mhurhangee/ep-ind-claims huggingface dataset:
A personal care composition comprising: a.) from 5 wt.% to 50 wt.% of an anionic surfactant system, said anionic surfactant system comprising at least one anionic surfactant and having an ethoxylate level and an anion level, i) wherein said ethoxylate level is from 1.5 to 6, and ii) wherein said anion level is from 1.5 to 6; b.) a water insoluble aminosilicone, wherein said aminosilicone has an average particle size in the composition of less than or equal to 30 μm; c.) from 0.05 wt.% to 5 wt.% of a naturally derived cationic polymer derivative wherein said polymer derivative has a molecular weight from 1,000 to 10,000,000, and wherein said polymer derivative has a cationic charge density at least 3.0 meq/g.; and d.) aqueous carrier, said composition being characterized in that said naturally derived cationic polymer derivative comprises a non-guar galactomannan polymer derivative that is cationic cassia. a.) from 5 wt.% to 50 wt.% of an anionic surfactant system, said anionic surfactant system comprising at least one anionic surfactant and having an ethoxylate level and an anion level, i) wherein said ethoxylate level is from 1.5 to 6, and ii) wherein said anion level is from 1.5 to 6; i) wherein said ethoxylate level is from 1.5 to 6, and ii) wherein said anion level is from 1.5 to 6; b.) a water insoluble aminosilicone, wherein said aminosilicone has an average particle size in the composition of less than or equal to 30 μm; c.) from 0.05 wt.% to 5 wt.% of a naturally derived cationic polymer derivative wherein said polymer derivative has a molecular weight from 1,000 to 10,000,000, and wherein said polymer derivative has a cationic charge density at least 3.0 meq/g.; and d.) aqueous carrier,
A non-oriented electrical steel sheet comprising, as a chemical composition, by mass%: C: 0.0100% or less; Si: more than 3.0% and 5.0% or less; Mn: 0.1 to 3.0%; P: 0.20% or less; S: 0.0018% or less; N: 0.0040% or less; Al: 0 to 0.9%; one or more selected from the group consisting of Sn and Sb: 0 to 0.100%; Cr: 0 to 5.0%; Ni: 0 to 5.0%; Cu: 0 to 5.0%; Ca: 0 to 0.010%; rare earth elements: 0 to 0.010%; and a remainder Fe and impurities, wherein an area ratio of a crystal structure A composed of crystal grains having a grain size of 100 μm or greater in a cross section parallel to a rolled surface of the non-oriented electrical steel sheet is 1 to 30%, wherein the crystal structure is determined by the measurement method described in the description, wherein an average grain size of a crystal structure B that is a crystal structure other than the crystal structure A is 25 μm or less, wherein a Vickers hardness HvA of the crystal structure A and a Vickers hardness HvB of the crystal structure B satisfy Expression: HvA / HvB ≤ 1.000 wherein the area ratio of the crystal structure A, the average grain size of the crystal structure B, HvA and HvB are measured by the methods disclosed in the description. C: 0.0100% or less; Si: more than 3.0% and 5.0% or less; Mn: 0.1 to 3.0%; P: 0.20% or less; S: 0.0018% or less; N: 0.0040% or less; Al: 0 to 0.9%; one or more selected from the group consisting of Sn and Sb: 0 to 0.100%; Cr: 0 to 5.0%; Ni: 0 to 5.0%; Cu: 0 to 5.0%; Ca: 0 to 0.010%; rare earth elements: 0 to 0.010%; and a remainder Fe and impurities, wherein an area ratio of a crystal structure A composed of crystal grains having a grain size of 100 μm or greater in a cross section parallel to a rolled surface of the non-oriented electrical steel sheet is 1 to 30%, wherein the crystal structure is determined by the measurement method described in the description, wherein an average grain size of a crystal structure B that is a crystal structure other than the crystal structure A is 25 μm or less, wherein a Vickers hardness HvA of the crystal structure A and a Vickers hardness HvB of the crystal structure B satisfy Expression: HvA / HvB ≤ 1.000 wherein the area ratio of the crystal structure A, the average grain size of the crystal structure B, HvA and HvB are measured by the methods disclosed in the description.
Rail vehicle with cladding device, in particular rail vehicle with an outer cladding, comprising a cladding element and at least one fastening device for fastening the cladding element to the rail vehicle, wherein the fastening device is provided to be deflectable in an opening direction upon occurrence of a predetermined pressure load on the cladding element; wherein a receiving space for a potentially explosive component is closed by the cladding device, characterized in that the fastening device comprises an energy storage device which is is configured to be chargeable with energy by the deflection of the fastening device, the stored energy acting on the cladding element in a closing direction; the at least one fastening device comprises a fastening interface and a locking interface, wherein the energy storage device elastically connects the fastening interface and the locking interface to each other; the fastening device is fastened directly to a rail car body of the rail vehicle by the fastening interface; the locking interface connects the cladding element to the fastening device; and the energy storage device is configured to be elastically expandable to allow deflection of the cladding element in the event of an explosion without releasing the connection between the fastening interface and the locking interface. a receiving space for a potentially explosive component is closed by the cladding device, characterized in that the fastening device comprises an energy storage device which is is configured to be chargeable with energy by the deflection of the fastening device, the stored energy acting on the cladding element in a closing direction; the at least one fastening device comprises a fastening interface and a locking interface, wherein the energy storage device elastically connects the fastening interface and the locking interface to each other; the fastening device is fastened directly to a rail car body of the rail vehicle by the fastening interface; the locking interface connects the cladding element to the fastening device; and the energy storage device is configured to be elastically expandable to allow deflection of the cladding element in the event of an explosion without releasing the connection between the fastening interface and the locking interface.
A method of controlling treatment of an effluent seawater generated in removing sulfur dioxide from a process gas by contacting the process gas containing sulfur dioxide with seawater comprises: flowing effluent seawater along an oxidation basin, supplying an oxygen containing gas as an oxidation enhancing substance in a first supply location and in a second supply location to oxidize at least a portion of a content of sulfite and/or bisulfite in the effluent seawater, measuring at least one parameter relating to oxidation of sulfite and/or bisulfite in a first measurement location downstream of the first supply location, and in a second measurement location downstream of the second supply location, and controlling, based on the parameter measured in the first and second measurement locations, a first amount of oxidation enhancing substance supplied in one of the first and second supply locations independently from a second amount of oxidation enhancing substance supplied in the other one of the first and second supply locations. flowing effluent seawater along an oxidation basin, supplying an oxygen containing gas as an oxidation enhancing substance in a first supply location and in a second supply location to oxidize at least a portion of a content of sulfite and/or bisulfite in the effluent seawater, measuring at least one parameter relating to oxidation of sulfite and/or bisulfite in a first measurement location downstream of the first supply location, and in a second measurement location downstream of the second supply location, and controlling, based on the parameter measured in the first and second measurement locations, a first amount of oxidation enhancing substance supplied in one of the first and second supply locations independently from a second amount of oxidation enhancing substance supplied in the other one of the first and second supply locations.
A method for processing image data, the method comprising: acquiring a frame of a left-eye color image of a first color, a frame of a right-eye color image of the first color, a frame of a left-eye depth image for the first color and a frame of a right-eye depth image for the first color; and generating a frame of a three-dimensional, 3D, image by combining the acquired frame of the left-eye color image, the acquired frame of the right-eye color image, the acquired frame of the left-eye depth image, and the acquired frame of the right-eye depth image, and characterized in that the generating of the frame of a 3D image comprises: arranging a first row of pixels of the acquired frame of the left-eye color image and a corresponding first row of pixels of the acquired frame of the left-eye depth image on a same first row of the frame of the 3D image; and arranging a first row of pixels of the acquired frame of the right-eye color image and a corresponding first row of pixels of the acquired frame of the right-eye depth image on a same second row of the frame of the 3D image, the second row being adjacent the first row of the frame of the 3D image. acquiring a frame of a left-eye color image of a first color, a frame of a right-eye color image of the first color, a frame of a left-eye depth image for the first color and a frame of a right-eye depth image for the first color; and generating a frame of a three-dimensional, 3D, image by combining the acquired frame of the left-eye color image, the acquired frame of the right-eye color image, the acquired frame of the left-eye depth image, and the acquired frame of the right-eye depth image, and characterized in that the generating of the frame of a 3D image comprises: arranging a first row of pixels of the acquired frame of the left-eye color image and a corresponding first row of pixels of the acquired frame of the left-eye depth image on a same first row of the frame of the 3D image; and arranging a first row of pixels of the acquired frame of the right-eye color image and a corresponding first row of pixels of the acquired frame of the right-eye depth image on a same second row of the frame of the 3D image, the second row being adjacent the first row of the frame of the 3D image. arranging a first row of pixels of the acquired frame of the left-eye color image and a corresponding first row of pixels of the acquired frame of the left-eye depth image on a same first row of the frame of the 3D image; and arranging a first row of pixels of the acquired frame of the right-eye color image and a corresponding first row of pixels of the acquired frame of the right-eye depth image on a same second row of the frame of the 3D image, the second row being adjacent the first row of the frame of the 3D image.
Aircraft seat, in particular a helicopter seat, comprising: - a bucket comprising a wall forming a seating surface and a backrest, - a connecting device for ensuring a connection of the bucket to a structural element of the aircraft, - a support frame of said bucket, wherein said support frame is connected to said connecting device, - wherein said bucket incorporates at least one energy absorption zone that can lose its shape due to stretching process so as to allow a relative displacement of the seating surface of the bucket relative to the backrest of the bucket during an impact, characterized in that the seating surface is integral with the backrest, and in that a clearance zone is provided under the seating surface in order to allow the energy absorption zone to be stretched during a shock, wherein said clearance zone is formed by a curved shape of said support frame of said bucket, wherein said curved shape is open towards the seating surface. - a bucket comprising a wall forming a seating surface and a backrest, - a connecting device for ensuring a connection of the bucket to a structural element of the aircraft, - a support frame of said bucket, wherein said support frame is connected to said connecting device, - wherein said bucket incorporates at least one energy absorption zone that can lose its shape due to stretching process so as to allow a relative displacement of the seating surface of the bucket relative to the backrest of the bucket during an impact,
Method for manufacturing a soil substrate for fertilization and soil improvement, in particular in the root area of trees, in which living microorganisms in an aqueous solution are activated by adding a fermentation activator, in which the aqueous solution with the activated microorganisms, easily decomposable organic biomass, and crushed pyrogenic carbon are mixed to form a mixture, and in which the mixing is followed by fermentation of the mixture, wherein the mixture has a temperature of more than 60 °C for at least one day, characterized in that, following the fermentation, the mixture is gently dried at temperatures between 40 °C and 50 °C, the mixture is dried until it has a dry matter content of at least 90 %, in particular at least 95 %, and the dried mixture is ground until it has a grain size of less than 0.2 mm. in which the aqueous solution with the activated microorganisms, easily decomposable organic biomass, and crushed pyrogenic carbon are mixed to form a mixture, and in which the mixing is followed by fermentation of the mixture, wherein the mixture has a temperature of more than 60 °C for at least one day, characterized in that, following the fermentation, the mixture is gently dried at temperatures between 40 °C and 50 °C, the mixture is dried until it has a dry matter content of at least 90 %, in particular at least 95 %, and the dried mixture is ground until it has a grain size of less than 0.2 mm.
A sensing device for a power steering sensor assembly, the sensing device comprising: a first cover; a second cover; and components of a torque sensing device disposed between the first cover and the second cover, wherein the second cover comprises a plurality of coupling projections (131, 132, 133) disposed on an outer circumferential surface thereof, characterized in that each of the coupling projections (131, 132, 133) comprises two bar-shaped members extended in a radial direction of the second cover. a first cover; a second cover; and components of a torque sensing device disposed between the first cover and the second cover, wherein the second cover comprises a plurality of coupling projections (131, 132, 133) disposed on an outer circumferential surface thereof, characterized in that each of the coupling projections (131, 132, 133) comprises two bar-shaped members extended in a radial direction of the second cover.
A method (200, 200') comprising, at a mobile device: estimating a trajectory of said mobile device within a particular environment comprising an indoor region, said trajectory extending from a first position towards a second position; determining a measure of potential hindrance for at least a portion of said trajectory based, at least in part, on an electronic map that is indicative of a presence or an absence of one or more obstacles within at least said portion of said trajectory; and characterised by presenting an indication of a position uncertainty for the second position to a user of said mobile device, said position uncertainty being based, at least in part, on said measure of potential hindrance. estimating a trajectory of said mobile device within a particular environment comprising an indoor region, said trajectory extending from a first position towards a second position; determining a measure of potential hindrance for at least a portion of said trajectory based, at least in part, on an electronic map that is indicative of a presence or an absence of one or more obstacles within at least said portion of said trajectory; and characterised by presenting an indication of a position uncertainty for the second position to a user of said mobile device, said position uncertainty being based, at least in part, on said measure of potential hindrance.
An in vitro method of blocking cancer stem cell growth,comprising administering an effective amount of a monoclonal antibody that binds to G-Protein Coupled Receptor 49 polypeptide with a K d of less than 10x10 -9 M to a cancer stem cell, wherein the GPR49 polypeptide comprises the amino acid sequence of SEQ ID NO: 1 and the effective amount is sufficient to block cancer stem cell growth, wherein the cancer stem cell growth is measured in a tumorsphere assay as a growth of a primary colon cancer stem cell in serum-free and low-anchorage conditions in vitro, the tumorsphere assay comprising the steps of live single colon tumor cells derived from primary colon tumor xenografts or fresh patient biopsies being sorted and being plated at between 1-1000 cells per well into 96-well ultra low attachment plates, the cells being maintained in cancer stem cell medium for 3 weeks, with fresh medium exchange being performed every 3-4 days.
A method of controlling a motorized window treatment for adjusting the amount of sunlight entering a space of a building through a window to control a sunlight penetration distance in the space, the method comprising: measuring a total light intensity (L SENSOR) at the window; determining if the total light intensity (L SENSOR) exceeds a cloudy-day threshold (TH CLOUDY); enabling a sunlight penetration limiting mode if the total light intensity (L SENSOR) is greater than the cloudy-day threshold (TH CLOUDY); operating in the sunlight penetration limiting mode to control the motorized window treatment to thus control the sunlight penetration distance (d PEN) in the space; and disabling the sunlight penetration limiting mode if the total lighting intensity (L SENSOR) is less than the cloudy-day threshold (TH CLOUDY), whereby the cloudy-day threshold (TH CLOUDY) varies with time around sunrise and sunset, and characterized in that the cloudy-day threshold (TH CLOUDY) is maintained at a constant threshold (TH CONST) near midday. measuring a total light intensity (L SENSOR) at the window; determining if the total light intensity (L SENSOR) exceeds a cloudy-day threshold (TH CLOUDY); enabling a sunlight penetration limiting mode if the total light intensity (L SENSOR) is greater than the cloudy-day threshold (TH CLOUDY); operating in the sunlight penetration limiting mode to control the motorized window treatment to thus control the sunlight penetration distance (d PEN) in the space; and disabling the sunlight penetration limiting mode if the total lighting intensity (L SENSOR) is less than the cloudy-day threshold (TH CLOUDY), whereby the cloudy-day threshold (TH CLOUDY) varies with time around sunrise and sunset, and characterized in that the cloudy-day threshold (TH CLOUDY) is maintained at a constant threshold (TH CONST) near midday.
System for charging a motor vehicle battery, intended to be connected to a power supply network (1a, 1b), said power supply network being a first multiphase power supply network or a second multiphase or single-phase power supply network with a power lower than that of the first network, comprising: - a filtering stage comprising a plurality of capacitors (21, 22, 23); - a first rectifier stage comprising a plurality of switches; and - an inverter stage intended to be connected to the battery, in which the charging system comprises: - a second rectifier stage comprising a plurality of switches, said second rectifier stage being intended to be connected between said power supply network (1a, 1b) and the battery, in parallel with the filtering stage and at least a portion of the first rectifier stage; and - a capacitor the capacitance of which is lower than that of each of the capacitors (21, 22, 23) of the filtering stage, connected between two phases (11, 13) or between a phase and a neutral (13, 14) of the second power supply network. - a filtering stage comprising a plurality of capacitors (21, 22, 23); - a first rectifier stage comprising a plurality of switches; and - an inverter stage intended to be connected to the battery, - a second rectifier stage comprising a plurality of switches, said second rectifier stage being intended to be connected between said power supply network (1a, 1b) and the battery, in parallel with the filtering stage and at least a portion of the first rectifier stage; and - a capacitor the capacitance of which is lower than that of each of the capacitors (21, 22, 23) of the filtering stage, connected between two phases (11, 13) or between a phase and a neutral (13, 14) of the second power supply network.
A probe for brain recording and/or stimulation, said probe comprising one or more shanks having a same orientation, wherein each of said shanks has a first side and a second side opposed to said first side and comprises at least one recording and/or stimulating site on said first side, wherein each of said shanks further comprises a fin protruding perpendicularly from said second side and running on at least a part of the length of said shank along said same orientation, wherein each of said shanks has a sharp pointed tip at its distal end, characterised in said tip lying in the plane defined by said first side.
An electrolytic cell comprising: a containment vessel; a first electrode; a second electrode; an electrolyte in fluid communication with the first electrode and the second electrode; a source of electrical current in electrical communication with the first electrode and the second electrode to produce electrolysis, wherein a gas is formed during electrolysis at or near the first electrode; a gas extraction area; and a separator comprising a substantially continuous helical configuration having two inclined surfaces forming a "V" shape, wherein the separator is configured to be liquid permeable but to substantially prevent gas flow or transport from the first electrode side of the separator to the second electrode side of the separator and vice versa, the "V" shape of the separator directs flow of the electrolyte and the gas due to a difference between density of the electrolyte and the combined density of the electrolyte and the gas such that the gas substantially flows in a direction distal to the second electrode, and the helical configuration of the separator is configured to promote circulation of the electrolyte between the first electrode, the gas extraction area, and the second electrode to provide fresh electrolyte to the first electrode and the second electrode. a containment vessel; a first electrode; a second electrode; an electrolyte in fluid communication with the first electrode and the second electrode; a source of electrical current in electrical communication with the first electrode and the second electrode to produce electrolysis, wherein a gas is formed during electrolysis at or near the first electrode; a gas extraction area; and a separator comprising a substantially continuous helical configuration having two inclined surfaces forming a "V" shape, wherein the separator is configured to be liquid permeable but to substantially prevent gas flow or transport from the first electrode side of the separator to the second electrode side of the separator and vice versa, the "V" shape of the separator directs flow of the electrolyte and the gas due to a difference between density of the electrolyte and the combined density of the electrolyte and the gas such that the gas substantially flows in a direction distal to the second electrode, and the helical configuration of the separator is configured to promote circulation of the electrolyte between the first electrode, the gas extraction area, and the second electrode to provide fresh electrolyte to the first electrode and the second electrode.