mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor system , comprising: a PPG sensor ; a controller for processing output signals from the PPG sensor, the controller being adapted to generate a modified pulse amplitude variation value based on deriving a baseline variation of the PPG sensor output signal; deriving a pulse amplitude variation value from the PPG sensor output signal, and performing a post-adjustment step by which modification is realized in the derived pulse amplitude variation value based on said baseline variation of the PPG sensor output signal, the step comprising: subsequent to deriving the pulse amplitude variation value, combining the derived baseline variation additively with the derived pulse amplitude variation value to thereby generate the modified pulse amplitude variation value. a PPG sensor ; a controller for processing output signals from the PPG sensor, the controller being adapted to generate a modified pulse amplitude variation value based on deriving a baseline variation of the PPG sensor output signal; deriving a pulse amplitude variation value from the PPG sensor output signal, and performing a post-adjustment step by which modification is realized in the derived pulse amplitude variation value based on said baseline variation of the PPG sensor output signal, the step comprising: subsequent to deriving the pulse amplitude variation value, combining the derived baseline variation additively with the derived pulse amplitude variation value to thereby generate the modified pulse amplitude variation value. deriving a baseline variation of the PPG sensor output signal; deriving a pulse amplitude variation value from the PPG sensor output signal, and performing a post-adjustment step by which modification is realized in the derived pulse amplitude variation value based on said baseline variation of the PPG sensor output signal, the step comprising: subsequent to deriving the pulse amplitude variation value, combining the derived baseline variation additively with the derived pulse amplitude variation value to thereby generate the modified pulse amplitude variation value.
A composition comprising: a) 40% to 75% by wt. polyol; b) 1% to 15% of a surfactant selected from the group consisting of anionic surfactants, non-ionic surfactants, amphoteric surfactants, zwitterionic surfactants, cationic surfactants and mixtures thereof; c) 0.1% to 1.5% by wt. xanthan gum; d) 10% to 50% water; and e) wherein viscosity of final composition is 2000 to 15,000 cps as measured using #5 spindle at 20 rpm for 30 seconds. a) 40% to 75% by wt. polyol; b) 1% to 15% of a surfactant selected from the group consisting of anionic surfactants, non-ionic surfactants, amphoteric surfactants, zwitterionic surfactants, cationic surfactants and mixtures thereof; c) 0.1% to 1.5% by wt. xanthan gum; d) 10% to 50% water; and e) wherein viscosity of final composition is 2000 to 15,000 cps as measured using #5 spindle at 20 rpm for 30 seconds.
A loop heat pipe comprising: an evaporator that is configured to vaporize working fluid (C); a condenser that is configured to liquefy the working fluid (Cv(C)) vaporized by the evaporator ; a liquid pipe that is configured to connect the condenser to the evaporator and includes a flow passage configured to send the working fluid (C) liquefied by the condenser to the evaporator ; and a vapor pipe that is configured to connect the evaporator to the condenser to send the working fluid (Cv(C)) vaporized by the evaporator to the condenser , the loop heat pipe being characterized in that the liquid pipe is formed by a metal layer stack of a plurality of metal layers (41-46), the plurality of metal layers (41-46) including a first metal layer through which a first through hole extends in a thickness-wise direction, the flow passage of the liquid pipe is formed by at least the first through hole and has four walls that define the flow passage , and the liquid pipe further includes a plurality of porous bodies that are configured to form at least two of the four walls of the flow passage , wherein the plurality of porous bodies include a first porous body formed in the first metal layer , and the first porous body includes: a first bottomed hole recessed in an upper surface of the first metal layer ; a second bottomed hole recessed in a lower surface of the first metal layer ; and a fine pore partially connecting the first bottomed hole and the second bottomed hole . an evaporator that is configured to vaporize working fluid (C); a condenser that is configured to liquefy the working fluid (Cv(C)) vaporized by the evaporator ; a liquid pipe that is configured to connect the condenser to the evaporator and includes a flow passage configured to send the working fluid (C) liquefied by the condenser to the evaporator ; and a vapor pipe that is configured to connect the evaporator to the condenser to send the working fluid (Cv(C)) vaporized by the evaporator to the condenser , the loop heat pipe being characterized in that the liquid pipe is formed by a metal layer stack of a plurality of metal layers (41-46), the plurality of metal layers (41-46) including a first metal layer through which a first through hole extends in a thickness-wise direction, the flow passage of the liquid pipe is formed by at least the first through hole and has four walls that define the flow passage , and the liquid pipe further includes a plurality of porous bodies that are configured to form at least two of the four walls of the flow passage , wherein the plurality of porous bodies include a first porous body formed in the first metal layer , and the first porous body includes: a first bottomed hole recessed in an upper surface of the first metal layer ; a second bottomed hole recessed in a lower surface of the first metal layer ; and a first bottomed hole recessed in an upper surface of the first metal layer ; a second bottomed hole recessed in a lower surface of the first metal layer ; and a fine pore partially connecting the first bottomed hole and the second bottomed hole .
A system for data processing with management of a cache consistency in a network of processors (μP 1 , μP 2 , ..., μP 16 ) equipped with cache memories (L2, L1 1 , L1 2 , ..., L1 16 ), said network having a main memory shared between the processors and comprising a plurality of nodes (N; 16A, 16B, 16C, 16D, 16E, 16F) for access to the main memory interconnected with one another, said system comprising: - a set of directories (18; 18A, 18B, 18C, 18D, 18E, 18F) distributed between the nodes (N; 16A, 16B, 16C, 16D, 16E, 16F) of the network , each directory comprising a table of correspondence between cache lines and information fields on said cache lines, - a first sub-network (R1) for interconnection of the nodes (N; 16A, 16B, 16C, 16D, 16E, 16F) with one another implementing a first message transmission protocol, this first protocol providing read/write access to the correspondence tables of the directories (18; 18A, 18B, 18C, 18D, 18E, 18F) during any passage, in the corresponding nodes, of a message passing through this first sub-network, and - a second sub-network (R2) for interconnection of the nodes (N; 16A, 16B, 16C, 16D, 16E, 16F) with one another, different from the first sub-network (R1), implementing a second message transmission protocol, characterized in that this second protocol excludes any read/write access to the correspondence tables of the directories (18; 18A, 18B, 18C, 18D, 18E, 18F) during any passage, in the corresponding nodes, of a message passing through this second sub-network. - a set of directories (18; 18A, 18B, 18C, 18D, 18E, 18F) distributed between the nodes (N; 16A, 16B, 16C, 16D, 16E, 16F) of the network , each directory comprising a table of correspondence between cache lines and information fields on said cache lines, - a first sub-network (R1) for interconnection of the nodes (N; 16A, 16B, 16C, 16D, 16E, 16F) with one another implementing a first message transmission protocol, this first protocol providing read/write access to the correspondence tables of the directories (18; 18A, 18B, 18C, 18D, 18E, 18F) during any passage, in the corresponding nodes, of a message passing through this first sub-network, and - a second sub-network (R2) for interconnection of the nodes (N; 16A, 16B, 16C, 16D, 16E, 16F) with one another, different from the first sub-network (R1), implementing a second message transmission protocol,
A waste heat recovery system, comprising: a Brayton cycle system comprising: a heater configured to circulate carbon dioxide vapor in heat exchange relationship with a hot fluid to heat the carbon dioxide vapor; an expander coupled to the heater and configured to expand the carbon dioxide vapor; a cooler ; a compressor configured to compress the carbon dioxide vapor fed through the cooler ; and a heat exchanger configured to circulate the carbon dioxide vapor from the expander to the cooler in heat exchange relationship with the carbon dioxide vapor from the compressor to the heater , wherein the expander and the compressor are mechanically coupled volumetric machines, characterized in that the compressor is a multi-stage compressor comprising a plurality of serially arranged compressor stages , wherein respective liquid cooled inter-stage heat exchangers are arranged between pairs of sequentially arranged compressor stages, wherein the inter-stage heat exchangers are configured to remove heat from compressed carbon dioxide vapor circulating from consecutive compressor stages; the Brayton cycle system further comprising separator drums placed downstream the inter-stage heat exchangers and adapted to separate and collect condensed cooling liquid; a pump adapted to compress the cooling liquid from the separator drums and inject the compressed liquid in the compressor stages . a heater configured to circulate carbon dioxide vapor in heat exchange relationship with a hot fluid to heat the carbon dioxide vapor; an expander coupled to the heater and configured to expand the carbon dioxide vapor; a cooler ; a compressor configured to compress the carbon dioxide vapor fed through the cooler ; and a heat exchanger configured to circulate the carbon dioxide vapor from the expander to the cooler in heat exchange relationship with the carbon dioxide vapor from the compressor to the heater , wherein the expander and the compressor are mechanically coupled volumetric machines, characterized in that the compressor is a multi-stage compressor comprising a plurality of serially arranged compressor stages , wherein respective liquid cooled inter-stage heat exchangers are arranged between pairs of sequentially arranged compressor stages, wherein the inter-stage heat exchangers are configured to remove heat from compressed carbon dioxide vapor circulating from consecutive compressor stages; the Brayton cycle system further comprising separator drums placed downstream the inter-stage heat exchangers and adapted to separate and collect condensed cooling liquid; a pump adapted to compress the cooling liquid from the separator drums and inject the compressed liquid in the compressor stages .
Vehicle opening and closing control system comprising: - a latch unit of the opening comprising a latch capable of cooperating with a fixed component on the vehicle structure; means of locking and unlocking the lock and means of detection of rotation of a key in a cylinder ; - a lock control unit intended to be connected to that lock unit in order to control lock locking and release ; is characterized by the control unit being configured to account for a latched or unlocked condition, selectively, of the latch and, in response to the spin detection of the key , to order a reversal of that lock condition. - a latch unit of the opening comprising a latch capable of cooperating with a fixed component on the vehicle structure; means of locking and unlocking the lock and means of detection of rotation of a key in a cylinder ; - a lock control unit intended to be connected to that lock unit in order to control lock locking and release ;
An air conditioner comprising: a setting unit for setting a predetermined function to be embodied with lighting; a storing unit for storing at least one illumination pattern information; a control unit for connecting the function inputted with the setting unit to an illumination pattern stored in the storing unit ; and a lighting unit to be lighted according to the illumination pattern information connected by the control unit , characterized in that the illumination pattern information includes information on a therapy illumination pattern formed based on an influence of a color to a human body, wherein the storing unit stores at least one of a first illumination pattern information on a blood circulation acceleration illumination pattern for making the lighting unit to light circulation of an orange color, a yellow color, and colors between the orange color and the yellow color in a visible light spectrum, and a second illumination pattern information on a relaxation illumination pattern for making the lighting unit to light circulation of a green color, a blue color, and colors between the green color and the blue color in the visible light spectrum. a setting unit for setting a predetermined function to be embodied with lighting; a storing unit for storing at least one illumination pattern information; a control unit for connecting the function inputted with the setting unit to an illumination pattern stored in the storing unit ; and a lighting unit to be lighted according to the illumination pattern information connected by the control unit , characterized in that the illumination pattern information includes information on a therapy illumination pattern formed based on an influence of a color to a human body, wherein the storing unit stores at least one of a first illumination pattern information on a blood circulation acceleration illumination pattern for making the lighting unit to light circulation of an orange color, a yellow color, and colors between the orange color and the yellow color in a visible light spectrum, and a second illumination pattern information on a relaxation illumination pattern for making the lighting unit to light circulation of a green color, a blue color, and colors between the green color and the blue color in the visible light spectrum.
Elongated smoking article extending in a longitudinal direction (L), comprising: a cylindrical smoking body with a combustible material surrounded by a wrapping paper ; a filter element configured to reduce substances from combustion gases drawn through the filter element from the burning smoking body , wherein a first base area of the filter element faces a base area of the smoking body and a second base area is an open base area; and a tipping paper enclosing the smoking body and the filter element and being attached to external surfaces of the smoking body and the filter element , wherein a flavoring is disposed in or on the tipping paper such that the flavoring is spaced apart from the second base area in the longitudinal direction (L), wherein a distribution of the flavoring disposed in or on the tipping paper spaced apart from the second base area varies in the longitudinal direction (L), wherein the amount and/or type of flavoring contacting a smoker's lips depends on a translational state of the elongated smoking article with respect to the longitudinal direction (L). a cylindrical smoking body with a combustible material surrounded by a wrapping paper ; a filter element configured to reduce substances from combustion gases drawn through the filter element from the burning smoking body , wherein a first base area of the filter element faces a base area of the smoking body and a second base area is an open base area; and a tipping paper enclosing the smoking body and the filter element and being attached to external surfaces of the smoking body and the filter element , wherein a flavoring is disposed in or on the tipping paper such that the flavoring is spaced apart from the second base area in the longitudinal direction (L), wherein a distribution of the flavoring disposed in or on the tipping paper spaced apart from the second base area varies in the longitudinal direction (L), wherein the amount and/or type of flavoring contacting a smoker's lips depends on a translational state of the elongated smoking article with respect to the longitudinal direction (L).
A finisher apparatus comprising: an accumulator to register a print medium of a print job in preparation for a finishing operation; memory to store a page number of the print job; and a processor coupled to the accumulator and to the memory , characterized in that the processor is configured to execute instructions, the instructions to control a speed of conveyance of the print medium by the accumulator , wherein the instructions are to reduce the speed of conveyance when the page number exceeds a threshold page number. an accumulator to register a print medium of a print job in preparation for a finishing operation; memory to store a page number of the print job; and a processor coupled to the accumulator and to the memory , characterized in that the processor is configured to execute instructions, the instructions to control a speed of conveyance of the print medium by the accumulator , wherein the instructions are to reduce the speed of conveyance when the page number exceeds a threshold page number.
A phosphor-loaded LED package comprising: an LED ; a first layer comprising a blend of phosphor and silicone overlaying the LED, and wherein the blend comprises at least K 2 SiF 6 :Mn 4+ phosphor; wherein the blend comprises a phosphor to silicone weight ratio of at least 20%, and wherein the package further comprises an overlayer on the first layer, the overlayer comprising silicone, wherein the overlayer has a thickness of about 0.1 mm or greater, and wherein the overlayer is made of the same silicone as in the blend of the first layer. an LED ; a first layer comprising a blend of phosphor and silicone overlaying the LED, and wherein the blend comprises at least K 2 SiF 6 :Mn 4+ phosphor; wherein the blend comprises a phosphor to silicone weight ratio of at least 20%, and wherein the package further comprises an overlayer on the first layer, the overlayer comprising silicone, wherein the overlayer has a thickness of about 0.1 mm or greater, and wherein the overlayer is made of the same silicone as in the blend of the first layer.
Non-hydraulic electromotive drive for a panel, in particular a swinging panel, of a door or a window, comprising a housing , an output spindle which is rotatably mounted in the housing and is couplable to the door panel or window panel or to a fixed frame , a motor for driving the output spindle , a spring unit which is tensioned during a respective opening movement of the door panel or window panel and is relieved of tension during a respective closing movement of the door panel or window panel in order to provide a closing moment, and a control device for actuating the motor , characterized in that the control device is designed such that a corresponding actuation of the motor during a respective opening movement of the door panel or window panel generates a base torque, which at least substantially compensates the respective spring force, which depends on the opening angle, of the spring unit , and at least in the case in which the door panel or window panel is manually opened and a corresponding opening command is supplied to the control device , an additional opening torque (Tz) is generated, wherein the control device is designed such that the additional opening torque (Tz) generated in the event of a manual opening operation and an existing opening command is controlled in open-loop or closed-loop fashion depending on the opening velocity (v) of the door panel or window panel .
A method for receiving carrier information, comprising: receiving , by a communication device, indication information from a network device, wherein the indication information comprises information about a first offset value, and the first offset value comprises 7.5 KHz; and obtaining , by the communication device, a second frequency of a carrier based on an absolute radio frequency channel number, wherein a relationship between the absolute radio frequency channel number and the second frequency is given by a formula: F UL =F UL_low +Y ∗ (N UL -N Offs-UL ), where F UL is the second frequency which is an original uplink carrier center frequency or a uplink carrier center frequency before shifted, N UL is the absolute radio frequency channel number, F UL_low is a lowest frequency value in an NR frequency range, N Offs-UL is an offset value in the NR frequency range, and Y is determined based on NR channel raster; and obtaining , by the communication device, a first frequency of the carrier with shifting the second frequency by the first offset value, wherein the first frequency is an actual carrier center frequency or a carrier center frequency after shifted. receiving , by a communication device, indication information from a network device, wherein the indication information comprises information about a first offset value, and the first offset value comprises 7.5 KHz; and obtaining , by the communication device, a second frequency of a carrier based on an absolute radio frequency channel number, wherein a relationship between the absolute radio frequency channel number and the second frequency is given by a formula: F UL =F UL_low +Y ∗ (N UL -N Offs-UL ), where F UL is the second frequency which is an original uplink carrier center frequency or a uplink carrier center frequency before shifted, N UL is the absolute radio frequency channel number, F UL_low is a lowest frequency value in an NR frequency range, N Offs-UL is an offset value in the NR frequency range, and Y is determined based on NR channel raster; and obtaining , by the communication device, a first frequency of the carrier with shifting the second frequency by the first offset value, wherein the first frequency is an actual carrier center frequency or a carrier center frequency after shifted.
A waste sorting process for separating used absorbent articles from a general waste stream, the process comprising the steps of: providing a packaged product comprising an outer package, a plurality of absorbent articles and a first disposal bag, wherein the plurality of absorbent articles and the first disposal bag are contained within the outer package; using absorbent articles and placing the used absorbent articles within the first disposal bag, wherein the first disposal bag comprises an identifying code or an identifying colour; collecting first disposal bags containing used absorbent articles and collecting second disposal bags containing other waste to provide a mixed waste stream; and transporting the bags of the mixed waste stream to a waste sorting facility; in the waste sorting facility, identifying the first disposal bags and separating the first from the second disposal bags so that the first disposal bag containing the used absorbent articles is recovered; subsequently processing, preferably subsequently recycling, the used absorbent articles. providing a packaged product comprising an outer package, a plurality of absorbent articles and a first disposal bag, wherein the plurality of absorbent articles and the first disposal bag are contained within the outer package; using absorbent articles and placing the used absorbent articles within the first disposal bag, wherein the first disposal bag comprises an identifying code or an identifying colour; collecting first disposal bags containing used absorbent articles and collecting second disposal bags containing other waste to provide a mixed waste stream; and transporting the bags of the mixed waste stream to a waste sorting facility; in the waste sorting facility, identifying the first disposal bags and separating the first from the second disposal bags so that the first disposal bag containing the used absorbent articles is recovered; subsequently processing, preferably subsequently recycling, the used absorbent articles.