mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a pigmented powder coating comprising: blending (a) a first dispersion comprising a fluoropolymer, whereby the fluoropolymer dispersion is not a latex dispersion; and (b) a second dispersion comprising a pigment; and drying the blend of step 1. blending (a) a first dispersion comprising a fluoropolymer, whereby the fluoropolymer dispersion is not a latex dispersion; and (b) a second dispersion comprising a pigment; and drying the blend of step 1.
A method of controlling aerosol production in an aerosol-generating device, the device comprising: a heater comprising at least one heating element; an aerosol-forming substrate located such that it can be heated by the heating element and a power source for providing power to the heating element; the method comprising the steps of: providing a period of gas flow over the aerosol-forming substrate, the gas flow rate varying during the period of gas flow, providing power to the heating element such that the aerosol-forming substrate is heated and volatile components of the aerosol-forming substrate are entrained in the gas flow, thereby forming an entrained gas flow, and allowing the entrained gas flow to cool such that the volatile components condense and form an aerosol, in which the power provided to the heating element during the period of gas flow is controlled such that mixing efficiency of the volatile components in the entrained gas flow and/or cooling rate of the volatile components in the entrained gas flow are maintained at a substantially steady state during the period of gas flow. a heater comprising at least one heating element; an aerosol-forming substrate located such that it can be heated by the heating element and a power source for providing power to the heating element; the method comprising the steps of: providing a period of gas flow over the aerosol-forming substrate, the gas flow rate varying during the period of gas flow, providing power to the heating element such that the aerosol-forming substrate is heated and volatile components of the aerosol-forming substrate are entrained in the gas flow, thereby forming an entrained gas flow, and allowing the entrained gas flow to cool such that the volatile components condense and form an aerosol, in which the power provided to the heating element during the period of gas flow is controlled such that mixing efficiency of the volatile components in the entrained gas flow and/or cooling rate of the volatile components in the entrained gas flow are maintained at a substantially steady state during the period of gas flow. providing a period of gas flow over the aerosol-forming substrate, the gas flow rate varying during the period of gas flow, providing power to the heating element such that the aerosol-forming substrate is heated and volatile components of the aerosol-forming substrate are entrained in the gas flow, thereby forming an entrained gas flow, and allowing the entrained gas flow to cool such that the volatile components condense and form an aerosol, in which the power provided to the heating element during the period of gas flow is controlled such that mixing efficiency of the volatile components in the entrained gas flow and/or cooling rate of the volatile components in the entrained gas flow are maintained at a substantially steady state during the period of gas flow.
A system for the continuous tracking of blood glucose variability in diabetes in a subject, said system comprising: an acquisition module configured to acquire a plurality of blood glucose values over a specified time interval; and a processor, wherein the processor is programmed to: compute blood glucose variability by transforming the acquired blood glucose values into a data point in a variability grid analysis, which data point represents an average Low Blood Glucose Index (LBGI) value and an average High Blood Glucose Index (HBGI) value for the subject; and provide an output including: an area of optimal glucose control on a graph; areas indicating risk for hyperglycemia and hypoglycemia on the graph; and the average LBGI value and the average HBGI value on the graph in the form of a data point, the graph having a coordinate system representing hypoglycemic risk along a first axis of said graph and hyperglycemic risk along a second axis of said graph, wherein the location of the data point in said coordinate system represents a risk of hyperglycemia and hypoglycemia for said subject. an acquisition module configured to acquire a plurality of blood glucose values over a specified time interval; and a processor, wherein the processor is programmed to: compute blood glucose variability by transforming the acquired blood glucose values into a data point in a variability grid analysis, which data point represents an average Low Blood Glucose Index (LBGI) value and an average High Blood Glucose Index (HBGI) value for the subject; and provide an output including: an area of optimal glucose control on a graph; areas indicating risk for hyperglycemia and hypoglycemia on the graph; and the average LBGI value and the average HBGI value on the graph in the form of a data point, the graph having a coordinate system representing hypoglycemic risk along a first axis of said graph and hyperglycemic risk along a second axis of said graph, compute blood glucose variability by transforming the acquired blood glucose values into a data point in a variability grid analysis, which data point represents an average Low Blood Glucose Index (LBGI) value and an average High Blood Glucose Index (HBGI) value for the subject; and provide an output including: an area of optimal glucose control on a graph; areas indicating risk for hyperglycemia and hypoglycemia on the graph; and the average LBGI value and the average HBGI value on the graph in the form of a data point, the graph having a coordinate system representing hypoglycemic risk along a first axis of said graph and hyperglycemic risk along a second axis of said graph, an area of optimal glucose control on a graph; areas indicating risk for hyperglycemia and hypoglycemia on the graph; and the average LBGI value and the average HBGI value on the graph in the form of a data point, the graph having a coordinate system representing hypoglycemic risk along a first axis of said graph and hyperglycemic risk along a second axis of said graph, wherein the location of the data point in said coordinate system represents a risk of hyperglycemia and hypoglycemia for said subject.
A method for a common message, comprising: acquiring, by a first terminal, a common message transmission period corresponding to the first terminal and a start time instance of the common message transmission time instances corresponding to the first terminal based on radio resource control, RRC, signaling; determining common message transmission time instances X corresponding to the first terminal, wherein the common message transmission time instances X corresponding to the first terminal are a part of time instances of cell common message transmission time instances; and receiving a common message at the common message transmission time instances X corresponding to the first terminal, wherein a bandwidth of frequency resources used for sending the common message by the base station is no larger than a data processing bandwidth that the first terminal is capable of supporting, the common message transmission time instances X satisfies the following formulas: radio frame index of X mod T = N subframe index in radio frame of X = S wherein T is the common message transmission period corresponding to the first terminal, N is the start radio frame time instance of the common message transmission time instances corresponding to the first terminal, S is the start subframe time instance of the common message transmission time instances corresponding to the first terminal, and mod is modulus operation. acquiring, by a first terminal, a common message transmission period corresponding to the first terminal and a start time instance of the common message transmission time instances corresponding to the first terminal based on radio resource control, RRC, signaling; determining common message transmission time instances X corresponding to the first terminal, wherein the common message transmission time instances X corresponding to the first terminal are a part of time instances of cell common message transmission time instances; and receiving a common message at the common message transmission time instances X corresponding to the first terminal, wherein a bandwidth of frequency resources used for sending the common message by the base station is no larger than a data processing bandwidth that the first terminal is capable of supporting, the common message transmission time instances X satisfies the following formulas: radio frame index of X mod T = N subframe index in radio frame of X = S wherein T is the common message transmission period corresponding to the first terminal, N is the start radio frame time instance of the common message transmission time instances corresponding to the first terminal, S is the start subframe time instance of the common message transmission time instances corresponding to the first terminal, and mod is modulus operation.
An infrared solid-state image pickup apparatus, comprising: an SOI substrate having a silicon oxide film layer and an SOI layer on a silicon substrate; a detecting portion, which is provided with a PN junction diode formed in the SOI layer, for converting a temperature change generated by an incident infrared ray to an electric signal; and a support that holds the detecting portion with a space from the silicon substrate of the SOI substrate, wherein the PN junction diode is constituted by a P + type semiconductor layer and an N - type semiconductor layer (322, 323) or a P - type semiconductor layer and an N + type semiconductor layer, an insulating film is formed on the SOI layer, and a separation oxide film is formed around the PN junction diode, wherein the P + type semiconductor layer and the N type semiconductor layer (322, 323) or the P type semiconductor layer and the N + type semiconductor layer have respective interfaces with said silicon oxide film layer, said insulating film and said separation oxide film, characterized in that a concentration of an N type or P type impurity in the N - type or P - type semiconductor layer, respectively, is higher in vicinities of the interface between the N - type or P - type semiconductor layer and the silicon oxide film layer and in vicinities of the interface between the N - type or P - type semiconductor layer and the insulating film than in a central portion of the N - type or P - type semiconductor layer. an SOI substrate having a silicon oxide film layer and an SOI layer on a silicon substrate; a detecting portion, which is provided with a PN junction diode formed in the SOI layer, for converting a temperature change generated by an incident infrared ray to an electric signal; and a support that holds the detecting portion with a space from the silicon substrate of the SOI substrate, wherein the PN junction diode is constituted by a P + type semiconductor layer and an N - type semiconductor layer (322, 323) or a P - type semiconductor layer and an N + type semiconductor layer, an insulating film is formed on the SOI layer, and a separation oxide film is formed around the PN junction diode, wherein the P + type semiconductor layer and the N type semiconductor layer (322, 323) or the P type semiconductor layer and the N + type semiconductor layer have respective interfaces with said silicon oxide film layer, said insulating film and said separation oxide film, characterized in that a concentration of an N type or P type impurity in the N - type or P - type semiconductor layer, respectively, is higher in vicinities of the interface between the N - type or P - type semiconductor layer and the silicon oxide film layer and in vicinities of the interface between the N - type or P - type semiconductor layer and the insulating film than in a central portion of the N - type or P - type semiconductor layer.
Assembly kit comprising components of a hydropneumatic device with a pressure ratio for providing a hydropneumatic device, which comprises an intensifier part (9, 12, 20) and a working part (8, 13, 19) which is hydraulically connected thereto via a connecting section, characterised in that the kit comprises a plurality of different types of intensifier part (9, 12, 20) and at least one type of working part (8, 13, 19) and also a set of types of adapter component (11, 11a, 11b, 21), wherein a hydraulic connection of any type of intensifier part (9, 12, 20) to the at least one type of working part (8,13,19) can be formed by means of a matching type of adapter component (11, 11a, 11b, 21) from the set of types of adapter components (11, 11a, 11b, 21), wherein an adapter component (11, 11a, 11b, 21) is designed as an essentially rigid component.
A pellicle, comprising: a pellicle frame in a frame shape as an element, the pellicle frame having an upper end face to arrange a pellicle film thereon and a lower end face to face a photomask, and a notched part being provided from an outer side face toward an inner side face of the lower end face, wherein the notched part is formed from the outer side face up to the inner side face, and wherein the height of the notched part is 30% or less of the thickness of the pellicle frame, and wherein the notched part is a ventilation part. a pellicle frame in a frame shape as an element, the pellicle frame having an upper end face to arrange a pellicle film thereon and a lower end face to face a photomask, and a notched part being provided from an outer side face toward an inner side face of the lower end face, wherein the notched part is formed from the outer side face up to the inner side face, and wherein the height of the notched part is 30% or less of the thickness of the pellicle frame, and wherein the notched part is a ventilation part.
Connector device for connecting optical fibers to each other, comprising a first connector part comprising a first outer housing and a first sub-assembly (21, 21') accommodated in the first outer housing, the first sub-assembly (21, 21') comprising a first ferrule (22, 22') and a first latch member configured for fastening the first sub-assembly (21, 21') to the first outer housing; and a second connector part comprising a second outer housing, the second outer housing configured to mate the first outer housing in a state of coupling of the first connector part to the second connector part and a second sub-assembly accommodated in the second outer housing, the second sub-assembly comprising a second ferrule and a second latch member configured for fastening the second sub-assembly to the second outer housing; and characterized in that the first outer housing comprises a locking means for locking and unlocking a coupling of the first outer housing to the second outer housing and for locking and unlocking a coupling of the first outer housing to the first sub-assembly (21, 21'). a first connector part comprising a first outer housing and a first sub-assembly (21, 21') accommodated in the first outer housing, the first sub-assembly (21, 21') comprising a first ferrule (22, 22') and a first latch member configured for fastening the first sub-assembly (21, 21') to the first outer housing; and a second connector part comprising a second outer housing, the second outer housing configured to mate the first outer housing in a state of coupling of the first connector part to the second connector part and a second sub-assembly accommodated in the second outer housing, the second sub-assembly comprising a second ferrule and a second latch member configured for fastening the second sub-assembly to the second outer housing; and characterized in that the first outer housing comprises a locking means for locking and unlocking a coupling of the first outer housing to the second outer housing and for locking and unlocking a coupling of the first outer housing to the first sub-assembly (21, 21').
A method (500; 600) of providing assistance to a user when capturing a stereoscopic image with an imaging sensor, comprising: capturing (512; 610) a first image through the imaging sensor; displaying a horizontal directional (526; 660) indicator on an electronic display wherein the horizontal directional indicator indicates a horizontal direction to move the imaging sensor; capturing (565; 645) a second image through the imaging sensor; and generating a stereoscopic image based on the first image and the second image; characterised by: displaying (518, 522; 620, 630) an upper half of either the first image or a live preview image from the imaging sensor on an upper half of an electronic display; and displaying (518, 522; 620, 630) a lower half of either the live preview image from the imaging sensor or the first image on a lower half of the electronic display, wherein the displaying of the upper half and the lower half displays one half of each of the first image and the live preview image on the electronic display. capturing (512; 610) a first image through the imaging sensor; displaying a horizontal directional (526; 660) indicator on an electronic display wherein the horizontal directional indicator indicates a horizontal direction to move the imaging sensor; capturing (565; 645) a second image through the imaging sensor; and generating a stereoscopic image based on the first image and the second image; characterised by: displaying (518, 522; 620, 630) an upper half of either the first image or a live preview image from the imaging sensor on an upper half of an electronic display; and displaying (518, 522; 620, 630) a lower half of either the live preview image from the imaging sensor or the first image on a lower half of the electronic display, wherein the displaying of the upper half and the lower half displays one half of each of the first image and the live preview image on the electronic display. displaying (518, 522; 620, 630) an upper half of either the first image or a live preview image from the imaging sensor on an upper half of an electronic display; and displaying (518, 522; 620, 630) a lower half of either the live preview image from the imaging sensor or the first image on a lower half of the electronic display, wherein the displaying of the upper half and the lower half displays one half of each of the first image and the live preview image on the electronic display.
An oil containment recovery dome for use in conjunction with an oil or gas well, wherein the oil containment recovery dome comprises: an upper containment portion having an enclosure defined therein that is adapted to receive equipment used in conjunction with the oil or gas well and to retain therein oil or gas that escapes from the well, wherein at least part of the upper containment portion has a geodesic shape; and characterised in that the upper containment portion comprises an inner dome section and an outer dome section, wherein the inner dome section is attached to the outer dome section and wherein the inner dome section and the outer dome section each have a frame assembly that comprises: a plurality of elongated elements; and a plurality of connectors that interconnect the plurality of elongated elements to form an array; an inner cover material that extends over at least a portion of the upper containment portion, wherein the inner cover material is impermeable to at least one of oil and gas; at least one conduit attached to the upper containment portion for removing oil or gas from the enclosure; and at least one bladder attached to the upper containment portion. an upper containment portion having an enclosure defined therein that is adapted to receive equipment used in conjunction with the oil or gas well and to retain therein oil or gas that escapes from the well, wherein at least part of the upper containment portion has a geodesic shape; and characterised in that the upper containment portion comprises an inner dome section and an outer dome section, wherein the inner dome section is attached to the outer dome section and wherein the inner dome section and the outer dome section each have a frame assembly that comprises: a plurality of elongated elements; and a plurality of connectors that interconnect the plurality of elongated elements to form an array; a plurality of elongated elements; and a plurality of connectors that interconnect the plurality of elongated elements to form an array; an inner cover material that extends over at least a portion of the upper containment portion, wherein the inner cover material is impermeable to at least one of oil and gas; at least one conduit attached to the upper containment portion for removing oil or gas from the enclosure; and at least one bladder attached to the upper containment portion.
An enzyme electrode having improved heat resistance, comprising: an electrode; and a detection layer that is in contact with the electrode and comprises an oxidoreductase, a water-soluble conductive polymer, and conductive particles, wherein electrons are transferred between the enzyme and the electrode by direct electron transfer in the detection layer, and wherein the oxidoreductase is a glucose dehydrogenase containing a cytochrome subunit; and wherein the water-soluble conductive polymer is polyaniline sulfonic acid and wherein the oxidoreductase is surrounded by the polymer. an electrode; and a detection layer that is in contact with the electrode and comprises an oxidoreductase, a water-soluble conductive polymer, and conductive particles, wherein electrons are transferred between the enzyme and the electrode by direct electron transfer in the detection layer, and wherein the oxidoreductase is a glucose dehydrogenase containing a cytochrome subunit; and wherein the water-soluble conductive polymer is polyaniline sulfonic acid and wherein the oxidoreductase is surrounded by the polymer.
A method for adsorbing and extracting or complexing and extracting water-binding organic lipophilic turbidity-inducing agents of aqueously refined lipid phases, characterized by a) providing a lipid phase containing water-binding organic lipophilic turbidity-inducing agents, the lipid phase having been subjected to at least one aqueous refining with a neutral or basic solution, b) admixing an adsorption agent and/or a complexing agent with the lipid phase from step a), c) separating the adsorbed or complexed water-binding organic lipophilic turbidity-inducing agents from step b) by means of a phase separation, wherein the adsorption agent is cellulose, a cellulose derivative or a phyllosilicate and the complexing agent is aluminum ions or iron ions which are present in an aqueous solution. a) providing a lipid phase containing water-binding organic lipophilic turbidity-inducing agents, the lipid phase having been subjected to at least one aqueous refining with a neutral or basic solution, b) admixing an adsorption agent and/or a complexing agent with the lipid phase from step a), c) separating the adsorbed or complexed water-binding organic lipophilic turbidity-inducing agents from step b) by means of a phase separation,
A computer-implemented method comprising: determining a location of a head mounted display, HMD, of a user; defining a location of a joint based on a predetermined distance from the location of the HMD; defining a segment from the joint; defining a location of a virtual controller in a virtual environment based on an end of the segment; and translating a physical controller orientation into a virtual location and virtual orientation of the virtual controller in the virtual environment based on the segment and the joint. determining a location of a head mounted display, HMD, of a user; defining a location of a joint based on a predetermined distance from the location of the HMD; defining a segment from the joint; defining a location of a virtual controller in a virtual environment based on an end of the segment; and translating a physical controller orientation into a virtual location and virtual orientation of the virtual controller in the virtual environment based on the segment and the joint.