mhurhangee/ep-ind-claims huggingface dataset:
A method for computing a forwarding path, wherein the method comprises: receiving, by a network device (108, 500, 700), a notification packet sent by a forwarding node (101 - 107, 600, 800), wherein the notification packet comprises a link delay and device forwarding delay of the forwarding node (101 - 107, 600, 800) that sends the notification packet and, wherein the link delay is a transmission delay of a link connected to the forwarding node (101 - 107, 600, 800) that sends the notification packet, wherein the notification packet is open shortest path first, OSPF, packet or an intermediate system-to-intermediate system, IS-IS, packet; obtaining, by the network device (108, 500, 700), the device forwarding delay of the forwarding node (101 - 107, 600, 800) and the link delay based on the notification packet; and computing, by the network device (108, 500, 700), a forwarding path between a first forwarding node (101 - 107, 600, 800) and a second forwarding node (101 - 107, 600, 800) based on the device forwarding delay of the forwarding node (101 - 107, 600, 800) and the link delay, and a deterministic minimum value and a maximum value of a forwarding delay of the forwarding path meets a delay requirement of a service. receiving, by a network device (108, 500, 700), a notification packet sent by a forwarding node (101 - 107, 600, 800), wherein the notification packet comprises a link delay and device forwarding delay of the forwarding node (101 - 107, 600, 800) that sends the notification packet and, wherein the link delay is a transmission delay of a link connected to the forwarding node (101 - 107, 600, 800) that sends the notification packet, wherein the notification packet is open shortest path first, OSPF, packet or an intermediate system-to-intermediate system, IS-IS, packet; obtaining, by the network device (108, 500, 700), the device forwarding delay of the forwarding node (101 - 107, 600, 800) and the link delay based on the notification packet; and computing, by the network device (108, 500, 700), a forwarding path between a first forwarding node (101 - 107, 600, 800) and a second forwarding node (101 - 107, 600, 800) based on the device forwarding delay of the forwarding node (101 - 107, 600, 800) and the link delay, and a deterministic minimum value and a maximum value of a forwarding delay of the forwarding path meets a delay requirement of a service.
A method of guidance to a charging facility (1A, 1B) for guiding a user of an electric vehicle to the charging facility, comprising: - searching for charging facilities (1A, 1B) existing within a range of a predetermined distance from a current position of the electric vehicle; - in the case when a first charging facility and another charging facility having lower output power than that of the first charging facility are found during said searching, - calculating an estimated value of a remaining charged capacity of the electric vehicle if the vehicle would travel to each of the searched charging facilities (1A, 1B), the other charging facility being in a predetermined positional relationship with the first charging facility; - calculating an estimated value of a charging time (T1, T2) if charging the electric vehicle from the estimated value of the remaining charged capacity to a predetermined charged capacity at each of the respective searched charging facilities (1A, 1B); and characterised in that - in the case when a difference between the estimated value of the charging time at the first charging facility and the estimated value of the charging time at the other charging facility is a predetermined value or less, presenting the other charging facility as a recommended charging facility (1A, 1B) to the user of the electric vehicle. - searching for charging facilities (1A, 1B) existing within a range of a predetermined distance from a current position of the electric vehicle; - in the case when a first charging facility and another charging facility having lower output power than that of the first charging facility are found during said searching, - calculating an estimated value of a remaining charged capacity of the electric vehicle if the vehicle would travel to each of the searched charging facilities (1A, 1B), the other charging facility being in a predetermined positional relationship with the first charging facility; - calculating an estimated value of a charging time (T1, T2) if charging the electric vehicle from the estimated value of the remaining charged capacity to a predetermined charged capacity at each of the respective searched charging facilities (1A, 1B); and characterised in that - in the case when a difference between the estimated value of the charging time at the first charging facility and the estimated value of the charging time at the other charging facility is a predetermined value or less, presenting the other charging facility as a recommended charging facility (1A, 1B) to the user of the electric vehicle.
A method, comprising: adjusting a field of view of a LIDAR sensor mounted to a vehicle according to a number of microelectromechanical MEMS mirrors among a plurality of MEMS mirrors of the LIDAR sensor, the number of MEMS mirrors operated to scan an external environment of the vehicle; wherein the number of MEMS mirrors is determined according to one or more of a vehicle speed and an intended vehicle path; and reducing a number of MEMS mirrors operated responsive to a decrease in vehicle speed below a threshold speed, wherein reducing the number of MEMS mirrors operated includes stopping electrical power to an equal number of MEMS mirrors that scan out-of-path environments on both sides outside of a desired field of view while powering a second number of MEMS mirrors that scan the desired field of view, the desired field of view including the intended vehicle path (609, 629, 639, 549, 659, 669) and a threshold region flanking and directly adjacent to the intended vehicle path. adjusting a field of view of a LIDAR sensor mounted to a vehicle according to a number of microelectromechanical MEMS mirrors among a plurality of MEMS mirrors of the LIDAR sensor, the number of MEMS mirrors operated to scan an external environment of the vehicle; wherein the number of MEMS mirrors is determined according to one or more of a vehicle speed and an intended vehicle path; and reducing a number of MEMS mirrors operated responsive to a decrease in vehicle speed below a threshold speed, wherein reducing the number of MEMS mirrors operated includes stopping electrical power to an equal number of MEMS mirrors that scan out-of-path environments on both sides outside of a desired field of view while powering a second number of MEMS mirrors that scan the desired field of view, the desired field of view including the intended vehicle path (609, 629, 639, 549, 659, 669) and a threshold region flanking and directly adjacent to the intended vehicle path.
Window or door, comprising - a frame formed of frame profile portions and having a fold surface and a frame groove adjoining the fold surface; - a sash frame which is formed of sash profile portions, which is pivotably mounted and closeable against the frame and in which a surface element is received; and - a mount, by means of which the sash frame can be locked against the frame, wherein the mount comprises at least one mount element, one side of which rests on the fold surface of the frame at least in part and which comprises at least one foot element (24, 24.1, 24.2) which engages in the frame grove of the frame, and which comprises at least one fastening opening (27.1, 27.2) through which a fastening means engages, by which fastening means the mount element is fixed on the frame and which fastening means protrudes into the frame, wherein the mount element further comprises at least one fold base element on the side thereof facing the frame, which element engages in a recess in the frame, in particular is guided through a recess in the frame, characterised in that the mount element comprises a further side which is different from the side resting on the fold surface and which rests on a wall (16.3) of the frame, at least in portions, and the wall (16.3) of the frame, on which the further side of the mount element rests, divides the fold surface into portions which are arranged at different height levels (16.1, 16.2) relative to the sash frame. - a frame formed of frame profile portions and having a fold surface and a frame groove adjoining the fold surface; - a sash frame which is formed of sash profile portions, which is pivotably mounted and closeable against the frame and in which a surface element is received; and - a mount, by means of which the sash frame can be locked against the frame, wherein the mount comprises at least one mount element, one side of which rests on the fold surface of the frame at least in part and which comprises at least one foot element (24, 24.1, 24.2) which engages in the frame grove of the frame, and which comprises at least one fastening opening (27.1, 27.2) through which a fastening means engages, by which fastening means the mount element is fixed on the frame and which fastening means protrudes into the frame, wherein the mount element further comprises at least one fold base element on the side thereof facing the frame, which element engages in a recess in the frame, in particular is guided through a recess in the frame,
An actuator device comprising: a support portion; a movable portion on which a conductor is disposed; and a torsion bar portion (10, 14) on which wiring connected to the conductor is disposed and that couples the movable portion to the support portion so as to be swingable, wherein the torsion bar portion (10, 14) is of a meandering shape including a plurality of straight sections extending in a first direction along a swing axis of the torsion bar portion (10, 14) and juxtaposed in a second direction intersecting with the first direction, and a plurality of turnover sections alternately coupling two ends of the straight sections, wherein the wiring includes first wiring sections disposed on the respective turnover sections and second wiring sections connected to the first wiring sections and disposed on the respective straight sections, wherein the first wiring sections include damascene wiring sections that are disposed so as to be embedded in grooves formed in the turnover sections and that are made of a first metal material including Cu, and wherein the second wiring sections are disposed on the straight sections and are made of a second metal material more resistant to plastic deformation than the first metal material. a support portion; a movable portion on which a conductor is disposed; and a torsion bar portion (10, 14) on which wiring connected to the conductor is disposed and that couples the movable portion to the support portion so as to be swingable, wherein the torsion bar portion (10, 14) is of a meandering shape including a plurality of straight sections extending in a first direction along a swing axis of the torsion bar portion (10, 14) and juxtaposed in a second direction intersecting with the first direction, and a plurality of turnover sections alternately coupling two ends of the straight sections, wherein the wiring includes first wiring sections disposed on the respective turnover sections and second wiring sections connected to the first wiring sections and disposed on the respective straight sections, wherein the first wiring sections include damascene wiring sections that are disposed so as to be embedded in grooves formed in the turnover sections and that are made of a first metal material including Cu, and wherein the second wiring sections are disposed on the straight sections and are made of a second metal material more resistant to plastic deformation than the first metal material.
Method, preferably a microprocessor controlled method, for carrying out a verification and/or a calibration test on a pressure sensor, the method comprising the steps of: - fluidly connecting the pressure sensor to a first fluid storage vessel; - fluidly connecting the pressure sensor to a second fluid storage vessel; - providing an initial fluid pressure p 0 at the pressure sensor, the first fluid storage vessel and the second fluid storage vessel; - carrying out a pressure measurement of the initial fluid pressure p 0 at a time to by means of the pressure sensor; - fluidly disconnecting the second fluid storage vessel from the pressure sensor and the first fluid storage vessel - providing a first fluid pressure p 1 at the first fluid storage vessel; - carrying out a pressure measurement of the first fluid pressure p 1 at a time t1 by means of the pressure sensor; - fluidly connecting the second fluid storage vessel with the pressure sensor and the first fluid storage vessel, so that a second fluid pressure p 2 is provided at the pressure sensor, wherein the second fluid pressure is between the initial fluid pressure p 0 and the first fluid pressure p 1; - carrying out a pressure measurement of the second fluid pressure p 2 at a time t 2 by means of the pressure sensor. - fluidly connecting the pressure sensor to a first fluid storage vessel; - fluidly connecting the pressure sensor to a second fluid storage vessel; - providing an initial fluid pressure p 0 at the pressure sensor, the first fluid storage vessel and the second fluid storage vessel; - carrying out a pressure measurement of the initial fluid pressure p 0 at a time to by means of the pressure sensor; - fluidly disconnecting the second fluid storage vessel from the pressure sensor and the first fluid storage vessel - providing a first fluid pressure p 1 at the first fluid storage vessel; - carrying out a pressure measurement of the first fluid pressure p 1 at a time t1 by means of the pressure sensor; - fluidly connecting the second fluid storage vessel with the pressure sensor and the first fluid storage vessel, so that a second fluid pressure p 2 is provided at the pressure sensor, wherein the second fluid pressure is between the initial fluid pressure p 0 and the first fluid pressure p 1; - carrying out a pressure measurement of the second fluid pressure p 2 at a time t 2 by means of the pressure sensor.
A nucleic acid molecule encoding a functional chimeric acid alpha-glucosidase protein, comprising a signal peptide moiety and a functional human GAA moiety, wherein said signal peptide moiety has an amino acid sequence selected from the group consisting of SEQ ID NO:2 to 4, or wherein said signal peptide moiety is a functional signal peptide moiety having an amino acid sequence comprising from 1 to 5 amino acid deletion(s), insertion(s) or substitution(s) as compared to the sequence of SEQ ID NOs:2 to 4. wherein said signal peptide moiety has an amino acid sequence selected from the group consisting of SEQ ID NO:2 to 4, or wherein said signal peptide moiety is a functional signal peptide moiety having an amino acid sequence comprising from 1 to 5 amino acid deletion(s), insertion(s) or substitution(s) as compared to the sequence of SEQ ID NOs:2 to 4.
A method of operating a wind turbine which has at least two rotor blades, comprising the steps: carrying out a first ice detection method by a first ice accretion detection unit, outputting a first warning signal if an ice accretion is detected at one of the rotor blades, that exceeds a first threshold value, by the first ice detection method, carrying out a second ice detection method by a second ice accretion detection unit, outputting a second warning signal if an ice accretion is detected at one of the rotor blades, that exceeds a second threshold value, by the second ice detection method, outputting an enable signal if freedom from ice is detected at the at least two rotor blades by the second ice detection method, intervening in the operation of the wind turbine by the control unit if the first or second warning signal has been detected, and deactivating intervention in the operation of the wind turbine by the control unit if the control unit receives an enable signal and has previously received the second warning signal. carrying out a first ice detection method by a first ice accretion detection unit, outputting a first warning signal if an ice accretion is detected at one of the rotor blades, that exceeds a first threshold value, by the first ice detection method, carrying out a second ice detection method by a second ice accretion detection unit, outputting a second warning signal if an ice accretion is detected at one of the rotor blades, that exceeds a second threshold value, by the second ice detection method, outputting an enable signal if freedom from ice is detected at the at least two rotor blades by the second ice detection method, intervening in the operation of the wind turbine by the control unit if the first or second warning signal has been detected, and deactivating intervention in the operation of the wind turbine by the control unit if the control unit receives an enable signal and has previously received the second warning signal.
A communication apparatus (30, 30A), comprising: a first table storing processing rules transmitted from a control apparatus (20, 20A, 20B); a packet processing unit processing an incoming packet based on a processing rule corresponding thereto among the processing rules stored in the first table; a second table managing a predetermined condition for referring to the first table; and a statistical value measurement unit measuring a statistical value compared with the predetermined condition; wherein the packet processing unit determines whether to refer to the first table based on the predetermined condition; and wherein the second table stores a processing rule for determining whether to refer to the first table based on the statistical value. a first table storing processing rules transmitted from a control apparatus (20, 20A, 20B); a packet processing unit processing an incoming packet based on a processing rule corresponding thereto among the processing rules stored in the first table; a second table managing a predetermined condition for referring to the first table; and a statistical value measurement unit measuring a statistical value compared with the predetermined condition; wherein the packet processing unit determines whether to refer to the first table based on the predetermined condition; and wherein the second table stores a processing rule for determining whether to refer to the first table based on the statistical value.
A phosphine precursor for the preparation of a quantum dot, wherein the phospine precursor is selected form the group consisting of the following Structural Formulas:
A fuel injection system for use in an internal combustion engine having an engine housing comprises two or more unit pumps (100a, 100b) and a plurality of fuel injectors, each of the unit pumps being received, in use, within a pocket provided in the engine housing and including a pumping plunger that is reciprocable under the influence of a drive arrangement to cause pressurisation of fuel within a pumping chamber and an outlet valve arrangement which is arranged to control the delivery of pressurised fuel from the pumping chamber directly to an accumulator volume through an associated high pressure fuel line (20a, 20b), said accumulator volume being arranged to supply pressurised fuel to both or all of the fuel injectors and wherein each drive arrangement includes a cam that is mounted upon a cam shaft, which extends into the engine housing and which carries the or each of the other cams, and wherein only one of the unit pumps includes an inlet metering valve arrangement which is operable by means of an Engine Control Unit to control the rate of flow of fuel into the pumping chamber of that unit pump, and wherein the or each of the other unit pumps is provided with an inlet in communication with the inlet metering valve arrangement of the first unit pump via an outlet of the first unit pump so that said inlet receives a metered flow of fuel from said outlet such that said inlet metering valve arrangement also controls the quantity of fuel to be pressurised within the pumping chambers of the other unit pump or pumps.
A touch sensor integrated type display device, comprising: at least one first electrode arranged on a first layer, wherein the at least one first electrode operates as a common electrode or a first touch electrode depending on a voltage (Vcom, Vtsp) applied to the first electrode; at least one first sub-pixel electrode (PX11, PX12) disposed laterally on at least one side of the at least one first electrode on the first layer, and spaced from the at least one first electrode; at least one second electrode arranged on a second layer, wherein the at least one second electrode operates as a common electrode or a second touch electrode depending on a voltage (Vcom, Vtsp) applied to the at least one second electrode; and at least one second sub-pixel electrode disposed laterally on at least one side of the at least one second electrode on the second layer, and spaced from the at least one second electrode, wherein the at least one first electrode forms an electrode line arranged in a first direction, and the at least one first electrode overlaps with the at least one second sub-pixel electrode with the second layer between them, and wherein the at least one second electrode forms an electrode line arranged in a second direction crossing over the first direction, and the at least one second electrode overlaps with the at least one first sub-pixel electrode (PX11, PX12) with the second layer between them. at least one first electrode arranged on a first layer, wherein the at least one first electrode operates as a common electrode or a first touch electrode depending on a voltage (Vcom, Vtsp) applied to the first electrode; at least one first sub-pixel electrode (PX11, PX12) disposed laterally on at least one side of the at least one first electrode on the first layer, and spaced from the at least one first electrode; at least one second electrode arranged on a second layer, wherein the at least one second electrode operates as a common electrode or a second touch electrode depending on a voltage (Vcom, Vtsp) applied to the at least one second electrode; and at least one second sub-pixel electrode disposed laterally on at least one side of the at least one second electrode on the second layer, and spaced from the at least one second electrode, wherein the at least one first electrode forms an electrode line arranged in a first direction, and the at least one first electrode overlaps with the at least one second sub-pixel electrode with the second layer between them, and wherein the at least one second electrode forms an electrode line arranged in a second direction crossing over the first direction, and the at least one second electrode overlaps with the at least one first sub-pixel electrode (PX11, PX12) with the second layer between them.