mhurhangee/ep-ind-claims huggingface dataset:
A driving control apparatus for a hybrid vehicle with an engine and a motor in a drive system, and with a control system for controlling braking/driving force of the engine and the motor, and adapted to selectively perform: an engine driving mode in which the hybrid vehicle drives with only driving force of the engine; an EV driving mode in which the hybrid vehicle drives with only driving force of the motor; and an HEV driving mode in which the hybrid vehicle drives with the driving force of the engine and the driving force of the motor, the driving control apparatus having an ACC function that performs a constant speed cruise in accordance with a target vehicle speed when another vehicle ahead is not present in the vehicle's cruising lane and performs a following cruise with keeping a predetermined inter-vehicle time when the vehicle ahead is present; wherein the driving control apparatus is configured, in a case in which the vehicle ahead being followed by the ACC function accelerates, to execute acceleration control according to a first torque demand determined by an acceleration rate of the vehicle ahead in the engine driving mode or the HEV driving mode, and to execute acceleration control according to a second torque demand determined by the acceleration rate of the vehicle ahead in the EV driving mode, and the second torque demand increases with a greater inclination than the first torque demand. an engine driving mode in which the hybrid vehicle drives with only driving force of the engine; an EV driving mode in which the hybrid vehicle drives with only driving force of the motor; and an HEV driving mode in which the hybrid vehicle drives with the driving force of the engine and the driving force of the motor, the driving control apparatus having an ACC function that performs a constant speed cruise in accordance with a target vehicle speed when another vehicle ahead is not present in the vehicle's cruising lane and performs a following cruise with keeping a predetermined inter-vehicle time when the vehicle ahead is present; wherein the driving control apparatus is configured, in a case in which the vehicle ahead being followed by the ACC function accelerates, to execute acceleration control according to a first torque demand determined by an acceleration rate of the vehicle ahead in the engine driving mode or the HEV driving mode, and to execute acceleration control according to a second torque demand determined by the acceleration rate of the vehicle ahead in the EV driving mode, and the second torque demand increases with a greater inclination than the first torque demand.
Method for secure forwarding of a message from a first computer being mobile to a second computer via an intermediate computer in a telecommunication network by forming a secure connection between the first computer and the second computer, the method comprising a) forming a message in the first computer or in a computer that is served by the first computer, and in the latter case sending the message to the first computer, b) forming, in the first computer, a secure message by giving the message a unique identity and a destination address to the intermediate computer, c) sending the secure message from the first computer to the intermediate computer, d) the intermediate computer using the unique identity to find the address to the second computer, e) the intermediate computer substituting the current destination address with the found address to the second computer, f) the intermediate computer substituting the unique identity with another unique identity, g) the intermediate computer forwarding the secure message with the substituted current destination address and the substituted unique identity to the second computer, h) said method being further characterized by the first computer changing its outer address and sending a signalling message to the intermediate computer to request such a change and modify a translation, of the outer address and upon receiving the request for modifying a translation, the intermediate computer updating a related translation table entry for the changed address of the first computer, thereby enabling mobility of the first computer. a) forming a message in the first computer or in a computer that is served by the first computer, and in the latter case sending the message to the first computer, b) forming, in the first computer, a secure message by giving the message a unique identity and a destination address to the intermediate computer, c) sending the secure message from the first computer to the intermediate computer, d) the intermediate computer using the unique identity to find the address to the second computer, e) the intermediate computer substituting the current destination address with the found address to the second computer, f) the intermediate computer substituting the unique identity with another unique identity, g) the intermediate computer forwarding the secure message with the substituted current destination address and the substituted unique identity to the second computer, h) said method being further characterized by the first computer changing its outer address and sending a signalling message to the intermediate computer to request such a change and modify a translation, of the outer address and upon receiving the request for modifying a translation, the intermediate computer updating a related translation table entry for the changed address of the first computer, thereby enabling mobility of the first computer.
A method for link prediction in a mobile computing network comprising: a) breaking the mobile computing network into a sequence of snapshots (301, 302, 303) at different times, each snapshot (301, 302, 303) representing a link pattern of the mobile computing network; b) based on the snapshots (301, 302, 303) obtained in step a) providing historical link data, representing the history of connected nodes (501, 502, 503, 504, 505) in the mobile computing network; c) based on the historical link data obtained in step b), modeling the probability of links in the next snapshot of the mobile computing network using kernel regression; d) ranking of the obtained probability of links according to step c) in a descending order to obtain a link pattern in the next snapshot; and e) based on the results obtained in step c) and d) outputting of the link probability for each individual link and/or the predicted link pattern in the next snapshot. a) breaking the mobile computing network into a sequence of snapshots (301, 302, 303) at different times, each snapshot (301, 302, 303) representing a link pattern of the mobile computing network; b) based on the snapshots (301, 302, 303) obtained in step a) providing historical link data, representing the history of connected nodes (501, 502, 503, 504, 505) in the mobile computing network; c) based on the historical link data obtained in step b), modeling the probability of links in the next snapshot of the mobile computing network using kernel regression; d) ranking of the obtained probability of links according to step c) in a descending order to obtain a link pattern in the next snapshot; and e) based on the results obtained in step c) and d) outputting of the link probability for each individual link and/or the predicted link pattern in the next snapshot.
A sintered cermet, comprising: a hard phase composed of one or more kinds of carbides, nitrides, and carbonitrides of one or more kinds selected from metals belonging to Groups 4, 5, and 6 of the periodic table, each of which is composed mainly of Ti; and a binder phase characterized in that the binder phase is composed mainly of Ni and Co, and comprises a first binder phase having a first crystal lattice constant, wherein the first crystal lattice constant is 3.575 Å or above and below 3.585 Å, and a second binder phase having a second crystal lattice constant, wherein the second crystal lattice constant is 3.585Å or above and 3.600Å or below, the first crystal lattice constant and the second crystal lattice constant are measured by Pawley method, the first binder phase and the second binder phase exist in the interior, and the first binder phase exists and the second binder phase doesn't exist in the surface. a hard phase composed of one or more kinds of carbides, nitrides, and carbonitrides of one or more kinds selected from metals belonging to Groups 4, 5, and 6 of the periodic table, each of which is composed mainly of Ti; and a binder phase the binder phase is composed mainly of Ni and Co, and comprises a first binder phase having a first crystal lattice constant, wherein the first crystal lattice constant is 3.575 Å or above and below 3.585 Å, and a second binder phase having a second crystal lattice constant, wherein the second crystal lattice constant is 3.585Å or above and 3.600Å or below, the first crystal lattice constant and the second crystal lattice constant are measured by Pawley method, the first binder phase and the second binder phase exist in the interior, and the first binder phase exists and the second binder phase doesn't exist in the surface.
Spray head for delivering a liquid, particularly as spray mist or spray stream, with a nozzle which comprises a nozzle opening on its delivery side, and with a variable adjustment element for adjusting the spray characteristics of the spray head, wherein the adjustment element comprises different outlet openings particularly embodied as through holds which can optionally be fluidly connected to the nozzle or the nozzle opening thereof and/or which differ particularly only with respect to their diameter and/or their length, and wherein the spray direction of the spray head runs at least substantially radially to the ring-shaped extension of the adjustment element and/or at least substantially on the ring plane of the adjustment element, characterized in that the nozzle forms a vortex chamber.
A method of performing secure communications involving a proxy, the method comprising: identifying one or more recipient computers; for each of the one or more recipient computers: obtaining a first encrypted message portion generated by a first source computer by encrypting a first message portion with a first recipient session key; and obtaining a second encrypted message portion generated by a second source computer by encrypting a second message portion with a second recipient session key; identifying a proxy computer; determining a proxy session key; determining a message body that includes address information for each of the one or more recipient computers; using the proxy session key to encrypt the message body to obtain an encrypted message body; aggregating the first encrypted message portion and the second encrypted message portion into an encrypted message; and sending the encrypted message to the proxy computer, the encrypted message including the encrypted message body and the first and second encrypted message portions. identifying one or more recipient computers; for each of the one or more recipient computers: obtaining a first encrypted message portion generated by a first source computer by encrypting a first message portion with a first recipient session key; and obtaining a second encrypted message portion generated by a second source computer by encrypting a second message portion with a second recipient session key; obtaining a first encrypted message portion generated by a first source computer by encrypting a first message portion with a first recipient session key; and obtaining a second encrypted message portion generated by a second source computer by encrypting a second message portion with a second recipient session key; identifying a proxy computer; determining a proxy session key; determining a message body that includes address information for each of the one or more recipient computers; using the proxy session key to encrypt the message body to obtain an encrypted message body; aggregating the first encrypted message portion and the second encrypted message portion into an encrypted message; and sending the encrypted message to the proxy computer, the encrypted message including the encrypted message body and the first and second encrypted message portions.
A pharmaceutical composition for use in a method of preventing and treating liver fibrosis, comprising 50 to 90% by weight of Cordyceps sinensis mycelium, and 10 to 50% by weight of astragalus.
An airfoil for a gas turbine engine comprising: an airfoil section extending between a leading edge (L/E) and a trailing edge (T/E) in a chordwise direction and extending between a tip and a root section (166,162) in a spanwise direction, the airfoil section defining a suction side and a pressure side separated in a thickness direction, wherein a composite core (168;168") defines the root section and a portion of the airfoil section such that the composite core (168;168") is spaced apart from the tip, the composite core (168;168") includes a three-dimensional network of woven fibers, first and second skins (170, 172) extend along opposed sides of the composite core (168;168") for at least some span positions of the airfoil section and join together to define the tip, characterised in that: each of the first and second skins (170,172) is a composite skin (170,172) including a two-dimensional network of fibers, the fibers of the two-dimensional network of fibers are woven or interlaced, the root section defines a dovetail geometry that is configured to interface with a slot, and the first and second skins (170,172) extend along the dovetail geometry and are configured to space apart the composite core (168;168") from walls of the slot.
A method of preparing nutritionally fortified yeast comprising: a) incubating yeast with at least one fermentable substrate under conditions suitable for achieving fermentation; b) isolating the yeast after fermentation; c) combining the isolated yeast with one or more chelated minerals and at least one micronutrient selected from vitamins, amino acids and antioxidants to obtain nutritionally fortified yeast; and d) drying the nutritionally fortified yeast. a) incubating yeast with at least one fermentable substrate under conditions suitable for achieving fermentation; b) isolating the yeast after fermentation; c) combining the isolated yeast with one or more chelated minerals and at least one micronutrient selected from vitamins, amino acids and antioxidants to obtain nutritionally fortified yeast; and d) drying the nutritionally fortified yeast.
A contact structure of a circuit breaker having a contact piece; at least one contact arm attached to the contact piece and comprising two sidewalls with surfaces; detachable connecting means provided on the surfaces of the at least one contact arm, a plurality of ribs formed on the detachable connecting means; wherein the detachable connecting means is a flat plate comprising a contact arm side attached to the at least one contact arm and a rib side attached to the plurality of ribs; wherein the plurality of ribs define at least one cooling path, wherein the plurality of ribs comprises middle ribs and outer ribs (7d, 7e), wherein a rib length of the outer ribs (7d, 7e) uniformly increases towards the middle ribs, proportional to the outer contour of the flat plate, and wherein the outer contour of the flat plate is circular. a contact piece; at least one contact arm attached to the contact piece and comprising two sidewalls with surfaces; detachable connecting means provided on the surfaces of the at least one contact arm, a plurality of ribs formed on the detachable connecting means; wherein the detachable connecting means is a flat plate comprising a contact arm side attached to the at least one contact arm and a rib side attached to the plurality of ribs; wherein the plurality of ribs define at least one cooling path, wherein the plurality of ribs comprises middle ribs and outer ribs (7d, 7e), wherein a rib length of the outer ribs (7d, 7e) uniformly increases towards the middle ribs, proportional to the outer contour of the flat plate, and wherein the outer contour of the flat plate is circular.
A method for imaging a portion of a body of a subject that undergoes cyclic motion, the method comprising: acquiring a plurality of native images of a tool inside the portion of the body, at respective phases of the cyclic motion; stabilizing the native images with respect to a feature of the portion of the body; and characterized by in response to stabilizing the native images, generating an output that is indicative of an extent of movement (178,180) of the tool with respect to the portion of the body, wherein generating the output comprises demonstrating movement of the tool with respect to the portion of the body by displaying at least one stabilized image that is based upon the stabilized raw images, an indication of the movement being displayed on the at least one stabilized image. acquiring a plurality of native images of a tool inside the portion of the body, at respective phases of the cyclic motion; stabilizing the native images with respect to a feature of the portion of the body; and characterized by in response to stabilizing the native images, generating an output that is indicative of an extent of movement (178,180) of the tool with respect to the portion of the body,
Punch unit for fastening to an upper part of a stamping tool, with a pressure plate (12; 112), with a stamping punch (14; 114) and with a punch-holding plate (16; 116), wherein the pressure plate (12; 112) is arranged between the stamping punch (14; 114) and the punch-holding plate (16; 116), wherein the stamping forces are transmitted from the punch-holding plate (16; 116) via the pressure plate (12; 112) to the stamping punch (14; 114) and, during a stamping stroke, the pressure plate (12; 112) acts upon a shoulder (18; 118) of the stamping punch (14; 114), characterized in that there is provided on the shoulder (18; 118) of the stamping punch (14; 114) a holding shoe (22; 122) which projects through a slot in the pressure plate (12; 112) and which is fastened in the punch-holding plate (16; 116).
Pressure medium container for a hydraulic motor vehicle brake system comprising a container housing with a filler pipe and an interior, and with a closing cap which is attached to the filler pipe, wherein the closing cap has a base and a sealing element of an elastomer material is arranged between the filler pipe and the base, wherein the sealing element has a valve which is closed in an unactuated starting state and, controlled by pressure difference, enters an opened actuated state in which a pressure equalization takes place between a surrounding atmosphere and the interior of the pressure medium container, characterized in that the valve rests on a bearing pedestal which is arranged on the closing cap, the closing cap here has at least one support means which supports the valve in at least one valve opening direction and thus increases the valve opening resistance in the supported valve opening direction, whereby the valve has different valve opening resistances depending on direction.
A rolling-element bearing comprising an inner race, an outer race and an array of rolling elements arranged within a bearing cage situated between the two races (2, 3), the inner surface of the bearing cage being piloted on the inner race for limiting eccentric movement of the cage within the bearing and further having a corresponding reservoir (8, 9) on each side of the array of rolling elements, each reservoir being formed between a respective pair of axially inner and axially outer circumferential weirs (6a, 7a; 6b, 7b) on the cage, the outer surface of the inner race comprising a raised land portion (3c, 3d) for contacting oil in the reservoir (8, 9) thereby to control the relative speed of the cage and the inner race, wherein the radial depth of each weir (6a, 7a; 6b, 7b) is greater than the maximum radial clearance between the land portion and the cage for maintaining said controlling contact between the land portion and the oil during said eccentric movement of the cage and characterised in that one or more of the weirs are detachable for permitting axial disassembly of the cage from the inner race, and one or more of the detachable weirs (7a,7b) are in the form of a resilient ring element which engages the inner surface of the cage in a compression fit.
A conductor assembly, comprising: one or more conductors formed by a conductive material; and one or more filter cores formed integrally on and at least partially around the one or more conductors, wherein the one or more filter cores are formed of a material different than the conductive material and are configured to reduce electromagnetic emissions from the one or more conductors; wherein the one or more conductors include a plurality of conductors; and wherein the one or more filter cores include a continuous filter core surrounding the plurality of conductors, characterized by further comprising an electrical insulator disposed between each of the plurality of conductors and the continuous filter core to electrically isolate each conductor from each filter core, wherein the one or more filter cores surround each of the one or more conductors. one or more conductors formed by a conductive material; and one or more filter cores formed integrally on and at least partially around the one or more conductors, wherein the one or more filter cores are formed of a material different than the conductive material and are configured to reduce electromagnetic emissions from the one or more conductors; wherein the one or more conductors include a plurality of conductors; and wherein the one or more filter cores include a continuous filter core surrounding the plurality of conductors, characterized by further comprising an electrical insulator disposed between each of the plurality of conductors and the continuous filter core to electrically isolate each conductor from each filter core, wherein the one or more filter cores surround each of the one or more conductors.
An anti-N3pGlu Aβ antibody comprising a Light Chain Variable Region (LCVR) and a Heavy Chain Variable Region (HCVR), wherein LCDRI is KSX1X2SLLYSRX3KTYLN (SEQ ID NO: 51), LCDR2 is AVSKLX4S (SEQ ID NO:52), LCDR3 is VQGTHYPFT (SEQ ID NO: 5) and HCDRI is GYX5FTX6YYIN (SEQ ID NO: 53), HCDR2 is WINPGSGNTKYNEKFKG (SEQ ID NO: 8), and HCDR3 is EGX7TVY (SEQ ID NO: 54), wherein XI is S or T; X2 is Q or R, X3 is G or S, X4 is D or G, X5 is D or T, X6 is R or D, and X7 is I, T, E, or V, for use in the prevention of Alzheimer's disease.