mhurhangee/patent-ind-claim-en huggingface dataset:
A wearable sensing device, comprising: a user interface module , the user interface module including: a carrier (A201) defining a contact face; a first group of microprobes corresponding to a working electrode protruding from the contact face of the carrier and reaching a first height; a second group of microprobes protruding from the contact face of the carrier and reaching a second height; a third group of microprobes protruding from the contact face of the carrier and reaching a third height; a fourth group of microprobes (A204) corresponding to a trigger electrode exposed from the contact face of the carrier and reaching a fourth height; wherein the second group of microprobes and the third group of microprobes are interchangeably corresponding to a counter electrode and a reference electrode; wherein the fourth height is less than the first, second, and third heights; and wherein a trigger circuit in signal communication with the trigger electrode is configured to determine whether the user interface module is correctly attached to the device wearer. a user interface module , the user interface module including: a carrier (A201) defining a contact face; a first group of microprobes corresponding to a working electrode protruding from the contact face of the carrier and reaching a first height; a second group of microprobes protruding from the contact face of the carrier and reaching a second height; a third group of microprobes protruding from the contact face of the carrier and reaching a third height; a fourth group of microprobes (A204) corresponding to a trigger electrode exposed from the contact face of the carrier and reaching a fourth height; a carrier (A201) defining a contact face; a first group of microprobes corresponding to a working electrode protruding from the contact face of the carrier and reaching a first height; a second group of microprobes protruding from the contact face of the carrier and reaching a second height; a third group of microprobes protruding from the contact face of the carrier and reaching a third height; a fourth group of microprobes (A204) corresponding to a trigger electrode exposed from the contact face of the carrier and reaching a fourth height; wherein the second group of microprobes and the third group of microprobes are interchangeably corresponding to a counter electrode and a reference electrode; wherein the fourth height is less than the first, second, and third heights; and wherein a trigger circuit in signal communication with the trigger electrode is configured to determine whether the user interface module is correctly attached to the device wearer.
Method of anamorphically distorting an image to be displayed on the treads and/or risers of a stand or stairway, or a span of a stand or stairway, which comprises the steps of: - applying the image to be displayed onto a virtual work area - anamorphically distorting the image applied onto the virtual work area - applying the distorted image onto an available work area, said available work area corresponding to the sum of the surfaces of the risers, on which the image is displayed; the distorted image being applied, after the anamorphic distortion, onto said available work area; characterised in that the virtual work area corresponds to a continuous slope defined by the height and depth of said stand or stairway, or span of said stand or stairway, said virtual work area being an area that has a length equal to the value of the hypotenuse of a virtual triangle in which one of the legs is the sum of the heights of the risers of the stand, stairway or span, and the other leg is the sum of the lengths of the treads of the stand, stairway or span. - applying the image to be displayed onto a virtual work area - anamorphically distorting the image applied onto the virtual work area - applying the distorted image onto an available work area, said available work area corresponding to the sum of the surfaces of the risers, on which the image is displayed; the distorted image being applied, after the anamorphic distortion, onto said available work area; characterised in that the virtual work area corresponds to a continuous slope defined by the height and depth of said stand or stairway, or span of said stand or stairway, said virtual work area being an area that has a length equal to the value of the hypotenuse of a virtual triangle in which one of the legs is the sum of the heights of the risers of the stand, stairway or span, and the other leg is the sum of the lengths of the treads of the stand, stairway or span.
Fitness, exercise and massage roller, which roller has a substantially cylindrical shape and a hollow opening around its imaginary center axis, which roller comprises a longitudinal opening and which roller is configured to be located around a bar via the longitudinal opening, characterized in that the roller comprises two or more frame parts , which are at least part-circular in their outer form and configured to form the cylindrical shape of the roller , that at least one of the frame elements is separable or turnable from connection with the other frame elements such, that the longitudinal opening is formed and that the roller comprises adjusting rotation elements located in the hollow opening and configured to provide rotatable and adjustable fastening of the roller around the bar and that the adjusting rotation elements are configured to adjust or self/auto-adjust cross-sectional inner dimensions of the hollow opening to correspond to cross-sectional outer dimensions of the bar .
A compound selected from: 3-((4-Chloro-3-methoxyphenyl)amino)-1-(4-cyanotetrahydro-2H-pyran-3-yl)-1H-pyrazole-4-carboxamide; 3-((4-chloro-3-(methylthio)phenyl)amino)-1-(4-cyanotetrahydro-2H-pyran-3-yl)-1H-pyrazole-4-carboxamide; 3-((4-cyano-3-methoxyphenyl)amino)-1-(4-cyanotetrahydro-2H-pyran-3-yl)-1H-pyrazole-4-carboxamide; 3-((4-cyano-3-(2-fluoropropan-2-yl)phenyl)amino)-1-(4-cyanotetrahydro-2H-pyran-3-yl)-1H-pyrazole-4-carboxamide; and 1-(4-cyanotetrahydro-2H-pyran-3-yl)-3-((3-methylbenzo[d]isoxazol-5-yl)amino)-1H-pyrazole-4-carboxamide; or a pharmaceutically acceptable salt thereof. 3-((4-Chloro-3-methoxyphenyl)amino)-1-(4-cyanotetrahydro-2H-pyran-3-yl)-1H-pyrazole-4-carboxamide; 3-((4-chloro-3-(methylthio)phenyl)amino)-1-(4-cyanotetrahydro-2H-pyran-3-yl)-1H-pyrazole-4-carboxamide; 3-((4-cyano-3-methoxyphenyl)amino)-1-(4-cyanotetrahydro-2H-pyran-3-yl)-1H-pyrazole-4-carboxamide; 3-((4-cyano-3-(2-fluoropropan-2-yl)phenyl)amino)-1-(4-cyanotetrahydro-2H-pyran-3-yl)-1H-pyrazole-4-carboxamide; and 1-(4-cyanotetrahydro-2H-pyran-3-yl)-3-((3-methylbenzo[d]isoxazol-5-yl)amino)-1H-pyrazole-4-carboxamide; or a pharmaceutically acceptable salt thereof.
A user terminal that is configured with a plurality of cell groups, CGs, the user terminal comprising: a transmission section configured to perform physical random access channel, PRACH, transmission in a given CG; and a control section , wherein the control section is configured to perform scaling on the PUCCH/PUSCH transmission power in the other CG so that the total transmission power does not exceed the maximum possible transmission power, when the PRACH transmission in the given CG and a PUCCH/PUSCH transmission in another CG occur simultaneously, and a total transmission power exceeds a maximum possible transmission power, and wherein the control section is configured to assume that a radio link failure has been detected in a secondary CG, when the PRACH transmission in the given CG is repeated a given number of times. a transmission section configured to perform physical random access channel, PRACH, transmission in a given CG; and a control section , wherein the control section is configured to perform scaling on the PUCCH/PUSCH transmission power in the other CG so that the total transmission power does not exceed the maximum possible transmission power, when the PRACH transmission in the given CG and a PUCCH/PUSCH transmission in another CG occur simultaneously, and a total transmission power exceeds a maximum possible transmission power, and wherein the control section is configured to assume that a radio link failure has been detected in a secondary CG, when the PRACH transmission in the given CG is repeated a given number of times.
A polymer foam system comprising a polyaldehyde, an inorganic powder, a polycarbamate, a blowing agent and an acid catalyst wherein the polyaldehyde is in an A-side of the polymer foam system and the polycarbamate is in a B-side of the polymer foam system, the inorganic powder can be a separate component from the A- and B- sides or is in one or both of the A- and B-sides provided that the inorganic powder is not in the same side as the acid catalyst, the acid catalyst can be a separate component from the A- and B-side or is in the B-side and the blowing agent is in the A-side, the B-side, both A- and B-sides or can be a separate component from the A- and B-sides, and further wherein: a. the inorganic powder is selected from a group consisting of Group II oxides and hydroxides; b. the polyaldehyde has an average functionality of more than one and three or less; c. the polycarbamate has an average functionality of 3.4 or more and 4.2 or less; d. the polycarbamate has an average equivalent weight of 200 grams per equivalent or more and 325 grams per equivalent or less; and e. the average particle size of the inorganic powder in micrometers divided by the molar ratio of inorganic powder to acid catalyst is 2.5 or more and 9.3 or less; with average equivalent weight determined as taught herein, average particle size of the inorganic powder determined by ASTM B822-10, and the concentration of inorganic powder determined according to ASTM D7247-10. a. the inorganic powder is selected from a group consisting of Group II oxides and hydroxides; b. the polyaldehyde has an average functionality of more than one and three or less; c. the polycarbamate has an average functionality of 3.4 or more and 4.2 or less; d. the polycarbamate has an average equivalent weight of 200 grams per equivalent or more and 325 grams per equivalent or less; and e. the average particle size of the inorganic powder in micrometers divided by the molar ratio of inorganic powder to acid catalyst is 2.5 or more and 9.3 or less; with average equivalent weight determined as taught herein, average particle size of the inorganic powder determined by ASTM B822-10, and the concentration of inorganic powder determined according to ASTM D7247-10.
A wind farm comprising at least two wind turbines ; and a recipient that is a remote control center, each of the at least two wind turbines comprising: a communication device ; a receiver adapted to receive a signal from a satellite-based navigation system and to determine at least one of a position information, a time information and a date information from said signal ; wherein the receiver is connected to a wind turbine controller which is connected to the communication device ; wherein the time and date information are recorded with operational data of the at least two wind turbines ; the communication device adapted to transmit the information determined by the receiver to the recipient located remotely from said wind turbine ; and the wind turbine controller adapted to adjust an internal clock with the information determined from the signal ; wherein the wind farm further includes a further wind turbine which does not have a receiver to receive the signal from the satellite-based navigation system, the further wind turbine adapted to receive the at least one of the position information, the time information and the date information directly from at least one of the at least two wind turbines . a communication device ; a receiver adapted to receive a signal from a satellite-based navigation system and to determine at least one of a position information, a time information and a date information from said signal ; wherein the receiver is connected to a wind turbine controller which is connected to the communication device ; wherein the time and date information are recorded with operational data of the at least two wind turbines ; the communication device adapted to transmit the information determined by the receiver to the recipient located remotely from said wind turbine ; and the wind turbine controller adapted to adjust an internal clock with the information determined from the signal ; wherein the wind farm further includes a further wind turbine which does not have a receiver to receive the signal from the satellite-based navigation system, the further wind turbine adapted to receive the at least one of the position information, the time information and the date information directly from at least one of the at least two wind turbines .
A method for reducing the kaurenoic acid content of a steviol glycoside composition, which method comprises: providing a fermentation broth comprising a steviol glycoside composition which comprises kaurenoic acid; subjecting the fermentation broth to one or more of a solid/liquid separation, a cell disruption step, a chromatography step, a concentration step, or a crystallization step; combining the steviol glycoside composition with a solvent to form a steviol glycoside solution, wherein the solvent is an organic solvent comprising water in an amount of up to 25% by weight; and crystallizing a steviol glycoside composition from the steviol glycoside solution, wherein the crystallization is carried out at pH between 5.0 and a pH of about 3.8, thereby to reduce the amount of kaurenoic acid in the steviol glycoside composition, yielding a steviol glycoside composition which comprises less kaurenoic acid than the starting steviol glycoside composition, wherein the resulting steviol glycoside composition comprises kaurenoic acid in an amount of no more than 150 ppm, such as no more than 100 ppm, wherein the resulting steviol glycoside composition comprises at least 80% on a dry weight basis of at least one steviol glycoside selected from rebaudioside A, rebaudioside D and rebaudioside M. providing a fermentation broth comprising a steviol glycoside composition which comprises kaurenoic acid; subjecting the fermentation broth to one or more of a solid/liquid separation, a cell disruption step, a chromatography step, a concentration step, or a crystallization step; combining the steviol glycoside composition with a solvent to form a steviol glycoside solution, wherein the solvent is an organic solvent comprising water in an amount of up to 25% by weight; and crystallizing a steviol glycoside composition from the steviol glycoside solution, wherein the crystallization is carried out at pH between 5.0 and a pH of about 3.8, thereby to reduce the amount of kaurenoic acid in the steviol glycoside composition, yielding a steviol glycoside composition which comprises less kaurenoic acid than the starting steviol glycoside composition, wherein the resulting steviol glycoside composition comprises kaurenoic acid in an amount of no more than 150 ppm, such as no more than 100 ppm, wherein the resulting steviol glycoside composition comprises at least 80% on a dry weight basis of at least one steviol glycoside selected from rebaudioside A, rebaudioside D and rebaudioside M.
Inductive component , having: a planar printed conductor structure which comprises an upper side and an underside , wherein the upper side is arranged opposite the underside , and a ferromagnetic core , which encloses the planar printed conductor structure along a predefined section, wherein the ferromagnetic core incorporates at least one gap in a region (A) of the upper side and/or underside of the planar printed conductor structure , so that a virtual line, which is oriented perpendicularly to the upper side or underside , also runs through such a gap , wherein the ferromagnetic core in this region (A) of the upper side and/or underside of the planar printed conductor structure comprises a material with ferromagnetic powder particles. a planar printed conductor structure which comprises an upper side and an underside , wherein the upper side is arranged opposite the underside , and a ferromagnetic core , which encloses the planar printed conductor structure along a predefined section, wherein the ferromagnetic core incorporates at least one gap in a region (A) of the upper side and/or underside of the planar printed conductor structure , so that a virtual line, which is oriented perpendicularly to the upper side or underside , also runs through such a gap , wherein the ferromagnetic core in this region (A) of the upper side and/or underside of the planar printed conductor structure comprises a material with ferromagnetic powder particles.
A retrofit LED driver for connecting between a high frequency ballast and a LED light source , comprising: a power conversion circuit which is arranged to receive AC power at its input from the high frequency ballast and, in use, to convert said AC power to an output power at a power terminal of the power conversion circuit for coupling to the LED light source , wherein the power conversion circuit is adapted to allow a current outputted by the high frequency ballast to flow to the power terminal ; a buffer capacitor in parallel with the power terminal of the power conversion circuit and the LED light source ; a switch arrangement for coupling the output power at the power terminal to the LED light source or isolating the output power at the power terminal from the LED light source ; and a regulation circuit for regulating a voltage at the power terminal so as to increase an output impedance as seen from the high frequency ballast when the output power coupled to the LED light source is less than a threshold, characterized in that the regulation circuit is adapted to regulate the voltage across the buffer capacitor to be higher than the minimum conducting voltage of the LED light source when the switch arrangement is open to isolate the output power at the power terminal from the LED light source such that the output impedance is regulated above a certain threshold which suits the high frequency ballast and prevents it from making noise. a power conversion circuit which is arranged to receive AC power at its input from the high frequency ballast and, in use, to convert said AC power to an output power at a power terminal of the power conversion circuit for coupling to the LED light source , wherein the power conversion circuit is adapted to allow a current outputted by the high frequency ballast to flow to the power terminal ; a buffer capacitor in parallel with the power terminal of the power conversion circuit and the LED light source ; a switch arrangement for coupling the output power at the power terminal to the LED light source or isolating the output power at the power terminal from the LED light source ; and a regulation circuit for regulating a voltage at the power terminal so as to increase an output impedance as seen from the high frequency ballast when the output power coupled to the LED light source is less than a threshold, characterized in that the regulation circuit is adapted to regulate the voltage across the buffer capacitor to be higher than the minimum conducting voltage of the LED light source when the switch arrangement is open to isolate the output power at the power terminal from the LED light source such that the output impedance is regulated above a certain threshold which suits the high frequency ballast and prevents it from making noise.
Filter device , in particular an oil or fuel filter, - with a filter housing having a filter housing jar and a filter housing cover , in which filter housing a ring filter element is arranged which has an axially projecting pin on a lower end disc , by means of which pin it engages in a first channel when the filter device is mounted, - with a tubular dome , which engages in an inner space of the ring filter element when the filter device is mounted, - wherein a guide contour is provided at a free end of the tubular dome and cooperates with a guide element arranged on the ring filter element , - wherein the dome-side guide contour has an axial groove towards which the guide element can be guided during the assembly of the filter device , and which is arranged relative to the pin such that the latter can be inserted into the first channel , provided the guide element enters the axial groove , - with a clean channel , characterised in that - a valve with a valve seat and a valve body spring-biased against it in the closed position is arranged in the clean channel , - the guide element cooperates with the valve body such that the guide element transfers the valve body into an open position when pushed into the axial groove . - with a filter housing having a filter housing jar and a filter housing cover , in which filter housing a ring filter element is arranged which has an axially projecting pin on a lower end disc , by means of which pin it engages in a first channel when the filter device is mounted, - with a tubular dome , which engages in an inner space of the ring filter element when the filter device is mounted, - wherein a guide contour is provided at a free end of the tubular dome and cooperates with a guide element arranged on the ring filter element , - wherein the dome-side guide contour has an axial groove towards which the guide element can be guided during the assembly of the filter device , and which is arranged relative to the pin such that the latter can be inserted into the first channel , provided the guide element enters the axial groove , - with a clean channel , characterised in that - a valve with a valve seat and a valve body spring-biased against it in the closed position is arranged in the clean channel , - the guide element cooperates with the valve body such that the guide element transfers the valve body into an open position when pushed into the axial groove .
A thermal management apparatus for use with a vehicle , the apparatus comprising: a plurality of phase change heat exchange units thermally coupled with a vehicle system that requires thermal management, the plurality of phase change heat exchange units operable to remove heat from the vehicle system; a manifold operable to control delivery of heat from the vehicle system to the phase change heat exchange units; characterized by a controller arranged to control the manifold, wherein the phase change heat exchange units are operatively coupled to the controller to provide an indication of their capacity to receive heat. a plurality of phase change heat exchange units thermally coupled with a vehicle system that requires thermal management, the plurality of phase change heat exchange units operable to remove heat from the vehicle system; a manifold operable to control delivery of heat from the vehicle system to the phase change heat exchange units; characterized by a controller arranged to control the manifold, wherein the phase change heat exchange units are operatively coupled to the controller to provide an indication of their capacity to receive heat.