between the electrical conductor and the magnetic field induces eddy current braking forces acting to resist movement of the electrical conductor and in turn acts to resist movement of the shaft .
A process for electrically contacting a coated lead comprising the following steps: a. Providing a coated lead comprising an electrically conductive core and an electrically insulating coating; b. Providing a via hole in the electrically insulating coating in order to expose a section of the electrically conductive core; c. Introducing a first electrically conductive material into the via hole such that it contacts at least a part of the exposed section of the electrically conductive core; d. Applying a further electrically conductive material to the coated lead such that it contacts at least a part of the first conductive material. a. Providing a coated lead comprising an electrically conductive core and an electrically insulating coating; b. Providing a via hole in the electrically insulating coating in order to expose a section of the electrically conductive core; c. Introducing a first electrically conductive material into the via hole such that it contacts at least a part of the exposed section of the electrically conductive core; d. Applying a further electrically conductive material to the coated lead such that it contacts at least a part of the first conductive material.
Blend (B) comprising : ▪ at least one polyimide (P1), of which more than 50 wt. % of the recurring units (R1) comprise at least one aromatic ring, at least one imide group and 0 to 1 ether group (-O-) ; ▪ at least one aromatic sulfone polymer (P2) ; ▪ at least one polyimide (P3), of which more than 50 wt. % of the recurring units (R3) comprise at least one aromatic ring, at least one imide group and at least two ether groups (-O-). ▪ at least one polyimide (P1), of which more than 50 wt. % of the recurring units (R1) comprise at least one aromatic ring, at least one imide group and 0 to 1 ether group (-O-) ; ▪ at least one aromatic sulfone polymer (P2) ; ▪ at least one polyimide (P3), of which more than 50 wt. % of the recurring units (R3) comprise at least one aromatic ring, at least one imide group and at least two ether groups (-O-).
Vented protective cap for a liquid dispenser for discharging a pharmaceutical liquid, having the following features: a. the protective cap has a cap wall which surrounds a cap interior , and b. the cap wall has a venting aperture which is spanned by a flexible sheet-like structure , and c. a boundary region of the sheet-like structure is fixed in an encircling manner to a boundary of the venting aperture , and d. the protective cap is able to be mounted onto a main unit of the liquid dispenser and protects a discharge opening of the main unit in the mounted state, characterized by the following feature: e. the sheet-like structure consists of at least two air-permeable layers which bear directly on each other but, at least in a central region of the sheet-like structure , are not connected fixedly to each other, and f. the sheet-like structure spans the venting aperture and thus ensures that, with the protective cap mounted, an exchange of air between a cap interior and surroundings is possible only through the sheet-like structure . a. the protective cap has a cap wall which surrounds a cap interior , and b. the cap wall has a venting aperture which is spanned by a flexible sheet-like structure , and c. a boundary region of the sheet-like structure is fixed in an encircling manner to a boundary of the venting aperture , and d. the protective cap is able to be mounted onto a main unit of the liquid dispenser and protects a discharge opening of the main unit in the mounted state, characterized by the following feature: e. the sheet-like structure consists of at least two air-permeable layers which bear directly on each other but, at least in a central region of the sheet-like structure , are not connected fixedly to each other, and f. the sheet-like structure spans the venting aperture and thus ensures that, with the protective cap mounted, an exchange of air between a cap interior and surroundings is possible only through the sheet-like structure .
Arsenic trioxide (ATO) and D-vitamin C (D-VC) or pharmaceutically acceptable salts thereof for use in a method for treating cancer, the method comprising administering to a subject in need thereof a therapeutically effective dose of arsenic trioxide (ATO) and D-vitamin C (D-VC) or pharmaceutically acceptable salts thereof, wherein the cancer comprises a KRAS mutation.
A press brake, comprising: a press brake main body provided with an upper table configured to hold an upper tool and a lower table configured to hold a lower tool , the press brake main body being configured to carry out a bending process to a plate-shaped workpiece when the upper table moves up and down relative to the lower table ; an image capturing device configured to capture an image of a work region in which the upper table and the lower table carry out the bending process in the press brake main body , and output a captured image (ID); and a distance measuring device configured to detect a distance to an object present in the captured image (ID) and generate distance data (DD) in which the object and the distance are associated with each other characterized by an image processing device configured to generate, based on the distance data (DD), a gaze image (CD) obtained by cutting out, from the captured image (ID), a gaze object that is an object to be gazed at within the work region, and output the gaze image (CD) to a target device usable by a user. a press brake main body provided with an upper table configured to hold an upper tool and a lower table configured to hold a lower tool , the press brake main body being configured to carry out a bending process to a plate-shaped workpiece when the upper table moves up and down relative to the lower table ; an image capturing device configured to capture an image of a work region in which the upper table and the lower table carry out the bending process in the press brake main body , and output a captured image (ID); and a distance measuring device configured to detect a distance to an object present in the captured image (ID) and generate distance data (DD) in which the object and the distance are associated with each other characterized by an image processing device configured to generate, based on the distance data (DD), a gaze image (CD) obtained by cutting out, from the captured image (ID), a gaze object that is an object to be gazed at within the work region, and output the gaze image (CD) to a target device usable by a user.
A method to be performed by a first wireless neighbor communication station , the method comprising: processing a first service discovery message of a service discovery protocol from a second wireless neighbor communication station , the first service discovery message comprising an identifier 'ID' of a service on the second wireless neighbor communication station; checking whether or not a condition based on a received signal strength of the first service discovery message is met; and when the condition is met, storing the ID in a memory, and including the ID in a second service discovery message of the service discovery protocol to be transmitted by the first wireless neighbor communication station. processing a first service discovery message of a service discovery protocol from a second wireless neighbor communication station , the first service discovery message comprising an identifier 'ID' of a service on the second wireless neighbor communication station; checking whether or not a condition based on a received signal strength of the first service discovery message is met; and when the condition is met, storing the ID in a memory, and including the ID in a second service discovery message of the service discovery protocol to be transmitted by the first wireless neighbor communication station.
Assembly consisting of a first windscreen-wiper blade and a second windscreen-wiper blade for a glazing panel of a vehicle, the first windscreen-wiper blade comprising an upper end and a lower end located close to an articulation axis (A) of the blade and at least one means for spraying a washing liquid onto said glazing panel, said means comprising a plurality of sprinklers positioned on at least one side of said blade, along a part referred to as the effective part of the blade, characterized in that, on a same side of said first blade , the spacing between at least two consecutive sprinklers in a portion of the effective part of said first blade is smaller than the spacing between at least two consecutive sprinklers located in a portion positioned further up on the effective part of the first blade, the effective part of the first blade comprising a lower part and an upper part, the spacing between the sprinklers of the lower part being shorter than the spacing between the sprinklers of the upper part, and in that, on a same side of said second blade , the spacing between at least two consecutive sprinklers in a portion of the effective part of said second blade is larger than the spacing between at least two consecutive sprinklers located in a portion positioned further up on the effective part of said second blade.
Workpiece clamping device comprising a first base body and a second base body , wherein a contact surface (27 or 28) is arranged on each base body on the face of each base body facing the respective other base body (13 or 12), wherein a base body distance (x) is defined between the contact surfaces (27 or 28) in a clamping direction (R), a first clamping body that is movably supported on the base body in clamping direction (R), a second clamping body that is movably supported on the second base body in clamping direction (R), a threaded spindle extending in clamping direction (R) and having a first thread section that is in engagement with a counter-thread on the first clamping body and having a second thread section that is in engagement with a counter-thread on the second clamping body , wherein the threaded spindle comprises a centering body arranged between the first thread section and the second thread section and abutting against the contact surfaces (27 or 28) facing each other. a first base body and a second base body , wherein a contact surface (27 or 28) is arranged on each base body on the face of each base body facing the respective other base body (13 or 12), wherein a base body distance (x) is defined between the contact surfaces (27 or 28) in a clamping direction (R), a first clamping body that is movably supported on the base body in clamping direction (R), a second clamping body that is movably supported on the second base body in clamping direction (R), a threaded spindle extending in clamping direction (R) and having a first thread section that is in engagement with a counter-thread on the first clamping body and having a second thread section that is in engagement with a counter-thread on the second clamping body , wherein the threaded spindle comprises a centering body arranged between the first thread section and the second thread section and abutting against the contact surfaces (27 or 28) facing each other.
Method for joining sheet-metal parts to form a sheet-metal stack , in which sheet-metal parts are punched free from an electrical steel strip , the punched-free sheet-metal parts are stacked and joined at least in a materially bonded manner to form a plurality of sheet-metal stacks , wherein a separating means is provided at least between two stacked sheet-metal parts in order to facilitate the separation of the materially bonded sheet-metal parts into sheet-metal stacks , wherein with the punching stage for punching free the sheet metal part , the separating means is both punched free from an endless strip and also provided on the sheet metal part , wherein the separating means is punched free from the endless strip guided above the electrical steel strip , characterized in that , before the sheet-metal part is punched free, the separating means is punched free from the endless strip and held against a cutting edge of this punching stage .
A surgical stapler , comprising: a drive system; an electric motor mechanically coupled to the drive system; a battery electrically couplable to the electric motor ; and a control system electrically connected to the electric motor, characterized by the control system comprising: an H-bridge circuit comprising a high side and a low side, wherein the low side of the H-bridge circuit comprises a plurality of switching devices ; a first electrically resistive element electrically connected in parallel with one of the switching devices ; and a second electrically resistive element connected in parallel with another one of the switching devices , wherein the control system is configured to: control a first force applied to the drive system based on a first current measured downstream of the first electrically resistive element ; and control a second force applied to the drive system based on a second current measured downstream of the second electrically resistive element . a drive system; an electric motor mechanically coupled to the drive system; a battery electrically couplable to the electric motor ; and a control system electrically connected to the electric motor, characterized by the control system comprising: an H-bridge circuit comprising a high side and a low side, wherein the low side of the H-bridge circuit comprises a plurality of switching devices ; a first electrically resistive element electrically connected in parallel with one of the switching devices ; and a second electrically resistive element connected in parallel with another one of the switching devices , wherein the control system is configured to: control a first force applied to the drive system based on a first current measured downstream of the first electrically resistive element ; and control a second force applied to the drive system based on a second current measured downstream of the second electrically resistive element . an H-bridge circuit comprising a high side and a low side, wherein the low side of the H-bridge circuit comprises a plurality of switching devices ; a first electrically resistive element electrically connected in parallel with one of the switching devices ; and a second electrically resistive element connected in parallel with another one of the switching devices , wherein the control system is configured to: control a first force applied to the drive system based on a first current measured downstream of the first electrically resistive element ; and control a second force applied to the drive system based on a second current measured downstream of the second electrically resistive element . control a first force applied to the drive system based on a first current measured downstream of the first electrically resistive element ; and control a second force applied to the drive system based on a second current measured downstream of the second electrically resistive element .
A method for capturing the spatial molecular profiling of a biological mass formed from biological material, comprising the steps of: a) providing a transected biological mass, for example a tumour, the transection exposing at least a portion of the mass; b) providing a solid support of an area at least equalling the area of said portion of the mass, said solid support is formed from a fibrous material or a porous polymer material; c) transferring biological material from the portion of the mass to the support to provide on the support a two dimensional imprint of the biological material present at the portion of the mass; and d) performing more than one biological assay of the transferred biological material from different predetermined locations of the imprint in order to determine the spatial molecular profile of the portion of the mass; the method being characterised in that the material surface of the solid support is impregnated with chemicals, said chemicals including: a weak base; a chelating agent; an anionic surfactant; or a chaotropic agent such as guanidinium thiocyanate; and in that the solid support is allowed to dry following step c); and in that said one or more assay is performed on a portion of the solid support material that is excised from the remainder of the material. a) providing a transected biological mass, for example a tumour, the transection exposing at least a portion of the mass; b) providing a solid support of an area at least equalling the area of said portion of the mass, said solid support is formed from a fibrous material or a porous polymer material; c) transferring biological material from the portion of the mass to the support to provide on the support a two dimensional imprint of the biological material present at the portion of the mass; and d) performing more than one biological assay of the transferred biological material from different predetermined locations of the imprint in order to determine the spatial molecular profile of the portion of the mass; the method being characterised in that the material surface of the solid support is impregnated with chemicals, said chemicals including: a weak base; a chelating agent; an anionic surfactant; or a chaotropic agent such as guanidinium thiocyanate; and in that the solid support is allowed to dry following step c); and in that said one or more assay is performed on a portion of the solid support material that is excised from the remainder of the material.
A network slice determination method, comprising: acquiring (S402) a first device trigger request, the first device trigger request comprising a service quality parameter that is carried in a slice establishment request initiated by a service server; determining (S403) a slice configuration identifier based on the service quality parameter, the slice configuration identifier being used for identifying a configuration parameter of a network slice supporting the service quality parameter; initiating (S404) a data path establishment request for the service server based on the slice configuration identifier; acquiring (S405) an establishment complete message returned for the data path establishment request, the establishment complete message being used for identifying that an established data path has been imported into an established target network slice, and the target network slice being established based on the slice configuration identifier; and returning (S406), for the first device trigger request, a first device trigger response comprising an identifier of the data path, the first device trigger response being used for identifying that the target network slice is established. acquiring (S402) a first device trigger request, the first device trigger request comprising a service quality parameter that is carried in a slice establishment request initiated by a service server; determining (S403) a slice configuration identifier based on the service quality parameter, the slice configuration identifier being used for identifying a configuration parameter of a network slice supporting the service quality parameter; initiating (S404) a data path establishment request for the service server based on the slice configuration identifier; acquiring (S405) an establishment complete message returned for the data path establishment request, the establishment complete message being used for identifying that an established data path has been imported into an established target network slice, and the target network slice being established based on the slice configuration identifier; and returning (S406), for the first device trigger request, a first device trigger response comprising an identifier of the data path, the first device trigger response being used for identifying that the target network slice is established.