mhurhangee/ep-ind-claims huggingface dataset:
Three dimensional memory comprising: - a plurality of first electrodes, referred to as flat electrodes, each flat electrode of the plurality of flat electrodes defining a plane; - a second electrode, referred to as vertical electrode, extending essentially along an axis perpendicular to the plane defined by each flat electrode; - a plurality of third electrodes, referred to as floating electrodes, each floating electrode of the plurality of floating electrodes being situated between a flat electrode of the plurality of flat electrodes and the vertical electrode; - a plurality of first layers of an insulating material, each flat electrode of the plurality of flat electrodes being separated from the preceding and/or following flat electrode by a first layer of an insulating material of the plurality of first layers of an insulating material; - a plurality of first layers of a first active material, each layer of an active material separating a flat electrode of the plurality of flat electrodes from the floating electrode that is associated therewith; - a second layer of a second active material separating the vertical electrode from the floating electrodes of the plurality of floating electrodes; the first active material being capable of forming a selector or a memory point and the second active material being capable of forming a memory point or a selector, the memory being characterised in that each flat electrode of the plurality of flat electrodes comprises: - a first sub-layer made of a first conductive material; - a second sub-layer made of a second conductive material; and - a third sub-layer made of a third conductive material. - a plurality of first electrodes, referred to as flat electrodes, each flat electrode of the plurality of flat electrodes defining a plane; - a second electrode, referred to as vertical electrode, extending essentially along an axis perpendicular to the plane defined by each flat electrode; - a plurality of third electrodes, referred to as floating electrodes, each floating electrode of the plurality of floating electrodes being situated between a flat electrode of the plurality of flat electrodes and the vertical electrode; - a plurality of first layers of an insulating material, each flat electrode of the plurality of flat electrodes being separated from the preceding and/or following flat electrode by a first layer of an insulating material of the plurality of first layers of an insulating material; - a plurality of first layers of a first active material, each layer of an active material separating a flat electrode of the plurality of flat electrodes from the floating electrode that is associated therewith; - a second layer of a second active material separating the vertical electrode from the floating electrodes of the plurality of floating electrodes; - a first sub-layer made of a first conductive material; - a second sub-layer made of a second conductive material; and - a third sub-layer made of a third conductive material.
A system comprising: a power source; a plurality of load power inputs (32a-32c); a plurality of primary control circuits (20a-20n) connected to control load power from the power source to respective ones of the plurality of load power inputs (32a-32c); a load configured to receive power from the plurality of load power inputs (32a-32c); at least one secondary control circuit (22a-22n) connected to the power source; a switch circuit; wherein the switch circuit is connected between the at least one secondary control circuit (22a-22n) and the plurality of load power inputs (32a-32c); and wherein the system further comprises a control channel configured to detect a fault in one of the plurality of primary control circuits (20a-20n) and to control the switch circuit to connect the at least one secondary control circuit (22a-22n) to a selected one of the plurality of load power inputs (32a-32c) upon detection of the fault, wherein the control channel comprises a primary channel circuit configured to monitor the plurality of primary control circuits (20a-20n) for faults, a secondary channel circuit configured to provide redundancy for the primary channel circuit, and hardware and/or software interlocks to ensure that only the primary channel circuit or the secondary channel circuit is active at a given time. a power source; a plurality of load power inputs (32a-32c); a plurality of primary control circuits (20a-20n) connected to control load power from the power source to respective ones of the plurality of load power inputs (32a-32c); a load configured to receive power from the plurality of load power inputs (32a-32c); at least one secondary control circuit (22a-22n) connected to the power source; a switch circuit; wherein the switch circuit is connected between the at least one secondary control circuit (22a-22n) and the plurality of load power inputs (32a-32c); and wherein the system further comprises a control channel configured to detect a fault in one of the plurality of primary control circuits (20a-20n) and to control the switch circuit to connect the at least one secondary control circuit (22a-22n) to a selected one of the plurality of load power inputs (32a-32c) upon detection of the fault, wherein the control channel comprises a primary channel circuit configured to monitor the plurality of primary control circuits (20a-20n) for faults, a secondary channel circuit configured to provide redundancy for the primary channel circuit, and hardware and/or software interlocks to ensure that only the primary channel circuit or the secondary channel circuit is active at a given time.
A break barrel rifle comprising a butt, on which a cylinder is attached, a barrel, where a pellet chamber is located, a pellet magazine, together with articulation means and a pellet loading system, wherein said pellet loading system comprises: - an elastic rod, with a central section and two ends (7, 8), said ends (7, 8) being coupled to said cylinder, - a body for housing said magazine and pivotally attached to said barrel, where the central section of the elastic rod is positioned to enable forward and backward movement of the elastic rod inside said body and - pushing means coupled to the elastic rod and positioned between the pellet to be loaded and the elastic rod, the pushing means being configured for moving to one of the pellets in the magazine at the moment when said barrel is broken, the pushing means thus leaving a pellet inside the pellet chamber, the pushing means being further configured to return to its initial position when the barrel is closed, thus leaving the rifle loaded. - an elastic rod, with a central section and two ends (7, 8), said ends (7, 8) being coupled to said cylinder, - a body for housing said magazine and pivotally attached to said barrel, where the central section of the elastic rod is positioned to enable forward and backward movement of the elastic rod inside said body and - pushing means coupled to the elastic rod and positioned between the pellet to be loaded and the elastic rod, the pushing means being configured for moving to one of the pellets in the magazine at the moment when said barrel is broken, the pushing means thus leaving a pellet inside the pellet chamber, the pushing means being further configured to return to its initial position when the barrel is closed, thus leaving the rifle loaded.
An ear tip for an earpiece, comprising: a body having first and second ends, an inner wall extending between the first and second ends to define a hollow passage to conduct acoustic energy, and a deformable outer wall connected to the inner wall of the body at the first end and tapering away from the inner wall toward the second end; first and second electrically conductive elements arranged on an outer surface of the deformable outer wall, wherein the inner wall further comprises first (130;140) and second (132;142) conductive leads configured to electrically connect with the first and second electrically conductive elements when the outer wall is deformed toward the inner wall, characterised in that the first and second electrically conductive elements are made in silver/ silver-chloride and arranged in holes punched in the deformable outer wall, said first and second electrically conductive elements being configured as physiological electrodes. a body having first and second ends, an inner wall extending between the first and second ends to define a hollow passage to conduct acoustic energy, and a deformable outer wall connected to the inner wall of the body at the first end and tapering away from the inner wall toward the second end; first and second electrically conductive elements arranged on an outer surface of the deformable outer wall, wherein the inner wall further comprises first (130;140) and second (132;142) conductive leads configured to electrically connect with the first and second electrically conductive elements when the outer wall is deformed toward the inner wall, characterised in that the first and second electrically conductive elements are made in silver/ silver-chloride and arranged in holes punched in the deformable outer wall, said first and second electrically conductive elements being configured as physiological electrodes.
An external control device for use with a two-dimensional array of electrodes implanted within tissue and a neurostimulator capable of delivering electrical stimulation energy to the electrodes to create a volume of activation, comprising: a user interface including a current steering initiation control element and a current steering direction control element (120; 134) capable of being rotated about an axis; a controller/processor configured for, in response to actuation of the initiation control element, generating a series of different combinations of the electrodes in a manner that the volume of activation gradually translates in a specific direction when the electrical stimulation energy is delivered to the different electrode combinations, the controller/processor further configured for, in response to rotation of the direction control element (120; 134) about the axis, defining the specific direction in which the volume of activation is translated; and output circuitry configured for transmitting the different electrode combinations to the neurostimulator. a user interface including a current steering initiation control element and a current steering direction control element (120; 134) capable of being rotated about an axis; a controller/processor configured for, in response to actuation of the initiation control element, generating a series of different combinations of the electrodes in a manner that the volume of activation gradually translates in a specific direction when the electrical stimulation energy is delivered to the different electrode combinations, the controller/processor further configured for, in response to rotation of the direction control element (120; 134) about the axis, defining the specific direction in which the volume of activation is translated; and output circuitry configured for transmitting the different electrode combinations to the neurostimulator.
A data packet processing method, comprising: receiving, by a storage apparatus, information indicating a correspondence between a first identifier and data flow characteristic information from an application server via a service capability exposure function; receiving, by the storage apparatus, a message from a policy and charging enforcement function, wherein the message from the policy and charging enforcement function comprises the first identifier, and the message from the policy and charging enforcement function is used to request the storage apparatus for data flow characteristic information corresponding to the first identifier; determining, by the storage apparatus according to the first identifier and the correspondence, the data flow characteristic information corresponding to the first identifier; and sending, by the storage apparatus, a message to the policy and charging enforcement function, wherein the message to the policy and charging enforcement function comprises the data flow characteristic information corresponding to the first identifier. receiving, by a storage apparatus, information indicating a correspondence between a first identifier and data flow characteristic information from an application server via a service capability exposure function; receiving, by the storage apparatus, a message from a policy and charging enforcement function, wherein the message from the policy and charging enforcement function comprises the first identifier, and the message from the policy and charging enforcement function is used to request the storage apparatus for data flow characteristic information corresponding to the first identifier; determining, by the storage apparatus according to the first identifier and the correspondence, the data flow characteristic information corresponding to the first identifier; and sending, by the storage apparatus, a message to the policy and charging enforcement function, wherein the message to the policy and charging enforcement function comprises the data flow characteristic information corresponding to the first identifier.
A method of producing an epoxy compound comprising epoxidizing the carbon-carbon double bond of an organic compound having a carbon-carbon double bond in the presence of acetonitrile by using hydrogen peroxide as an oxidizing agent, wherein the reaction proceeds while controlling the acetonitrile concentration in the reaction system in the range of 0.7-2 mol/L by using a solvent containing an alcohol selected from the group consisting of methanol, ethanol and 1-propanol, wherein the organic compound having a carbon-carbon double bond is at least one selected from the group consisting of bisphenol A type diallylether, bisphenol F type diallylether, and 1,4-cyclohexanedimethanol diallylether.
A polarizing element comprising a film containing a compound represented by formula or a salt thereof and a polyvinyl alcohol-based resin having a degree of polymerization of 5,000 to 10,000, which is obtained using a feedstock film having a swelling level of 200 to 240% wherein R 1 to R 4 each individually represent a hydrogen atom, a lower alkyl group, or a lower alkoxyl group; and n represents 1-3.
Commercial vehicle body, in particular in the form of a refrigerated box, with at least one opening to be closed by means of a closing and wall part in a closed position, the closing and wall part being spaced at a distance apart from an edge of the opening in the closed position, and disposed on the opening and/or on the closing and wall part bridging and sealing at least certain regions of the distance in the closed position is a seal arrangement having a base body and at least one sealing lip disposed on the base body, the extension of which directed away from the base body is greater than the distance between the closing and wall part and the edge of the opening and which bridges this distance in the closed position, and which comprises at least two sections preferably disposed at a right angle to one another which are connected to one another via a corner region, the sealing lip extending across the at least two sections as well as the corner region, characterised in that the sealing lip has a shorter extension directed away from the base body in the corner region than in at least a region of the seal arrangement disposed outside the corner region.
A process for manufacturing floor tiles, the process comprising the following steps: - scattering granules of a thermoplastic material on a conveying member in order to obtain a first layer of granules, - superimposing several sheets (5B, 5C) on the first layer of granules in order to obtain a plurality of adjacent sheets (5B, 5C) on the first layer of granules, said plurality having an uppermost sheet, each of the sheets containing at least 50 wt% of glass fibers, - scattering granules of a thermoplastic material on said uppermost sheet in order to obtain a second layer of granules, - pressing and heating the first layer of granules, the plurality of adjacent sheets (5B, 5C) and the second layer of granules, - melting or at least softening the first layer of granules and the second layer of granules, the plurality of sheets (5B, 5C) being at least partly impregnated by the thermoplastic material of the first layer of granules and by the thermoplastic material of the second layer of granules in order to obtain a core layer after cooling, and - using the core layer in order to produce at least a slab, and using the slab to obtain the floor tiles. - scattering granules of a thermoplastic material on a conveying member in order to obtain a first layer of granules, - superimposing several sheets (5B, 5C) on the first layer of granules in order to obtain a plurality of adjacent sheets (5B, 5C) on the first layer of granules, said plurality having an uppermost sheet, each of the sheets containing at least 50 wt% of glass fibers, - scattering granules of a thermoplastic material on said uppermost sheet in order to obtain a second layer of granules, - pressing and heating the first layer of granules, the plurality of adjacent sheets (5B, 5C) and the second layer of granules, - melting or at least softening the first layer of granules and the second layer of granules, the plurality of sheets (5B, 5C) being at least partly impregnated by the thermoplastic material of the first layer of granules and by the thermoplastic material of the second layer of granules in order to obtain a core layer after cooling, and - using the core layer in order to produce at least a slab, and using the slab to obtain the floor tiles.
A method for manufacturing a semiconductor, comprising: forming an underlayer by applying a layer of a composition and curing the layer, the composition comprising a semiconductor material and a solvent; forming a layer of a photoresist composition above the underlayer; curing the photoresist composition to form a photoresist layer; exposing the substrate coated with the photoresist layer; developing the exposed substrate to form a resist pattern; etching with the resist pattern as a mask; and processing the substrate, wherein the semiconductor material consists of a compound represented by formula: [Formula i] X-Y wherein X is a group represented by formula: wherein A is -OH, or -NH 2, R 1 is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 1' is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 2 is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 2' is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 3 is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 3' is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, n 1 is 0, 1, or 2, n 2 is 0, 1, or 2, n 3 is 0, 1, or 2, m is 0, 1, 2, or 3, and; Y is an unsubstituted aromatic hydrocarbon ring or an aromatic hydrocarbon ring substituted by -OH or -NH 2. forming an underlayer by applying a layer of a composition and curing the layer, the composition comprising a semiconductor material and a solvent; forming a layer of a photoresist composition above the underlayer; curing the photoresist composition to form a photoresist layer; exposing the substrate coated with the photoresist layer; developing the exposed substrate to form a resist pattern; etching with the resist pattern as a mask; and processing the substrate, A is -OH, or -NH 2, R 1 is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 1' is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 2 is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 2' is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 3 is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, R 3' is hydrogen, -OH, -NH 2, or a direct bond to a phenyl ring, n 1 is 0, 1, or 2, n 2 is 0, 1, or 2, n 3 is 0, 1, or 2, m is 0, 1, 2, or 3, and; Y is an unsubstituted aromatic hydrocarbon ring or an aromatic hydrocarbon ring substituted by -OH or -NH 2.
Method for operating a motor vehicle with at least two electric drives, which operate on wheels on opposite sides of the motor vehicle, wherein a drive control device is associated with each electric drive, by means of which the respective electric drive is directly fed with electric current, wherein a central control device exerts a higher-level control on the drive control devices, and that in the context of a first type of regulation at least one drive control device controls the associated drive, wherein by means of the first type of regulation a slippage occurring on the respective wheel is adjusted to a predetermined value for the purposes of an optimal traction, characterised in that in the context of a second type of regulation the central control device controls multiple drives all at once via their associated drive control device, wherein by means of the second type of regulation the stability of the motor vehicle is ensured as a whole depending on a velocity of the motor vehicle and/or on a steering angle adjusted on a steering wheel of the motor vehicle and/or on a yaw velocity of the motor vehicle and/or on a longitudinal acceleration of the motor vehicle and/or on a transverse acceleration and/or on a side slip angle of the motor vehicle.
An apparatus consisting of a fiber optic module configured to be releasably attached to equipment, comprising: a latch configured to releasably attach the fiber optic module to the equipment; a pushrod; characterized in that the apparatus further comprises a pinch grip disposed on one end of the fiber optic module, the pinch grip having an arm and a lever, each providing a respective pinch surface (98, 100); wherein the pinch grip is configured to activate the pushrod by applying a force to the pinch grip; wherein the pushrod is configured to be positioned in a groove disposed in a side of a main body of the fiber optic module; wherein the pushrod and the lever of the pinch grip are configured such that a movement of the lever applies a force on a first end of the pushrod to travel in the groove toward a front end of the fiber optic module to deactivate the latch from a back end of the fiber optic module; wherein the fiber optic module is released from the equipment upon deactivation of the latch. a latch configured to releasably attach the fiber optic module to the equipment; a pushrod; characterized in that the apparatus further comprises a pinch grip disposed on one end of the fiber optic module, the pinch grip having an arm and a lever, each providing a respective pinch surface (98, 100); wherein the pinch grip is configured to activate the pushrod by applying a force to the pinch grip; wherein the pushrod is configured to be positioned in a groove disposed in a side of a main body of the fiber optic module; wherein the pushrod and the lever of the pinch grip are configured such that a movement of the lever applies a force on a first end of the pushrod to travel in the groove toward a front end of the fiber optic module to deactivate the latch from a back end of the fiber optic module; wherein the fiber optic module is released from the equipment upon deactivation of the latch.