mhurhangee/patent-ind-claim-en huggingface dataset:
A method for recovering crude tall oil from a soap comprising the steps of: (a) determining a correlation between the crude tall oil content and the water content of the soap, (b) determining an amount of acid and water needed in order to separate an optimal amount of crude tall oil from the soap dependent on the crude tall oil content of the soap, (c) measuring the water content of the soap, (d) adding the optimal amount of acid and water to the soap, (e) mixing the added acid and water with the soap whereby acidulated soap is formed and crude tall oil is separated, and (f) recovering the separated crude tall oil from the acidulated soap. (a) determining a correlation between the crude tall oil content and the water content of the soap, (b) determining an amount of acid and water needed in order to separate an optimal amount of crude tall oil from the soap dependent on the crude tall oil content of the soap, (c) measuring the water content of the soap, (d) adding the optimal amount of acid and water to the soap, (e) mixing the added acid and water with the soap whereby acidulated soap is formed and crude tall oil is separated, and (f) recovering the separated crude tall oil from the acidulated soap.
An anti-glare film comprising: a light-transmitting substrate; and a hard coating layer containing a binder resin and inorganic fine particles dispersed in the binder resin, wherein the inorganic fine particles have average primary and secondary particle sizes, that is average sizes of the particles themselves and their aggregates, respectively;wherein the inorganic fine particles include: a first inorganic fine particle aggregate having an average secondary particle size of 1 to 2 μm; a second inorganic fine particle aggregate having an average secondary particle size of 3 to 5 μm; and third inorganic fine particles having an average primary particle size of 1 to 10 μm; and wherein a reflection intensity ratio (R) of the anti-glare film defined by Equation 1 is 0.6 to 1%: Reflection Intensity Ratio R = R 1 / R 2 × 100 wherein, in the Equation 1, R 1 is a reflection intensity value measured at 45° corresponding to a specular reflection of the incident angle after irradiating light at an incident angle of 45° with respect to the hard coating layer, and R 2 is a reflection intensity value measured at 45° corresponding to a specular reflection of the incident angle after irradiating light at an incident angle of 45° with respect to the light-transmitting substrate. wherein the inorganic fine particles have average primary and secondary particle sizes, that is average sizes of the particles themselves and their aggregates, respectively;wherein the inorganic fine particles include: a first inorganic fine particle aggregate having an average secondary particle size of 1 to 2 μm; a second inorganic fine particle aggregate having an average secondary particle size of 3 to 5 μm; and third inorganic fine particles having an average primary particle size of 1 to 10 μm; and a first inorganic fine particle aggregate having an average secondary particle size of 1 to 2 μm; a second inorganic fine particle aggregate having an average secondary particle size of 3 to 5 μm; and third inorganic fine particles having an average primary particle size of 1 to 10 μm; and wherein a reflection intensity ratio (R) of the anti-glare film defined by Equation 1 is 0.6 to 1%: Reflection Intensity Ratio R = R 1 / R 2 × 100 wherein, in the Equation 1, R 1 is a reflection intensity value measured at 45° corresponding to a specular reflection of the incident angle after irradiating light at an incident angle of 45° with respect to the hard coating layer, and R 2 is a reflection intensity value measured at 45° corresponding to a specular reflection of the incident angle after irradiating light at an incident angle of 45° with respect to the light-transmitting substrate.
Hydraulic machine having a first part and a second part movable relative to said first part , one of said first part and said second part having a first land resting against the other one of said second part and said first part , having a predetermined first height (H1), with which it protrudes from the one part towards the other part and being arranged between a high pressure area and a low pressure area , wherein a second land having a predetermined second height (H2) with which it protrudes from the one part towards the other part and being smaller than said first height (H1) is located adjacent to said first land , characterized in that said second land abuts against said first land and said second land is positioned on a low pressure side of said first land .
Thioallophanates containing silane groups, of the general formula (I) in which R 1 , R 2 and R 3 are identical or different radicals and are each a saturated or unsaturated, linear or branched, aliphatic or cycloaliphatic or an optionally substituted aromatic or araliphatic radical having up to 18 carbon atoms, and may optionally contain up to 3 heteroatoms from the series of oxygen, sulfur and nitrogen, X is a linear or branched organic radical having at least 2 carbon atoms, Y is a linear or branched, aliphatic or cycloaliphatic, an araliphatic or aromatic radical having up to 18 carbon atoms, and n is an integer from 1 to 20. R 1 , R 2 and R 3 are identical or different radicals and are each a saturated or unsaturated, linear or branched, aliphatic or cycloaliphatic or an optionally substituted aromatic or araliphatic radical having up to 18 carbon atoms, and may optionally contain up to 3 heteroatoms from the series of oxygen, sulfur and nitrogen, X is a linear or branched organic radical having at least 2 carbon atoms, Y is a linear or branched, aliphatic or cycloaliphatic, an araliphatic or aromatic radical having up to 18 carbon atoms, and n is an integer from 1 to 20.
An automated replacement system for a production line which is configured by arranging multiple machines and includes an automated replacement device that is configured to move in an X-direction that is a right-left direction along a front surface of the production line , and in which the automated replacement device is configured to move to a front side of an instructed machine among the multiple machines to perform an automated replacement operation on the machine , the automated replacement system comprising: a periphery monitoring device configured to monitor a safety area set in a periphery of the automated replacement device to stop an operation of the automated replacement device in an emergency manner when a person or an obstacle is detected in the safety area; and an alarm device configured to sound an alarm during a movement of the automated replacement device to notify that the automated replacement device is moving, characterized in that the periphery monitoring device is switched such that a range of the safety area during the movement of the automated replacement device is smaller than a range of the safety area during the automated replacement operation. a periphery monitoring device configured to monitor a safety area set in a periphery of the automated replacement device to stop an operation of the automated replacement device in an emergency manner when a person or an obstacle is detected in the safety area; and an alarm device configured to sound an alarm during a movement of the automated replacement device to notify that the automated replacement device is moving, characterized in that the periphery monitoring device is switched such that a range of the safety area during the movement of the automated replacement device is smaller than a range of the safety area during the automated replacement operation.
A display management system for providing a graphical representation of flight envelope information of an aircraft, comprising: - a control module configured to be coupled to the display management system and programmed to control the graphical representation including at least one flight envelope protection attribute; - a plurality of sensors (18a-18n) associated with the flight envelope information of the aircraft; - a signal detection module configured to receive signals from the plurality of sensors (18a-18n) of the aircraft, the received signals including associated parameter values for the at least one flight envelope protection attribute; - a protection selection module configured to select the at least one flight envelope protection attribute based on the received signals and the parameter values included in the received signals; and - a database configured to store data related to the flight envelope information of the aircraft in relation to a flight control law state ; and characterised by - a display module configured to display the at least one flight envelope protection attribute on a display screen based on the stored flight envelope information of the current flight control law state using a display model of the aircraft from an elevational view, the display model being based on the received signals and the parameter values included in the received signals. - a control module configured to be coupled to the display management system and programmed to control the graphical representation including at least one flight envelope protection attribute; - a plurality of sensors (18a-18n) associated with the flight envelope information of the aircraft; - a signal detection module configured to receive signals from the plurality of sensors (18a-18n) of the aircraft, the received signals including associated parameter values for the at least one flight envelope protection attribute; - a protection selection module configured to select the at least one flight envelope protection attribute based on the received signals and the parameter values included in the received signals; and - a database configured to store data related to the flight envelope information of the aircraft in relation to a flight control law state ; and characterised by - a display module configured to display the at least one flight envelope protection attribute on a display screen based on the stored flight envelope information of the current flight control law state using a display model of the aircraft from an elevational view, the display model being based on the received signals and the parameter values included in the received signals.
A method for producing a molded body (MB) comprising the following steps: (a) producing a thermoplastic polyurethane comprising reacting (i) at least one polyisocyanate composition, (ii) at least one chain extender, and (iii) at least one polyol composition, wherein the polyol composition comprises at least one polyol (P1) which contains at least one aromatic polyester block (B1); (b) producing a molded body (MB*) from the thermoplastic polyurethane, (c) heating the molded body (MB*) to a temperature below the temperature at which there is permanent deformability of the molded body (MB*), and above the switching temperature of the thermoplastic polyurethanes, (d) elongating the heated molded body (MB*) with obtention of a molded body (MB), (e) cooling the molded body (MB) to a temperature below the switching temperature of the thermoplastic polyurethane, wherein the start of the permanent deformability corresponds to the start of the melting of the hard phase of the thermoplastic polyurethane, and the switching temperature corresponds to the start of the phase transition lying highest in the temperature before the melting range. (a) producing a thermoplastic polyurethane comprising reacting (i) at least one polyisocyanate composition, (ii) at least one chain extender, and (iii) at least one polyol composition, wherein the polyol composition comprises at least one polyol (P1) which contains at least one aromatic polyester block (B1); (i) at least one polyisocyanate composition, (ii) at least one chain extender, and (iii) at least one polyol composition, wherein the polyol composition comprises at least one polyol (P1) which contains at least one aromatic polyester block (B1); (b) producing a molded body (MB*) from the thermoplastic polyurethane, (c) heating the molded body (MB*) to a temperature below the temperature at which there is permanent deformability of the molded body (MB*), and above the switching temperature of the thermoplastic polyurethanes, (d) elongating the heated molded body (MB*) with obtention of a molded body (MB), (e) cooling the molded body (MB) to a temperature below the switching temperature of the thermoplastic polyurethane, wherein the start of the permanent deformability corresponds to the start of the melting of the hard phase of the thermoplastic polyurethane, and the switching temperature corresponds to the start of the phase transition lying highest in the temperature before the melting range.
A method comprising: making a determination, by a computing system, that quality of image data generated by an image capture device (130; 400; 406) is or is expected to be lower than a threshold quality due to external light encountered or expected to be encountered by the image capture device, wherein the image capture device is coupled to a vehicle (100; 200), wherein the vehicle includes a light-control feature that is adjustable to control an extent of external light encountered by the image capture device, and wherein the light-control feature comprises a wiper that is movable relative to a field of view of the image capture device; in response to the determination, making an adjustment, by the computing system, to the light-control feature, wherein making the adjustment to the light-control feature comprises adjusting a position of the wiper to reduce the extent of external light encountered or expected to be encountered by the image capture device; and operating the vehicle based at least on image data generated by the image capture device. making a determination, by a computing system, that quality of image data generated by an image capture device (130; 400; 406) is or is expected to be lower than a threshold quality due to external light encountered or expected to be encountered by the image capture device, wherein the image capture device is coupled to a vehicle (100; 200), wherein the vehicle includes a light-control feature that is adjustable to control an extent of external light encountered by the image capture device, and wherein the light-control feature comprises a wiper that is movable relative to a field of view of the image capture device; in response to the determination, making an adjustment, by the computing system, to the light-control feature, wherein making the adjustment to the light-control feature comprises adjusting a position of the wiper to reduce the extent of external light encountered or expected to be encountered by the image capture device; and operating the vehicle based at least on image data generated by the image capture device.
An electronic circuit board assembly for a tip section of a multi-viewing elements endoscope, the assembly comprising: a base board ; a first printed circuit board ; a first sensor ; a second printed circuit board ; a second sensor ; a first metal frame including an opening , a top surface a bottom surface , and protrusions extending from the bottom surface , wherein the first frame is configured to receive the first sensor and the first printed circuit board , wherein the first frame is positioned at one end of the base board ; a second metal frame configured to receive the second sensor and the second printed circuit board, said second metal frame having protrusions extending from a bottom surface thereof and wherein the second frame is positioned on the base board adjacent to the first frame ; a first lens assembly coupled to the first frame ; a second lens assembly coupled to the second frame; arrd and wherein the protrusions extend through corresponding openings in the base board . a base board ; a first printed circuit board ; a first sensor ; a second printed circuit board ; a second sensor ; a first metal frame including an opening , a top surface a bottom surface , and protrusions extending from the bottom surface , wherein the first frame is configured to receive the first sensor and the first printed circuit board , wherein the first frame is positioned at one end of the base board ; a second metal frame configured to receive the second sensor and the second printed circuit board, said second metal frame having protrusions extending from a bottom surface thereof and wherein the second frame is positioned on the base board adjacent to the first frame ; a first lens assembly coupled to the first frame ; a second lens assembly coupled to the second frame; arrd and wherein the protrusions extend through corresponding openings in the base board .
A system for web-based interaction with building automation, the system comprising: a building automation network including at least a first operations or monitoring device hosting a first web-server and first building automation logic, a first room unit , and a communications link between the first operations or monitoring device and the first room unit ; and a first computer hosting a web browser and a second webserver , the web browser configured to access the first building automation logic through the first web-server , the first computer configured to access the first building automation logic through the first room unit and the communications link using the web browser interacting with the second web-server , wherein the communications link is a PL-link and wherein the first computer is adapted to connect with the first room unit through a PL-link port to access the first building automation logic through the first room unit . a building automation network including at least a first operations or monitoring device hosting a first web-server and first building automation logic, a first room unit , and a communications link between the first operations or monitoring device and the first room unit ; and a first computer hosting a web browser and a second webserver , the web browser configured to access the first building automation logic through the first web-server , the first computer configured to access the first building automation logic through the first room unit and the communications link using the web browser interacting with the second web-server , wherein the communications link is a PL-link and wherein the first computer is adapted to connect with the first room unit through a PL-link port to access the first building automation logic through the first room unit .
A resin substrate for a pillarless windshield having the longest side (S A ) fixed to car body , wherein the resin substrate is an uneven-thickness structure having viewing section with a mean thickness (d 1 ) of 3-7 mm and thick-walled section with a thickness of 1.3 times the (d 1 ) or more, and satisfies all requirements of following (a)-(d): (a) the resin substrate having thin-walled viewing section in the center, and having thick-walled sections (2B, 2C and 2D) along total three sides of (S B , S C and S D ): opposite side (S B ) of the longest side (S A ), and two sides (S C and S D ) between the ends of the longest side (S A ) and those of the opposite sides (S B ) of the longest side, (b) the viewing section and thick-walled section being made of an optically-transparent thermoplastic resin satisfying 5% or less of a haze at 6-mm thickness measured according to JISK7105, (c) the longest side (S A ) having a length (L 1 ) of 900 mm or longer and 2000 mm or shorter, (d) the thick-walled sections (2B, 2C and 2D) having mean thicknesses (d 2B , d 2C and d 2D ) each 3.0 times or less of the d 1 and an area accounting for 3-20% of a whole area of the resin substrate; characterized in that the resin substrate has a curved surface having a maximum radius of curvature of 500-5000 mm, and the resin substrate has a maximum projection area of 270,000-1,200,000 mm 2 . (a) the resin substrate having thin-walled viewing section in the center, and having thick-walled sections (2B, 2C and 2D) along total three sides of (S B , S C and S D ): opposite side (S B ) of the longest side (S A ), and two sides (S C and S D ) between the ends of the longest side (S A ) and those of the opposite sides (S B ) of the longest side, (b) the viewing section and thick-walled section being made of an optically-transparent thermoplastic resin satisfying 5% or less of a haze at 6-mm thickness measured according to JISK7105, (c) the longest side (S A ) having a length (L 1 ) of 900 mm or longer and 2000 mm or shorter, (d) the thick-walled sections (2B, 2C and 2D) having mean thicknesses (d 2B , d 2C and d 2D ) each 3.0 times or less of the d 1 and an area accounting for 3-20% of a whole area of the resin substrate;
A system for assessing the arterial health of an individual comprising: a) a fingertip photoplethysmography device for attachment to a fingertip of the hand of one arm of the individual when the one arm is at approximately the same height as the heart of the individual; said fingertip photoplethysmography device for measuring the analog pulse contour of the individual; b) an analog to digital converter for digitizing the analog pulse contour; c) a computer configured for: i) analyzing the digitized analog pulse contour for stable waveforms; ii) processing the stable waveforms of the digitized analog pulse contour; iii) comparing the stable waveforms to a library of known disease state waveforms; and iv) assigning a most probable disease state for the individual based on said comparison, characterized in that the computer is configured for identifying the stable wave forms by analyzing the digitized pulse contour for two consecutive pulse heights that are within 10% of the same value, and once a stable region has been identified, measuring and storing the next five waveforms; and further characterised in that processing the stable waveforms is made using dynamic time warping. a) a fingertip photoplethysmography device for attachment to a fingertip of the hand of one arm of the individual when the one arm is at approximately the same height as the heart of the individual; said fingertip photoplethysmography device for measuring the analog pulse contour of the individual; b) an analog to digital converter for digitizing the analog pulse contour; c) a computer configured for: i) analyzing the digitized analog pulse contour for stable waveforms; ii) processing the stable waveforms of the digitized analog pulse contour; iii) comparing the stable waveforms to a library of known disease state waveforms; and iv) assigning a most probable disease state for the individual based on said comparison, i) analyzing the digitized analog pulse contour for stable waveforms; ii) processing the stable waveforms of the digitized analog pulse contour; iii) comparing the stable waveforms to a library of known disease state waveforms; and iv) assigning a most probable disease state for the individual based on said comparison,