mhurhangee/ep-ind-claims huggingface dataset:
A method for distributing torque between the front axle and the rear axle of a hybrid vehicle including: - a heat engine that can drive one of the axles (12, 13) of the vehicle, - an electrical machine that can drive the other axle (12, 13) of the vehicle and - a means for measuring the grip of the vehicle, the measuring means sending a critical grip signal when the grip of the vehicle falls below a critical threshold, the method for distributing torque comprising the following step: - estimating the distance travelled by the vehicle without activating the critical grip signal and characterized in that the method for distributing torque also comprises the following step: - transferring a torque applied to the heat engine to the electric machine when the distance is above a distance travelled threshold. - a heat engine that can drive one of the axles (12, 13) of the vehicle, - an electrical machine that can drive the other axle (12, 13) of the vehicle and - a means for measuring the grip of the vehicle, the measuring means sending a critical grip signal when the grip of the vehicle falls below a critical threshold, - estimating the distance travelled by the vehicle without activating the critical grip signal and characterized in that the method for distributing torque also comprises the following step: - transferring a torque applied to the heat engine to the electric machine when the distance is above a distance travelled threshold. - transferring a torque applied to the heat engine to the electric machine when the distance is above a distance travelled threshold.
A system comprising a grating and a substrate, wherein the substrate comprises a plurality of sub-pixel groups arranged periodically, wherein each of the plurality of sub-pixel groups comprises: a first type of sub-pixel group which is configured for displaying a plurality of viewpoint images and comprises a first sub-pixel unit configured for displaying a first viewpoint image, a second sub-pixel unit configured for displaying a second viewpoint image and a third sub-pixel unit configured for displaying a third viewpoint image; each of the plurality of sub-pixel groups at least comprises a first sub-pixel column and a second sub-pixel column; and the first sub-pixel unit is located in the first sub-pixel column of each of the plurality of sub-pixel groups, the second sub-pixel unit and the third sub-pixel unit are located in the second sub-pixel column of each of the plurality of sub-pixel groups, the second sub-pixel column and the first sub-pixel column are adjacent to each other and are staggered a preset distance in a vertical direction, and the preset distance is smaller than a width of one sub-pixel unit, the first sub-pixel unit, the second sub-pixel unit and the third sub-pixel unit are adjacent to each other, wherein an opening region of the grating corresponds to the first type of sub-pixel group, and a shape of the opening region of the grating is: a shape formed by a triangle and a quadrilateral, with a side of the triangle coinciding with a side of the quadrilateral; or, a shape formed by two triangles, with a vertex of one of the triangles coinciding with a side of the other one of the triangles.
Aircraft with at least two rotating blades such as helicopters or gyroplanes with a parachute rescue system consisting at least of one rescue parachute being packed before activation in a mounting box and equipped with a rocket engine or as well by another driving mechanism connected by an activating wiring with an activating handle installed within the pilot's reach, characterized by the fact that one or more single rescue parachutes are fastened around the rotor of the aircraft under the rotating blades by at least one derrick guy, that comes after the system activation through said rotating blades upwards thereby the derrick guy being provided with a rope swivel-type head in order to eliminate the transfer of the rotor rotational movement to the parachute ropes.
A process for producing a molded material comprising: a step of heating a supercooled or solid metallic glass material to a temperature which is equal to or higher than a temperature at which a supercooled liquid of the metallic glass material is completely crystallized at a temperature increase rate of 0.5 K/s or more and less than 100 K/s; and during the heating step, and for a period of time lasting before a completion of a crystallization process of the supercooled liquid of the metallic glass material, a step of molding the metallic glass material at a temperature which is equal to or higher than a glass transition temperature of the metallic glass material into the material having a mixed phase of metallic glass and a crystalline phase or having a crystalline phase alone to produce said molded material composed of an alloy which has on its surface periodic concavity-convexity, a depth of the concavity being not more than 110 μm, and the concavity-convexity period ranging from 0.4 μm to 90 μm. a step of heating a supercooled or solid metallic glass material to a temperature which is equal to or higher than a temperature at which a supercooled liquid of the metallic glass material is completely crystallized at a temperature increase rate of 0.5 K/s or more and less than 100 K/s; and during the heating step, and for a period of time lasting before a completion of a crystallization process of the supercooled liquid of the metallic glass material, a step of molding the metallic glass material at a temperature which is equal to or higher than a glass transition temperature of the metallic glass material into the material having a mixed phase of metallic glass and a crystalline phase or having a crystalline phase alone to produce said molded material composed of an alloy which has on its surface periodic concavity-convexity, a depth of the concavity being not more than 110 μm, and the concavity-convexity period ranging from 0.4 μm to 90 μm.
A method comprising: by a thread of a computing device, beginning a frame buffer fill task for a displayable region of a content layout; by a computing device, identifying a portion of a display object to pre-generate, wherein the display object is associated with a portion of the content layout that is outside of the displayable region; by the computing device, monitoring the thread to identify a start point of a next window of idle time, the next window of idle time comprising the next opportunity when the thread will be idle for a minimum period of time, the start point being based at least in part on an estimated period of time required to perform the frame buffer fill task; by the computing device, adding one or more selected tasks to a message queue for execution by the thread upon completion of the frame buffer fill task, wherein each of the selected tasks pre-generates content for at least one selected element of the display object; by the computing device, upon completion of the frame buffer fill task, beginning execution of the selected tasks; and by the computing device, returning the display object. by a thread of a computing device, beginning a frame buffer fill task for a displayable region of a content layout; by a computing device, identifying a portion of a display object to pre-generate, wherein the display object is associated with a portion of the content layout that is outside of the displayable region; by the computing device, monitoring the thread to identify a start point of a next window of idle time, the next window of idle time comprising the next opportunity when the thread will be idle for a minimum period of time, the start point being based at least in part on an estimated period of time required to perform the frame buffer fill task; by the computing device, adding one or more selected tasks to a message queue for execution by the thread upon completion of the frame buffer fill task, wherein each of the selected tasks pre-generates content for at least one selected element of the display object; by the computing device, upon completion of the frame buffer fill task, beginning execution of the selected tasks; and by the computing device, returning the display object.
A method comprising: receiving, at a vehicle navigation system, signal strength data indicating a strength of a detected radar signal; estimating a distance from a vehicle associated with the vehicle navigation system to a source of the detected radar signal based on the signal strength data; and generating a display that includes a graphical representation related to the source of the detected radar signal, wherein the graphical representation related to the source is displayed in a manner that provides information regarding the estimated distance from the vehicle to the source, characterized by accessing map data from a memory of the vehicle navigation system; and identifying, based on the map data and the estimated distance from the vehicle to the source, a potential obstruction between the vehicle and the source. receiving, at a vehicle navigation system, signal strength data indicating a strength of a detected radar signal; estimating a distance from a vehicle associated with the vehicle navigation system to a source of the detected radar signal based on the signal strength data; and generating a display that includes a graphical representation related to the source of the detected radar signal, wherein the graphical representation related to the source is displayed in a manner that provides information regarding the estimated distance from the vehicle to the source, characterized by accessing map data from a memory of the vehicle navigation system; and identifying, based on the map data and the estimated distance from the vehicle to the source, a potential obstruction between the vehicle and the source.
Cable drum for supplying energy to an electrically powered utility vehicle, with an axially running winding body which can be set in rotation in order to wind up and unwind a cable, wherein the winding body is formed by a helically wound pipeline with an inlet for the supply of a cooling air stream, characterized in that the pipeline has a multiplicity of air outlet openings which are formed along its wall and are oriented radially outwards in the direction of a cable portion wound up onto the winding body, wherein the air outlet openings are oriented along the wall in an alternating manner at different angles between 0 and 45 degrees with respect to a radial plane spanned by the winding body.
A steam cooker for cooking an article-to-be-heated by use of steam fed into a heating chamber (20, 120), the steam cooker comprising: a heating chamber (20, 120); a steam generation heater adapted to generate steam; and a steam heating heater for heating steam generated by the steam generation heater to generate overheated steam; the steam cooker being characterised by a control device to control supply of electric power to the steam generation heater and the steam heating heater, the control device having a memory on which is stored cooking sequence data, wherein, the cooking sequence data includes data of a time to switch a first cooking step, in which the supply of electric power to the steam generation heater is larger than supply of electric power to the steam heating heater, to a second cooking step, in which the supply of electric power to the steam generation heater is smaller than supply of electric power to the steam heating heater, based on a fat melting temperature characteristic depending on the type of the article-to-be-heated, and wherein the steam cooker is operable to switch the first cooking step to the second cooking step when an internal temperature of the article-to-be-heated exceeds a fat melting temperature zone of about 30 to 60°C but is less than or equal to 100 °C. a heating chamber (20, 120); a steam generation heater adapted to generate steam; and a steam heating heater for heating steam generated by the steam generation heater to generate overheated steam; the steam cooker being characterised by a control device to control supply of electric power to the steam generation heater and the steam heating heater, the control device having a memory on which is stored cooking sequence data, wherein, the cooking sequence data includes data of a time to switch a first cooking step, in which the supply of electric power to the steam generation heater is larger than supply of electric power to the steam heating heater, to a second cooking step, in which the supply of electric power to the steam generation heater is smaller than supply of electric power to the steam heating heater, based on a fat melting temperature characteristic depending on the type of the article-to-be-heated, and
A surgical stapling assembly, comprising: a cartridge jaw, comprising: a proximal end; a distal end positioned opposite said proximal end; a bottom wall; lateral side walls extending from said bottom wall; and a longitudinal slot defined in said bottom wall, wherein said longitudinal slot comprises a plurality of jaw windows defined in said bottom wall; a staple cartridge positionable between said lateral side walls in said cartridge jaw, wherein said staple cartridge comprises: a cartridge body; staples removably stored in said cartridge body; and a sled movable toward said distal end during a firing stroke to eject said staples from said cartridge body, wherein the progress of said sled during said firing stroke is observable through said jaw windows, wherein said longitudinal slot defines a longitudinal axis, characterised in that said jaw windows are offset with respect to said longitudinal axis. a cartridge jaw, comprising: a proximal end; a distal end positioned opposite said proximal end; a bottom wall; lateral side walls extending from said bottom wall; and a longitudinal slot defined in said bottom wall, wherein said longitudinal slot comprises a plurality of jaw windows defined in said bottom wall; a proximal end; a distal end positioned opposite said proximal end; a bottom wall; lateral side walls extending from said bottom wall; and a longitudinal slot defined in said bottom wall, wherein said longitudinal slot comprises a plurality of jaw windows defined in said bottom wall; a staple cartridge positionable between said lateral side walls in said cartridge jaw, wherein said staple cartridge comprises: a cartridge body; staples removably stored in said cartridge body; and a sled movable toward said distal end during a firing stroke to eject said staples from said cartridge body, wherein the progress of said sled during said firing stroke is observable through said jaw windows, wherein said longitudinal slot defines a longitudinal axis, characterised in that said jaw windows are offset with respect to said longitudinal axis. a cartridge body; staples removably stored in said cartridge body; and a sled movable toward said distal end during a firing stroke to eject said staples from said cartridge body, wherein the progress of said sled during said firing stroke is observable through said jaw windows, wherein said longitudinal slot defines a longitudinal axis, characterised in that said jaw windows are offset with respect to said longitudinal axis.
A power supply configured for supplying power in high external magnetic fields, wherein a high external magnetic field is an external magnetic field greater than 0.2 Tesla, the power supply comprising: a power converter system which is adapted to convert input power to output power using one or more electromagnetic components; one or more ferrous bands which encircle the electromagnetic components and which are configured to shield the electromagnetic components from the high external magnetic fields; and a thermal control system which is adapted to: monitor temperatures of said one or more electromagnetic components of the power converter system; and selectively disable one or more loads of the power converter system in response to the monitored temperatures exceeding thresholds to reduce the monitored temperatures. a power converter system which is adapted to convert input power to output power using one or more electromagnetic components; one or more ferrous bands which encircle the electromagnetic components and which are configured to shield the electromagnetic components from the high external magnetic fields; and a thermal control system which is adapted to: monitor temperatures of said one or more electromagnetic components of the power converter system; and selectively disable one or more loads of the power converter system in response to the monitored temperatures exceeding thresholds to reduce the monitored temperatures.
Diving mask, comprising a facial body and at least one transparent element through which the vision by the user takes place, made by co-molding at least two different thermoplastic elastomers, said at least one transparent element being formed by a thermoplastic elastomer provided with a relatively greater degree of hardness, and said facial body being formed by a thermoplastic elastomer provided with a relatively lower degree of hardness with respect to that of said at least one transparent element and in which - said diving mask further comprises a relatively stiffer frame also co-molded with the at least one transparent element and/or with the at least two transparent elements and the facial body, which is made of thermoplastic elastomer with a Shore D hardness between 50 and 70, and preferably 60, and in which - said frame is made between said transparent element or said transparent elements, and said facial body, and - in which said thermoplastic elastomers are both copolymers of styrene, and in particular styrol/ethene-butene/styrol or styrene/ethylene/butyl/styrene copolymers and - said thermoplastic elastomer of the frame is olefinic, such as a co-polymer of ethylene/propylene/propylene polypropylene or a combination of polymers and polyolefin copolymers or else it is constituted by polycarbonate or nylon or combinations of these materials when compatible with each other. - said diving mask further comprises a relatively stiffer frame also co-molded with the at least one transparent element and/or with the at least two transparent elements and the facial body, which is made of thermoplastic elastomer with a Shore D hardness between 50 and 70, and preferably 60, and in which - said frame is made between said transparent element or said transparent elements, and said facial body, and - in which said thermoplastic elastomers are both copolymers of styrene, and in particular styrol/ethene-butene/styrol or styrene/ethylene/butyl/styrene copolymers and - said thermoplastic elastomer of the frame is olefinic, such as a co-polymer of ethylene/propylene/propylene polypropylene or a combination of polymers and polyolefin copolymers or else it is constituted by polycarbonate or nylon or combinations of these materials when compatible with each other.
An automatic stop and start control apparatus of an internal combustion engine, which is provided with automatic stop control means for stopping fuel injection when an automatic stop demand has been generated during operation of an internal combustion engine of an intake port injection type and automatic start control means for performing autonomous return control where returning to synchronous injection is performed after at least the first fuel injection is immediately performed with asynchronous injection to restart the internal combustion engine when a restart demand has been generated in a period where the rotation speed of the internal combustion engine drops through a rotation speed region where restart performed by only fusel injection is possible during fuel injection stop performed by the automatic stop control means, characterised in that the automatic start control means immediately performs at least the first fuel injection to a cylinder which is put during an intake stroke with the asynchronous injection when the restart demand has been generated.
A method of establishing a session key shared between a first network element (NEa) of a first network domain and a second network element (NEb) of a second network domain, said first network domain comprising first cryptographic means and sharing a secret key (K AB) with said second network domain comprising second cryptographic means, said method comprising the steps of: - said first cryptographic means generating a freshness token (FRESH), wherein said freshness token (FRESH) comprises a random challenge (RAND); - said first cryptographic means generating said session key based on said shared secret key (K AB) and said generated freshness token (FRESH); - providing said session key to said first network element (NEa); - providing said freshness token (FRESH) to said second cryptographic means; - said second cryptographic means generating a copy of said session key based on said shared secret key (K AB) and said provided freshness token (FRESH), and - providing said copy of said session key to said second network element (NEb); - said first cryptographic means further generating an expected response (XRES) based on said shared secret key (K AB) and said random challenge (RAND), and - providing said expected response (XRES) to said first network element (NEa); - said second cryptographic means further generating a response based on said shared secret key (K AB) and said provided random challenge (RAND), and transmitting the response to the second network element (NEb); - the second network element (NEb) forwarding said response to said first network element (NEa); - said first network element (NEa) authenticating said second network element (NEb) based on a comparison between said expected response (XRES) and said response. - said first cryptographic means generating a freshness token (FRESH), wherein said freshness token (FRESH) comprises a random challenge (RAND); - said first cryptographic means generating said session key based on said shared secret key (K AB) and said generated freshness token (FRESH); - providing said session key to said first network element (NEa); - providing said freshness token (FRESH) to said second cryptographic means; - said second cryptographic means generating a copy of said session key based on said shared secret key (K AB) and said provided freshness token (FRESH), and - providing said copy of said session key to said second network element (NEb); - said first cryptographic means further generating an expected response (XRES) based on said shared secret key (K AB) and said random challenge (RAND), and - providing said expected response (XRES) to said first network element (NEa); - said second cryptographic means further generating a response based on said shared secret key (K AB) and said provided random challenge (RAND), and transmitting the response to the second network element (NEb); - the second network element (NEb) forwarding said response to said first network element (NEa); - said first network element (NEa) authenticating said second network element (NEb) based on a comparison between said expected response (XRES) and said response.