mhurhangee/patent-ind-claim-en huggingface dataset:
A cathode, the cathode comprising: a cathode active material comprising a lithium transition metal oxide; a conductive material; and a binder, wherein the lithium transition metal oxide comprises nickel and a transition metal other than nickel, wherein the lithium transition metal oxide has a layered crystal structure, wherein a content of the nickel is 30 mole percent or greater, based on a total number of moles of transition metals of the lithium transition metal oxide, wherein the conductive material comprises a linear carbon conductive material, wherein the binder comprises a first binder comprising fluorine and a polar functional group and a second binder, which does not comprise fluorine, and wherein an amount of the linear carbon conductive material is 0.1 weight percent or greater, based on a total combined weight of the cathode active material, the conductive material, and the binder, and wherein the linear carbon conductive material comprises carbon nanotube, carbon nanofiber, carbon nanorod, or a combination thereof. a cathode active material comprising a lithium transition metal oxide; a conductive material; and a binder, wherein the lithium transition metal oxide comprises nickel and a transition metal other than nickel, wherein the lithium transition metal oxide has a layered crystal structure, wherein a content of the nickel is 30 mole percent or greater, based on a total number of moles of transition metals of the lithium transition metal oxide, wherein the conductive material comprises a linear carbon conductive material, wherein the binder comprises a first binder comprising fluorine and a polar functional group and a second binder, which does not comprise fluorine, and a first binder comprising fluorine and a polar functional group and a second binder, which does not comprise fluorine, and wherein an amount of the linear carbon conductive material is 0.1 weight percent or greater, based on a total combined weight of the cathode active material, the conductive material, and the binder, and wherein the linear carbon conductive material comprises carbon nanotube, carbon nanofiber, carbon nanorod, or a combination thereof.
A circuit body for a vehicle, the circuit body being mounted on a vehicle body to supply electric power from a power source (BAT) to an electric component and to transmit a communication signal, the circuit body comprising: a plurality of control boxes dispersedly arranged on the circuit body and configured to be able to control input and output of at least one of the electric power and the communication signal; a trunk harness connecting one of the control boxes to another of the control boxes ; and a branch harness connecting the control box to the electric component , the control boxes , the trunk harness and the branch harness being configured to ground a power circuit and a signal circuit through grounding routes different from each other, the power circuit supplying the electric power from the power source (BAT) to the electric component through the control boxes , the signal circuit transmitting the communication signal between the control boxes and the electric component and between one of the control boxes and another of the control boxes . a plurality of control boxes dispersedly arranged on the circuit body and configured to be able to control input and output of at least one of the electric power and the communication signal; a trunk harness connecting one of the control boxes to another of the control boxes ; and a branch harness connecting the control box to the electric component , the control boxes , the trunk harness and the branch harness being configured to ground a power circuit and a signal circuit through grounding routes different from each other, the power circuit supplying the electric power from the power source (BAT) to the electric component through the control boxes , the signal circuit transmitting the communication signal between the control boxes and the electric component and between one of the control boxes and another of the control boxes .
Antimicrobial composition containing a lactam and a hydrotrope, wherein the lactam is of formula (I): wherein: R 1 is hydrogen; and R 2 is phenyl substituted with halogen; R 3 is hydrogen; R 4 and R 5 are hydrogen; and wherein the hydrotrope is selected from polyoxyethylene sorbitan fatty acid esters and polyoxyethylene derivatives of castor oil. R 1 is hydrogen; and R 2 is phenyl substituted with halogen; R 3 is hydrogen; R 4 and R 5 are hydrogen; and wherein the hydrotrope is selected from polyoxyethylene sorbitan fatty acid esters and polyoxyethylene derivatives of castor oil.
A power wiring apparatus comprising: a plate-shaped wiring member comprising a plurality of first connectors and configured to conductively connect the plurality of first connectors to each other; and a plate-shaped external circuit element mounted on the wiring member and comprising a second connector mechanically and electrically attachable to and detachable from any first connector among the plurality of first connectors ; wherein an insertion and removal direction of the second connector with respect to the first connector is substantially parallel to a surface direction of the external circuit element ; wherein the external circuit element comprises an energy harvesting element as a circuit element capable of outputting, from the second connector , power generated by energy harvesting, characterized in that the wiring member is flexible, enabling the wiring member to be folded. a plate-shaped wiring member comprising a plurality of first connectors and configured to conductively connect the plurality of first connectors to each other; and a plate-shaped external circuit element mounted on the wiring member and comprising a second connector mechanically and electrically attachable to and detachable from any first connector among the plurality of first connectors ; wherein an insertion and removal direction of the second connector with respect to the first connector is substantially parallel to a surface direction of the external circuit element ; wherein the external circuit element comprises an energy harvesting element as a circuit element capable of outputting, from the second connector , power generated by energy harvesting, characterized in that the wiring member is flexible, enabling the wiring member to be folded.
Heat exchanger having an annular shape, formed by an independent tube assembly assembled by holding means and housed in a cylindrical cavity, characterized in that it comprises two coaxial annular cassettes : a) an outer annular cassette formed by a first series of rectilinear tubes, each extending between a proximal perforated connection plate and a distal perforated connection plate, - said outer annular cassette being capable of communicating with an annular connector of a compressor b) an inner annular cassette which is coaxial with said outer annular cassette and formed by a second series of rectilinear tubes, each extending between said proximal perforated connection plate and said distal perforated connection plate, - said inner annular cassette being capable of communicating with an annular connector of a combustion chamber c) said two cassettes being joined, at the opposite end to the compressor , by an annular closing structure . a) an outer annular cassette formed by a first series of rectilinear tubes, each extending between a proximal perforated connection plate and a distal perforated connection plate, - said outer annular cassette being capable of communicating with an annular connector of a compressor - said outer annular cassette being capable of communicating with an annular connector of a compressor b) an inner annular cassette which is coaxial with said outer annular cassette and formed by a second series of rectilinear tubes, each extending between said proximal perforated connection plate and said distal perforated connection plate, - said inner annular cassette being capable of communicating with an annular connector of a combustion chamber - said inner annular cassette being capable of communicating with an annular connector of a combustion chamber c) said two cassettes being joined, at the opposite end to the compressor , by an annular closing structure .
A method for determining a 3D location of point light sources in a 3D scene captured by a camera, comprising: - obtaining a reference image of the 3D scene captured by a camera under ambient lighting comprising no point light source lighting the scene, said reference image comprising a reference area representative of a reference diffuse white surface captured under said ambient lighting, - obtaining an input image of the scene captured by the camera, - determining a texture image by dividing the pixel intensity values of the reference image with an ambient light intensity value, the ambient light intensity value being determined according to a mean color value computed over at least one part of said reference area, - determining a texture-free image, a value of a pixel of the texture-free image being a ratio of an intensity at the corresponding pixel in said input image over a value of an intensity at the same pixel in the texture image, and - determining the 3D location of point light sources by detecting cast shadows in the texture-free image. - obtaining a reference image of the 3D scene captured by a camera under ambient lighting comprising no point light source lighting the scene, said reference image comprising a reference area representative of a reference diffuse white surface captured under said ambient lighting, - obtaining an input image of the scene captured by the camera, - determining a texture image by dividing the pixel intensity values of the reference image with an ambient light intensity value, the ambient light intensity value being determined according to a mean color value computed over at least one part of said reference area, - determining a texture-free image, a value of a pixel of the texture-free image being a ratio of an intensity at the corresponding pixel in said input image over a value of an intensity at the same pixel in the texture image, and - determining the 3D location of point light sources by detecting cast shadows in the texture-free image.
A heat transfer process wherein the heat transfer fluid is an anhydrous, binary salt mixture comprising potassium nitrate KNO 3 and sodium nitrate NaNO 3 , wherein the KNO 3 content ranges from 65% by weight to 68% by weight, characterized in that it operates at a bulk temperature of at least 575°C and a film temperature of at least 620°C, including the interval bounds.
An apparatus for controlling a flow of coolant into an inter-stage cavity of a turbomachine, the inter-stage cavity bounded by a disc of a first turbine stage and a disc of a second turbine stage axially displaced along a common axis of rotation (A-A) with the first turbine stage, the apparatus comprising an annular platform bridging a space between the axially displaced first and second turbine stages, an annular plenum chamber arranged inboard of the annular platform , the annular plenum chamber having one or more inlets for receiving coolant and one or more outlets exiting into the inter-stage cavity , the outlets having a reduced total cross-sectional area compared with a total cross sectional area of the inlets and whereby, in use, coolant is delivered into the inter-stage cavity with minimal pressure losses, and wherein the apparatus further comprises an inter-stage seal assembly which is arranged immediately axially downstream of the annular plenum chamber , with respect to the flow of a working fluid through the turbomachine when in use, the inter-stage seal assembly is slidably connected to an axially downstream radially extending wall of the annular plenum chamber , and the apparatus further comprises a second seal assembly which is arranged immediately axially upstream of the annular plenum chamber , such that the annular plenum chamber occupies a space axially between the inter-stage sea assembly and the second seal assembly and extends radially into the inter-stage cavity .
A computer-implemented method performed by a mobile device, comprising: sending a registration message to a serving access point, AP, (106-1), configured to provide access to an Internet Protocol, IP, Multimedia Subsystem, IMS, core; sending a message to the serving AP for initiating a communication session; receiving from the serving AP (106-1), a selected codec for the communication session; accessing from memory of the mobile device, a data structure that maintains a first codec-specific threshold in association with a first codec and a second codec-specific threshold in association with a second codec, wherein the first codec-specific threshold and the second codec-specific threshold are different thresholds; comparing the selected codec to the first codec stored in the memory of the mobile device; determining that the selected codec corresponds to the first codec; measuring a parameter of a radio signal from the serving AP (106-1) to obtain a radio signal measurement; determining that the radio signal measurement is below the first codec-specific threshold associated with the first codec; and in response thereto transitioning the communication session from the serving AP (106-1) to a target AP (106-2) in communication range of the mobile device, the target AP (106-2) configured to provide access to the IMS core. sending a registration message to a serving access point, AP, (106-1), configured to provide access to an Internet Protocol, IP, Multimedia Subsystem, IMS, core; sending a message to the serving AP for initiating a communication session; receiving from the serving AP (106-1), a selected codec for the communication session; accessing from memory of the mobile device, a data structure that maintains a first codec-specific threshold in association with a first codec and a second codec-specific threshold in association with a second codec, wherein the first codec-specific threshold and the second codec-specific threshold are different thresholds; comparing the selected codec to the first codec stored in the memory of the mobile device; determining that the selected codec corresponds to the first codec; measuring a parameter of a radio signal from the serving AP (106-1) to obtain a radio signal measurement; determining that the radio signal measurement is below the first codec-specific threshold associated with the first codec; and in response thereto transitioning the communication session from the serving AP (106-1) to a target AP (106-2) in communication range of the mobile device, the target AP (106-2) configured to provide access to the IMS core.
A resonant test system for diagnostic testing of electrical cables, the resonant test system comprising: an inverter configured to receive a direct current, DC, voltage at an input and to output an alternating current, AC, voltage at an output; an exciter operatively coupled to the inverter, the exciter amplifying an amplitude of the AC voltage; a reactor having an input that is operatively coupled to the exciter and an output that is configured to be operatively coupled to an electrical cable ; and a processing device operatively coupled to the inverter and the reactor, the processing device being programmed to adjust an inductance of the reactor and an output frequency of the inverter to achieve resonance in series with the electrical cable. an inverter configured to receive a direct current, DC, voltage at an input and to output an alternating current, AC, voltage at an output; an exciter operatively coupled to the inverter, the exciter amplifying an amplitude of the AC voltage; a reactor having an input that is operatively coupled to the exciter and an output that is configured to be operatively coupled to an electrical cable ; and a processing device operatively coupled to the inverter and the reactor, the processing device being programmed to adjust an inductance of the reactor and an output frequency of the inverter to achieve resonance in series with the electrical cable.
A gearbox comprising an arrangement, wherein the gearbox comprises a first shaft , a second shaft , at least one gear set, which comprises a primary cogwheel (5-7) arranged on the first shaft and a secondary cogwheel (12-14) arranged on the second shaft , wherein the primary cogwheel (5-7) and the secondary cogwheel (12-14) have teeth engaging (30-32) with each other, and wherein the arrangement comprises a first component (29a-d), which is arranged at a first side of the gear mesh (30-32) between the primary cogwheel (5-7) and the secondary cogwheel (12-14), said first component (29a-d) comprises a recess (29a 2 -d 2 ) in a radial side wall in relation to said shafts , which recess has its opening arranged in connection with the gear mesh (30-32), so that gearbox oil may be led between the first side of the gear mesh (30-32) and the recess (29a 2 -d 2 ), characterised in that the primary cogwheel (5-7) and the secondary cogwheel (12-14) are adapted with oblique teeth (5a-7a, 12a-14a), when the teeth engage with each other, a low pressure area is created in connection with one side of the gear mesh, thus oil is sucked into the gear mesh on this side and out on the opposite side of the gear mesh, and that said first component (29a-d) and said recess (29a 2 -29d 2 ) are arranged on a side of the gear mesh (30-32), where gearbox oil is led out during operation.
An encapsulated internal breaker for enhancing the removal of a filter cake from a wellbore in a subterranean formation comprising: i a filter cake breaker, wherein the filter cake breaker is magnesium peroxide, zinc peroxide, or an alkaline earth metal peroxide, ii an anti-caking agent, wherein the anti-caking agent is magnesium carbonate, calcium carbonate, colloidal silica micro particles, or clay particles, iii an encapsulation film which encapsulates the filter cake breaker, the encapsulation film comprising a zinc-crosslinked acrylic polymer, the monomers in the polymer consisting of methacrylic acid, butyl acrylate, styrene and methyl methacrylate, and which is insoluble in well bore fluids having a pH value between 7.5 and 10.5, and iv optionally a water-soluble polymer as a binder. i a filter cake breaker, wherein the filter cake breaker is magnesium peroxide, zinc peroxide, or an alkaline earth metal peroxide, ii an anti-caking agent, wherein the anti-caking agent is magnesium carbonate, calcium carbonate, colloidal silica micro particles, or clay particles, iii an encapsulation film which encapsulates the filter cake breaker, the encapsulation film comprising a zinc-crosslinked acrylic polymer, the monomers in the polymer consisting of methacrylic acid, butyl acrylate, styrene and methyl methacrylate, and which is insoluble in well bore fluids having a pH value between 7.5 and 10.5, and iv optionally a water-soluble polymer as a binder.
A motor comprising: a shaft ; a rotor coupled to the shaft ; and a stator disposed outside the rotor , wherein the rotor includes N rotor cores stacked in the shaft direction and a plurality of magnets disposed on an outer circumferential surface of each of the rotor cores , and the number of holes , each of which is formed in one of the N rotor cores , is at least 2N, wherein the 2N holes include a first group (A) having N holes for arranging the rotor cores and a second group (B) having N holes for balancing rotation of the rotor cores , wherein first angles (θ1) are formed between the N holes of the first group (A), wherein a second angle (θ2) formed by a first hole of the first group (A) and the hole , which is closest to the first hole , of the second group (B) is different from the first angles (θ1) of the first group (A). a shaft ; a rotor coupled to the shaft ; and a stator disposed outside the rotor , wherein the rotor includes N rotor cores stacked in the shaft direction and a plurality of magnets disposed on an outer circumferential surface of each of the rotor cores , and the number of holes , each of which is formed in one of the N rotor cores , is at least 2N, wherein the 2N holes include a first group (A) having N holes for arranging the rotor cores and a second group (B) having N holes for balancing rotation of the rotor cores , wherein first angles (θ1) are formed between the N holes of the first group (A), wherein a second angle (θ2) formed by a first hole of the first group (A) and the hole , which is closest to the first hole , of the second group (B) is different from the first angles (θ1) of the first group (A).
A device comprising: an electronic display supported in a display chassis ; a capacitive digitizer sensor overlaid on the electronic display ; wherein the electronic display includes an electrostatic discharge, ESD, shield layer, wherein the ESD shield layer is electrically connected to device ground and wherein impedance to the device ground of the ESD shield layer is configured to be sensitive to pressure applied on the capacitive digitizer sensor during user interaction; a circuit configured to detect touch interaction with the capacitive digitizer sensor based on output sampled, wherein the output is sensitive to the change in the impedance of the ESD shield layer to the device ground, wherein the circuit is configured to detect a change in a baseline output detected on the capacitive digitizer sensor , wherein the change in the baseline output is based on changes in the impedance to ground of the ESD shield layer, and wherein the baseline output is the output detected from the capacitive digitizer sensor at a location with no user interaction; and a display controller configured to control output on the electronic display . an electronic display supported in a display chassis ; a capacitive digitizer sensor overlaid on the electronic display ; wherein the electronic display includes an electrostatic discharge, ESD, shield layer, wherein the ESD shield layer is electrically connected to device ground and wherein impedance to the device ground of the ESD shield layer is configured to be sensitive to pressure applied on the capacitive digitizer sensor during user interaction; a circuit configured to detect touch interaction with the capacitive digitizer sensor based on output sampled, wherein the output is sensitive to the change in the impedance of the ESD shield layer to the device ground, wherein the circuit is configured to detect a change in a baseline output detected on the capacitive digitizer sensor , wherein the change in the baseline output is based on changes in the impedance to ground of the ESD shield layer, and wherein the baseline output is the output detected from the capacitive digitizer sensor at a location with no user interaction; and a display controller configured to control output on the electronic display .