mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a route and time frame (1, 2) of a motor vehicle, said method comprising the following steps: - detecting at least one destination; - ascertaining a travel route to the at least one destination; - detecting an adjustable first travel mode of the motor vehicle for at least one first portion of the travel route, - depending on the first travel mode, ascertaining an adjustable second travel mode of the vehicle for at least one second portion of the travel route which is necessary or recommended for successfully traversing the travel route to the at least one destination, - determining the route and time frame (1, 2) of the motor vehicle depending on the first travel mode and the second travel mode; and - displaying the route and time frame (1, 2), this comprising a display of the second travel mode. - detecting at least one destination; - ascertaining a travel route to the at least one destination; - detecting an adjustable first travel mode of the motor vehicle for at least one first portion of the travel route, - depending on the first travel mode, ascertaining an adjustable second travel mode of the vehicle for at least one second portion of the travel route which is necessary or recommended for successfully traversing the travel route to the at least one destination, - determining the route and time frame (1, 2) of the motor vehicle depending on the first travel mode and the second travel mode; and - displaying the route and time frame (1, 2), this comprising a display of the second travel mode.
A system comprising a battery pack and a battery pack discharging device) for discharging a battery pack, the battery pack comprising battery modules and having a positive voltage terminal and a negative voltage terminal, the battery modules having a positive terminal and a negative terminal, the battery pack discharging device comprising: a hand-held member having first and second conductive members (106, 107) and a resistor electrically coupled between the first and second conductive members; and a docking station having a housing and first and second contact members (260, 262) disposed in the housing, the housing having first and second apertures extending therethrough (290, 292), the hand-held member configured to be at least partially disposed in the first and second apertures, respectively, of the housing such that the first and second conductive members contact the first and second contact members, respectively, the system being characterized in that the docking station is assembled onto the battery pack and that the first and second contact members of the docking station are configured to be connected to the terminals of the battery modules. a hand-held member having first and second conductive members (106, 107) and a resistor electrically coupled between the first and second conductive members; and a docking station having a housing and first and second contact members (260, 262) disposed in the housing, the housing having first and second apertures extending therethrough (290, 292), the hand-held member configured to be at least partially disposed in the first and second apertures, respectively, of the housing such that the first and second conductive members contact the first and second contact members, respectively,
A method of operation of a positioning system, the method comprising: obtaining an estimate of the heading, relative to respective ones of a plurality of transmitters, of a body whose position or velocity is to be estimated; tracking respective signals (70, 72, 74, 76) from the plurality of transmitters (60, 62); obtaining a respective Doppler measurement from each of said tracked signals (70, 72, 74, 76); for each of said tracked signals (70, 72, 74, 76), estimating a speed of said body in the direction of its heading using the estimate of the heading of the body and the respective Doppler measurement, and determining whether the estimated speed of the body is consistent with the signal having been received along a direct path from the transmitter (60, 62); and disregarding signals that provide information about the speed of the body that is inconsistent with the signal having been received along a direct path from the transmitter (60, 62), when estimating the position or velocity of the body. obtaining an estimate of the heading, relative to respective ones of a plurality of transmitters, of a body whose position or velocity is to be estimated; tracking respective signals (70, 72, 74, 76) from the plurality of transmitters (60, 62); obtaining a respective Doppler measurement from each of said tracked signals (70, 72, 74, 76); for each of said tracked signals (70, 72, 74, 76), estimating a speed of said body in the direction of its heading using the estimate of the heading of the body and the respective Doppler measurement, and determining whether the estimated speed of the body is consistent with the signal having been received along a direct path from the transmitter (60, 62); and disregarding signals that provide information about the speed of the body that is inconsistent with the signal having been received along a direct path from the transmitter (60, 62), when estimating the position or velocity of the body.
A method of bleeding a hydraulic braking system of a vehicle comprising an electronic stability control system, and comprising at least a hydraulic pump which, at its suction side, is in fluid conducting communication with a brake fluid reservoir and, at its pressure side, is in fluid conducting communication with at least a brake cylinder, wherein at least a valve for opening and closing the fluid conducting communication is provided between the hydraulic pump and each brake cylinder, including at least the following steps: - providing brake fluid to the brake fluid reservoir while carrying out all subsequent steps, - opening a bleeder screw on at least one brake cylinder, - starting the hydraulic pump, - opening and closing of at least a valve, - stopping the hydraulic pump, and - closing the bleeder screw, characterized in that the steps of starting and stopping said hydraulic pump and the steps of opening and closing said valve(s) are carried out by said electronic stability control system, such that fresh brake fluid from said brake fluid reservoir is drawn out of said open bleeder screw at said brake cylinder. - providing brake fluid to the brake fluid reservoir while carrying out all subsequent steps, - opening a bleeder screw on at least one brake cylinder, - starting the hydraulic pump, - opening and closing of at least a valve, - stopping the hydraulic pump, and - closing the bleeder screw, characterized in that the steps of starting and stopping said hydraulic pump and the steps of opening and closing said valve(s) are carried out by said electronic stability control system, such that fresh brake fluid from said brake fluid reservoir is drawn out of said open bleeder screw at said brake cylinder.
Vehicle provided with a powertrain, said powertrain comprising at least one heat engine (10, 20), said vehicle having an air-conditioning system for controlling the air temperature in a section of the vehicle, said air-conditioning system comprising a fluid circulating in a fluid circulation system, the fluid circulation system comprising a fluid circuit running through the vehicle, said fluid circulation system comprising at least one pump (32, 33) configured to cause said fluid to circulate in said fluid circuit, characterized in that said vehicle comprises an injection member (70, 72) for each heat engine (10, 20) of said at least one heat engine, said injection member (70, 72) being configured to inject said fluid into the associated heat engine (10, 20), said vehicle comprising a back-up circuit fluidly connecting the fluid circulation system to said injection member (70, 72), said back-up circuit comprising a distribution device controlled by a controller to allow a fluid circulation to said injection member (70, 72) upon command.
A coded light device for providing a mobile device with a product-related code comprising: - a light source to be mounted to illuminate a product and configured to emit coded light, characterized by: - an identifier detection unit configured to detect a product identifier of the product, wherein the identifier detection unit is configured to detect the product identifier by at least one of: - a one-dimensional bar code detector; - a two-dimensional bar code detector; and - an RFID reader; - a processing unit, having a code generator configured to generate the product-related code on basis of the product identifier, and - a light source controller configured to control the light source to emit the product-related code by coding its light output.. - a light source to be mounted to illuminate a product and configured to emit coded light, - an identifier detection unit configured to detect a product identifier of the product, wherein the identifier detection unit is configured to detect the product identifier by at least one of: - a one-dimensional bar code detector; - a two-dimensional bar code detector; and - an RFID reader; - a one-dimensional bar code detector; - a two-dimensional bar code detector; and - an RFID reader; - a processing unit, having a code generator configured to generate the product-related code on basis of the product identifier, and - a light source controller configured to control the light source to emit the product-related code by coding its light output..
A laminated tube container comprising a tube body that includes a light blocking layer between an innermost layer and an outermost layer made of resin, wherein the tube body has: a butted portion in which both side edges (11a, 11b) of a laminated sheet constituting the tube body are butted against each other; and a reinforcing tape portion provided on an inner surface of the tube body along the butted portion, the reinforcing tape portion including: a pair of resin layers (31, 32); and an intermediate layer that includes an aluminum layer and is disposed between the pair of resin layers (31, 32), wherein both sides of the reinforcing tape portion are provided with a resin cover portion configured to cover both side edges of the intermediate layer, and characterized by that a color of the cover portion is different from a color of the resin layer on a side exposed to an inside of the tube body and a color of the intermediate layer. the tube body has: a butted portion in which both side edges (11a, 11b) of a laminated sheet constituting the tube body are butted against each other; and a reinforcing tape portion provided on an inner surface of the tube body along the butted portion, the reinforcing tape portion including: a pair of resin layers (31, 32); and an intermediate layer that includes an aluminum layer and is disposed between the pair of resin layers (31, 32), a butted portion in which both side edges (11a, 11b) of a laminated sheet constituting the tube body are butted against each other; and a reinforcing tape portion provided on an inner surface of the tube body along the butted portion, the reinforcing tape portion including: a pair of resin layers (31, 32); and an intermediate layer that includes an aluminum layer and is disposed between the pair of resin layers (31, 32), a pair of resin layers (31, 32); and an intermediate layer that includes an aluminum layer and is disposed between the pair of resin layers (31, 32), wherein both sides of the reinforcing tape portion are provided with a resin cover portion configured to cover both side edges of the intermediate layer, and characterized by that a color of the cover portion is different from a color of the resin layer on a side exposed to an inside of the tube body and a color of the intermediate layer.
A display (10, 1310) comprising: a display substrate layer; an organic light emitting layer formed over the display substrate layer, the organic light emitting layer including a plurality of pixels; a thin film transistor array layer disposed between the display substrate layer and the organic light emitting layer, the thin film transistor array layer including a plurality of thin film transistors electrically connected with the pixels; a thin film encapsulation layer formed on at least part of the organic light emitting layer; a sensor mounting part including an opening formed through the organic light emitting layer, the thin film transistor array layer, and the display substrate layer and a sensor disposed in the opening; characterised by a sealing member formed in the opening to prevent the organic light emitting layer and the thin film transistor array layer from being exposed to the outside through an inner sidewall of the opening, wherein the opening includes a first portion formed in the display substrate layer and a second portion formed in the remainder, wherein the opening includes a first step portion formed by the organic light emitting layer and the thin film encapsulation layer and a second step portion formed on the display substrate layer, and wherein the sealing member is formed in the second portion and at least part of the first portion. a display substrate layer; an organic light emitting layer formed over the display substrate layer, the organic light emitting layer including a plurality of pixels; a thin film transistor array layer disposed between the display substrate layer and the organic light emitting layer, the thin film transistor array layer including a plurality of thin film transistors electrically connected with the pixels; a thin film encapsulation layer formed on at least part of the organic light emitting layer; a sensor mounting part including an opening formed through the organic light emitting layer, the thin film transistor array layer, and the display substrate layer and a sensor disposed in the opening; characterised by a sealing member formed in the opening to prevent the organic light emitting layer and the thin film transistor array layer from being exposed to the outside through an inner sidewall of the opening, wherein the opening includes a first portion formed in the display substrate layer and a second portion formed in the remainder, wherein the opening includes a first step portion formed by the organic light emitting layer and the thin film encapsulation layer and a second step portion formed on the display substrate layer, and wherein the sealing member is formed in the second portion and at least part of the first portion.
A method implemented by a teleconferencing system, comprising: assigning a first teleconferencing bridge (320, 321, 322) to a teleconference responsive to a projected future workload of the first teleconferencing bridge (320, 321, 322); forwarding, responsive to the assigning of the first teleconferencing bridge (320, 321, 322) to the teleconference, a first plurality of communication sessions corresponding to the teleconference to the first teleconferencing bridge (320, 321, 322) wherein the first teleconferencing bridge (320, 321, 322) is configured to connect each of the first plurality of communication sessions to each other communication session among the first plurality of communication sessions; determining that the capacity of the first teleconferencing bridge will not be sufficientto accommodate a projected number of additional communication sessions; assigning a second teleconferencing bridge to enable the teleconference in conjunction with the first teleconferencing bridge; linking the first teleconferencing bridge with the second teleconferencing bridge; receiving additional communication sessions corresponding to the teleconference; and forwarding to the second teleconferencing bridge at least some of the additional communication sessions corresponding to the teleconference. assigning a first teleconferencing bridge (320, 321, 322) to a teleconference responsive to a projected future workload of the first teleconferencing bridge (320, 321, 322); forwarding, responsive to the assigning of the first teleconferencing bridge (320, 321, 322) to the teleconference, a first plurality of communication sessions corresponding to the teleconference to the first teleconferencing bridge (320, 321, 322) wherein the first teleconferencing bridge (320, 321, 322) is configured to connect each of the first plurality of communication sessions to each other communication session among the first plurality of communication sessions; determining that the capacity of the first teleconferencing bridge will not be sufficientto accommodate a projected number of additional communication sessions; assigning a second teleconferencing bridge to enable the teleconference in conjunction with the first teleconferencing bridge; linking the first teleconferencing bridge with the second teleconferencing bridge; receiving additional communication sessions corresponding to the teleconference; and forwarding to the second teleconferencing bridge at least some of the additional communication sessions corresponding to the teleconference.
An oxidation catalyst for removing, by oxidation, at least one of carbon monoxide and hydrocarbons contained in exhaust gas, comprising a mixture of: a catalyst comprising a first oxide support containing 25% by mass or more of titania, and copper oxide supported on the first oxide support; and a catalyst comprising a second oxide support containing 80% by mass or more of one or more oxides selected from alumina, ceria, and zirconia, and a noble metal supported on the second oxide support wherein the first oxide support comprises at least one of titania, composite metal oxides having a titania content of 50% by mass or more, and titania-supporting materials in which titania is supported on a metal oxide at a ratio of 25% by mass or more wherein a mixing ratio of the catalyst and the catalyst in the mixture is 1:9 to 9:1 in terms of a mass ratio (:); the copper oxide is supported on the first oxide support at a ratio of 1 to 30% by mass in the catalyst; the noble metal is supported on the second oxide support at a ratio of 0.01 to 10% by mass in the catalyst. a catalyst comprising a first oxide support containing 25% by mass or more of titania, and copper oxide supported on the first oxide support; and a catalyst comprising a second oxide support containing 80% by mass or more of one or more oxides selected from alumina, ceria, and zirconia, and a noble metal supported on the second oxide support wherein the first oxide support comprises at least one of titania, composite metal oxides having a titania content of 50% by mass or more, and titania-supporting materials in which titania is supported on a metal oxide at a ratio of 25% by mass or more wherein a mixing ratio of the catalyst and the catalyst in the mixture is 1:9 to 9:1 in terms of a mass ratio (:); the copper oxide is supported on the first oxide support at a ratio of 1 to 30% by mass in the catalyst; the noble metal is supported on the second oxide support at a ratio of 0.01 to 10% by mass in the catalyst.
A cartridge biasing handle comprising: an elongated body; a head at a first end of the body; a pair of integral resilient arms (420, 422) extending outward from the head to a distal end (454, 456); and a slot (424, 425) between the head and each integral resilient arm, each integral resilient arm having a rest position with a slot width and pivot position with a slot width wherein the integral resilient arms flex inwardly and the slot width in the rest position is greater than the slot width in the pivot position to provide biasing force as the cartridge pivots, wherein the slots are filled with an elastomeric material. an elongated body; a head at a first end of the body; a pair of integral resilient arms (420, 422) extending outward from the head to a distal end (454, 456); and a slot (424, 425) between the head and each integral resilient arm, each integral resilient arm having a rest position with a slot width and pivot position with a slot width wherein the integral resilient arms flex inwardly and the slot width in the rest position is greater than the slot width in the pivot position to provide biasing force as the cartridge pivots, wherein the slots are filled with an elastomeric material.
A battery box, comprising: a box body; a cooling plate connected with an outside of a wall plate of the box body; and a stiffener connected with the box body and abutting against a side of the cooling plate away from the wall plate; wherein the box body is provided with a lifting lug, the wall plate is provided with a connecting portion, the connecting portion is connected with an end of the lifting lug to form a lifting ring, and the stiffener is connected with the connecting portion. a box body; a cooling plate connected with an outside of a wall plate of the box body; and a stiffener connected with the box body and abutting against a side of the cooling plate away from the wall plate; wherein the box body is provided with a lifting lug, the wall plate is provided with a connecting portion, the connecting portion is connected with an end of the lifting lug to form a lifting ring, and the stiffener is connected with the connecting portion.
An apparatus comprising: a receiver that receives an uplink grant corresponding to an uplink transmission parameter; and a processor that: determines a priority order of a plurality of logical channels from both the uplink transmission parameter and an assigned logical channel priority of the plurality of logical channels; and assigns resources to logical channels of the plurality of logical channels based on the priority order; wherein the uplink transmission parameter comprises an indication of a numerology; wherein the numerology comprises a subcarrier spacing, an orthogonal frequency-division multiplexing symbol duration, a cyclic prefix duration, a number of symbols per scheduling interval, or some combination thereof; and wherein the uplink transmission parameter comprises an indication of a transmission time interval. a receiver that receives an uplink grant corresponding to an uplink transmission parameter; and a processor that: determines a priority order of a plurality of logical channels from both the uplink transmission parameter and an assigned logical channel priority of the plurality of logical channels; and assigns resources to logical channels of the plurality of logical channels based on the priority order; wherein the uplink transmission parameter comprises an indication of a numerology; wherein the numerology comprises a subcarrier spacing, an orthogonal frequency-division multiplexing symbol duration, a cyclic prefix duration, a number of symbols per scheduling interval, or some combination thereof; and wherein the uplink transmission parameter comprises an indication of a transmission time interval. determines a priority order of a plurality of logical channels from both the uplink transmission parameter and an assigned logical channel priority of the plurality of logical channels; and assigns resources to logical channels of the plurality of logical channels based on the priority order; wherein the uplink transmission parameter comprises an indication of a numerology; wherein the numerology comprises a subcarrier spacing, an orthogonal frequency-division multiplexing symbol duration, a cyclic prefix duration, a number of symbols per scheduling interval, or some combination thereof; and wherein the uplink transmission parameter comprises an indication of a transmission time interval.