mhurhangee/patent-ind-claim-en huggingface dataset:
A method for helping to protect an occupant of a vehicle equipped with an automated driving (AD) system and a vehicle safety system (VSS) by detecting low impact crash events with the vehicle, the method comprising: utilizing AD sensors of the AD system to identify possible low impact collision risks; utilizing VSS sensors of the vehicle safety system to determine a low impact collision resulting from the identified possible low impact collision, wherein utilizing AD sensors comprises utilizing AD cameras to identify possible low impact collision risks, and utilizing VSS sensors to determine a low impact collision comprises utilizing at least one of front mid/high impact accelerometers, side mid/high impact accelerometers, ACU accelerometers, and satellite side impact pressure sensors (PSATs), characterized by utilizing AD cameras to identify a vehicle zone for the low impact collision risk, identifying which of the front and side mid/high impact accelerometers of the VSS, ACU accelerometers, and satellite side impact pressure sensors (PSATs) are best suited to determine the occurrence of the low impact collision, and utilizing the identified accelerometer(s) and/or pressure sensor(s) to determine the low impact collision. utilizing AD sensors of the AD system to identify possible low impact collision risks; utilizing VSS sensors of the vehicle safety system to determine a low impact collision resulting from the identified possible low impact collision, wherein utilizing AD sensors comprises utilizing AD cameras to identify possible low impact collision risks, and utilizing VSS sensors to determine a low impact collision comprises utilizing at least one of front mid/high impact accelerometers, side mid/high impact accelerometers, ACU accelerometers, and satellite side impact pressure sensors (PSATs), characterized by utilizing AD cameras to identify a vehicle zone for the low impact collision risk, identifying which of the front and side mid/high impact accelerometers of the VSS, ACU accelerometers, and satellite side impact pressure sensors (PSATs) are best suited to determine the occurrence of the low impact collision, and utilizing the identified accelerometer(s) and/or pressure sensor(s) to determine the low impact collision.
A method for cutting a foil comprising or consisting of at least one layer which comprises or consists of a metal, said method comprising the steps of a) providing a means for positioning a foil; b) positioning a foil comprising or consisting of at least one layer, which comprises or consists of a metal, by the means for positioning a foil; c) providing a laser that is suitable for emitting pulsed laser radiation in the direction of the foil; d) emitting pulsed laser radiation from the laser in the direction of the foil; wherein the laser and/or the means for positioning a foil is/are controlled such that pulsed laser radiation, which the laser emits in the direction of the foil onto the foil, cuts through the at least one layer of the foil, characterized in that the laser and/or the means for positioning a foil are controlled in such a way that two consecutive pulses of the laser are not emitted onto the same area of the foil and at least two non-consecutive pulses of the laser are emitted onto the same area of the foil at a time interval which is greater than a pulse pause between two consecutive pulses. a) providing a means for positioning a foil; b) positioning a foil comprising or consisting of at least one layer, which comprises or consists of a metal, by the means for positioning a foil; c) providing a laser that is suitable for emitting pulsed laser radiation in the direction of the foil; d) emitting pulsed laser radiation from the laser in the direction of the foil; wherein the laser and/or the means for positioning a foil is/are controlled such that pulsed laser radiation, which the laser emits in the direction of the foil onto the foil, cuts through the at least one layer of the foil, characterized in that the laser and/or the means for positioning a foil are controlled in such a way that two consecutive pulses of the laser are not emitted onto the same area of the foil and at least two non-consecutive pulses of the laser are emitted onto the same area of the foil at a time interval which is greater than a pulse pause between two consecutive pulses.
A structural member for an automobile, comprising: a press-formed product formed from one steel sheet; and a reinforcing member fixed to the press-formed product , wherein the press-formed product includes two vertical wall portions and a top plate portion linking the two vertical wall portions , the reinforcing member is a member which has an L-shaped cross section and includes a first plate-like portion and a second plate-like portion , the first plate-like portion is fixed, by at least one kind selected from the group consisting of welding, adhesive bonding, brazing, riveting, and friction stir joining, to one of the vertical wall portions such that the second plate-like portion protrudes toward an outward direction from a side of the vertical wall portion along the top plate portion , a cross section of a corner portion at a boundary between the vertical wall portion and the top plate portion has a rounded shape, and the second plate-like portion is disposed on a top plate portion side with respect to a starting position of the rounded shape in the vertical wall portion , in such a manner that when load is applied from the top plate portion side, deformation toward an outward direction of the corner portion of the press-formed product is suppressed by a corner portion at a boundary between the first plate-like portion and the second plate-like portion of the reinforcing member , for making the vertical wall portion become more likely to fall inwardly. a press-formed product formed from one steel sheet; and a reinforcing member fixed to the press-formed product , wherein the press-formed product includes two vertical wall portions and a top plate portion linking the two vertical wall portions , the reinforcing member is a member which has an L-shaped cross section and includes a first plate-like portion and a second plate-like portion , the first plate-like portion is fixed, by at least one kind selected from the group consisting of welding, adhesive bonding, brazing, riveting, and friction stir joining, to one of the vertical wall portions such that the second plate-like portion protrudes toward an outward direction from a side of the vertical wall portion along the top plate portion , a cross section of a corner portion at a boundary between the vertical wall portion and the top plate portion has a rounded shape, and the second plate-like portion is disposed on a top plate portion side with respect to a starting position of the rounded shape in the vertical wall portion , in such a manner that when load is applied from the top plate portion side, deformation toward an outward direction of the corner portion of the press-formed product is suppressed by a corner portion at a boundary between the first plate-like portion and the second plate-like portion of the reinforcing member , for making the vertical wall portion become more likely to fall inwardly.
A packet transmission method, wherein the method comprises: receiving , by a first device, a first packet from a second device, wherein the first packet comprises a primary scheduling identifier, and the primary scheduling identifier is used to identify that the second device has permission to select a first path; determining , by the first device, the first path used to transmit the first packet according to the first packet; and sending , by the first device, a second packet to the second device by using the first path, wherein the second packet comprises a following identifier, and the following identifier is used to identify that the first device sends a packet by using a transmission path selected by a device other than the first device. receiving , by a first device, a first packet from a second device, wherein the first packet comprises a primary scheduling identifier, and the primary scheduling identifier is used to identify that the second device has permission to select a first path; determining , by the first device, the first path used to transmit the first packet according to the first packet; and sending , by the first device, a second packet to the second device by using the first path, wherein the second packet comprises a following identifier, and the following identifier is used to identify that the first device sends a packet by using a transmission path selected by a device other than the first device.
A self-propelled combine harvester with a separating device , which comprises at least one pair of axial rotors disposed parallel to one another, and with material processing means (9-11) disposed in front of the separating device , which have at least one feed drum for feeding a flow of harvested material into the separating device , wherein, in an inflow region disposed in front of the separating device , a separating element , in particular a blade, is pivotably disposed in order to support a division of the flow of harvested material into two partial flows , characterized in that an actuator is provided for pivoting the separating element , wherein a control device automatically controls the actuator as a function of a load status of at least one of the material processing means (9-11) in a manner such that, in the case of a high load being applied to the at least one material processing means (9-11), the separating element is located in a first position and in the case of a low load being applied to the at least one material processing means (9-11), the separating element is located in a second position , wherein a distance from the separating element to the feed drum in the first position is smaller than in the second position . wherein, in an inflow region disposed in front of the separating device , a separating element , in particular a blade, is pivotably disposed in order to support a division of the flow of harvested material into two partial flows , characterized in that an actuator is provided for pivoting the separating element , wherein a control device automatically controls the actuator as a function of a load status of at least one of the material processing means (9-11) in a manner such that, in the case of a high load being applied to the at least one material processing means (9-11), the separating element is located in a first position and in the case of a low load being applied to the at least one material processing means (9-11), the separating element is located in a second position , wherein a distance from the separating element to the feed drum in the first position is smaller than in the second position .
Apparatus for the packaging of containers of devices for pharmaceutical use, comprising: - a robotic bagging arm movable from a gripping position, in which it picks up a container previously sealed by at least one protective sheet , to a release position in which it inserts said container in a bag through a suitable opening provided on a side of the bag ; - wherein said robotic bagging arm is connected to at least one position control camera ; characterised in that said position control camera is configured to read coordinates of a midpoint (M) of said opening with respect to a lying plane (P) on which said bag lies and/or an angle of rotation of the bag with respect to an axis (Z) perpendicular to said lying plane (P), so as to ensure the correct positioning and release of the container inside the bag . - a robotic bagging arm movable from a gripping position, in which it picks up a container previously sealed by at least one protective sheet , to a release position in which it inserts said container in a bag through a suitable opening provided on a side of the bag ; - wherein said robotic bagging arm is connected to at least one position control camera ;
A method of decoding video data, the method comprising: parsing from a picture parameter set a first syntax element for a first picture, wherein a first value for the first syntax element indicates that short slice headers are enabled for slices of the first picture; in response to the first syntax element having the first value, decoding, in respective slice headers of slices in the first picture, a second syntax element indicating whether that respective slice header is a short slice header for which slice header syntax elements are not included which can be inherited from a full slice header of a slice that precedes the respective slice in decoding order, otherwise not decoding the second syntax element; and ; in response to the first syntax element having the first value and a respective second syntax element, for a first slice of the first picture, having a value indicating that the first slice should inherit fields from the full slice header of the slice that precedes the respective slice in decoding order, decoding the first slice of the first picture using the inherited fields of the full slice header of the slice that precedes the first slice in decoding order. parsing from a picture parameter set a first syntax element for a first picture, wherein a first value for the first syntax element indicates that short slice headers are enabled for slices of the first picture; in response to the first syntax element having the first value, decoding, in respective slice headers of slices in the first picture, a second syntax element indicating whether that respective slice header is a short slice header for which slice header syntax elements are not included which can be inherited from a full slice header of a slice that precedes the respective slice in decoding order, otherwise not decoding the second syntax element; and ; in response to the first syntax element having the first value and a respective second syntax element, for a first slice of the first picture, having a value indicating that the first slice should inherit fields from the full slice header of the slice that precedes the respective slice in decoding order, decoding the first slice of the first picture using the inherited fields of the full slice header of the slice that precedes the first slice in decoding order.
A process for purifying tall oil material, comprising the following steps (a) evaporating the tall oil material in a first evaporation step (E) to produce a first fraction comprising light hydrocarbons and water and a second fraction comprising fatty acids, resin acids, neutral substances and residue components, (b) evaporating said second fraction in at least one further evaporation step (G; F,G) to produce a third fraction comprising fatty acids, resin acids and light neutral substances, and a residue fraction, and (c) recovering said first fraction, third fraction and residue fraction, (d) one or more hydroprocessing step(s) (C2) of converting the third fraction to one or more biofuels or components thereof selected from the group consisting of diesel, jet fuel, gasoline, naphta and fuel gases; characterized in that the first evaporation step (E) is performed at a temperature of 50 to 250°C and at a pressure of 5 to 100 mbar. (a) evaporating the tall oil material in a first evaporation step (E) to produce a first fraction comprising light hydrocarbons and water and a second fraction comprising fatty acids, resin acids, neutral substances and residue components, (b) evaporating said second fraction in at least one further evaporation step (G; F,G) to produce a third fraction comprising fatty acids, resin acids and light neutral substances, and a residue fraction, and (c) recovering said first fraction, third fraction and residue fraction, (d) one or more hydroprocessing step(s) (C2) of converting the third fraction to one or more biofuels or components thereof selected from the group consisting of diesel, jet fuel, gasoline, naphta and fuel gases; characterized in that the first evaporation step (E) is performed at a temperature of 50 to 250°C and at a pressure of 5 to 100 mbar.
Shelf device for bakery products (B), in particular sliced bread, for provision of bakery products (B), in particular in the gastronomic sector, wherein the shelf device comprises a base surface , at least two wall elements , at least one rear element , at least one cover element , at least one opening , and at least one closing plate for closing the opening , and the wall elements together with the base element , cover element and rear element span a space in which the bakery products (B) can be arranged; wherein the shelf device comprises at least one sliding element on which the bakery product (B) can be arranged, and at least one connecting element and a movement conversion element ; wherein the sliding element is connected to the closing plate by the connecting element and the movement conversion element so that by open-pivoting of the closing plate in the pivot direction (S), the connecting element and the movement conversion element can be actuated and thereby the rotational movement of the closing plate in the pivot direction (S) can be converted into a sliding movement of the sliding element from the space of the shelf device through the opening of the shelf device in a displacement direction (V); characterised in that the closing plate is configured as a flat flap and in the open-pivoted, opened state is oriented relative to the sliding tray element such that it completely covers the sliding tray element in the vertical direction, wherein the closing plate is arranged exactly parallel, or at an angle to the sliding element and serves as spittle protection for the bakery products (B).
A method of operating a sleeper seat mode for a seating assembly comprising: determining an occupancy status of said seating assembly ; activating an actuation assembly of a seatback resulting in rotation of said seatback rearward; extending extendable leg support of said seating assembly in a forward direction; and raising a rear seat lift device of said seating assembly to a heightened position, wherein a rear portion of a seat is elevated relative to the seatback to minimize a height difference between the rear portion of the seat and a bottom portion of the seatback to provide optimal rest conditions for the occupant; characterized by automatically, simultaneously rotating the seatback rearward, extending the extendable leg support forward, and raising the rear seat lift device . determining an occupancy status of said seating assembly ; activating an actuation assembly of a seatback resulting in rotation of said seatback rearward; extending extendable leg support of said seating assembly in a forward direction; and raising a rear seat lift device of said seating assembly to a heightened position, wherein a rear portion of a seat is elevated relative to the seatback to minimize a height difference between the rear portion of the seat and a bottom portion of the seatback to provide optimal rest conditions for the occupant; characterized by automatically, simultaneously rotating the seatback rearward, extending the extendable leg support forward, and raising the rear seat lift device .
An ejection device for fluid , comprising a solid body including: a chamber for containing said fluid ; an ejection nozzle in fluidic connection with said chamber ; an actuator operatively coupled to said chamber to generate, in use, one or more pressure waves in said fluid such as to cause an ejection of the fluid from the ejection nozzle ; and a fluidic path , forming a fluidic connection towards the chamber for feeding the fluid to the chamber , wherein the solid body further integrates a damping cavity and a damping membrane suspended over the damping cavity , wherein the solid body further includes: a first structural element housing the chamber , the ejection nozzle and the actuator ; and a second structural element , coupled to the first structural element , housing the fluidic path , characterized in that the damping membrane is arranged, at least in part, upstream the fluidic path for receiving the fluid before it accesses the fluidic path, the damping cavity and the damping membrane are integrated in the second structural element, the second structural element is a monolithic body, said damping cavity is buried in said monolithic body and said membrane is integrated in said monolithic body. a chamber for containing said fluid ; an ejection nozzle in fluidic connection with said chamber ; an actuator operatively coupled to said chamber to generate, in use, one or more pressure waves in said fluid such as to cause an ejection of the fluid from the ejection nozzle ; and a fluidic path , forming a fluidic connection towards the chamber for feeding the fluid to the chamber , wherein the solid body further integrates a damping cavity and a damping membrane suspended over the damping cavity , wherein the solid body further includes: a first structural element housing the chamber , the ejection nozzle and the actuator ; and a second structural element , coupled to the first structural element , housing the fluidic path , characterized in that the damping membrane is arranged, at least in part, upstream the fluidic path for receiving the fluid before it accesses the fluidic path, the damping cavity and the damping membrane are integrated in the second structural element, the second structural element is a monolithic body, said damping cavity is buried in said monolithic body and said membrane is integrated in said monolithic body. a first structural element housing the chamber , the ejection nozzle and the actuator ; and a second structural element , coupled to the first structural element , housing the fluidic path , characterized in that the damping membrane is arranged, at least in part, upstream the fluidic path for receiving the fluid before it accesses the fluidic path, the damping cavity and the damping membrane are integrated in the second structural element, the second structural element is a monolithic body, said damping cavity is buried in said monolithic body and said membrane is integrated in said monolithic body.
A method in a first node (V1, 200, 300) of a communications network, the communications network comprising a plurality of nodes, the first node having access to a memory on which is stored a routing table, the routing table comprising respective network addresses and indications of the geographical location for a subset of the plurality of nodes, the method comprising: obtaining a packet to be transmitted, the packet comprising an identification of the network address of a destination node ; determining , from the routing table, a geographical location of a second node to which the packet is to be transmitted; and determining whether to defer transmission of the packet to the second node based on a geographical location of the first node, the geographical location of the second node, and at least one of a velocity of the first node and a velocity of the second node, the method being characterised in determining a distance between said first and second nodes and responsive to said distance determination that the distance between the first node and the second node is increasing, transmitting the packet to the second node without deferral. obtaining a packet to be transmitted, the packet comprising an identification of the network address of a destination node ; determining , from the routing table, a geographical location of a second node to which the packet is to be transmitted; and determining whether to defer transmission of the packet to the second node based on a geographical location of the first node, the geographical location of the second node, and at least one of a velocity of the first node and a velocity of the second node, the method being characterised in determining a distance between said first and second nodes and responsive to said distance determination that the distance between the first node and the second node is increasing, transmitting the packet to the second node without deferral.