mhurhangee/patent-ind-claim-en huggingface dataset:
Interface for controlling at least one function of a motor vehicle member, including: - at least one control member comprising: - a movable gripping element , - at least one metal index carried by the movable gripping element and movable therewith, - a guide , the movable gripping element being supported and guided in displacement by the guide , and - the interface further including a capacitive touch panel configured to detect the position of the metal index , the guide being fastened to the capacitive touch panel , the metal index being arranged opposite the capacitive touch panel , characterized in that the interface includes at least one pressure sensor configured to measure a parameter representative of a pressing force exerted on the capacitive touch panel , the detection of the pressing force exerted on the capacitive touch panel enabling detection of a pressing action exerted on the control member . - at least one control member comprising: - a movable gripping element , - at least one metal index carried by the movable gripping element and movable therewith, - a guide , the movable gripping element being supported and guided in displacement by the guide , and - the interface further including a capacitive touch panel configured to detect the position of the metal index , the guide being fastened to the capacitive touch panel , the metal index being arranged opposite the capacitive touch panel ,
A wall fastening for a slide rail for a shower system, wherein the wall fastening has a bracket which can be fastened on an installation wall and on which the shower slide rail is fastened, to be precise at a distance (Δx 1 ) from the installation wall , as seen in a depth direction (x), and wherein the bracket is constructed in at least two parts with a wall holder , which can be mounted on the installation wall , and with a main bracket body to which the shower slide rail is attached, wherein the bracket has a depth-arresting device by means of which the main bracket body and the wall holder can be adjusted telescopically in relation to one another in the depth direction (x) in order for a suitable distance (Δx 1 ) to be set between the shower slide rail and the installation wall , wherein • the main bracket body is a hollow profile part having upper and lower narrow-side walls which are connected to one another via flat-side walls , wherein the hollow profile part delimits a mounting space and the hollow profile part forms a telescopic guide, • the wall holder has a base part , and • the telescopic guide has at least one guide bar which projects from the base part in the depth direction (x) and is guided in a guide channel of the main bracket body , • the guide channel is delimited in the shower upward direction (z) by one of the upper or lower narrow-side walls and a material web in the mounting space of the main bracket body , and • the depth-arresting device is arranged in the mounting space . • the main bracket body is a hollow profile part having upper and lower narrow-side walls which are connected to one another via flat-side walls , wherein the hollow profile part delimits a mounting space and the hollow profile part forms a telescopic guide, • the wall holder has a base part , and • the telescopic guide has at least one guide bar which projects from the base part in the depth direction (x) and is guided in a guide channel of the main bracket body , • the guide channel is delimited in the shower upward direction (z) by one of the upper or lower narrow-side walls and a material web in the mounting space of the main bracket body , and • the depth-arresting device is arranged in the mounting space .
A charging device for charging battery packs, comprising: charging terminals including a first charging terminal to be connected to an electrode of a first battery pack and a second charging terminal to be connected to an electrode of a second battery pack , the first and the second battery pack (3a and 3b) being different in kind; and a charging power supply , the charging device being characterized by a conversion unit (57 and 58) for supplying electricity from the charging power supply to the first charging terminal when the electrode of the first battery pack is connected to the first charging terminal , and supplying electricity from the charging power supply to the second charging terminal when the electrode of the second battery pack is connected to the second charging terminal , wherein the conversion unit (57 and 58) includes a conversion relay and a control unit , wherein the conversion relay having a common terminal connected to the charging power supply , a normally closed terminal connected to the first charging terminal , and a normally open terminal connected to the second charging terminal , and wherein the control unit switching the common terminal to the normally closed terminal when the electrode of the first battery pack is connected to the first charging terminal , and switching the common terminal to the normally open terminal when the electrode of the second battery pack is connected to the second charging terminal . charging terminals including a first charging terminal to be connected to an electrode of a first battery pack and a second charging terminal to be connected to an electrode of a second battery pack , the first and the second battery pack (3a and 3b) being different in kind; and a charging power supply , the charging device being characterized by a conversion unit (57 and 58) for supplying electricity from the charging power supply to the first charging terminal when the electrode of the first battery pack is connected to the first charging terminal , and supplying electricity from the charging power supply to the second charging terminal when the electrode of the second battery pack is connected to the second charging terminal , wherein the conversion unit (57 and 58) includes a conversion relay and a control unit , wherein the conversion relay having a common terminal connected to the charging power supply , a normally closed terminal connected to the first charging terminal , and a normally open terminal connected to the second charging terminal , and wherein the control unit switching the common terminal to the normally closed terminal when the electrode of the first battery pack is connected to the first charging terminal , and switching the common terminal to the normally open terminal when the electrode of the second battery pack is connected to the second charging terminal .
A pharmaceutical composition or kit for use in treating cancer in a mammal comprising asparaginase and methioninase for at least one sequential administration with methioninase being administered before asparaginase.
A compound of formula (I): (M1 2+ x M2 3+ 1-x ) 1-u-v (M1' 2+ y M2' 3+ 1-y ) u (M1" 2+ z M2" 3+ 1-z ) v O 1-w F 1+w (I) Wherein M1, M2, M1', M2', M1", M2" are transition metals of the d / f block or alkaline-earth elements in the periodic table; u, v, x, y and z are identical or different and are such that u+v < 1; 0 < x,y,z < 1; w = x+u(y-x)+v(z-x). M1, M2, M1', M2', M1", M2" are transition metals of the d / f block or alkaline-earth elements in the periodic table; u, v, x, y and z are identical or different and are such that u+v < 1; 0 < x,y,z < 1; w = x+u(y-x)+v(z-x).
A method of making a braking band of a cast iron brake disc with increased resistance to wear and corrosion, comprising the following steps: a) make a braking band of a brake disc in cast iron, preferably in gray cast iron; b) immersing at least partially said braking band in molten aluminum maintained at a predefined temperature so that the molten aluminum covers at least a predefined surface region of said braking band, said immersion being prolonged for a predefined period of time so as to allow the diffusion of aluminum atoms in the surface microstructure of the cast iron with the consequent formation of iron-aluminum intermetallic compounds at a surface layer of said braking band, thereby generating in said predefined surface region of said braking band a layer consisting of iron-aluminum intermetallic compounds; c) extracting said braking band from the molten aluminum, wherein said molten aluminum has a silicon content of less than 1% by weight; d) removing the aluminum remained adherent on said braking band after extraction, so as to expose said layer of intermetallic Iron-Aluminum compounds on the surface, said layer of intermetallic Iron-Aluminum compounds exposed on the surface giving said cast iron braking band a higher resistance to corrosion and wear at said predefined surface region. a) make a braking band of a brake disc in cast iron, preferably in gray cast iron; b) immersing at least partially said braking band in molten aluminum maintained at a predefined temperature so that the molten aluminum covers at least a predefined surface region of said braking band, said immersion being prolonged for a predefined period of time so as to allow the diffusion of aluminum atoms in the surface microstructure of the cast iron with the consequent formation of iron-aluminum intermetallic compounds at a surface layer of said braking band, thereby generating in said predefined surface region of said braking band a layer consisting of iron-aluminum intermetallic compounds; c) extracting said braking band from the molten aluminum, wherein said molten aluminum has a silicon content of less than 1% by weight; d) removing the aluminum remained adherent on said braking band after extraction, so as to expose said layer of intermetallic Iron-Aluminum compounds on the surface, said layer of intermetallic Iron-Aluminum compounds exposed on the surface giving said cast iron braking band a higher resistance to corrosion and wear at said predefined surface region.
A system, comprising: a spatial filter having a plurality of mask features ; at least one detector positioned to sense light emanating from at least one object moving in a flow path along a flow direction, an intensity of the sensed light being time modulated according to the mask features, the detector configured to generate a time varying electrical signal comprising a sequence of pulses in response to the sensed light; and an analyzer configured to measure a pulse width of at least some of the pulses at a fraction of an amplitude extremum of the pulses and to determine a length of the object along the flow direction based on the measured pulse widths, wherein the analyzer is configured to: determine a function, f({p i },x) that fits a set of mask feature measurement points {p i }, each point given by p i = (x i ,y i ), where each x i is associated with a feature length of an i th mask feature and each y i is associated with an i th measured pulse width associated with the i th mask feature, the function predicting an expected pulse width measurement of a hypothesized mask feature of length x based on the set of mask feature measurement points {p i }. a spatial filter having a plurality of mask features ; at least one detector positioned to sense light emanating from at least one object moving in a flow path along a flow direction, an intensity of the sensed light being time modulated according to the mask features, the detector configured to generate a time varying electrical signal comprising a sequence of pulses in response to the sensed light; and an analyzer configured to measure a pulse width of at least some of the pulses at a fraction of an amplitude extremum of the pulses and to determine a length of the object along the flow direction based on the measured pulse widths, wherein the analyzer is configured to: determine a function, f({p i },x) that fits a set of mask feature measurement points {p i }, each point given by p i = (x i ,y i ), where each x i is associated with a feature length of an i th mask feature and each y i is associated with an i th measured pulse width associated with the i th mask feature, the function predicting an expected pulse width measurement of a hypothesized mask feature of length x based on the set of mask feature measurement points {p i }.
A dry grind alcohol production process, the process comprising: (A) grinding dry corn kernels into corn flour; (B) mixing the corn flour with a liquid to form a slurry including free oil, protein, starch, and fiber, germ, and grit particles; (C) subjecting the slurry of step (B) to the start of liquefaction, which includes adding an enzyme to the slurry (D) after step (C), separating the slurry, via particle sizes alone, into a solids portion, including the fiber, grit, and germ particles, and a liquid portion, including the free oil, protein, and starch of the slurry; (E) milling the separated solids portion of step (D) to reduce the size of the fiber, grit, and germ particles and release starch, oil, and protein therefrom; (F) recombining at least the starch from the separated liquid portion of step (D) with at least the released starch of step (E) to form a second slurry; (G) converting the starches in the second slurry of step (F) to sugar; (H) producing alcohol from the sugar of step (G) via fermentation; and (I) recovering the alcohol after fermentation. (A) grinding dry corn kernels into corn flour; (B) mixing the corn flour with a liquid to form a slurry including free oil, protein, starch, and fiber, germ, and grit particles; (C) subjecting the slurry of step (B) to the start of liquefaction, which includes adding an enzyme to the slurry (D) after step (C), separating the slurry, via particle sizes alone, into a solids portion, including the fiber, grit, and germ particles, and a liquid portion, including the free oil, protein, and starch of the slurry; (E) milling the separated solids portion of step (D) to reduce the size of the fiber, grit, and germ particles and release starch, oil, and protein therefrom; (F) recombining at least the starch from the separated liquid portion of step (D) with at least the released starch of step (E) to form a second slurry; (G) converting the starches in the second slurry of step (F) to sugar; (H) producing alcohol from the sugar of step (G) via fermentation; and (I) recovering the alcohol after fermentation.
A diagnostic method for a disease accompanied by an increased cell death, the method comprising the steps of: a) in vitro isothermic nucleic acids amplification of blood plasma from a patient, wherein the isothermic nucleic acids amplification of blood plasma is carried out without preliminary nucleic acids isolation from blood plasma; b) nucleic acids purification from the reaction mixture produced as per item a); c) carrying out of freely circulating nucleic acid quantification by real-time polymerase chain reaction method and determination of coefficient K in samples, as follows: K=C 1 or or or Where C 1 = Ct for gene coding for glycolysis enzyme Ct for mitochondrial gene , C 2 = Ct for NC 018923.2 12 th chromosome fragment Ct for mitochondrial gene , C 3 = Ct for M 6 PRBP gene Ct for mitochondrial gene , Ct - value of polymerase chain reaction threshold cycle, wherein the gene coding for glycolysis enzyme is a gene coding for pyruvate kinase; d) comparison of coefficient K with reference value; e) diagnostics of a disease accompanied by the increased cell death while the coefficient K value is less than the reference value. a) in vitro isothermic nucleic acids amplification of blood plasma from a patient, wherein the isothermic nucleic acids amplification of blood plasma is carried out without preliminary nucleic acids isolation from blood plasma; b) nucleic acids purification from the reaction mixture produced as per item a); c) carrying out of freely circulating nucleic acid quantification by real-time polymerase chain reaction method and determination of coefficient K in samples, as follows: K=C 1 or or or Where C 1 = Ct for gene coding for glycolysis enzyme Ct for mitochondrial gene , C 2 = Ct for NC 018923.2 12 th chromosome fragment Ct for mitochondrial gene , C 3 = Ct for M 6 PRBP gene Ct for mitochondrial gene , Ct - value of polymerase chain reaction threshold cycle, wherein the gene coding for glycolysis enzyme is a gene coding for pyruvate kinase; d) comparison of coefficient K with reference value; e) diagnostics of a disease accompanied by the increased cell death while the coefficient K value is less than the reference value.
A process for the preparation of an aqueous polyurethane dispersion comprising the steps of: i) synthesizing a polyurethane prepolymer from isocyanates, polyols, which may include polyols with hydrophilic groups or polyols that have an additional functional group that is capable of forming a salt, and a phosphine oxide polyol, preferably a phosphine oxide diol or a phosphine oxide triol; and ii) dispersing the obtained prepolymer into a water phase optionally comprising other additives, (iii) adding one or more neutralizing agents prior to, simultaneously with or after dispersing the prepolymer in water, (iv) forming polyurethane by reacting with one or more extension agents simultaneously with or subsequent to the dispersing, after which optionally other additives may be added. i) synthesizing a polyurethane prepolymer from isocyanates, polyols, which may include polyols with hydrophilic groups or polyols that have an additional functional group that is capable of forming a salt, and a phosphine oxide polyol, preferably a phosphine oxide diol or a phosphine oxide triol; and ii) dispersing the obtained prepolymer into a water phase optionally comprising other additives, (iii) adding one or more neutralizing agents prior to, simultaneously with or after dispersing the prepolymer in water, (iv) forming polyurethane by reacting with one or more extension agents simultaneously with or subsequent to the dispersing, after which optionally other additives may be added.
Head-up display device for a vehicle comprising: - an image-generating unit that generates a primary light beam representing a scene to be displayed, and - an optical system for projecting said scene to an individual located inside said vehicle , said projecting optical system comprising a steering mirror having a first face and a second face , said first face being turned towards said image-generating unit so as to reflect said primary light beam towards a combiner configured to form an image of said scene that is visible to said individual , characterized in that it comprises at least one element facing said second face of the steering mirror and configured to emit a secondary light beam in the direction of said second face , said secondary light beam being transmitted through said steering mirror towards said combiner forming an image of said element that is visible to said individual , and in which said element comprises a luminous pattern forming a signalling, warning or alarm status light. - an image-generating unit that generates a primary light beam representing a scene to be displayed, and - an optical system for projecting said scene to an individual located inside said vehicle , said projecting optical system comprising a steering mirror having a first face and a second face , said first face being turned towards said image-generating unit so as to reflect said primary light beam towards a combiner configured to form an image of said scene that is visible to said individual ,
An electrically operated aerosol-generating system for receiving a liquid aerosol-forming substrate , the aerosol-generating system comprising: a liquid storage portion for holding a liquid aerosol-forming substrate ; aerosol-generating means arranged to receive liquid aerosol-forming substrate from the liquid storage portion ; one or more capillary wicks arranged to transfer liquid aerosol-forming substrate from the liquid storage portion to the aerosol-generating means ; a tilt sensor arranged to sense the orientation of the liquid storage portion ; and electric circuitry configured to monitor the orientation of the liquid storage portion as sensed by the tilt sensor and determine depletion of liquid aerosol-forming substrate based on the orientation of the liquid storage portion . a liquid storage portion for holding a liquid aerosol-forming substrate ; aerosol-generating means arranged to receive liquid aerosol-forming substrate from the liquid storage portion ; one or more capillary wicks arranged to transfer liquid aerosol-forming substrate from the liquid storage portion to the aerosol-generating means ; a tilt sensor arranged to sense the orientation of the liquid storage portion ; and electric circuitry configured to monitor the orientation of the liquid storage portion as sensed by the tilt sensor and determine depletion of liquid aerosol-forming substrate based on the orientation of the liquid storage portion .
A bag holder comprising: a back plate comprising at least one aperture , wherein the at least one aperture comprises a substantially elongate slot extending along the back plate; a front plate ; and at least one holding pin coupled at a proximal end thereof to the back plate , the at least one pin extending forwardly from the back plate to enable a bag to be supported thereon, wherein the at least one holding pin comprises a holding pin extending through the slot and being slidably retained therein; wherein the front plate is moveably coupled to the back plate such that the bag holder is reconfigurable between a closed configuration in which the front plate extends adjacent a distal end of the at least one pin to retain at least one bag upon the pin, and an open configuration for loading bags upon and/or unloading bags from the at least one pin, wherein at least two locating notches extending from the elongate slot , within which the at least one holding pin extending through the slot is arranged to locate. a back plate comprising at least one aperture , wherein the at least one aperture comprises a substantially elongate slot extending along the back plate; a front plate ; and at least one holding pin coupled at a proximal end thereof to the back plate , the at least one pin extending forwardly from the back plate to enable a bag to be supported thereon, wherein the at least one holding pin comprises a holding pin extending through the slot and being slidably retained therein; wherein the front plate is moveably coupled to the back plate such that the bag holder is reconfigurable between a closed configuration in which the front plate extends adjacent a distal end of the at least one pin to retain at least one bag upon the pin, and an open configuration for loading bags upon and/or unloading bags from the at least one pin, wherein at least two locating notches extending from the elongate slot , within which the at least one holding pin extending through the slot is arranged to locate.
Use of 0.001% w/v to 0.5% w/v of 4-methyl-8-phenoxy-1-(2-phenylethyl)-2,3-dihydro-1H-pyrrolo[3,2-c]quinoline or a pharmaceutically acceptable salt and/or solvate thereof as an emollient in an aqueous disinfectant composition.