mhurhangee/ep-ind-claims huggingface dataset:
A well construction method in which a drilled bore is lined with a plurality of successively smaller diameter sections of bore-lining tubing (108, 110, 112, 120), the well construction method comprising: providing a shoe at a distal end of a bore-lining tubing, a running tool at a proximal end of the tubing, and an inner string between the shoe and the running tool; running the bore-lining tubing into a fluid-filled drilled bore and displacing the bore fluid from a volume of the bore below the shoe up through the inner string; pumping a settable material from surface, through the inner string, and through the shoe to at least partially fill an outer annulus surrounding the bore-lining tubing; and retrieving the inner string and the running tool. providing a shoe at a distal end of a bore-lining tubing, a running tool at a proximal end of the tubing, and an inner string between the shoe and the running tool; running the bore-lining tubing into a fluid-filled drilled bore and displacing the bore fluid from a volume of the bore below the shoe up through the inner string; pumping a settable material from surface, through the inner string, and through the shoe to at least partially fill an outer annulus surrounding the bore-lining tubing; and retrieving the inner string and the running tool.
A base station configured to manage the distribution of a plurality of files to an user equipment (111a-c) located within the service area of the base station, wherein each file of the plurality of files can be decomposed into a plurality of file fragments, the base station comprising: a selector configured to select for each micro base station of a plurality of micro base stations (109a-d) located within the service area of the base station and for each file of the plurality of files a subset of the plurality of file fragments of the file; and a distributor configured to distribute to each micro base station of the plurality of micro base stations (109a-d) for each file of the plurality of files the selected subset of the plurality of file fragments for caching the selected subset of the plurality of file fragments at the respective micro base station (109a-d) for being available for download by the user equipment (111a-c), wherein the base station further comprises a memory for storing the plurality of file fragments for each file for download by the user equipment (111a-c), and wherein the base station further comprises a decomposer configured to decompose each file of the plurality of files into the plurality of file fragments. a selector configured to select for each micro base station of a plurality of micro base stations (109a-d) located within the service area of the base station and for each file of the plurality of files a subset of the plurality of file fragments of the file; and a distributor configured to distribute to each micro base station of the plurality of micro base stations (109a-d) for each file of the plurality of files the selected subset of the plurality of file fragments for caching the selected subset of the plurality of file fragments at the respective micro base station (109a-d) for being available for download by the user equipment (111a-c), wherein the base station further comprises a memory for storing the plurality of file fragments for each file for download by the user equipment (111a-c), and wherein the base station further comprises a decomposer configured to decompose each file of the plurality of files into the plurality of file fragments.
Device for measuring a force in the direction of displacement of a running board of a rail vehicle which can be displaced in the direction of displacement, the rail vehicle being set up to be positioned on at least two rails, characterised in that the device comprises: - a sensor carrier which is designed to support a sensor for measuring the force in the direction of displacement; - a base support which is detachably connected to the sensor support and which is designed to be detachably fastened to at least one rail of at least two rails in such a way that the device for measuring can be completely supported by at least two rails. - a sensor carrier which is designed to support a sensor for measuring the force in the direction of displacement; - a base support which is detachably connected to the sensor support and which is designed to be detachably fastened to at least one rail of at least two rails in such a way that the device for measuring can be completely supported by at least two rails.
Preform for manufacturing a plastic container in a two-stage injection stretch blow molding method that has a preform body extending along a middle axis with a first end and a second end opposed to the first end, wherein the first end is sealed by a preform bottom and a neck section with a spout joins the second end, and with a inner wall that limits an inner space of the preform, characterized in that each point of the inner wall is spaced in the inner space from the middle axis by less than 3,5 mm over a length of at least 30 mm joining the preform bottom.
Conductor connection terminal comprising a contact frame and comprising a clamping spring for terminal connection of an electrical conductor, wherein the contact frame has a busbar section, a separating wall and a wall opening, wherein the clamping spring has a clamping limb which is arranged at least partially in the space between the busbar section and the separating wall and has a clamping edge which is aligned with the busbar section, a spring bend and a contact limb, and the clamping edge and the busbar section form a clamping point for the electrical conductor and an actuating section for opening and closing the clamping point is arranged on the clamping limb of the clamping spring, wherein the actuating section projects into the wall opening and, at least in the closed state of the clamping point, extends alongside the separating wall on a side facing away from the clamping point, wherein the contact limb of the clamping spring has at least one curved portion, characterized in that the contact limb does not rest flat on the contact frame owing to the at least one curved portion but rather is supported only at two points of a support surface of the contact frame owing to the at least one curved portion.
A method for forming a heat transfer module, comprising: disposing a flexible container on a heat source surface of at least one heat source placed on a base, wherein the flexible container is substantially flat, and the heat source surface of the at least one heat source is separate from a surface of the base; mounting an outer case over the surface of the base and the heat source surface of the at least one heat source, such that the inflated flexible container is confined in a space between the outer case and the surface of the base; inflating the flexible container with a coolant, such that the inflated flexible container is conformably in contact with the surface of the base and the heat source surface of the at least one heat source; draining air from the space between the outer case and the surface of the base to enhance the shape of the inflated flexible container in conformity with the surface of the base and the heat source surface of the at least one heat source; and sealing the inflated flexible container to keep the coolant inside the flexible container; wherein the step of draining the air comprises placing the heat transfer module in a negative pressure chamber. disposing a flexible container on a heat source surface of at least one heat source placed on a base, wherein the flexible container is substantially flat, and the heat source surface of the at least one heat source is separate from a surface of the base; mounting an outer case over the surface of the base and the heat source surface of the at least one heat source, such that the inflated flexible container is confined in a space between the outer case and the surface of the base; inflating the flexible container with a coolant, such that the inflated flexible container is conformably in contact with the surface of the base and the heat source surface of the at least one heat source; draining air from the space between the outer case and the surface of the base to enhance the shape of the inflated flexible container in conformity with the surface of the base and the heat source surface of the at least one heat source; and sealing the inflated flexible container to keep the coolant inside the flexible container; wherein the step of draining the air comprises placing the heat transfer module in a negative pressure chamber.
A double-head cutting saw with an automatic processing function, for use in an angle clearance-free welding method for uPVC doors and windows, the double-head cutting saw comprising a fixed saw head and a movable saw head, characterized in that processing centers are arranged in both of the fixed saw head and the movable saw head; the processing center comprises an X direction bottom plate, an X direction servo motor and feed screw nut, an X direction guide rail and slide block, a Y direction bottom plate, a Y direction guide rail and slide block, a Y direction servo motor and feed screw nut, a Z direction bottom plate, a Z direction servo motor and feed screw nut, a Z direction guide rail and slide block, a sliding plate and a power head and cutter; the power head and cutter is installed on the sliding plate; the X direction guide rail and slide block is installed on the X direction bottom plate; the X direction servo motor and feed screw nut drives the sliding plate to move in an X direction under the guide of the X direction guide rail and slide block; the Y direction bottom plate is installed under the X direction bottom plate; the Y direction guide rail and slide block is installed on the Y direction bottom plate; the Y direction servo motor and feed screw nut drives the sliding plate to move in a Y direction under the guide of the Y direction guide rail and slide block; and the Z direction bottom plate is installed on the side face of the Y direction bottom plate; the Z direction guide rail and slide block is installed on the Z direction bottom plate; and the Z direction servo motor and feed screw nut drives the sliding plate to move in a Z direction under the guide of the Z direction guide rail and slide block.
An apparatus for performing an ocular laser surgical procedure, comprising: a laser configured to emit a beam; optical elements configured to focus the beam emitted by the laser at a desired position on an eye of a patient; and a controller configured to control the laser and the optical elements, wherein the controller is configured to use a cutting pattern to control the laser and the optical elements, the cutting pattern comprising a vertical side cut thereby creating a flap, the vertical side cut traversing a plurality of generally diagonal paths, the cutting pattern further comprising a plurality of photodisruption points forming a generally circular cut around a periphery of a capsule of the eye, the cutting pattern extending from a start point continuously in an angular direction to an end point covering an angular range greater than 360 degrees, a starting portion and an ending portion of the cutting pattern overlapping with each other; wherein each photodisruption point in the cutting pattern represents a desired laser target point. a laser configured to emit a beam; optical elements configured to focus the beam emitted by the laser at a desired position on an eye of a patient; and a controller configured to control the laser and the optical elements, wherein the controller is configured to use a cutting pattern to control the laser and the optical elements, the cutting pattern comprising a vertical side cut thereby creating a flap, the vertical side cut traversing a plurality of generally diagonal paths, the cutting pattern further comprising a plurality of photodisruption points forming a generally circular cut around a periphery of a capsule of the eye, the cutting pattern extending from a start point continuously in an angular direction to an end point covering an angular range greater than 360 degrees, a starting portion and an ending portion of the cutting pattern overlapping with each other; wherein each photodisruption point in the cutting pattern represents a desired laser target point.
Method for producing consumer-ready vegetables, mushrooms or herbs, comprising the steps of: a) culturing vegetables, mushrooms or herbs in a closed container (1, 4, 7) under suitable growing conditions until maturity; and b) transferring the container (1, 4, 7) with the mature vegetable, mushrooms or herb to a retail outlet wherein the container is provided with a label or wrap with information regarding the vegetable, mushrooms or herb. a) culturing vegetables, mushrooms or herbs in a closed container (1, 4, 7) under suitable growing conditions until maturity; and b) transferring the container (1, 4, 7) with the mature vegetable, mushrooms or herb to a retail outlet
A resonance type non-contact power transmission apparatus, the apparatus comprising a) an AC power source; b) a primary side resonance coil for receiving power from the AC power source; c) a secondary side resonance coil for receiving power via magnetic resonance from the primary side resonance coil; characterized by comprising d) a power converting section that has a DC/DC converter and inputs power from the secondary side resonance coil; e) a battery connected to the power converting section; f) a controlling section for controlling the DC/DC converter, g) a battery level sensor for detecting the amount of charge of the battery; h) a reflected power detecting section for detecting the reflected power from the primary side resonance coil to the AC power source; i) wherein the primary side resonance coil, the secondary side resonance coil, the power converting section, and the battery form a resonance system, and f) wherein the controlling section is configured f1) to store data representing the relationship of the amount of charge of the battery and the reflected power with the duty cycle of the DC/DC converter, f2) to compute the duty cycle of the DC/DC converter based on the detection result of the battery level sensor and the detection result of the reflected power detecting section by referring to the stored data, and f3) to control the DC/DC converter using the computed duty cycle such that the input impedance of the resonance system at the resonant frequency and the output impedance of the AC power source match each other. a) an AC power source; b) a primary side resonance coil for receiving power from the AC power source; c) a secondary side resonance coil for receiving power via magnetic resonance from the primary side resonance coil; d) a power converting section that has a DC/DC converter and inputs power from the secondary side resonance coil; e) a battery connected to the power converting section; f) a controlling section for controlling the DC/DC converter, g) a battery level sensor for detecting the amount of charge of the battery; h) a reflected power detecting section for detecting the reflected power from the primary side resonance coil to the AC power source; i) wherein the primary side resonance coil, the secondary side resonance coil, the power converting section, and the battery form a resonance system, and f) wherein the controlling section is configured f1) to store data representing the relationship of the amount of charge of the battery and the reflected power with the duty cycle of the DC/DC converter, f2) to compute the duty cycle of the DC/DC converter based on the detection result of the battery level sensor and the detection result of the reflected power detecting section by referring to the stored data, and f3) to control the DC/DC converter using the computed duty cycle such that the input impedance of the resonance system at the resonant frequency and the output impedance of the AC power source match each other.
A panel configured to cover a portion of a vehicle, said panel comprising at least one body (101, 102; 202) configured to be connected to a portion that is fixed with respect to a frame of said vehicle, said panel comprising a filament of electrically conductive material configured to be electrically connected to a functional element of said vehicle, wherein at least one body of said panel defines at least one portion of reduced thickness with respect to the remaining portion of said body, characterised in that said filament defines a path with respect to said panel body, said path extending with respect to said body over most of the surface of said at least one portion and comprises at least a portion of reduced thickness with respect to other remaining portions of said filament.
A method of choosing an active connection from connections between a wireless accessory and a plurality of mobile devices (104, 106, 108, 110) in a short-range wireless system, the method comprising: establishing the connections between the wireless accessory and the plurality of mobile devices; receiving at the wireless accessory a request for an active connection; providing a device list comprising device names, profile types and other data relating to a usage of a plurality of mobile devices recently connected to the wireless accessory; in response to receiving at the wireless accessory the request for an active connection, selecting the active connection dynamically from the connections based on real-time evaluation of: a first criteria selected from a group consisting of: a profile, an assigned priority, and an availability history; and a second criteria (704, 706) relating to the usage data stored in the device list, the selection being based on a combination of the first and second criteria; sending the request from the wireless accessory to a device through the active connection; and communicating on the active connection. establishing the connections between the wireless accessory and the plurality of mobile devices; receiving at the wireless accessory a request for an active connection; providing a device list comprising device names, profile types and other data relating to a usage of a plurality of mobile devices recently connected to the wireless accessory; in response to receiving at the wireless accessory the request for an active connection, selecting the active connection dynamically from the connections based on real-time evaluation of: a first criteria selected from a group consisting of: a profile, an assigned priority, and an availability history; and a second criteria (704, 706) relating to the usage data stored in the device list, the selection being based on a combination of the first and second criteria; a first criteria selected from a group consisting of: a profile, an assigned priority, and an availability history; and a second criteria (704, 706) relating to the usage data stored in the device list, the selection being based on a combination of the first and second criteria; sending the request from the wireless accessory to a device through the active connection; and communicating on the active connection.
A packet disinfection apparatus comprising a packet disinfection electrode assembly for generating plasma inside a package, the electrode assembly comprising a dielectric head having a contact surface for contacting said package and at least two solid state conductive elongate electrodes (512, 514) distributed about the contact surface wherein a first one of the two electrodes is insulated and an electrically conductive region of a second one of said electrodes is exposed near the contact surface, and wherein the at least two solid state conductive electrodes (512, 514) are configured to receive an alternating voltage to enable generation of ozone between the electrodes such that, in use, applying the electrodes to a package converts oxygen to ozone within said package.
A display device comprising: a plurality of touch electrodes; and a touchscreen driving circuit coupled to the plurality of touch electrodes and configured to: in a normal display mode of the display device, sense touch via the plurality of touch electrodes using self-capacitance touch sensing; and in a sleep mode of the display device, short a first set of the touch electrodes along a first line (Line 1) into a first transmit channel; short a second set of the touch electrodes along a second line (Line 2) into a receive channel; drive a first touch driving signal onto the first transmit channel; and sense touch from a voltage of the receive channel, the voltage generated based on the touch driving signal on the first transmit channel and a mutual capacitance between the first transmit channel and the receive channel; wherein the first transmit channel is parallel to the receive channel. a plurality of touch electrodes; and a touchscreen driving circuit coupled to the plurality of touch electrodes and configured to: in a normal display mode of the display device, sense touch via the plurality of touch electrodes using self-capacitance touch sensing; and in a sleep mode of the display device, in a normal display mode of the display device, sense touch via the plurality of touch electrodes using self-capacitance touch sensing; and in a sleep mode of the display device, short a first set of the touch electrodes along a first line (Line 1) into a first transmit channel; short a second set of the touch electrodes along a second line (Line 2) into a receive channel; drive a first touch driving signal onto the first transmit channel; and sense touch from a voltage of the receive channel, the voltage generated based on the touch driving signal on the first transmit channel and a mutual capacitance between the first transmit channel and the receive channel; wherein the first transmit channel is parallel to the receive channel.
A computer-implemented method of determining an output token from a speech signal, comprising: predicting a first probability of each of candidate output tokens of a first model, wherein the first model is an acoustic model (120, 210), said first model configured to receive a context vector extracted from the speech signal as an input; predicting a second probability of each of the candidate output tokens of a second model (130, 220), wherein the second model is a language model, interworking with the first model based on a previously determined recognition result of the first model; characterized in that the method further comprises: adjusting (230, 330) the second probability of each of the candidate output tokens of the second model based on the first probability; and determining the output token among the candidate output tokens based on the first probability and the adjusted second probability as a recognition result. predicting a first probability of each of candidate output tokens of a first model, wherein the first model is an acoustic model (120, 210), said first model configured to receive a context vector extracted from the speech signal as an input; predicting a second probability of each of the candidate output tokens of a second model (130, 220), wherein the second model is a language model, interworking with the first model based on a previously determined recognition result of the first model; adjusting (230, 330) the second probability of each of the candidate output tokens of the second model based on the first probability; and determining the output token among the candidate output tokens based on the first probability and the adjusted second probability as a recognition result.