mhurhangee/patent-ind-claim-en huggingface dataset:
A process of supplying to an operation a liquid that is applied at the operation comprising: delivering to the operation from a holding vessel a liquid comprising more than one constituent; applying the liquid at the operation , whereby a spent liquid is formed; returning the spent liquid to the holding vessel ; analyzing the composition of the liquid at the holding vessel while the liquid at the holding vessel is being delivered and applied at the operation and the spent liquid is being returned to the holding vessel ; determining the amount of each constituent of the liquid that is required to be added to the liquid at the holding vessel to provide at the holding vessel a liquid of a prescribed composition; delivering to a pressure vessel the amount of each constituent that is required to be added to the liquid at the holding vessel so as to form at the pressure vessel a constituent volley that comprises a combination of each constituent that is required; increasing the pressure in the pressure vessel to a level adequate to deliver the constituent volley to the holding vessel upon the release of the pressure; and releasing the pressure from the pressure vessel so as to cause the pressure at the pressure vessel to forcibly deliver the constituent volley to the holding vessel . delivering to the operation from a holding vessel a liquid comprising more than one constituent; applying the liquid at the operation , whereby a spent liquid is formed; returning the spent liquid to the holding vessel ; analyzing the composition of the liquid at the holding vessel while the liquid at the holding vessel is being delivered and applied at the operation and the spent liquid is being returned to the holding vessel ; determining the amount of each constituent of the liquid that is required to be added to the liquid at the holding vessel to provide at the holding vessel a liquid of a prescribed composition; delivering to a pressure vessel the amount of each constituent that is required to be added to the liquid at the holding vessel so as to form at the pressure vessel a constituent volley that comprises a combination of each constituent that is required; increasing the pressure in the pressure vessel to a level adequate to deliver the constituent volley to the holding vessel upon the release of the pressure; and releasing the pressure from the pressure vessel so as to cause the pressure at the pressure vessel to forcibly deliver the constituent volley to the holding vessel .
A non-back drivable clutched module for an actuator comprising: a housing with an inside surface ; an input shaft cog with a shaft portion extending out of the housing and connected to an actuator external to the housing , and a cog portion connected to the shaft portion of the cog portion being rotatably positioned in the housing , wherein the cog portion includes a plurality of bearing recesses and a plurality of drive recesses each having a first side (34a-d), second side (36a-d), third side and fourth side , wherein the first side (34a-d) and second side (36a-d) of each of the plurality of bearing recesses and plurality of drive recesses are formed by one of a plurality of teeth (42, 42', 42", 42′′′) extending from the surface of the cog portion and the third side is defined by the inside surface of the housing ; a clutched output shaft having a shaft portion extending out of the housing and connected to a device being driven by the actuator through the non-backdrivable clutched module and a clutch cog receiving portion rotatably positioned within the cavity of the housing ; and a clutch cog between the input shaft cog and the clutched output shaft , where the clutch cog has both a resilient connection and a detent connection to the clutch cog portion of the clutched output shaft , wherein the clutch cog has a clutch mode that disengages the clutch cog from the clutched output shaft , characterised in that , it further comprises a stopper mode where the clutch cog acts on at least one bearing member between the clutch cog and the housing and locks the clutch cog to prevent the clutch cog from moving the input shaft cog . a housing with an inside surface ; an input shaft cog with a shaft portion extending out of the housing and connected to an actuator external to the housing , and a cog portion connected to the shaft portion of the cog portion being rotatably positioned in the housing , wherein the cog portion includes a plurality of bearing recesses and a plurality of drive recesses each having a first side (34a-d), second side (36a-d), third side and fourth side , wherein the first side (34a-d) and second side (36a-d) of each of the plurality of bearing recesses and plurality of drive recesses are formed by one of a plurality of teeth (42, 42', 42", 42′′′) extending from the surface of the cog portion and the third side is defined by the inside surface of the housing ; a clutched output shaft having a shaft portion extending out of the housing and connected to a device being driven by the actuator through the non-backdrivable clutched module and a clutch cog receiving portion rotatably positioned within the cavity of the housing ; and a clutch cog between the input shaft cog and the clutched output shaft , where the clutch cog has both a resilient connection and a detent connection to the clutch cog portion of the clutched output shaft , wherein the clutch cog has a clutch mode that disengages the clutch cog from the clutched output shaft , characterised in that , it further comprises a stopper mode where the clutch cog acts on at
A method for drying instant noodles, comprising a step of putting gelatinized noodle strings into a retainer for drying instant noodles and blowing a high-speed air flow from above the retainer, wherein the high-speed air flow has a wind speed of 50 m/s or higher in terms of the speed to which the noodle strings in the retainer are exposed, wherein the high-speed air flow is a hot air flow having a high temperature of 100°C to 150°C in terms of the temperature to which the noodle strings are exposed, characterized in that the retainer has one or more small holes in a bottom surface thereof so as to give a ratio of the total area of the small holes to the area of the bottom surface of the retainer of 10% to 30% inclusive and in that the noodle strings are dried with the high-speed air flow until the water content of the noodle strings is reduced to 30% or less.
A topical composition for dermal application comprising: hemp oil extractable from the Cannabis sativa plant containing cannabigerol at 3 to 24 by weight percent and cannabidiol at 1 to 10 by weight percent; at least one anti-oxidant selected from the group consisting of Vitis vinifera extract, tocopherols, β-carotene, anthocyans, catechins, quercetins, genistein extract, acetyl hexapeptide-3, Silybum marianum fruit extract, and silymarin; at least one anti-microbial agent selected from a group consisting of imidazolidinyl urea, sodium chloride, Matricaria chamomilla extract. Aloe vera extract. Calendula officinalis extract, Kigelia africana extract, Lavandulla officinallis essential oil, Melaleuca alternifolia essential oil, piroctone olamine, and Cinnamomum zeylanicum essential oil; at least one anti-inflammatory agent selected from the group consisting of curcumin extract, evodia extract, Camellia sinesis extract, cocoa seed butter, citric acid, salicylic acid, tocopherol, loganin, palmatine, and Vitis vinifera extract; at least one preservative; at least one emulsifier; suitable cosmetic additives and carriers; and de-ionized water. hemp oil extractable from the Cannabis sativa plant containing cannabigerol at 3 to 24 by weight percent and cannabidiol at 1 to 10 by weight percent; at least one anti-oxidant selected from the group consisting of Vitis vinifera extract, tocopherols, β-carotene, anthocyans, catechins, quercetins, genistein extract, acetyl hexapeptide-3, Silybum marianum fruit extract, and silymarin; at least one anti-microbial agent selected from a group consisting of imidazolidinyl urea, sodium chloride, Matricaria chamomilla extract. Aloe vera extract. Calendula officinalis extract, Kigelia africana extract, Lavandulla officinallis essential oil, Melaleuca alternifolia essential oil, piroctone olamine, and Cinnamomum zeylanicum essential oil; at least one anti-inflammatory agent selected from the group consisting of curcumin extract, evodia extract, Camellia sinesis extract, cocoa seed butter, citric acid, salicylic acid, tocopherol, loganin, palmatine, and Vitis vinifera extract; at least one preservative; at least one emulsifier; suitable cosmetic additives and carriers; and de-ionized water.
Method for controlling a reversible inverter associated with a substation that powers a railway track section , said reversible inverter being used for the recovery of braking energy within said section , which is triggered beyond a voltage (V 0 ), referred to as the threshold voltage and limited by a minimum voltage (V 0min ) and a maximum voltage (V 0max ) which are defined with respect to said threshold voltage (V 0 ), characterized in that the inverter is droop-controlled and in that said method comprises at least one iteration of a phase for adjusting said threshold voltage (V 0 ) of said inverter and comprises the following steps: - measuring a current (I m ) provided by said substation to said railway track section ; - measuring a direct voltage (V m ) provided by the substation to said railway track section ; - assigning the measured value of said direct voltage (V m ) to said threshold voltage (V 0 ) when: • the measured current (I m ) is strictly less than a current value (I 0 )which is predefined for said substation , referred to as the threshold current, and corresponding to a no-load voltage of said substation , and • said direct voltage (V m ) is strictly greater than the minimum threshold (V 0min ). - measuring a current (I m ) provided by said substation to said railway track section ; - measuring a direct voltage (V m ) provided by the substation to said railway track section ; - assigning the measured value of said direct voltage (V m ) to said threshold voltage (V 0 ) when: • the measured current (I m ) is strictly less than a current value (I 0 )which is predefined for said substation , referred to as the threshold current, and corresponding to a no-load voltage of said substation , and • said direct voltage (V m ) is strictly greater than the minimum threshold (V 0min ). • the measured current (I m ) is strictly less than a current value (I 0 )which is predefined for said substation , referred to as the threshold current, and corresponding to a no-load voltage of said substation , and • said direct voltage (V m ) is strictly greater than the minimum threshold (V 0min ).
A high strength hot rolled steel sheet comprising, by mass%: C: 0.02% or more and 0.30% or less; Si: 0.20% or more and 2.0% or less; Mn: 0.5% or more and 3.0% or less; P: 0.10% or less; S: 0.010% or less; Al: 0.10% or more and 1.0% or less; N: 0.010% or less; Ti: 0.06% or more and 0.20% or less; Nb: 0% or more and 0.10% or less; Ca: 0% or more and 0.0060% or less; Mo: 0% or more and 0.50% or less; Cr: 0% or more and 1.0% or less; and a remainder of Fe and impurities, wherein a structure of the high strength hot rolled steel sheet at a thickness 1/4 depth position in a cross section in a hot rolling direction contains a martensite in an area ratio of 20% or more and 60% or less and a ferrite in an area ratio of 40% or more, and a total area ratio of the martensite and the ferrite is 90% or more, an average grain size of the martensite is 5.0 μm or more and 50 μm or less, a ratio of a hardness of the martensite at a thickness 1/4 depth position in a cross section in a hot rolling direction to a hardness of the ferrite at a thickness 1/4 depth position in a cross section in a hot rolling direction is 0.6 or more and 1.6 or less, and a tensile strength of the high strength hot rolled steel sheet measured in accordance with JIS Z 2241 is 980 MPa or more. C: 0.02% or more and 0.30% or less; Si: 0.20% or more and 2.0% or less; Mn: 0.5% or more and 3.0% or less; P: 0.10% or less; S: 0.010% or less; Al: 0.10% or more and 1.0% or less; N: 0.010% or less; Ti: 0.06% or more and 0.20% or less; Nb: 0% or more and 0.10% or less; Ca: 0% or more and 0.0060% or less; Mo: 0% or more and 0.50% or less; Cr: 0% or more and 1.0% or less; and a remainder of Fe and impurities, wherein a structure of the high strength hot rolled steel sheet at a thickness 1/4 depth position in a cross section in a hot rolling direction contains a martensite in an area ratio of 20% or more and 60% or less and a ferrite in an area ratio of 40% or more, and a total area ratio of the martensite and the ferrite is 90% or more, an average grain size of the martensite is 5.0 μm or more and 50 μm or less, a ratio of a hardness of the martensite at a thickness 1/4 depth position in a cross section in a hot rolling direction to a hardness of the ferrite at a thickness 1/4 depth position in a cross section in a hot rolling direction is 0.6 or more and 1.6 or less, and a tensile strength of the high strength hot rolled steel sheet measured in accordance with JIS Z 2241 is 980 MPa or more.
A stent for transluminal implantation into hollow organs, in particular into blood vessels, ureters, esophagi, the colon, the duodenum or bile ducts, comprising a first stent section having a substantially tubular first body which extends along a first longitudinal axis (L1) and which has a first lateral end and a first central end ; and a second stent section having a substantially tubular second body which extends along a second longitudinal axis (L2) and which has a second lateral end and a second central end , wherein the first stent section and the second stent section are connected to one another by means of a coupling section in the region of the central ends ; wherein the stent comprises a plurality of cells which are defined by bordering elements formed by the tubular bodies, with the tubular bodies each being able to be transformed from a compressed state having a first cross-section diameter into an expanded state having an increased second cross-section diameter; and wherein the first central end of the first stent section is chamfered, characterized in that some of the cells of the first stent section are elongated in the direction of the first longitudinal axis (L1) in comparison with the other cells of the first stent section to form the chamfered first central end . a first stent section having a substantially tubular first body which extends along a first longitudinal axis (L1) and which has a first lateral end and a first central end ; and a second stent section having a substantially tubular second body which extends along a second longitudinal axis (L2) and which has a second lateral end and a second central end , wherein the first stent section and the second stent section are connected to one another by means of a coupling section in the region of the central ends ; wherein the stent comprises a plurality of cells which are defined by bordering elements formed by the tubular bodies, with the tubular bodies each being able to be transformed from a compressed state having a first cross-section diameter into an expanded state having an increased second cross-section diameter; and wherein
A process for purifying ethylenediamine, in which a) a mixture comprising water (H2O), ethylenediamine (EDA) and N-methylethylenediamine (NMEDA) is introduced into a rectification column (NMEDA removal column), where the mixture introduced comprises at least the amount of water as required for the formation of the high-boiling azeotrope of EDA and water at the appropriate bottom temperature; and b) the EDA-comprising bottom product from the NMEDA removal column is introduced into a second rectification column (EDA dewatering column), which comprises (i) partly or fully condensing the vapors from the top of the EDA dewatering column in a condenser which is cooled with a medium which is at least partly evaporated during the condensation and the vapor thus formed is used at least partly to heat the evaporator of the NMEDA removal column; and/or (ii) introducing the vapors from the top of the EDA dewatering column into the NMEDA removal column. a) a mixture comprising water (H2O), ethylenediamine (EDA) and N-methylethylenediamine (NMEDA) is introduced into a rectification column (NMEDA removal column), where the mixture introduced comprises at least the amount of water as required for the formation of the high-boiling azeotrope of EDA and water at the appropriate bottom temperature; and b) the EDA-comprising bottom product from the NMEDA removal column is introduced into a second rectification column (EDA dewatering column),
A safety device for a pre-filled syringe , comprising - a hollow support body (1.2) to retain the pre-filled syringe therein, - a hollow needle shield (1.1) that is slidable relative to the support body (1.2) and - guiding means for guiding the movement of the needle shield (1.1) relative to the support body (1.2), wherein the guiding means comprise - a guide pin (1.1.2), - a guide track (1.2.4), - a cut-out (1.2.5) adjacent to the guide track (1.2.4), wherein the guide pin (1.1.2) protrudes into the guide track (1.2.4) and moves within and along the guide track (1.2.4) when the needle shield (1.1) is slid relative to the support body (1.2) and wherein the cut-out (1.2.5) allows a side wall (1.2.6) of the guide track (1.2.4) to be deflected in a lateral direction (L) perpendicular to a central axis (A) of the safety device , characterized in that the needle shield (1.1) is retractable into the support body (1.2) from the initial position (I) to the retracted position (II), in which the needle shield (1.1) protrudes the support body (1.2) by an axial length that is limited by an inwardly protruding inner rib (1.2.7) of the support body (1.2). - a hollow support body (1.2) to retain the pre-filled syringe therein, - a hollow needle shield (1.1) that is slidable relative to the support body (1.2) and - guiding means for guiding the movement of the needle shield (1.1) relative to the support body (1.2), wherein the guiding means comprise - a guide pin (1.1.2), - a guide track (1.2.4), - a cut-out (1.2.5) adjacent to the guide track (1.2.4), wherein the guide pin (1.1.2) protrudes into the guide track (1.2.4) and moves within and along the guide track (1.2.4) when the needle shield (1.1) is slid relative to the support body (1.2) and wherein the cut-out (1.2.5) allows a side wall (1.2.6) of the guide track (1.2.4) to be deflected in a lateral direction (L) perpendicular to a central axis (A) of the safety device , characterized in that the needle shield (1.1) is retractable into the support body (1.2) from the initial position (I) to the retracted position (II), in which the needle shield (1.1) protrudes the support body (1.2) by an axial length that is limited by an inwardly protruding inner rib (1.2.7) of the support body (1.2). - a guide pin (1.1.2), - a guide track (1.2.4), - a cut-out (1.2.5) adjacent to the guide track (1.2.4), wherein the guide pin (1.1.2) protrudes into the guide track (1.2.4) and moves within and along the guide track (1.2.4) when the needle shield (1.1) is slid relative to the support body (1.2) and wherein the cut-out (1.2.5) allows a side wall (1.2.6) of the guide track (1.2.4) to be deflected in a lateral direction (L) perpendicular to a central axis (A) of the safety device , characterized in that the needle shield (1.1) is retractable into the support body (1.2) from the initial position (I) to the retracted position (II), in which the needle shield (1.1) protrudes the support body (1.2) by an axial length that is limited by an inwardly protruding inner rib (1.2.7) of the support body (1.2).
Method for producing digestible keratinaceous material, preferably from feather, hair, hoof or nails, comprising the steps of hydrolysing keratinaceous material in the presence of water, in a hydrolyser with heat and at a pressure between about 2 bar and about 15 bar, preferably between about 2 bar and about 10 bar, and drying the resultant hydrolysed keratinaceous material comprising at least partly insoluble material in a dryer at a temperature/time/pressure combination which limits the drop in pepsin and/or ileal digestibility by less than 10%, and/or such that the pepsin and/or ileal digestibility remains higher than 85%, or which limits the drop in pepsin and/or ileal digestibility by less than 10%, wherein the pepsin and ileal digestibility remain higher than respectively 75% and 85%.
A tool for determining presence or absence of a neurological condition in a subject, comprising: an ultrasound device configured to collect ultrasound data from a head of the subject, the ultrasound data comprising a first blood flow waveform from a first anatomical portion of the head of the subject and a second blood flow waveform from a second anatomical portion of the head of the subject, the first anatomical portion being different from the second anatomical portion, wherein the first and second blood flow waveforms comprise cerebral blood flow velocity "CBFV" waveforms; and a processing circuit configured to: calculate a curvature metric based on the ultrasound data; calculate a velocity asymmetry metric based on the ultrasound data, wherein the velocity asymmetry metric quantifies a degree to which a first velocity of the first blood flow waveform differs from a second velocity of the second blood flow waveform; compare the curvature metric and the velocity asymmetry metric to a plurality of thresholds; and determine the presence or the absence of the neurological condition in the subject based on said comparison of the curvature metric and the velocity asymmetry metric to said plurality ot thresholds. an ultrasound device configured to collect ultrasound data from a head of the subject, the ultrasound data comprising a first blood flow waveform from a first anatomical portion of the head of the subject and a second blood flow waveform from a second anatomical portion of the head of the subject, the first anatomical portion being different from the second anatomical portion, wherein the first and second blood flow waveforms comprise cerebral blood flow velocity "CBFV" waveforms; and a processing circuit configured to: calculate a curvature metric based on the ultrasound data; calculate a velocity asymmetry metric based on the ultrasound data, wherein the velocity asymmetry metric quantifies a degree to which a first velocity of the first blood flow waveform differs from a second velocity of the second blood flow waveform; compare the curvature metric and the velocity asymmetry metric to a plurality of thresholds; and determine the presence or the absence of the neurological condition in the subject based on said comparison of the curvature metric and the velocity asymmetry metric to said plurality ot thresholds. calculate a curvature metric based on the ultrasound data; calculate a velocity asymmetry metric based on the ultrasound data, wherein the velocity asymmetry metric quantifies a degree to which a first velocity of the first blood flow waveform differs from a second velocity of the second blood flow waveform; compare the curvature metric and the velocity asymmetry metric to a plurality of thresholds; and determine the presence or the absence of the neurological condition in the subject based on said comparison of the curvature metric and the velocity asymmetry metric to said plurality ot thresholds.