mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: using a millimeter-wave radar , transmitting a plurality of a plurality of radar signals towards a surface of a skin , receiving a plurality of reflected radar signals, generating a displacement signal indicative of a distension of a surface of a skin based on the reflected radar signals; determining a temperature of the skin using a temperature sensor; using a controller, during a calibration time interval, using the millimeter-wave radar , applying electromagnetic energy to the skin to cause an increase in temperature of the skin , collecting a plurality of distension values from the displacement signal, the plurality of distension values associated with a respective plurality of temperature values determined using the temperature sensor, the plurality of temperature values being indicative of a temperature increase of the skin caused by the applied electromagnetic energy; determining compensation coefficients compensating changes of skin elasticity resulting from changes in skin temperature associated with the plurality of temperature values; and after the calibration time interval, collecting a first distension value from the displacement signal, determining a first temperature value using the temperature sensor , and determining a blood pressure based on the first distension value, the first temperature value, and the determined compensation coefficients. using a millimeter-wave radar , transmitting a plurality of a plurality of radar signals towards a surface of a skin , receiving a plurality of reflected radar signals, generating a displacement signal indicative of a distension of a surface of a skin based on the reflected radar signals; determining a temperature of the skin using a temperature sensor; using a controller, during a calibration time interval, using the millimeter-wave radar , applying electromagnetic energy to the skin to cause an increase in temperature of the skin , collecting a plurality of distension values from the displacement signal, the plurality of distension values associated with a respective plurality of temperature values determined using the temperature sensor, the plurality of temperature values being indicative of a temperature increase of the skin caused by the applied electromagnetic energy; determining compensation coefficients compensating changes of skin elasticity resulting from changes in skin temperature associated with the plurality of temperature values; and after the calibration time interval, collecting a first distension value from the displacement signal, determining a first temperature value using the temperature sensor , and determining a blood pressure based on the first distension value, the first temperature value, and the determined compensation coefficients. collecting a first distension value from the displacement signal, determining a first temperature value using the temperature sensor , and determining a blood pressure based on the first distension value, the first temperature value, and the determined compensation coefficients.
A pharmaceutical composition comprising (a) from 15% to 20% by weight of cinacalcet HCl; and (b) a pharmaceutically acceptable excipient comprising from 25% to 85% by weight of microcrystalline cellulose; wherein the percentage by weight is relative to the total weight of the composition; and wherein at least one dosage unit of the pharmaceutical composition has a dissolution profile in 0.05 N HCl, measured according to a dissolution test conducted in a USP 2 apparatus at a temperature of 37°C ± 0.5°C, and at a rotation speed of 75 r.p.m., which comprises from 50% to 125% of a target amount of the cinacalcet being released from the composition no later than 30 minutes from the start of the test. (a) from 15% to 20% by weight of cinacalcet HCl; and (b) a pharmaceutically acceptable excipient comprising from 25% to 85% by weight of microcrystalline cellulose;
An object search device to be worn by a user , and including a display which shows an augmented reality space on a real space, comprising: a receiver configured to acquire position information about an object to be searched for; an acquirer configured to acquire position information about the object search device ; and a display controller configured to show a specific display to specify a position of the object on the display based on the position information about the object and the position information about the object search device , wherein the display controller displays, as the specific display, a straight line (B) from an upper side of a field of view of the display to a position of the object at a lower side, and also displays a number of ripples (C) around the position of the object so that the number of ripples (C) increases as the position information about the object search device approaches the position of the object . a receiver configured to acquire position information about an object to be searched for; an acquirer configured to acquire position information about the object search device ; and a display controller configured to show a specific display to specify a position of the object on the display based on the position information about the object and the position information about the object search device , wherein the display controller displays, as the specific display, a straight line (B) from an upper side of a field of view of the display to a position of the object at a lower side, and also displays a number of ripples (C) around the position of the object so that the number of ripples (C) increases as the position information about the object search device approaches the position of the object .
A vehicle control method for controlling a driving force or a braking force in a longitudinal direction of a vehicle based on an input value related to a lateral motion of the vehicle, the method comprising: changing a front/rear distribution ratio of front wheels among the driving force or the braking force based on the input value, wherein a combined acceleration (G) of a longitudinal acceleration and a lateral acceleration of the vehicle is directed to make a curved transition with an elapse of time; and wherein the vehicle control method further comprises: controlling a front wheel distribution ratio of the front/rear distribution ratio to be smaller than the front wheel distribution ratio of the case of the input value of zero, when the input value increases; and controlling the front wheel distribution ratio to be larger than the front wheel distribution ratio of the case of the input value of zero, when the input value decreases. changing a front/rear distribution ratio of front wheels among the driving force or the braking force based on the input value, wherein a combined acceleration (G) of a longitudinal acceleration and a lateral acceleration of the vehicle is directed to make a curved transition with an elapse of time; and wherein the vehicle control method further comprises: controlling a front wheel distribution ratio of the front/rear distribution ratio to be smaller than the front wheel distribution ratio of the case of the input value of zero, when the input value increases; and controlling the front wheel distribution ratio to be larger than the front wheel distribution ratio of the case of the input value of zero, when the input value decreases.
A three-dimensional intraoral scanner comprising: a housing insertable into and withdrawable from an oral cavity and having an open area allowing an internal shape, said shape being hereinafter referred to as an image, of the oral cavity to be introduced as light thereinto through one end portion; a pair of lenses disposed within the housing and disposed to be spaced apart from each other in a transverse direction of the housing in order to allow the light entering from one end portion of the housing to pass along different paths therethrough; a pair of imaging boards boards respectively including an imaging sensor receiving the light that has passed through the pair of lenses to generate image information from the light and disposed in close contact with one and the other sidewalls of the housing in the transverse direction, respectively; and a pair of light path changing portions disposed to redirect light paths of the light, which has passed through the pair of lenses , toward the imaging boards . a housing insertable into and withdrawable from an oral cavity and having an open area allowing an internal shape, said shape being hereinafter referred to as an image, of the oral cavity to be introduced as light thereinto through one end portion; a pair of lenses disposed within the housing and disposed to be spaced apart from each other in a transverse direction of the housing in order to allow the light entering from one end portion of the housing to pass along different paths therethrough; a pair of imaging boards boards respectively including an imaging sensor receiving the light that has passed through the pair of lenses to generate image information from the light and disposed in close contact with one and the other sidewalls of the housing in the transverse direction, respectively; and a pair of light path changing portions disposed to redirect light paths of the light, which has passed through the pair of lenses , toward the imaging boards .
A vacuum insulating panel comprising: a first substrate ; a second substrate ; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a pump-out tube extending at least partly into an aperture in one of the substrates; and characterized by a pump-out tube seal comprising from about 20-80 wt.% tellurium oxide, the tellurium oxide comprising TeO 4 and TeO 3 , and wherein the pump-out tube seal comprises more TeO 3 than TeO 4 by wt.%. a first substrate ; a second substrate ; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a pump-out tube extending at least partly into an aperture in one of the substrates; and characterized by a pump-out tube seal comprising from about 20-80 wt.% tellurium oxide, the tellurium oxide comprising TeO 4 and TeO 3 , and wherein the pump-out tube seal comprises more TeO 3 than TeO 4 by wt.%.
Process for making an electrode wherein the process comprises the following steps (a) providing a lithiated transition metal oxide according to the formula Li 1+x TM 1-x O 2 wherein x is in the range of from zero to 0.1 and TM contains nickel and at least one of Co, Mn and Al, (b) mixing the lithiated transition metal oxide from step (a) with carbon in electrically conductive form, (c) exposing the mixture obtained in step (b) to a pressure in the range of from 100 to 500 MPa over a period of time of from one second to one minute, thereby causing cracks in at least some of the particles of the electrode active material, (d) mixing the mixture from step (c) with a binder polymer and, optionally, with further carbon in electrically conductive form and with a solvent, (e) applying the mixture from step (d) to a metal foil. (a) providing a lithiated transition metal oxide according to the formula Li 1+x TM 1-x O 2 wherein x is in the range of from zero to 0.1 and TM contains nickel and at least one of Co, Mn and Al, (b) mixing the lithiated transition metal oxide from step (a) with carbon in electrically conductive form, (c) exposing the mixture obtained in step (b) to a pressure in the range of from 100 to 500 MPa over a period of time of from one second to one minute, thereby causing cracks in at least some of the particles of the electrode active material, (d) mixing the mixture from step (c) with a binder polymer and, optionally, with further carbon in electrically conductive form and with a solvent, (e) applying the mixture from step (d) to a metal foil.
Flush valve , in particular a urinal flush valve, comprising a housing with a water guide channel with an inlet opening and an outlet opening , and a valve blocking or releasing the water guide channel between inlet opening and outlet opening , wherein the water guide channel extends from the inlet opening with an inlet-side channel section along a first axis (A7) and extends to the outlet opening with an outlet-side channel section along a second axis (A8), wherein the first axis (A7) and the second axis (A8) lie in a common plane (E) and extend collinearly to one another, wherein the water guide channel between the channel section on the inlet side and the channel section on the outlet side has a deflecting section which extends at an angle inclined at an angle to the first axis (A7) and/or to the second axis (A8) in such a way that the deflecting section is deflected with respect to the orientation of the channel section on the inlet side or of the channel section on the outlet side, and wherein the valve is arranged in said deflecting section . a housing with a water guide channel with an inlet opening and an outlet opening , and a valve blocking or releasing the water guide channel between inlet opening and outlet opening , wherein the water guide channel extends from the inlet opening with an inlet-side channel section along a first axis (A7) and extends to the outlet opening with an outlet-side channel section along a second axis (A8), wherein the first axis (A7) and the second axis (A8) lie in a common plane (E) and extend collinearly to one another, wherein the water guide channel between the channel section on the inlet side and the channel section on the outlet side has a deflecting section which extends at an angle inclined at an angle to the first axis (A7) and/or to the second axis (A8) in such a way that the deflecting section is deflected with respect to the orientation of the channel section on the inlet side or of the channel section on the outlet side, and wherein the valve is arranged in said deflecting section .
A gas turbine engine comprising a component , the component comprising: a wall that extends about a cooling cavity , wherein said cooling cavity is a dual-fed cavity that is fed from at least two different locations; and a rib that separates said cooling cavity into a first portion and a second portion that is fluidly isolated from said first portion , wherein the component is an airfoil , characterised in that : said first portion is fed with a first cooling fluid (F1) from a first coolant source , and said second portion is fed with a second, different cooling fluid (F2) from a second coolant source , the first and second coolant sources being separate and distinct from the component , and said first and second coolant sources are stages of a compressor section or a turbine section of the gas turbine engine . a wall that extends about a cooling cavity , wherein said cooling cavity is a dual-fed cavity that is fed from at least two different locations; and a rib that separates said cooling cavity into a first portion and a second portion that is fluidly isolated from said first portion , wherein the component is an airfoil ,
A method of creating a soft and lofty continuous fiber nonwoven web, the method comprising: providing a first molten polymer and a second molten polymer to a spinneret defining a plurality of orifices , wherein the first molten polymer has a first melting temperature, wherein the second molten polymer has a second melting temperature, and wherein the first melting temperature is in the range of 10 degrees to 180 degrees different than the second melting temperature; flowing a fluid intermediate the spinneret and a moving porous member , wherein the moving porous member is positioned below the spinneret ; using the fluid to draw or push the first and second molten polymer components, in a direction that is toward the moving porous member , through at least some of the plurality of orifices to form a plurality of individual continuous fiber strands ; depositing the continuous fiber strands onto the moving porous member at a first location to produce an intermediate continuous fiber nonwoven web ; and conveying the intermediate continuous fiber nonwoven web by the moving porous member in the machine direction toward a through-fluid bonding oven wherein the web experiences variable or intermittent vacuum forces prior to being conveyed into the through-fluid bonding oven by intermittently varying the vacuum force applied to the moving porous member and to the intermediate continuous fiber nonwoven web downstream of the first location and without the addition of more continuous fibers and without any heat applied. providing a first molten polymer and a second molten polymer to a spinneret defining a plurality of orifices , wherein the first molten polymer has a first melting temperature, wherein the second molten polymer has a second melting temperature, and wherein the first melting temperature is in the range of 10 degrees to 180 degrees different than the second melting temperature; flowing a fluid intermediate the spinneret and a moving porous member , wherein the moving porous member is positioned below the spinneret ; using the fluid to draw or push the first and second molten polymer components, in a direction that is toward the moving porous member , through at least some of the plurality of orifices to form a plurality of individual continuous fiber strands ; depositing the continuous fiber strands onto the moving porous member at a first location to produce an intermediate continuous fiber nonwoven web ; and conveying the intermediate continuous fiber nonwoven web by the moving porous member in the machine direction toward a through-fluid bonding oven wherein the web experiences variable or intermittent vacuum forces prior to being conveyed into the through-fluid bonding oven by intermittently varying the vacuum force applied to the moving porous member and to the intermediate continuous fiber nonwoven web downstream of the first location and without the addition of more continuous fibers and without any heat applied.
A display apparatus adapted to be used for a transport machine equipped with a variable compression ratio mechanism which is capable of modifying an engine compression ratio of an internal combustion engine , characterized by : a display displaying a degree of a saving of energy which varies in accordance with a state of the engine compression ratio.
Use of an amine compound and/or of a salt of the amine compound for rendering clay minerals inert to dispersants in a mineral binder composition comprising clay minerals and/or for improving the effect of a dispersant in a mineral binder composition comprising clay minerals, wherein the amine compound comprises bis(hexamethylene)triamine and/or 1,6-diaminohexane and wherein the amine compound is present at least partly, more particularly wholly, in the form of a salt, and, moreover, the dispersant comprises a polycarboxylate ether.
A computer-implemented method for transferring medical data from a handheld medical recording device to a host computer, comprising: - accessing an account using a web browser on a patient computer, where the account resides on the host computer and is associated with a patient; - downloading a data transfer component from the host computer via network to the patient computer; and - installing the data transfer component on the patient computer; wherein, following the installation of the data transfer component on the patient computer, a device-to-account association process is completed, the device-to-account association process comprising: - establishing, by the data transfer component, an association between the patient account at the host computer and the handheld medical recording device; and - receiving, by the data transfer component, an authentication token from the host computer, wherein the authentication token is a randomly generated cryptographic key; the method further comprising: - receiving, by the data transfer component, medical data from the handheld medical recording device being associated with the patient; - sending, by the data transfer component, the medical data, along with the authentication token, over the network to the host computer; and - associating, at the host computer, the medical data with the patient account, where the association is made using the authentication token received with the medical data, wherein the data transfer component transfers data without requiring a user to enter their login credentials following completion of the device-to-account association process. - accessing an account using a web browser on a patient computer, where the account resides on the host computer and is associated with a patient; - downloading a data transfer component from the host computer via network to the patient computer; and - installing the data transfer component on the patient computer; - establishing, by the data transfer component, an association between the patient account at the host computer and the handheld medical recording device; and - receiving, by the data transfer component, an authentication token from the host computer, wherein the authentication token is a randomly generated cryptographic key; - receiving, by the data transfer component, medical data from the handheld medical recording device being associated with the patient; - sending, by the data transfer component, the medical data, along with the authentication token, over the network to the host computer; and - associating, at the host computer, the medical data with the patient account, where the association is made using the authentication token received with the medical data,
A tankmix additive concentrate, comprising: from 1 to 50 weight percent of the concentrate mixture of a surfactant, wherein the surfactant is a mixture of a phosphate ester surfactant with a polymeric surfactant, wherein the phosphate ester surfactant is an acid or salt of a mono or dialkyl phosphate ester, an acid or salt of an ethoxylated mono or dialkyl phosphate ester, an acid or salt of a mono or dialkyl phosphate ester of an ethoxylated tristyrylphenol, or an acid or salt of a mono or dialkyl phosphate ester of an ethoxylated phenol, or an ethoxylated alkylphenol and the polymeric surfactant is an ABA block copolymer having a hydrophilic portion of polyethylene oxide and a hydrophobic portion of poly (12-hydroxystearate), a polyvinyl alcohol resin wherein the degree of hydrolysis is 86-89%, a block or graft acrylate or methacrylate copolymer, an alkyd polyethylene oxide resin, or an AB block copolymer containing EO and PO blocks; and from 1 to 90 weight percent of the concentrate mixture of a triglyceride fatty acid ester of Formula III: wherein R 4 , R 5 , and R 6 independently represent saturated or unsaturated (C 6 -C 21 ) alkyls, and wherein the tankmix additive concentrate forms a stable emulsion upon dilution into a pesticide spray mixture. from 1 to 50 weight percent of the concentrate mixture of a surfactant, wherein the surfactant is a mixture of a phosphate ester surfactant with a polymeric surfactant, wherein the phosphate ester surfactant is an acid or salt of a mono or dialkyl phosphate ester, an acid or salt of an ethoxylated mono or dialkyl phosphate ester, an acid or salt of a mono or dialkyl phosphate ester of an ethoxylated tristyrylphenol, or an acid or salt of a mono or dialkyl phosphate ester of an ethoxylated phenol, or an ethoxylated alkylphenol and the polymeric surfactant is an ABA block copolymer having a hydrophilic portion of polyethylene oxide and a hydrophobic portion of poly (12-hydroxystearate), a polyvinyl alcohol resin wherein the degree of hydrolysis is 86-89%, a block or graft acrylate or methacrylate copolymer, an alkyd polyethylene oxide resin, or an AB block copolymer containing EO and PO blocks; and from 1 to 90 weight percent of the concentrate mixture of a triglyceride fatty acid ester of Formula III: wherein R 4 , R 5 , and R 6 independently represent saturated or unsaturated (C 6 -C 21 ) alkyls, and wherein the tankmix additive concentrate forms a stable emulsion upon dilution into a pesticide spray mixture.