mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing cis-1,4-polydienes having useful resistance to cold flow, the method comprising the steps of: (i) preparing a polymerization system including a reactive polymer by introducing a lanthanide-based catalyst and a conjugated diene monomer; and (ii) adding a Lewis acid to the polymerization system including a reactive polymer; where the Lewis acid is selected from the group consisting of titanium tetraalkoxides, boron trihalides, trihydrocarbylsilyl triflates, aluminum trihalides, and zinc dihalides. (i) preparing a polymerization system including a reactive polymer by introducing a lanthanide-based catalyst and a conjugated diene monomer; and (ii) adding a Lewis acid to the polymerization system including a reactive polymer;
Method for transferring a thin film made of a first material onto a support substrate made of a second material, the first and the second material having different coefficients of thermal expansion, the method being characterized in that it comprises: a. supplying a donor substrate obtained by bonding a thick layer, formed of the first material, and a handling substrate, the difference in coefficient of thermal expansion of the material forming the handling substrate and that of the support substrate being less, in absolute value, than the difference in thermal expansion of the thick layer and that of the support substrate, and the donor substrate having a main face on the thick layer; b. introducing light species into the thick layer to generate therein a plane of embrittlement and to define the thin layer between the plane of embrittlement and the main face of the donor substrate; c. joining the main face of the donor substrate with a face of the support substrate; d. detaching the thin layer at the embrittlement plane, the detachment including application of a heat treatment. a. supplying a donor substrate obtained by bonding a thick layer, formed of the first material, and a handling substrate, the difference in coefficient of thermal expansion of the material forming the handling substrate and that of the support substrate being less, in absolute value, than the difference in thermal expansion of the thick layer and that of the support substrate, and the donor substrate having a main face on the thick layer; b. introducing light species into the thick layer to generate therein a plane of embrittlement and to define the thin layer between the plane of embrittlement and the main face of the donor substrate; c. joining the main face of the donor substrate with a face of the support substrate; d. detaching the thin layer at the embrittlement plane, the detachment including application of a heat treatment.
A jet engine support structure that is attachable to an external surface of a wing of an aircraft for supporting a jet engine on the aircraft wing, the jet engine support structure comprising: - an inboard support fitting that is configured to be attached to a front spar of an aircraft wing and is configured to be operatively attached to a jet engine; - an outboard support fitting that is configured to be attached to the front spar of the aircraft wing and is configured to be operatively attached to the jet engine; - an inboard longeron that is configured to be attached to a first rib of the aircraft wing and is attached to the inboard support fitting; - an outboard longeron that is configured to be attached to a second rib of the aircraft wing and is attached to the outboard support fitting; - a drag brace fitting that is attached to the inboard longeron and attached to the outboard longeron and is configured to be operatively attached to the jet engine; wherein the inboard support fitting and the inboard longeron are configured to be attached to a first rib inside the aircraft wing, and wherein the inboard longeron is configured to be attached to the first rib along a length of the first rib and distribute loads created by operation of the jet engine along the length of the first rib; and wherein the outboard support fitting and the outboard longeron are configured to be attached to a second rib inside the aircraft wing, wherein the outboard longeron is configured to be attached to the second rib along a length of the second rib and distribute loads created by operation of the jet engine along the length of the second rib; wherein the inboard support fitting and the inboard longeron are configured to be attached to the first rib by existing fasteners attaching a wing lower panel of the aircraft wing to the first rib; and wherein the outboard support fitting and the outboard longeron being configured to be attached to the second rib by existing fasteners attaching the wing lower panel of the aircraft wing to the second rib. - an inboard support fitting that is configured to be attached to a front spar of an aircraft wing and is configured to be operatively attached to a jet engine; - an outboard support fitting that is configured to be attached to the front spar of the aircraft wing and is configured to be operatively attached to the jet engine; - an inboard longeron that is configured to be attached to a first rib of the aircraft wing and is attached to the inboard support fitting; - an outboard longeron that is configured to be attached to a second rib of the aircraft wing and is attached to the outboard support fitting; - a drag brace fitting that is attached to the inboard longeron and attached to the outboard longeron and is configured to be operatively attached to the jet engine;
A building elevator system comprising: an elevator system having an elevator car; a control system configured to control the building elevator system and determine evacuation information; and a dynamic display (120a-120f) configured to display the evacuation information when an evacuation call is received by the control system, wherein the evacuation information includes an evacuee recommendation, and characterized in that the evacuation information further includes an estimated time of arrival of the elevator car and at least one of a directional map and directional instructions, and further characterized in that the evacuee recommendation is determined in response to the estimated time of arrival and evacuation scenario times. an elevator system having an elevator car; a control system configured to control the building elevator system and determine evacuation information; and a dynamic display (120a-120f) configured to display the evacuation information when an evacuation call is received by the control system, wherein the evacuation information includes an evacuee recommendation, and characterized in that the evacuation information further includes an estimated time of arrival of the elevator car and at least one of a directional map and directional instructions, and
A method for transmitting a broadcast signal, the method comprising: generating fast information for supporting rapid service scans and service acquisition, the fast information including identification information for identifying a broadcast service and identification information for identifying a physical layer pipe, PLP, carrying service signaling information signaling the broadcast service; generating a robust header compression, RoHC, packet by compressing a header of an internet protocol, IP, packet of IP packets, the IP packets carrying the broadcast service and the service signaling information; transmitting the fast information through a first PLP in a signal frame; and transmitting a RoHC packet stream comprising the generated RoHC packet through one or more PLPs in the signal frame that are different from the first PLP, wherein the first PLP further includes signaling information for compressing the header of the IP packet, the signaling information including context identification information for indicating context id of the RoHC packet stream and maximum context identification information indicating a maximum value of the context id. generating fast information for supporting rapid service scans and service acquisition, the fast information including identification information for identifying a broadcast service and identification information for identifying a physical layer pipe, PLP, carrying service signaling information signaling the broadcast service; generating a robust header compression, RoHC, packet by compressing a header of an internet protocol, IP, packet of IP packets, the IP packets carrying the broadcast service and the service signaling information; transmitting the fast information through a first PLP in a signal frame; and transmitting a RoHC packet stream comprising the generated RoHC packet through one or more PLPs in the signal frame that are different from the first PLP, wherein the first PLP further includes signaling information for compressing the header of the IP packet, the signaling information including context identification information for indicating context id of the RoHC packet stream and maximum context identification information indicating a maximum value of the context id.
A method for performing texturing and blending operations on objects in a 3-dimensional computer graphics system comprising the steps of: supplying pixel data for objects to be textured; supplying texture data to apply to the pixels of the objects; supplying object and texture data to a blend buffer; applying the texture data to each pixel of each object that has access to it by blending the texture and object data in a blending processor; and writing the resultant pixel data to a frame buffer; characterised in that: the step of supplying pixel data comprises the step of sub-dividing polygons representing objects in the image which would require a larger capacity than that of the blend buffer, and supplying data for more than one object simultaneously to the blend buffer for objects smaller than the blend buffer. supplying pixel data for objects to be textured; supplying texture data to apply to the pixels of the objects; supplying object and texture data to a blend buffer; applying the texture data to each pixel of each object that has access to it by blending the texture and object data in a blending processor; and writing the resultant pixel data to a frame buffer;
A semiconductor device manufacturing method, including: a step of grinding the back surface of a first conductivity type semiconductor substrate formed by being doped with antimony, thereby reducing the thickness of the semiconductor substrate; a step of ion implanting a first conductivity type impurity into the ground back surface of the semiconductor substrate, wherein the first conductivity type impurity is phosphorus; a step of activating the first conductivity type impurity implanted into the semiconductor substrate by carrying out a heat treatment for 30 minutes or more at a temperature of 340°C or more, 500°C or less, thereby forming a first conductivity type contact layer in a surface layer of the back surface of the semiconductor substrate, wherein, when taking the heat treatment temperature to be x (°C), the dose of the first conductivity type impurity is set within the range of ±10% of y (/cm 2), y = -5.7 × 10 14 + 2.012 × 10 12 x; and a step of forming a first electrode in contact with the contact layer. a step of grinding the back surface of a first conductivity type semiconductor substrate formed by being doped with antimony, thereby reducing the thickness of the semiconductor substrate; a step of ion implanting a first conductivity type impurity into the ground back surface of the semiconductor substrate, wherein the first conductivity type impurity is phosphorus; a step of activating the first conductivity type impurity implanted into the semiconductor substrate by carrying out a heat treatment for 30 minutes or more at a temperature of 340°C or more, 500°C or less, thereby forming a first conductivity type contact layer in a surface layer of the back surface of the semiconductor substrate, wherein, when taking the heat treatment temperature to be x (°C), the dose of the first conductivity type impurity is set within the range of ±10% of y (/cm 2), y = -5.7 × 10 14 + 2.012 × 10 12 x; and a step of forming a first electrode in contact with the contact layer.
Skip, the front wall of which is equipped with a wedge-shaped release tool, the apex of the wedge being oriented upwards, suspended from an axis on a lever articulated at one end on the skip, its other end being intended to be grabbed by a lifting hook, the pivoting range of the lever being limited by a stop, characterised in that the skip comprises a mechanism producing, when the lever is raised, a sliding of the tool along the wall of the skip, then a pivoting of the release tool then, after blocking of the pivoting, the lifting of the skip.
A method in a vehicle to vehicle ad hoc network, comprising: Receiving, at a first node in the network, information indicating a priority of a second node in the network; and Claiming, at the first node, a first communication channel in the network based on a priority of the first node relative to the priority of the second node, the second node being different than the first node; characterized in that the first node is located in a first zone in a virtual grid, the first channel claimed at the first node belongs to the first zone, and the first channel claimed at the first node serves as a primary channel of the first node, and the method further includes claiming, at the first node, a second channel as a secondary channel, the second channel being an available channel of a second zone in the virtual grid other than the first zone. Receiving, at a first node in the network, information indicating a priority of a second node in the network; and Claiming, at the first node, a first communication channel in the network based on a priority of the first node relative to the priority of the second node, the second node being different than the first node; characterized in that the first node is located in a first zone in a virtual grid, the first channel claimed at the first node belongs to the first zone, and the first channel claimed at the first node serves as a primary channel of the first node, and the method further includes claiming, at the first node, a second channel as a secondary channel, the second channel being an available channel of a second zone in the virtual grid other than the first zone.
Key for a locking cylinder with a shaft, with a key front and a key back, which together form two narrow sides of the shaft, with locking notches arranged on the lock for controlling pin tumblers in the locking cylinder and with side faces which connect the back of the key with the front of the key, wherein the shaft has a central transverse rib, on this central transverse rib there is a longitudinal rib (13, 14, 26, 27, 30, 31) facing in the direction of both the key back and key front connected to the central transverse rib (12, 32) and the longitudinal ribs (13, 14, 26, 27), in which adjacent sections on the central transverse rib are offset against each other with zero overlap, and wherein the longitudinal ribs (13, 14, 26, 27) and the central transverse rib (12, 32) meet at a right angle to each other, characterized in that the longitudinal ribs (13, 14) each have two oppositely oriented circular arcs (15, 16) and that the individual circular arcs (15, 16) merge tangentially.
A package (10,11) for containing a product, the package comprising: top and bottom opposing chamber films (18, 20; 118, 120) fixed together in a chamber closure zone to define a chamber portion that is capable of containing the product; and a hollow frame adjacent to the chamber portion, wherein the hollow frame is capable of containing an agent, wherein the chamber closure zone is between the chamber portion and the frame, characterized in that the chamber closure zone is frangible so that when the package contains a product within the chamber portion and an agent within the frame, rupturing the frangible chamber closure zone allows the agent to flow from the frame to the chamber portion and contact the product. top and bottom opposing chamber films (18, 20; 118, 120) fixed together in a chamber closure zone to define a chamber portion that is capable of containing the product; and a hollow frame adjacent to the chamber portion, wherein the hollow frame is capable of containing an agent, wherein the chamber closure zone is between the chamber portion and the frame, characterized in that the chamber closure zone is frangible so that when the package contains a product within the chamber portion and an agent within the frame, rupturing the frangible chamber closure zone allows the agent to flow from the frame to the chamber portion and contact the product.
A method of operating an autonomous vehicle, the method comprising: determining whether a lane change is about to occur; detecting a feature of a road surface with a sensor; determining, at an electronic processor, a road camber of a target lane based on the feature, the target lane being a traffic lane targeted for a lane change maneuver by the autonomous vehicle; predicting a lateral force due to the road camber on the autonomous vehicle, the lateral force occurring during the lane change maneuver; setting a lateral compensating force equal and opposite to the lateral force due to the road camber to achieve a desired lateral acceleration of the autonomous vehicle; applying the lateral compensating force, by the electronic processor, during the lane change maneuver, wherein applying the lateral compensating force includes planning a trajectory for the lane change maneuver that is based, at least in part, on achieving the desired lateral acceleration of the autonomous vehicle. determining whether a lane change is about to occur; detecting a feature of a road surface with a sensor; determining, at an electronic processor, a road camber of a target lane based on the feature, the target lane being a traffic lane targeted for a lane change maneuver by the autonomous vehicle; predicting a lateral force due to the road camber on the autonomous vehicle, the lateral force occurring during the lane change maneuver; setting a lateral compensating force equal and opposite to the lateral force due to the road camber to achieve a desired lateral acceleration of the autonomous vehicle; applying the lateral compensating force, by the electronic processor, during the lane change maneuver, wherein applying the lateral compensating force includes planning a trajectory for the lane change maneuver that is based, at least in part, on achieving the desired lateral acceleration of the autonomous vehicle.
A turbofan engine comprising: - a gas turbine engine including a low pressure spool and a high pressure spool, the low pressure spool having a low pressure turbine; - a shaft of the low pressure spool coupled to and rotatable by operation of said low pressure turbine; - a fan stage coupled to said shaft; - a boost compressor stage located downstream of said fan stage and free from driven rotation with respect to the high pressure spool; and - means for rotational speed change of said boost compressor stage; - wherein said means for rotational speed change is a mechanical speed booster coupled with said shaft and said boost compressor stage, characterized in that the mechanical speed booster is operable to drive said boost compressor stage at a rotational speed greater than the rotational speed of said shaft. - a gas turbine engine including a low pressure spool and a high pressure spool, the low pressure spool having a low pressure turbine; - a shaft of the low pressure spool coupled to and rotatable by operation of said low pressure turbine; - a fan stage coupled to said shaft; - a boost compressor stage located downstream of said fan stage and free from driven rotation with respect to the high pressure spool; and - means for rotational speed change of said boost compressor stage; - wherein said means for rotational speed change is a mechanical speed booster coupled with said shaft and said boost compressor stage,
A method for conducting agricultural operations in a field using first and second autonomous vehicles comprising: (a) providing a mission plan for the first and second autonomous vehicles, the mission plan including first and second paths for the first and second autonomous vehicles to travel while performing first and second agricultural operations, respectively; (b) receiving in a base station progress information from the first and second autonomous vehicles indicating progress with respect to the first and second agricultural operations, respectively; (c) monitoring in the base station for an event condition reported by at least one of the first and second autonomous vehicles; and (d) upon receiving an event condition in the base station, said base station providing a revised mission plan for at least one of the first and second autonomous vehicles based on an established hierarchy in which the first vehicle is prioritized above the second vehicle, wherein the revised mission plan adjusts the second path for the second autonomous vehicle, to resolve the event condition. (a) providing a mission plan for the first and second autonomous vehicles, the mission plan including first and second paths for the first and second autonomous vehicles to travel while performing first and second agricultural operations, respectively; (b) receiving in a base station progress information from the first and second autonomous vehicles indicating progress with respect to the first and second agricultural operations, respectively; (c) monitoring in the base station for an event condition reported by at least one of the first and second autonomous vehicles; and (d) upon receiving an event condition in the base station, said base station providing a revised mission plan for at least one of the first and second autonomous vehicles based on an established hierarchy in which the first vehicle is prioritized above the second vehicle,
A method for configuring a Block Acknowledgement, BA, frame in a wireless communication system, the method comprising: receiving a Block Acknowledgement Request, BAR, frame in the data transmission from a transmitter; determining an overall size of a bitmap for the BA frame from the BAR frame to acknowledge the data transmission; configuring the BA frame of a response to include the bitmap having the determined overall size; and transmitting the configured BA frame to the transmitter, wherein the bitmap of the BA frame includes bits representing consecutive reception results of packets of the data transmission received from the transmitter, wherein the overall bitmap size is determined by the following equation: Overall bitmap size = ceiling m × n / 8 octets where ceiling [x] denotes a minimum integer from among integers exceeding 'x', the variable 'm' is the number of the consecutively received packets, and the variable 'n' is the maximum number of fragmentation packets, and wherein the variable 'm' and the variable 'n' are indicated from the BAR frame. receiving a Block Acknowledgement Request, BAR, frame in the data transmission from a transmitter; determining an overall size of a bitmap for the BA frame from the BAR frame to acknowledge the data transmission; configuring the BA frame of a response to include the bitmap having the determined overall size; and transmitting the configured BA frame to the transmitter, wherein the bitmap of the BA frame includes bits representing consecutive reception results of packets of the data transmission received from the transmitter, wherein the overall bitmap size is determined by the following equation: Overall bitmap size = ceiling m × n / 8 octets where ceiling [x] denotes a minimum integer from among integers exceeding 'x', the variable 'm' is the number of the consecutively received packets, and the variable 'n' is the maximum number of fragmentation packets, and wherein the variable 'm' and the variable 'n' are indicated from the BAR frame. where ceiling [x] denotes a minimum integer from among integers exceeding 'x', the variable 'm' is the number of the consecutively received packets, and the variable 'n' is the maximum number of fragmentation packets, and wherein the variable 'm' and the variable 'n' are indicated from the BAR frame.