mhurhangee/patent-ind-claim-en huggingface dataset:
A method for fabricating full color three-dimensional objects, comprising transforming, via a computing device comprising three-dimensional printing capabilities, a three-dimensional model into instructions for a fabrication device by: slicing the three-dimensional model into layers (604; 802) with color information preserved; generating two-dimensional polygons (606; 804) for each layer based on colors on faces (602; 700, 704), colors on textures, or gradient colors, or any combinations thereof, wherein each two-dimensional polygon comprises a single color; and determining a tool path for fabricating a full color three-dimensional object from colored materials based on the two-dimensional polygons for each layer, wherein determining the tool path comprises generating instructions that direct the fabrication device to: apply colored material for all two-dimensional polygons of a same color before switching colors; provide a smooth exterior of the full color three-dimensional object by switching colors at an internal vertex of each two-dimensional polygon within each layer; and deposit transitional material within an infill area, a support structure , or an area outside the full color three-dimensional object, or any combinations thereof, when switching colors. slicing the three-dimensional model into layers (604; 802) with color information preserved; generating two-dimensional polygons (606; 804) for each layer based on colors on faces (602; 700, 704), colors on textures, or gradient colors, or any combinations thereof, wherein each two-dimensional polygon comprises a single color; and determining a tool path for fabricating a full color three-dimensional object from colored materials based on the two-dimensional polygons for each layer, wherein determining the tool path comprises generating instructions that direct the fabrication device to: apply colored material for all two-dimensional polygons of a same color before switching colors; provide a smooth exterior of the full color three-dimensional object by switching colors at an internal vertex of each two-dimensional polygon within each layer; and deposit transitional material within an infill area, a support structure , or an area outside the full color three-dimensional object, or any combinations thereof, when switching colors. apply colored material for all two-dimensional polygons of a same color before switching colors; provide a smooth exterior of the full color three-dimensional object by switching colors at an internal vertex of each two-dimensional polygon within each layer; and deposit transitional material within an infill area, a support structure , or an area outside the full color three-dimensional object, or any combinations thereof, when switching colors.
A powdery material mixing and feeding device (Z) configured to mix at least two types of powdery materials and feed a compression molding machine with the mixed powdery materials, the powdery material mixing and feeding device (Z) comprising: a first vertical mixer (Z3a) including a first mixing member (Z34, Z35) configured to rotate about a substantially vertical shaft and mix powdery materials to be fed to a horizontal mixer (Z4, Z5, Z6); the horizontal mixer (Z4, Z5, Z6) including a plurality of second mixing members (Z44, Z52, Z63, Z65) each configured to rotate about a substantially horizontal shaft and mix powdery materials, a second vertical mixer (Z3b) being connected to the horizontal mixer (Z4, Z5, Z6) below, and a measuring feeder (Z1c) configured to measure and feed a lubricant, wherein the measuring feeder (Z1c) feeds the horizontal mixer (Z4, Z5, Z6) with the measured lubricant. a first vertical mixer (Z3a) including a first mixing member (Z34, Z35) configured to rotate about a substantially vertical shaft and mix powdery materials to be fed to a horizontal mixer (Z4, Z5, Z6); the horizontal mixer (Z4, Z5, Z6) including a plurality of second mixing members (Z44, Z52, Z63, Z65) each configured to rotate about a substantially horizontal shaft and mix powdery materials, a second vertical mixer (Z3b) being connected to the horizontal mixer (Z4, Z5, Z6) below, and a measuring feeder (Z1c) configured to measure and feed a lubricant, wherein the measuring feeder (Z1c) feeds the horizontal mixer (Z4, Z5, Z6) with the measured lubricant.
A drive circuit configured to drive a load based on control signals from a control module , wherein the drive circuit comprises a high-side driver module and a delay module ; the delay module is configured to output a delay signal of preset duration to the high-side driver module in a case that the control module is being reset; and the high-side driver module is configured to: according to the delay signal of preset duration, remain in a state within the preset duration, wherein the state is a working state of the high-side driver module before the control module is reset, and wherein the state comprises being on or off, wherein the preset duration is greater than a reset time of the control module , and is less than a duration of high-level driving that is able to be tolerated by the load , and wherein the drive circuit is configured to drive the load , and the load is connected to a drive power supply (V1) through the high-side driver module , characterized in that the high-side driver module comprises a first high-side driver unit and a second high-side driver unit, wherein a first terminal of the first high-side driver unit and a first terminal of the second high-side driver unit are both connected to the drive power supply (V1), a second terminal of the first high-side driver unit and a second terminal of the second high-side driver unit are both connected to a first terminal of the load , the control module is connected to a control terminal of the first high-side driver unit, and the delay module is connected to a control terminal of the second high-side driver unit. the delay module is configured to output a delay signal of preset duration to the high-side driver module in a case that the control module is being reset; and the high-side driver module is configured to: according to the delay signal of preset duration, remain in a state within the preset duration, wherein the state is a working state of the high-side driver module before the control module is reset, and wherein the state comprises being on or off, wherein the preset duration is greater than a reset time of the control module , and is less than a duration of high-level driving that is able to be tolerated by the load , and wherein the drive circuit is configured to drive the load , and the load is connected to a drive power supply (V1) through the high-side driver module , characterized in that the high-side driver module comprises a first high-side driver unit and a second high-side driver unit, wherein a first terminal of the first high-side driver unit and a first terminal of the second high-side driver unit are both connected to the drive power supply (V1), a second terminal of the first high-side driver unit and a second terminal of the second high-side driver unit are both connected to a first terminal of the load , the control module is connected to a control terminal of the first high-side driver unit, and the delay module is connected to a control terminal of the second high-side driver unit.
An electrostatic image developing toner comprising a toner particle, wherein: the toner particle contains a vinyl resin which is a polymer of a vinyl monomer having an acid group, a polyester resin, tin (Sn) and at least one of aluminum (Al) and magnesium (Mg), the vinyl resin is a styrene-acrylic resin, the content of the vinyl resin in the toner particle is within a range of 20 to 60 mass%, when net intensities of Al, Mg and Sn in the toner particle measured by fluorescent X-ray analysis - as measured according to the description - are respectively expressed as I Al , I Mg and I Sn , a ratio (I Al +I Mg )/I Sn is within a range of 0.5 to 2.5, and in a case where the toner particle contains Mg and does not contain Al, the net intensity I Mg of Mg is within a range of 1.0 to 3.5 kcps. the vinyl resin is a styrene-acrylic resin, the content of the vinyl resin in the toner particle is within a range of 20 to 60 mass%, when net intensities of Al, Mg and Sn in the toner particle measured by fluorescent X-ray analysis - as measured according to the description - are respectively expressed as I Al , I Mg and I Sn , a ratio (I Al +I Mg )/I Sn is within a range of 0.5 to 2.5, and in a case where the toner particle contains Mg and does not contain Al, the net intensity I Mg of Mg is within a range of 1.0 to 3.5 kcps.
A method of producing a compact representation of reflectance spectrum data, the method comprising the following steps: (a) receiving or accessing the reflectance spectrum data comprising pairs of wavelength and reflectance values; (b) interpolating a spline curve to the reflectance spectrum data, the spline curve having a set of control points, a knot vector, and representing wavelength values as a first function of an independent parameter and representing reflectance values as a second function of the same independent parameter; and (c) removing one or more knots from the knot vector that minimise a cost function in a parameter domain of the spline curve. (a) receiving or accessing the reflectance spectrum data comprising pairs of wavelength and reflectance values; (b) interpolating a spline curve to the reflectance spectrum data, the spline curve having a set of control points, a knot vector, and representing wavelength values as a first function of an independent parameter and representing reflectance values as a second function of the same independent parameter; and (c) removing one or more knots from the knot vector that minimise a cost function in a parameter domain of the spline curve.
A wearable device for determining when a user has fallen down, the wearable device comprising: a first biometric sensor for obtaining first biometric data of the user , wherein the first biometric sensor is a first accelerometer configured to measure acceleration of a part of a first limb of the user ; a second biometric sensor for obtaining second biometric data of the user comprising a finger pressure parameter; and a third biometric sensor for obtaining third biometric data, the third biometric sensor being a second accelerometer configured to measure acceleration of a body part of the user being distinct from the first limb of the user; a processor ; and a memory storing instructions that, when executed by the processor, cause the wearable device to: determine an identity of the user based on the first biometric data and the second biometric data; and determine when the user has fallen down based on the first biometric data and the third biometric data, comprising to determine when the user has fallen down based on double integrating acceleration data to determine a vertical movement difference between the first biometric sensor and the third biometric sensor. a first biometric sensor for obtaining first biometric data of the user , wherein the first biometric sensor is a first accelerometer configured to measure acceleration of a part of a first limb of the user ; a second biometric sensor for obtaining second biometric data of the user comprising a finger pressure parameter; and a third biometric sensor for obtaining third biometric data, the third biometric sensor being a second accelerometer configured to measure acceleration of a body part of the user being distinct from the first limb of the user; a processor ; and a memory storing instructions that, when executed by the processor, cause the wearable device to: determine an identity of the user based on the first biometric data and the second biometric data; and determine when the user has fallen down based on the first biometric data and the third biometric data, comprising to determine when the user has fallen down based on double integrating acceleration data to determine a vertical movement difference between the first biometric sensor and the third biometric sensor. determine an identity of the user based on the first biometric data and the second biometric data; and determine when the user has fallen down based on the first biometric data and the third biometric data, comprising to determine when the user has fallen down based on double integrating acceleration data to determine a vertical movement difference between the first biometric sensor and the third biometric sensor.
A method of parallel data processing in an autonomous embedded system operating in the framework of an LMAX disruptor, implemented using C++ version 11 onwards, the method comprising: receiving a call to publish a data object ; cloning the data object and placing it into a pre-allocated space in a memory , wherein the memory comprises a lock-free memory management system employing smart pointers, wherein a separate smart object memory pool is provided for each producer and each smart object pool comprises a plurality of object memory slots (12a-g, 13a-g); placing the cloned data object or a pointer to the data object into a batching queue , wherein a producer barrier is implemented between multiple producers and the batching queue; asynchronously publishing the cloned data object by the batching queue by delivering or notifying the cloned data object the subscriber ; and releasing the pre-allocated space in the memory after the subscriber has finished processing the data object . receiving a call to publish a data object ; cloning the data object and placing it into a pre-allocated space in a memory , wherein the memory comprises a lock-free memory management system employing smart pointers, wherein a separate smart object memory pool is provided for each producer and each smart object pool comprises a plurality of object memory slots (12a-g, 13a-g); placing the cloned data object or a pointer to the data object into a batching queue , wherein a producer barrier is implemented between multiple producers and the batching queue; asynchronously publishing the cloned data object by the batching queue by delivering or notifying the cloned data object the subscriber ; and releasing the pre-allocated space in the memory after the subscriber has finished processing the data object .
A blood treatment filter (30A to 30C) which removes a predetermined blood component from blood, the blood treatment filter comprising: a housing having a first resin sheet and a second resin sheet constituting walls opposite to each other; a filter member which is provided between the first resin sheet and the second resin sheet , is provided with at least one filtering material , and partitions the interior of the housing into a blood inflow chamber and a blood outflow chamber ; an inflow port communicating with the blood inflow chamber ; an outflow port communicating with the blood outflow chamber ; a peripheral edge molded body which is formed in a frame shape covering a peripheral edge portion of the filter member and has an inner peripheral edge portion joined to an outer peripheral end edge of the filtering material ; and a connection sheet extending outward from the peripheral edge molded body and connected to the housing , wherein a thickness of the filtering material in the peripheral edge portion with respect to a thickness of the filtering material in a portion of the filter member other than the peripheral edge portion is 90 to 100%. a housing having a first resin sheet and a second resin sheet constituting walls opposite to each other; a filter member which is provided between the first resin sheet and the second resin sheet , is provided with at least one filtering material , and partitions the interior of the housing into a blood inflow chamber and a blood outflow chamber ; an inflow port communicating with the blood inflow chamber ; an outflow port communicating with the blood outflow chamber ; a peripheral edge molded body which is formed in a frame shape covering a peripheral edge portion of the filter member and has an inner peripheral edge portion joined to an outer peripheral end edge of the filtering material ; and a connection sheet extending outward from the peripheral edge molded body and connected to the housing , wherein a thickness of the filtering material in the peripheral edge portion with respect to a thickness of the filtering material in a portion of the filter member other than the peripheral edge portion is 90 to 100%.
A method for preparing a bleached pulp material having enhanced brightness and enhanced resistance to thermal yellowing comprising: i) providing bleached pulp material; and ii) contacting the bleached pulp material with an effective amount of a mixture of reducing agents comprising from 1% to 10% of one or more borohydrides and wherein the mixture of reducing agents further comprises from 99% to 90% of one or more reducing agents selected from the group consisting of sulfites, bisulfites, metabisulfites (pyrosulfites), sulfoxylates, thiosulfates, dithionites (hydrosulfites), polythionates, formamidinesulfinic acid, formamidinesulfinic acid salts, and formamidinesulfinic acid derivatives. i) providing bleached pulp material; and ii) contacting the bleached pulp material with an effective amount of a mixture of reducing agents comprising from 1% to 10% of one or more borohydrides and wherein the mixture of reducing agents further comprises from 99% to 90% of one or more reducing agents selected from the group consisting of sulfites, bisulfites, metabisulfites (pyrosulfites), sulfoxylates, thiosulfates, dithionites (hydrosulfites), polythionates, formamidinesulfinic acid, formamidinesulfinic acid salts, and formamidinesulfinic acid derivatives.
A stacking and dispensing module for use in an automatic teller machine , the module is configured to be arranged in connection with a banknote storage unit comprising a banknote tray on which banknotes are stacked, the stacking and dispensing module is configured to be in a banknote stacking mode, when banknotes are stacked in said storage unit , and in a banknote dispensing mode, when banknotes are dispensed from said storage unit , the stacking and dispensing module comprises: - a stacking wheel member configured to receive and stack banknotes on said tray , comprising at least two stacking wheels distributed along a common rotation shaft A, - a dispensing wheel member configured to dispense banknotes from said tray , comprising a predetermined number of dispensing wheels arranged for rotation around a common first rotation shaft B, the dispensing wheels are configured to be rotated in a first dispensing direction when banknotes are dispensed from the storage unit , wherein said stacking wheel member is active both during the banknote stacking mode and during the banknote dispensing mode, and that the rotation of said stacking wheel member is configured to be controlled by a first direct current (DC) motor , and the rotation of said dispensing wheel member is configured to be controlled by a second DC motor , wherein the module further comprises: - a current measuring unit configured to measure the currents applied to drive said first and second DC motors and to generate current signals in dependence thereto, - a control unit configured to receive said current signals , wherein the control unit is configured to evaluate said current signals and to determine control signals for various functions of said module in dependence of said evaluation, and to apply said control signals for controlling said functions, wherein the control unit is configured to determine a first control signal in dependence of said current signal from said first DC motor , and to apply said first control signal to a tray movement member to perform vertical movement of said tray . - a stacking wheel member configured to receive and stack banknotes on said tray , comprising at least two stacking wheels distributed along a common rotation shaft A, - a dispensing wheel member configured to dispense banknotes from said tray , comprising a predetermined number of dispensing wheels arranged for rotation around a common first rotation shaft B, the dispensing wheels are configured to be rotated in a first dispensing direction when banknotes are dispensed from the storage unit , - a current measuring unit configured to measure the currents applied to drive said first and second DC motors and to generate current signals in dependence thereto, - a control unit configured to receive said current signals , wherein the control unit is configured to evaluate said current signals and to determine control signals for various functions of said module in dependence of said evaluation, and to apply said control signals for controlling said functions,
Thermal flowmeter comprising a sensor with a sensor housing , which has a metal cap with a lateral surface and a front face , wherein the sensor housing has at least a first and a second contact sleeve which project out of the front face , wherein the sensor housing has a first heater in a first of the two contact sleeves (3a or 3b) and a temperature sensor , which is designed to determine a temperature of the medium, in a second of the two contact sleeves (3a or 3b); characterized in that the front face of the cap is subdivided at least into a base area and into at least a first planar surface inclined at an angle (σ) in relation to said base area, wherein a second heater is arranged on an interior wall of the cap in the area of said first surface .
A halogenated compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, R1 and R2 are a halogen group, R3 is Chemical Formula 2: wherein in Chemical Formula 2, A is -SO 3 H, -SO 3 - M + , -COOH, -COO - M + , -PO 3 H 2 , -PO 3 H - M + , -PO 3 2- 2M + , -O(CF 2 ) m SO 3 H, -O(CF 2 ) m SO 3 - M + , -O(CF 2 ) m COOH, -O(CF 2 ) m COO - M + , -O(CF 2 ) m PO 3 H 2 , -O(CF 2 ) m PO 3 H - M + or -O(CF 2 ) m PO 3 2- 2M + ; m is an integer of 1 to 6; M is a group 1 element; R4 and R5 are the same as or different from each other, and each independently a halogen group; and n is an integer of 2 to 10, and structures in the 2 to 10 parentheses are the same as or different from each other. R1 and R2 are a halogen group, R3 is Chemical Formula 2: A is -SO 3 H, -SO 3 - M + , -COOH, -COO - M + , -PO 3 H 2 , -PO 3 H - M + , -PO 3 2- 2M + , -O(CF 2 ) m SO 3 H, -O(CF 2 ) m SO 3 - M + , -O(CF 2 ) m COOH, -O(CF 2 ) m COO - M + , -O(CF 2 ) m PO 3 H 2 , -O(CF 2 ) m PO 3 H - M + or -O(CF 2 ) m PO 3 2- 2M + ; m is an integer of 1 to 6; M is a group 1 element; R4 and R5 are the same as or different from each other, and each independently a halogen group; and n is an integer of 2 to 10, and structures in the 2 to 10 parentheses are the same as or different from each other.