mhurhangee/ep-ind-claims huggingface dataset:
A coated cutting tool comprising a Cr-containing cemented carbide substrate comprising WC, a binder phase in an amount between 2 to 20 wt% of selected from one or more of Fe, Co and Ni, and a gamma phase in an amount of between 3 to 25 area %, wherein the gamma phase comprises (W,M)C and/or (W,M)(C,N) wherein M is one or more of Ti, Ta, Nb, Hf, Zr, V and Cr, where the cemented carbide comprises a gradient surface zone with a thickness of between 2 to 100 μm which is binder phase enriched and depleted of gamma phase so that, in the gradient surface zone, the binder phase content is at least 1.3 times the binder phase content in the bulk and the amount of gamma phase is less than 0.5 area %, wherein the cemented carbide comprises M 7 C 3 carbides in an amount of between 0.5 to 7 area % measured in the bulk where M is elements comprising Cr, W and at least one binder metal and wherein the amount of M 7 C 3 and gamma phase is measured by image analysis Light Optical Microscope image or a Scanning Electron Microscope micrograph of a cross section of the substrate.
A method implemented by a network node for signaling to a wireless communication device which precoders in a codebook are restricted from being used, the method comprising: for each of one or more groups of precoders in the codebook: identifying one or more reference configurations for the group, wherein each reference configuration is one of different possible configurations that restrict different subgroups of precoders in the group from being used; identifying, from the different possible configurations for the group, an actual configuration to be signaled for the group; and generating signaling to indicate the actual configuration for the group; and sending the generated signaling to the wireless communication device; characterized by generating the signaling as a bit pattern whose length depends on (i) whether the actual configuration matches one of the one or more reference configurations and/or (ii) which reference configuration the actual configuration matches. identifying one or more reference configurations for the group, wherein each reference configuration is one of different possible configurations that restrict different subgroups of precoders in the group from being used; identifying, from the different possible configurations for the group, an actual configuration to be signaled for the group; and generating signaling to indicate the actual configuration for the group; and sending the generated signaling to the wireless communication device; characterized by generating the signaling as a bit pattern whose length depends on (i) whether the actual configuration matches one of the one or more reference configurations and/or (ii) which reference configuration the actual configuration matches.
A method for selecting a display mode on a lighting module using only a single button, the lighting module having only the single button, the method comprising: receiving a first actuation of the single button at the lighting module; responsive to the first actuation from an "off" setting, displaying a sequence of display modes by activating a light of the lighting module, wherein each display mode of the sequence of display modes is displayed for a standard time period; characterized by receiving a second actuation of the single button at the lighting module; and responsive to the second actuation, displaying a selected display mode of the sequence of display modes corresponding to a displayed mode displaying at a time the second actuation was received. receiving a first actuation of the single button at the lighting module; responsive to the first actuation from an "off" setting, displaying a sequence of display modes by activating a light of the lighting module, wherein each display mode of the sequence of display modes is displayed for a standard time period; characterized by receiving a second actuation of the single button at the lighting module; and responsive to the second actuation, displaying a selected display mode of the sequence of display modes corresponding to a displayed mode displaying at a time the second actuation was received.
A twin-spool turbojet with a fan having a fan case with a shaft of the high pressure rotor and a shaft of the low pressure rotor including ancillary machines which it drives via mechanical transmission means comprising a differential gear with a first planetary pinion driven by the shaft of the high pressure spool and a second planetary pinion driven by the shaft of the low pressure spool, said planetary pinions driving satellite pinions mounted into a cage by which the ancillary machines are driven, characterized by the fact that said differential gear is mounted on said fan case, that said planetary pinions and said cage are co-rotary and that the mechanical transmission ratio R 1 between the high pressure shaft and the first planetary pinion of the differential gear and the transmission ratio R 2 between the low pressure shaft and the second planetary pinion of the differential gear are such that the power extraction distribution between the high pressure spool and the low pressure spool at idle speed is between 80%/20% and 20%/80% and in any case such that the operation of the high pressure compressor is not affected by the maximum power drawn by the ancillary machines.
Transport container for bottles, glasses or similar objects, having a bottom from which corner columns extend, which are connected to one another by side walls (3, 4), where first side walls form the end sides, and second side walls form the longitudinal sides, and the end facing away from the bottom has a top edge, and the bottom is divided into compartments, characterised in that two vertically extending rectangular slots are formed in each of the second side walls, which interrupt the top edge of the side walls, and that the slots are arranged adjacent to the corner columns and are of a depth which corresponds substantially to half the height of the container.
A method, comprising: estimating by Coulomb counting a first state of charge measurement for a battery based, at least in part, on a measurement of current supplied to the battery and/or withdrawn from the battery during a first period of time; estimating a rate of change of the current supplied to the battery at a particular constant voltage value during a portion of a first charging operation; accessing a predefined charging current profile for the battery indicating a mapping between measurements of rates of change of current supplied to the battery at the particular constant voltage value and true SOC measurements for the battery; determining a true SOC measurement for the battery at a particular point in time during the portion of the first charging operation based, at least in part, on the mapping of the measurements of the rates of change of current supplied to the battery and the true SOC measurements; and correcting the first SOC measurement to match the true SOC measurement at the particular point in time. estimating by Coulomb counting a first state of charge measurement for a battery based, at least in part, on a measurement of current supplied to the battery and/or withdrawn from the battery during a first period of time; estimating a rate of change of the current supplied to the battery at a particular constant voltage value during a portion of a first charging operation; accessing a predefined charging current profile for the battery indicating a mapping between measurements of rates of change of current supplied to the battery at the particular constant voltage value and true SOC measurements for the battery; determining a true SOC measurement for the battery at a particular point in time during the portion of the first charging operation based, at least in part, on the mapping of the measurements of the rates of change of current supplied to the battery and the true SOC measurements; and correcting the first SOC measurement to match the true SOC measurement at the particular point in time.
Radial compressor, in particular for a turbocharger, comprising - a spiral housing and - a diffuser, the cross section of the diffuser in the region of the transition of the spiral housing, therefore in the region of the tongue, being varied in such a way that the formation of a negative pressure area in this region is at least reduced, characterized in that the diffuser has a greater width (b) in the region of the tongue, and in that the radius (r) of the diffuser in the region of the tongue is enlarged in such a way that it has a bulge in the manner of an oval. - a spiral housing and - a diffuser, the cross section of the diffuser in the region of the transition of the spiral housing, therefore in the region of the tongue, being varied in such a way that the formation of a negative pressure area in this region is at least reduced, characterized
A process of forming an electronic device, the electronic device comprising a substrate and a conductive layer, the process comprising: removing photoresist from at least one surface of the electronic device using a photoresist stripper mixture, characterised in that the photoresist stripper mixture comprises a first self-assembled monolayer material and photoresist stripper for dissolving photoresist, thereby depositing a self-assembled monolayer (6, 7, 8) on said at least one surface of said electronic device. removing photoresist from at least one surface of the electronic device using a photoresist stripper mixture, characterised in that the photoresist stripper mixture comprises a first self-assembled monolayer material and photoresist stripper for dissolving photoresist, thereby depositing a self-assembled monolayer (6, 7, 8) on said at least one surface of said electronic device.
A container for receiving and storing liquids and viscous materials, in particular cryogenic fluids, comprising a jacket, which defines the interior of the container having chamber, said container being constituted of at least two container structures (20, 20', 20'') and each of said at least two container structures (20, 20', 20'') being formed as one piece from a blank and having a dome portion, a branching portion, which is contiguous to the dome portion, and two cylinder portions (26, 28; 26', 28'), which are contiguous to the branching portion, and the mutually facing container structures (20, 20'; 20', 20'') which are adjacent to each other being joined together.
Target processing system, said system comprising - at least one target marking device, said target marking device comprising at least: • one small-size flying unit, said flying unit being configured to fly at low height and to be guided with the aid of guidance commands, said flying unit being provided with at least one sensor able to measure at least one parameter of the environment; • one data transmission unit; and • at least one emitter able to emit position information; and - at least one autonomous flying device, said autonomous flying device comprising: • means for detecting position information, emitted by the emitter of said target marking device; • means for managing this position information for the purpose of guiding the flying device; and • means for processing a target; characterised in that said flying unit has a size less than that of a cube with sides of twenty centimetres, and it that the data transmission unit is configured to emit at least data relating to measurements carried out by the sensor from the flying unit and to receive guidance orders at said flying unit and cin that said emitter is fixed on said flying unit. - at least one target marking device, said target marking device comprising at least: • one small-size flying unit, said flying unit being configured to fly at low height and to be guided with the aid of guidance commands, said flying unit being provided with at least one sensor able to measure at least one parameter of the environment; • one data transmission unit; and • at least one emitter able to emit position information; and • one small-size flying unit, said flying unit being configured to fly at low height and to be guided with the aid of guidance commands, said flying unit being provided with at least one sensor able to measure at least one parameter of the environment; • one data transmission unit; and • at least one emitter able to emit position information; and - at least one autonomous flying device, said autonomous flying device comprising: • means for detecting position information, emitted by the emitter of said target marking device; • means for managing this position information for the purpose of guiding the flying device; and • means for processing a target; characterised in that said flying unit has a size less than that of a cube with sides of twenty centimetres, and it that the data transmission unit is configured to emit at least data relating to measurements carried out by the sensor from the flying unit and to receive guidance orders at said flying unit and cin that said emitter is fixed on said flying unit. • means for detecting position information, emitted by the emitter of said target marking device; • means for managing this position information for the purpose of guiding the flying device; and • means for processing a target;
A battery module case, comprising: a bottom plate and sidewalls, wherein the bottom plate and sidewalls form an inner space configured to receive a resin layer and a plurality of battery cells; wherein a control hole is formed in the bottom plate or the sidewall, wherein a light transmissive film is located on an inner surface of the control hole, wherein the bottom plate or the sidewall further comprises an injection hole configured so that a resin composition for forming a resin layer can be injected, and wherein the light transmissive film is a light transmissive film that is composed of a base material and a transparent adhesive layer formed in a partial region on the base material which is divided into a partial region on which the adhesive layer is formed and the other region on which the adhesive layer is not formed, wherein the light transmissive film is in contact with the control hole through the adhesive layer, wherein the partial region and the other region are bent at a predetermined angle and the partial region and the other region have different optical characteristics, wherein the other region of the base material is bent in the direction of the partial region, and the partial region has colorless transparent optical characteristics and the other region has color optical characteristics, by including a detectable component. a bottom plate and sidewalls, wherein the bottom plate and sidewalls form an inner space configured to receive a resin layer and a plurality of battery cells; wherein a control hole is formed in the bottom plate or the sidewall, wherein a light transmissive film is located on an inner surface of the control hole, wherein the bottom plate or the sidewall further comprises an injection hole configured so that a resin composition for forming a resin layer can be injected, and wherein the light transmissive film is a light transmissive film that is composed of a base material and a transparent adhesive layer formed in a partial region on the base material which is divided into a partial region on which the adhesive layer is formed and the other region on which the adhesive layer is not formed, wherein the light transmissive film is in contact with the control hole through the adhesive layer, wherein the partial region and the other region are bent at a predetermined angle and the partial region and the other region have different optical characteristics, wherein the other region of the base material is bent in the direction of the partial region, and the partial region has colorless transparent optical characteristics and the other region has color optical characteristics, by including a detectable component.
An artificial tear emulsion, wherein said emulsion is a sub-micron emulsion, wherein said emulsion is of the following formulation: 0.5% w/w Polysorbate 80, 0.5% w/w carboxymethylcellulose sodium, 1.0% w/w glycerin, 0.6% w/w boric acid, 0.1% w/w pemulen, wherein Pemulen is a carbomer copolymer type A, 0.25% w/w castor oil, 0.25% w/w erythritol, 0.25% w/w levocarnitine, sodium hydroxide to adjust the pH to 7.3, water; and optionally 0.01% w/w Purite®, wherein Purite® is a stabilized oxychloro complex. 0.5% w/w Polysorbate 80, 0.5% w/w carboxymethylcellulose sodium, 1.0% w/w glycerin, 0.6% w/w boric acid, 0.1% w/w pemulen, wherein Pemulen is a carbomer copolymer type A, 0.25% w/w castor oil, 0.25% w/w erythritol, 0.25% w/w levocarnitine, sodium hydroxide to adjust the pH to 7.3, water; and optionally 0.01% w/w Purite®, wherein Purite® is a stabilized oxychloro complex.
A system for thermal cycling a sample provided in a flexible vessel, comprising a plurality of flexible vessels arranged to form an array of reactions vessels, wherein each vessel comprises a reaction vessel body and a receptacle for receiving the sample, and wherein the plurality of reaction vessel bodies are formed between two planar faces of plastic sheeting sealed together so that neighbouring vessels are separated by sealed sides, each reaction vessel body having a first portion and a second portion, which are in fluid communication with each other, wherein the plurality of reaction vessels are in parallel arrangement, a first heating element for heating the sample to a first temperature, the first heating element (26, 27) repeatably movable between an open position and a closed position, the first heating element (26, 27) defining a first gap for receiving a first portion of each flexible vessel, a second heating element (25, 28) for heating the sample to a second temperature, the second heating element (25, 28) repeatably movable between an open position and a closed position, the second heating element (25, 28) defining a second gap contiguous with the first gap, the second gap for receiving a second portion of each flexible vessel, wherein when the first heating element (26, 27) is in the closed position, the sample is forced from the first portion of the flexible vessel, and when the second heating element (25, 28) is in the closed position, the sample is forced from the second portion of the flexible vessel.
An electrosurgical system for sealing tissue, comprising: a forceps including at least one shaft member having an end effector assembly disposed at a distal end thereof, the end effector assembly including jaw members (110, 120) movable from a first position in spaced relation relative to one another to at least one subsequent position wherein the jaw members cooperate to grasp tissue therebetween; and each of the jaw members including a sealing plate (112, 122) which communicates electrosurgical energy through tissue held therebetween, the jaw members being adapted to connect to an electrosurgical generator; at least one sensor (170a, 170b) which determines a gap distance between the sealing plates of the jaw members; and a microprocessor adapted to communicate with the at least one sensor to measure an initial gap distance between the sealing plates, characterized by the microprocessor being adapted to generate a desired gap distance trajectory based on the initial gap distance, wherein the desired gap distance trajectory includes a plurality of desired target gap distance values, the microprocessor being further adapted to communicate with the at least one sensor in real-time to adjust output level of the electrosurgical generator as a function of the measured gap distance during the sealing process so as to substantially match measured gap distance to a corresponding desired target gap distance value. a forceps including at least one shaft member having an end effector assembly disposed at a distal end thereof, the end effector assembly including jaw members (110, 120) movable from a first position in spaced relation relative to one another to at least one subsequent position wherein the jaw members cooperate to grasp tissue therebetween; and each of the jaw members including a sealing plate (112, 122) which communicates electrosurgical energy through tissue held therebetween, the jaw members being adapted to connect to an electrosurgical generator; at least one sensor (170a, 170b) which determines a gap distance between the sealing plates of the jaw members; and a microprocessor adapted to communicate with the at least one sensor to measure an initial gap distance between the sealing plates,
A method for producing seamless steel pipe comprising: a billet molding step in which a steel material is molded into a cylindrical billet; a first heating step in which the billet is heated; a hot isostatic extrusion step in which the heated billet is subjected to hot isostatic extrusion processing at 1050°C or more and less than 1300°C to obtain a seamless steel pipe workpiece having an inner periphery surface and an outer periphery surface with an average surface roughness of 12.5μm or less; a second heating step in which the seamless steel pipe workpiece is heated; an extension step (F, G) in which the heated seamless steel pipe workpiece is extended by at least one of Pilger mill rolling and drawing processing; a third heating step in which the extended seamless steel pipe workpiece is heated; and a pickling step in which the extended and heated seamless steel pipe workpiece is pickled. a billet molding step in which a steel material is molded into a cylindrical billet; a first heating step in which the billet is heated; a hot isostatic extrusion step in which the heated billet is subjected to hot isostatic extrusion processing at 1050°C or more and less than 1300°C to obtain a seamless steel pipe workpiece having an inner periphery surface and an outer periphery surface with an average surface roughness of 12.5μm or less; a second heating step in which the seamless steel pipe workpiece is heated; an extension step (F, G) in which the heated seamless steel pipe workpiece is extended by at least one of Pilger mill rolling and drawing processing; a third heating step in which the extended seamless steel pipe workpiece is heated; and a pickling step in which the extended and heated seamless steel pipe workpiece is pickled.
A production method of a compound represented by the formula, comprising (i) a step of reacting a compound represented by the formula and a compound represented by the formula: wherein R 1 represents furyl, R 4, R 5 and R 6 are the same or different and each represents lower alkyl or aryl, R 2 represents pyridyl or tetrahydropyranyl, and X 1 represents halogen.