mhurhangee/ep-ind-claims huggingface dataset:
A method implemented in a network apparatus used in a network, the method comprising: sensing network topology and network utilization; receiving a request from an application, wherein the application specifies the request using an application programming interface, API, and wherein the API comprises an endpoint pair of the network for which the application makes the request, an action which represents what the application requests from the network, and a target which represents a property associated with the action; deciding path setup requirement using the request, network state information obtained from the network topology, and the network utilization; and translating the path setup requirement into a rule to be installed. sensing network topology and network utilization; receiving a request from an application, wherein the application specifies the request using an application programming interface, API, and wherein the API comprises an endpoint pair of the network for which the application makes the request, an action which represents what the application requests from the network, and a target which represents a property associated with the action; deciding path setup requirement using the request, network state information obtained from the network topology, and the network utilization; and translating the path setup requirement into a rule to be installed.
A level shifter comprising: a first circuit (420, A) having a first input and a first output, comprising: a first transistor (422, A) coupled between the first input and the first output, having a gate coupled to a supply voltage (410, A); a first capacitor (421, A) coupled between the first input and the first output and in parallel to the first transistor (422, A); and a second transistor (413, A) coupled between the supply voltage (410, A) and the first output, having a gate coupled to the first input; a second circuit (420, B) having a second input and a second output, wherein the second circuit is identical to the first circuit (420, A); and a latch circuit coupled to the first output of the first circuit (420, A) and to the second output of the second circuit (420, B). a first circuit (420, A) having a first input and a first output, comprising: a first transistor (422, A) coupled between the first input and the first output, having a gate coupled to a supply voltage (410, A); a first capacitor (421, A) coupled between the first input and the first output and in parallel to the first transistor (422, A); and a second transistor (413, A) coupled between the supply voltage (410, A) and the first output, having a gate coupled to the first input; a first transistor (422, A) coupled between the first input and the first output, having a gate coupled to a supply voltage (410, A); a first capacitor (421, A) coupled between the first input and the first output and in parallel to the first transistor (422, A); and a second transistor (413, A) coupled between the supply voltage (410, A) and the first output, having a gate coupled to the first input; a second circuit (420, B) having a second input and a second output, wherein the second circuit is identical to the first circuit (420, A); and a latch circuit coupled to the first output of the first circuit (420, A) and to the second output of the second circuit (420, B).
A method in a wireless communication device (116, 122, 250, UE1, UE2, UE3), comprising: determining a received signal strength of each of a plurality of signals received from a plurality of transmission sectors (1A, 1B, 1C, 2A, 2B, 2C, 3A, 3B, 3C) comprising a cluster of sectors; providing first channel information about first signals, the first signals comprising a signal having a highest received signal strength and signals having a received signal strength above a specified level relative to the highest received signal strength; providing second channel information about second signals, the second signals comprising signals having a received signal strength below the specified level; and receiving an allocation of one or more resource blocks from assigned transmission sectors (1A, 1B, 1C, 2A, 2B, 2C, 3A, 3B, 3C) based on a ranking of the first channel information, whereby the one or more resource blocks are reallocated by the network (300, 400) to another wireless communication device (116, 122, 250, UE1, UE2, UE3), from another transmission sector (1A, 1B, 1C, 2A, 2B, 2C, 3A, 3B, 3C), based on the second channel information. determining a received signal strength of each of a plurality of signals received from a plurality of transmission sectors (1A, 1B, 1C, 2A, 2B, 2C, 3A, 3B, 3C) comprising a cluster of sectors; providing first channel information about first signals, the first signals comprising a signal having a highest received signal strength and signals having a received signal strength above a specified level relative to the highest received signal strength; providing second channel information about second signals, the second signals comprising signals having a received signal strength below the specified level; and receiving an allocation of one or more resource blocks from assigned transmission sectors (1A, 1B, 1C, 2A, 2B, 2C, 3A, 3B, 3C) based on a ranking of the first channel information, whereby the one or more resource blocks are reallocated by the network (300, 400) to another wireless communication device (116, 122, 250, UE1, UE2, UE3), from another transmission sector (1A, 1B, 1C, 2A, 2B, 2C, 3A, 3B, 3C), based on the second channel information.
A method of cleaning a recoater of an additive manufacturing machine, comprising: installing a cleaning fixture into the additive manufacturing machine, the cleaning fixture including one or more cleaning elements; installing the cleaning fixture via a build plate of the additive manufacturing machine; advancing the recoater into contact with the one or more cleaning elements; and rotating the recoater about a recoater axis thus dislodging material from a recoater outer surface due to frictional contact with the one or more cleaning elements. installing a cleaning fixture into the additive manufacturing machine, the cleaning fixture including one or more cleaning elements; installing the cleaning fixture via a build plate of the additive manufacturing machine; advancing the recoater into contact with the one or more cleaning elements; and rotating the recoater about a recoater axis thus dislodging material from a recoater outer surface due to frictional contact with the one or more cleaning elements.
A method of manufacturing target substances using a supercritical fluid chromatography apparatus by separating the target substances from samples injected sequentially into a mobile phase containing a supercritical fluid and a solvent, the method comprising sequentially performing the steps of: a) injecting a sample into the mobile phase; b) changing the composition of the mobile phase after injecting the sample into the mobile phase; and c) returning the composition of the mobile phase to the pre-change state after changing the composition of the mobile phase, wherein steps b) and c) are performed during a period of time from detection of a peak of one of the target substances which is eluted latest from a column among the target substances separated by the supercritical fluid chromatography apparatus to injection of the next sample, wherein said injection of the next sample is performed as soon as the reduction of peak tailing of one of the target substances which is eluted latest from a column in the sample is completed, and wherein step b) is performed by injecting a solvent using a solvent injecting device. a) injecting a sample into the mobile phase; b) changing the composition of the mobile phase after injecting the sample into the mobile phase; and c) returning the composition of the mobile phase to the pre-change state after changing the composition of the mobile phase,
A sound field measuring device for obtaining frequency characteristics of a sound field by collecting output sound outputted from an audio system having a pair of speakers (101a, 101b) installed at a narrow interval therein, the sound field measuring device comprising: a microphone; and a Fourier transform unit configured to obtain the frequency characteristics of the sound field by Fourier transforming signals collected by the microphone, characterized by a low-pass filter configured to extract low-range components of a first measurement signal; a high-pass filter configured to extract mid/high-range components of a second measurement signal different from the first measurement signal; a combined signal generation unit configured to generate a combined signal by combining the low-range components of the first measurement signal extracted by the low-pass filter and the mid/high-range components of the second measurement signal extracted by the high-pass filter; and an external output unit configured to output the first measurement signal whose low-range components have yet to be extracted by the low-pass filter and the combined signal generated by the combined signal generation unit to the audio system so that the first measurement signal is outputted from one of the pair of speakers (101a, 101b) and the combined signal is simultaneously outputted from the other of the pair of speakers (101a, 101b), wherein the microphone is configured to collect the first measurement signal and the combined signal simultaneously outputted from the pair of speakers (101a, 101b). a microphone; and a Fourier transform unit configured to obtain the frequency characteristics of the sound field by Fourier transforming signals collected by the microphone, characterized by a low-pass filter configured to extract low-range components of a first measurement signal; a high-pass filter configured to extract mid/high-range components of a second measurement signal different from the first measurement signal; a combined signal generation unit configured to generate a combined signal by combining the low-range components of the first measurement signal extracted by the low-pass filter and the mid/high-range components of the second measurement signal extracted by the high-pass filter; and an external output unit configured to output the first measurement signal whose low-range components have yet to be extracted by the low-pass filter and the combined signal generated by the combined signal generation unit to the audio system so that the first measurement signal is outputted from one of the pair of speakers (101a, 101b) and the combined signal is simultaneously outputted from the other of the pair of speakers (101a, 101b), wherein the microphone is configured to collect the first measurement signal and the combined signal simultaneously outputted from the pair of speakers (101a, 101b).
A secondary battery comprising: an electrode assembly; a cap plate; a first terminal plate electrically connected to the electrode assembly, the first terminal plate being on the cap plate; and a current limiting plate between the first terminal plate and the cap plate, the current limiting plate comprising: a first surface accommodated in a first accommodation portion of the first terminal plate; a second surface accommodated in a second accommodation portion of the cap plate; and a third surface extending between the first and second surfaces (1121, 1122), wherein a first portion of the third surface is accommodated in the first accommodation portion, and wherein a second portion of the third surface is accommodated in the second accommodation portion characterized in that the first and second surfaces (1121, 1122) of the current limiting plate comprise insulating surfaces wherein the first terminal plate and the cap plate are electrically connected to each other through the third surface of the current limiting plate. an electrode assembly; a cap plate; a first terminal plate electrically connected to the electrode assembly, the first terminal plate being on the cap plate; and a current limiting plate between the first terminal plate and the cap plate, the current limiting plate comprising: a first surface accommodated in a first accommodation portion of the first terminal plate; a second surface accommodated in a second accommodation portion of the cap plate; and a third surface extending between the first and second surfaces (1121, 1122), a first surface accommodated in a first accommodation portion of the first terminal plate; a second surface accommodated in a second accommodation portion of the cap plate; and a third surface extending between the first and second surfaces (1121, 1122), wherein a first portion of the third surface is accommodated in the first accommodation portion, and wherein a second portion of the third surface is accommodated in the second accommodation portion characterized in that the first and second surfaces (1121, 1122) of the current limiting plate comprise insulating surfaces wherein the first terminal plate and the cap plate are electrically connected to each other through the third surface of the current limiting plate.
Detecting probe mounting device for fixation in the proximity to a rotating member of a machine, comprising at least two detecting probes with a connecting part and a detecting part for detecting parameters of the machine and/or the rotating member, a probe support structure with exactly one, in particular threaded through hole for each detecting probe and with mounting means for defining a specific location of each detecting probe relatively to the probe support structure and for mounting each detecting probe at the probe support structure, wherein in a mounted state the connecting part and the detecting part are located on different sides of each through hole, and fixing means for fixing the probe support structure at a predefined position in proximity to the rotating member of the machine, wherein in the fixed state the detecting part of each detecting probe is facing the rotating member and the detecting probes are in a predefined position relative to the rotating member, wherein the probe support structure is curved, in particular with a curvature corresponding at least to the curvature of the rotating member, in a way that the distance between the detecting probes and the rotating member can be kept in general equal for all detecting probes.
A phosphate-free liquid dishwashing detergent, preferably an automatic dishwashing detergent, characterized in that the dishwashing detergent comprises two mutually spatially separated liquid compositions A and B, (a) composition A being phosphonate-free and comprising at least one enzyme, preferably a protease and/or amylase, and at least one calcium salt that is suitable for stabilizing the at least one enzyme, and having a pH that is less than 8.5, preferably of 8, in particular of 7.5 or less, and (b) composition B being enzyme-free and calcium-free and comprising at least one phosphonate, in particular 1-hydroxyethane-(1,1-diphosphonic acid) (HEDP), and having a pH that is greater than 9, preferably greater than 10. (a) composition A being phosphonate-free and comprising at least one enzyme, preferably a protease and/or amylase, and at least one calcium salt that is suitable for stabilizing the at least one enzyme, and having a pH that is less than 8.5, preferably of 8, in particular of 7.5 or less, and (b) composition B being enzyme-free and calcium-free and comprising at least one phosphonate, in particular 1-hydroxyethane-(1,1-diphosphonic acid) (HEDP), and having a pH that is greater than 9, preferably greater than 10.
A method for connecting a piece of tape having an attachment part at a leading end thereof to an attachment object, the method comprising the steps of: preparing a piece of tape having a stopper at a leading end thereof; preparing an attachment part that is attached to the leading end of the tape, the attachment part having a groove for insertion of the stopper; inserting the stopper of the tape into the groove; and fixing, to an attachment object (6, 7, 71, 8), the tape that is formed by said steps and that has the attachment part at the leading end thereof; said step of preparing a piece of tape having a stopper at a leading end thereof characterized in that a step of winding a leading end of tape around a center portion of a columnar stopper having a slip-off prevention portion at at least one of both ends thereof and fixing an overlap of the tape. preparing a piece of tape having a stopper at a leading end thereof; preparing an attachment part that is attached to the leading end of the tape, the attachment part having a groove for insertion of the stopper; inserting the stopper of the tape into the groove; and fixing, to an attachment object (6, 7, 71, 8), the tape that is formed by said steps and that has the attachment part at the leading end thereof; said step of preparing a piece of tape having a stopper at a leading end thereof characterized in that a step of winding a leading end of tape around a center portion of a columnar stopper having a slip-off prevention portion at at least one of both ends thereof and fixing an overlap of the tape.
A packaging machine for packaging articles into containers, comprising: - a plurality of work stations, each work station comprising one or more working devices of the packaging machine; - at least one conveyor arranged to convey articles and/or containers between said work stations, said conveyor being of the magnetic-drive type comprising a path and a plurality of movers moveable along said path and independently controllable; characterised in that it comprises a control system configured to dynamically vary a master/slave configuration between the motion control of said movers along the path, and the control of said working devices of the packaging machine. - a plurality of work stations, each work station comprising one or more working devices of the packaging machine; - at least one conveyor arranged to convey articles and/or containers between said work stations, said conveyor being of the magnetic-drive type comprising a path and a plurality of movers moveable along said path and independently controllable;
A microwave heating device comprising: a heating chamber for accommodating a heating-target object; a microwave generating unit for generating microwaves; and a waveguide structure antenna having a ceiling surface and side wall surfaces (10a, 10b, 10c) defining a waveguide structure section, and a front opening, the waveguide structure antenna emitting the microwaves from the front opening into the heating chamber, the waveguide structure section including a coupling part joined to the ceiling surface to couple the microwaves into an internal space of the waveguide structure section, the waveguide structure section including at least one microwave extraction opening formed on the ceiling surface to emit circularly polarized waves from the microwave extraction opening into the heating chamber, the at least one microwave extraction opening having a cross slot shape where two slits intersect, the at least one microwave extraction opening being provided at a position shifted from a pipe axis of the waveguide structure section, characterized in that the at least one microwave extraction opening includes a microwave extraction opening having, as shortest length among lengths from a center point of an intersection area of the cross slot to tips of the slits, the length to the tip closest to the coupling part. a heating chamber for accommodating a heating-target object; a microwave generating unit for generating microwaves; and a waveguide structure antenna having a ceiling surface and side wall surfaces (10a, 10b, 10c) defining a waveguide structure section, and a front opening, the waveguide structure antenna emitting the microwaves from the front opening into the heating chamber, the waveguide structure section including a coupling part joined to the ceiling surface to couple the microwaves into an internal space of the waveguide structure section, the waveguide structure section including at least one microwave extraction opening formed on the ceiling surface to emit circularly polarized waves from the microwave extraction opening into the heating chamber, the at least one microwave extraction opening having a cross slot shape where two slits intersect, the at least one microwave extraction opening being provided at a position shifted from a pipe axis of the waveguide structure section, characterized in that the at least one microwave extraction opening includes a microwave extraction opening having, as shortest length among lengths from a center point of an intersection area of the cross slot to tips of the slits, the length to the tip closest to the coupling part.
A device for detecting and removing water in a fuel tank during vehicle servicing or repair, which device comprises a housing having a higher density than fuel, and detection means (7a, 7b, 13) adapted to monitoring a parameter in a measuring region and to deciding whether the measuring region contains fuel and/or water, the device further comprises a manoeuvring unit adapted to being situated externally to the fuel tank, wherein the manoeuvring unit is adapted to being held by a user and comprises a button for activating the device and an indicating means in the form of a light-emitting diode or the like, which lights up if water is indicated in the fuel tank, the manoeuvring unit also comprises an electrical control unit, which is part of the detection means (7a, 7b, 13), characterized by an elongate tubular element which has an inlet aperture arranged within the housing and an outlet aperture adapted to being arranged at a location external to the fuel tank, wherein the tubular element extends between the housing and the manoeuvring unit, wherein the housing is adapted to being introduced downwards into the fuel tank after the fuel tank has been opened, and to being applied in a detecting position on a bottom surface in the fuel tank, the housing comprising an internal space and at least one aperture (4 C3) which makes communication of fuel and/or water possible between the internal space of the housing and a surrounding in the fuel tank, the tubular element comprises a connecting means which makes it possible to connect an external pump device to the outlet aperture, or that the device comprises a pump which is connected to the tubular element outside of the fuel tank, thereby making it possible, if water is detected in the measuring region, for the external pumping device or the pump to be activated so that the water in the measuring region is drawn out and removed via tubular element and in that the housing comprises a contact region adapted to being applied in contact with the bottom surface in the fuel tank when the housing is in the detecting position.
A method, comprising: providing a slurry at a first temperature and a first pressure, wherein said slurry comprises a liquid carrier and a solid, characterised by the steps of increasing said first pressure to a second pressure of 0.34 MPa (50 psia) to 8.62 MPa (1250 psia), thereby forming a first pressurized slurry; injecting a fluid into said first pressurized slurry, thereby forming a fluid-injected slurry, wherein said fluid-injected slurry has a second temperature greater than said first temperature, and said second temperature is 100 °C to 300 °C; and increasing said second pressure to a third pressure greater than 8.62 MPa (1250 psia), thereby forming a second pressurized slurry. providing a slurry at a first temperature and a first pressure, wherein said slurry comprises a liquid carrier and a solid, characterised by the steps of increasing said first pressure to a second pressure of 0.34 MPa (50 psia) to 8.62 MPa (1250 psia), thereby forming a first pressurized slurry; injecting a fluid into said first pressurized slurry, thereby forming a fluid-injected slurry, wherein said fluid-injected slurry has a second temperature greater than said first temperature, and said second temperature is 100 °C to 300 °C; and increasing said second pressure to a third pressure greater than 8.62 MPa (1250 psia), thereby forming a second pressurized slurry.