mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for safeguarding an electrical line (105, 605) in an on-board electrical power supply system of a vehicle, comprising: a controllable switching element (110, 610) comprising a power semiconductor and designed to assume at least two states, a first state with a first resistance and a second state with a second resistance lower than the first resistance; a current measuring device (120, 620) for measuring a current via the line; characterized in that it furthermore comprises: an averaging device (125, 625) for determining on the basis of the measured current at least one first current pulse, averaged over a first time length, and a second current pulse, averaged over a second time length longer than the first time length, such that different pulse lengths are acquired by means of the different time lengths; and a controller (130, 630) for controlling the switching element, such that the switching element switches into the first state if the first or the second averaged current pulse exceeds a first or second threshold value, respectively. a controllable switching element (110, 610) comprising a power semiconductor and designed to assume at least two states, a first state with a first resistance and a second state with a second resistance lower than the first resistance; a current measuring device (120, 620) for measuring a current via the line; characterized in that it furthermore comprises: an averaging device (125, 625) for determining on the basis of the measured current at least one first current pulse, averaged over a first time length, and a second current pulse, averaged over a second time length longer than the first time length, such that different pulse lengths are acquired by means of the different time lengths; and a controller (130, 630) for controlling the switching element, such that the switching element switches into the first state if the first or the second averaged current pulse exceeds a first or second threshold value, respectively. an averaging device (125, 625) for determining on the basis of the measured current at least one first current pulse, averaged over a first time length, and a second current pulse, averaged over a second time length longer than the first time length, such that different pulse lengths are acquired by means of the different time lengths; and a controller (130, 630) for controlling the switching element, such that the switching element switches into the first state if the first or the second averaged current pulse exceeds a first or second threshold value, respectively.
A fibrous substrate comprising a consolidated product of a fiber composition comprising, based on the total weight of fibers in the fiber composition: 35 to 70 wt.% of polyetherimide fibers having a polydispersity index of 2.2 to 2.5; at least 5 wt.% of aromatic polyamide fibrids; 20 to 30 wt.% of liquid crystal polymer fibers, each based on the total weight of the fibers in the fiber composition; wherein the consolidated product has a thickness of more than 0 to less than 800 μm 35 to 70 wt.% of polyetherimide fibers having a polydispersity index of 2.2 to 2.5; at least 5 wt.% of aromatic polyamide fibrids; 20 to 30 wt.% of liquid crystal polymer fibers, each based on the total weight of the fibers in the fiber composition; wherein the consolidated product has a thickness of more than 0 to less than 800 μm
An antibody that binds human N3pGlu Aβ, comprising a light chain variable region (LCVR) having the amino acid sequence of SEQ ID NO:9, and a heavy chain variable region (HCVR) having the amino acid sequence of SEQ ID NO:8.
A shear-thinning gel composition for producing a dry, water-stable and electronically conductive ink, comprising: (i) dispersed electrically conductive particles comprising (i.1) graphite flakes and (i.2) at least one further type of electronically conductive particles selected from the group consisting of carbon black and conductive pyrolyzed plant carbon components, optionally pyrolyzed cellulose or lignin, in a ratio (i.1) to (i.2) of about 8 to 1 to about 1 to 4, optionally about 6 to 1 to about 1 to 2, optionally about 4 to 1 parts by weight graphite flakes (i.1) to the further carbon component(s) (i.2); (ii) a dissolved binder based on or consisting of shellac dissolved in at least one solvent having a vapor pressure between 1 Pa and 6 kPa, optionally between 200 Pa and 3 kPa, optionally about 200 Pa; wherein - the electrically conductive particles of (i) and the dissolved binder of (ii) are present in a ratio (i) to (ii) of about 0.1 to 2, optionally about 0.25 to 1.2, optionally about 0.5 by weight particles (i) to dissolved binder (ii); - the solid content of the composition is optionally about 10 to 80, optionally about 30 to 70, optionally about 58.5 parts by weight; and - the electrically conductive particles are about 5 to 60, optionally about 10 to 40, optionally about 33 parts by weight of the composition. (i) dispersed electrically conductive particles comprising (i.1) graphite flakes and (i.2) at least one further type of electronically conductive particles selected from the group consisting of carbon black and conductive pyrolyzed plant carbon components, optionally pyrolyzed cellulose or lignin, in a ratio (i.1) to (i.2) of about 8 to 1 to about 1 to 4, optionally about 6 to 1 to about 1 to 2, optionally about 4 to 1 parts by weight graphite flakes (i.1) to the further carbon component(s) (i.2); (ii) a dissolved binder based on or consisting of shellac dissolved in at least one solvent having a vapor pressure between 1 Pa and 6 kPa, optionally between 200 Pa and 3 kPa, optionally about 200 Pa; - the electrically conductive particles of (i) and the dissolved binder of (ii) are present in a ratio (i) to (ii) of about 0.1 to 2, optionally about 0.25 to 1.2, optionally about 0.5 by weight particles (i) to dissolved binder (ii); - the solid content of the composition is optionally about 10 to 80, optionally about 30 to 70, optionally about 58.5 parts by weight; and - the electrically conductive particles are about 5 to 60, optionally about 10 to 40, optionally about 33 parts by weight of the composition.
A guided drilling method that comprises: drilling a first borehole and casing it with a casing tubular having at least one transmission crossover arrangement, each transmission crossover arrangement having an adapter in communication with a coil antenna that encircles the casing tubular; deploying, inside the casing tubular, a conductive path that extends from a surface interface to the at least one transmission crossover arrangement; drilling a second borehole with a drill string having a bottomhole assembly; obtaining distance or direction information from electromagnetic field measurements acquired using the bottomhole assembly and the at least one transmission crossover arrangement; and steering the drill string based at least in part on the obtained distance or direction information, the method comprising acquiring the EM field measurements by generating an EM field by the bottomhole assembly and by conveying responses from the at least one transmission crossover arrangement to the surface interface via the conductive path. drilling a first borehole and casing it with a casing tubular having at least one transmission crossover arrangement, each transmission crossover arrangement having an adapter in communication with a coil antenna that encircles the casing tubular; deploying, inside the casing tubular, a conductive path that extends from a surface interface to the at least one transmission crossover arrangement; drilling a second borehole with a drill string having a bottomhole assembly; obtaining distance or direction information from electromagnetic field measurements acquired using the bottomhole assembly and the at least one transmission crossover arrangement; and steering the drill string based at least in part on the obtained distance or direction information, the method comprising acquiring the EM field measurements by generating an EM field by the bottomhole assembly and by conveying responses from the at least one transmission crossover arrangement to the surface interface via the conductive path.
An attachment for a wheelchair having a seat frame, including a foot support, the attachment comprising: a frame, which supports an electric motor, a battery and a steering mechanism, and a wheel that is powered by the electric motor and is steerable by the steering mechanism, wherein the attachment comprises a hook, wherein the attachment further comprises an engagement means for locking the attachment to the wheelchair, the engagement means engageable with the seat frame of the wheelchair at a point that is vertically spaced from the foot support in use, characterised in that the hook is configured for directly engaging and supporting the foot support of the wheelchair when the attachment and the wheelchair are attached to one another. a frame, which supports an electric motor, a battery and a steering mechanism, and a wheel that is powered by the electric motor and is steerable by the steering mechanism, wherein the attachment comprises a hook, wherein the attachment further comprises an engagement means for locking the attachment to the wheelchair, the engagement means engageable with the seat frame of the wheelchair at a point that is vertically spaced from the foot support in use, characterised in that the hook is configured for directly engaging and supporting the foot support of the wheelchair when the attachment and the wheelchair are attached to one another.
An OLED device, comprising: a substrate; a transparent conductive anode layer, on top of the substrate; a stack of layers on top of the anode layer, defining an OLED component having an emission area, wherein the stack of layers comprise an electroluminescent layer, and a top cathode layer, and the OLED component having electrical characteristics, characterized in that the stack of layers further comprises an encapsulation layer deposited on the cathode layer to protect the OLED component; the OLED device further comprising a capacitive encoding structure (36, 22, 40, 74) comprising a capacitor electrode layer formed on top of the encapsulation layer, the encapsulating layer forming a capacitor dielectric layer between the underlying cathode layer and the overlying capacitor electrode layer, the area of the capacitor electrode layer defining a capacitance, wherein the capacitance encodes information concerning the electrical characteristics of the OLED component; and wherein the area of the capacitor electrode layer is a predetermined ratio of the emission area of the OLED component. a substrate; a transparent conductive anode layer, on top of the substrate; a stack of layers on top of the anode layer, defining an OLED component having an emission area, wherein the stack of layers comprise an electroluminescent layer, and a top cathode layer, and the OLED component having electrical characteristics, characterized in that the stack of layers further comprises an encapsulation layer deposited on the cathode layer to protect the OLED component; the OLED device further comprising a capacitive encoding structure (36, 22, 40, 74) comprising a capacitor electrode layer formed on top of the encapsulation layer, the encapsulating layer forming a capacitor dielectric layer between the underlying cathode layer and the overlying capacitor electrode layer, the area of the capacitor electrode layer defining a capacitance, wherein the capacitance encodes information concerning the electrical characteristics of the OLED component; and wherein the area of the capacitor electrode layer is a predetermined ratio of the emission area of the OLED component.
Device for storage and provision of electrical components for electronic equipment mounted on at least one belt spool, wherein the belt spool can be provided in a transfer station of the device and can be stored in storage compartments of a racking equipment, wherein the belt spool can be inserted into the storage compartments in an insertion direction (y) by at least one slider, wherein the slider can be moved by means of a positioning device in a transverse direction perpendicular to the insertion direction (y) and wherein the device has scanning means to determine the dimensions of the belt spool, characterised in that the scanning means is configured as static optical scanning means for determining dimensions and the position of the belt spool held on the slider and that the slider with the belt spool can be deflected in the transverse direction (x) in the detection area of the optical scanning means (x) and that a control system of the slider outputs correction values during mounting and/or insertion of the belt spool.
Windscreen wiper device for a motor vehicle, in particular a rear window wiper device, with a wiper motor which is fastenable to a vehicle body (2, 12) of the motor vehicle via a fastening arrangement (1, 11) by wherein the fastening arrangement (1, 11) being insertable by means of at least one mounting element (3, 13) into at least one recess (4, 14), which is formed in the vehicle body (2, 12), and being displaceable in said recess, wherein the mounting element (3, 13) has at least one latching element (5, 15) which, in an end position of the mounting element (3, 13), forms a form-fitting connection to the vehicle body (2, 12) in order to connect the wiper motor releasably to the vehicle body (2, 12), characterized in that a web is provided on the mounting element, which web, in the end position of the mounting element in the recess of the vehicle body, at least partially engages by means of a projection formed on an end region of the web in a latching opening and/or latching depression introduced into the vehicle body at a distance from the recess, wherein the web engages behind a portion of the vehicle body formed between the recess and the latching opening.
A polymer composition, comprising: a thermoplastic matrix polymer X; a block copolymer Y dispersed in the matrix polymer X; and an additive Z containing an organic compound which is liquid at a melting point of the matrix polymer X or a solution of the organic compound, wherein the matrix polymer X, the block copolymer Y and the organic compound are phase-separated, the block copolymer Y includes a block Y1 which is composed of polymerized monomers having a ring structure, and a block Y2 which is composed of monomers different from the monomers of the block Y1, and the organic compound is a compound selected from a compound having a ring structure formed in a molecule due to hydrogen bond, the ring structure being a ring of five to twelve members, and a compound having a ring structure formed between two molecules due to hydrogen bond, the ring structure being a ring of five to twelve members, wherein the organic compound passes through the interface between the matrix polymer X and the block copolymer Y and through the molecular layers of the block copolymer Y and gathers outside the system formed by the matrix polymer X and the block copolymer Y. a thermoplastic matrix polymer X; a block copolymer Y dispersed in the matrix polymer X; and an additive Z containing an organic compound which is liquid at a melting point of the matrix polymer X or a solution of the organic compound, wherein the matrix polymer X, the block copolymer Y and the organic compound are phase-separated, the block copolymer Y includes a block Y1 which is composed of polymerized monomers having a ring structure, and a block Y2 which is composed of monomers different from the monomers of the block Y1, and the organic compound is a compound selected from a compound having a ring structure formed in a molecule due to hydrogen bond, the ring structure being a ring of five to twelve members, and a compound having a ring structure formed between two molecules due to hydrogen bond, the ring structure being a ring of five to twelve members, wherein the organic compound passes through the interface between the matrix polymer X and the block copolymer Y and through the molecular layers of the block copolymer Y and gathers outside the system formed by the matrix polymer X and the block copolymer Y.
An endoscopic puncture device comprising: a sheath suitable to be inserted into an endoscope; a hollow puncture needle disposed in the sheath and provided with a blade surface at a tip thereof; and a hollow resin molded body provided in the puncture needle on a distal side of the puncture needle and at least partially disposed inside a tip opening portion of the puncture needle, wherein the resin molded body has a through hole through the resin molded body to insert a guide wire and an opening portion formed at the distal end of the through hole, and characterized in that an edge portion of the opening portion is disposed along an edge portion of the tip opening portion and continuously extends along an entire circumference of the edge portion of the tip opening portion. a sheath suitable to be inserted into an endoscope; a hollow puncture needle disposed in the sheath and provided with a blade surface at a tip thereof; and a hollow resin molded body provided in the puncture needle on a distal side of the puncture needle and at least partially disposed inside a tip opening portion of the puncture needle, wherein the resin molded body has a through hole through the resin molded body to insert a guide wire and an opening portion formed at the distal end of the through hole, and characterized in that an edge portion of the opening portion is disposed along an edge portion of the tip opening portion and continuously extends along an entire circumference of the edge portion of the tip opening portion.
An apparatus for inducing motion of a fluid relative to the apparatus, the apparatus comprising: an impeller having a deployed configuration and a stored configuration, the impeller including a hub (10, 20, 30, 60, 80, 100); and a plurality of blades (12; 22; 34; 62, 64, 66; 82, 84, 86, 88; 102, 104, 106, 108, 110, 112) supported by the hub and arranged in at least one blade row, each blade having a proximal end attached to the hub and a distal end, the blades in the deployed configuration of the impeller extending away from the hub, and the blades in the stored configuration of the impeller all being radially compressed so as to move the distal ends of the blades towards the hub, characterized in that the impeller may self-deploy into the deployed configuration from the stored configuration driven by stored strain energy of the impeller in the stored configuration. an impeller having a deployed configuration and a stored configuration, the impeller including a hub (10, 20, 30, 60, 80, 100); and a plurality of blades (12; 22; 34; 62, 64, 66; 82, 84, 86, 88; 102, 104, 106, 108, 110, 112) supported by the hub and arranged in at least one blade row, each blade having a proximal end attached to the hub and a distal end, the blades in the deployed configuration of the impeller extending away from the hub, and the blades in the stored configuration of the impeller all being radially compressed so as to move the distal ends of the blades towards the hub, characterized in that the impeller may self-deploy into the deployed configuration from the stored configuration driven by stored strain energy of the impeller in the stored configuration.
A method for volumetric reduction of a waste organic liquid in a volume that is substantially a liquid phase, the method comprising: admixing the waste organic liquid with a porous matrix material to produce a mixture; heating a portion of the mixture; forcing oxidant through the mixture; and terminating the source of heat applied to the mixture; so as to initiate self-sustaining smoldering combustion of the mixture to cause volumetric reduction of the waste organic liquid, characterized in that admixing the porous matrix material comprises: batch-feeding of the waste organic liquid and the porous material into a vessel; or forming a confinement bed comprising one of the porous matrix material or the waste organic liquid and continuously pouring into the confinement bed the other of the porous matrix material or the waste organic. admixing the waste organic liquid with a porous matrix material to produce a mixture; heating a portion of the mixture; forcing oxidant through the mixture; and terminating the source of heat applied to the mixture; so as to initiate self-sustaining smoldering combustion of the mixture to cause volumetric reduction of the waste organic liquid, characterized in that admixing the porous matrix material comprises: batch-feeding of the waste organic liquid and the porous material into a vessel; or forming a confinement bed comprising one of the porous matrix material or the waste organic liquid and continuously pouring into the confinement bed the other of the porous matrix material or the waste organic.
A computer-implemented method for providing device management, the method comprising: intercepting a request made by an application (235, 236, 237, 310, 320) on a user device to perform an action, characterized in that the intercepting is performed by an agent application executed on the user device; and in that the method further comprises: determining whether the action is associated with a metered resource, wherein the metered resource comprises at least one of a data communication resource or a power resource, and wherein determining whether the action is associated with a metered resource comprises determining whether authorizing the action to be performed would consume at least a portion of the metered resource; in response to determining that the action would consume the metered resource, determining whether the request complies with at least one management policy; and in response to determining that the request complies with the at least one management policy, authorizing the action to be performed. intercepting a request made by an application (235, 236, 237, 310, 320) on a user device to perform an action, characterized in that the intercepting is performed by an agent application executed on the user device; and in that the method further comprises: determining whether the action is associated with a metered resource, wherein the metered resource comprises at least one of a data communication resource or a power resource, and wherein determining whether the action is associated with a metered resource comprises determining whether authorizing the action to be performed would consume at least a portion of the metered resource; in response to determining that the action would consume the metered resource, determining whether the request complies with at least one management policy; and in response to determining that the request complies with the at least one management policy, authorizing the action to be performed. determining whether the action is associated with a metered resource, wherein the metered resource comprises at least one of a data communication resource or a power resource, and wherein determining whether the action is associated with a metered resource comprises determining whether authorizing the action to be performed would consume at least a portion of the metered resource; in response to determining that the action would consume the metered resource, determining whether the request complies with at least one management policy; and in response to determining that the request complies with the at least one management policy, authorizing the action to be performed.