mhurhangee/patent-ind-claim-en huggingface dataset:
Method for imaging a sample with a microscope , wherein a focal plane of the sample is being focused with the microscope and this focal plane is being sequentially illuminated in a plurality of phases with structured illumination light and sample light emitted and/or scattered by the sample is being recorded with a detector for each phase into a corresponding single image in such a way that from the single images a resulting image with an increased resolution can be reconstructed, wherein a second focal plane which is different from the first focal plane is being focused with the microscope and single images are being recorded in different illumination phases for the this second focal plane as well, characterized in that from the single images of the two focal planes a resulting image is being reconstructed which represents a sample plane being situated between these focal planes, that the spacing of the two focal planes between which the additional sample plane is situated is smaller than the smallest axial spacing which can be resolved by the microscope and larger than half of this smallest resolvable axial spacing and that for the reconstruction of the resulting image at least one solution of a set of equations is being approximatively determined which describes the interaction of the light structure with optical properties of the sample and with the point spread function of the microscope both in the focal planes and in the sample plane being situated between the focal planes. wherein a focal plane of the sample is being focused with the microscope and this focal plane is being sequentially illuminated in a plurality of phases with structured illumination light and sample light emitted and/or scattered by the sample is being recorded with a detector for each phase into a corresponding single image in such a way that from the single images a resulting image with an increased resolution can be reconstructed, wherein a second focal plane which is different from the first focal plane is being focused with the microscope and single images are being recorded in different illumination phases for the this second focal plane as well, characterized in that from the single images of the two focal planes a resulting image is being reconstructed which represents a sample plane being situated between these focal planes, that the spacing of the two focal planes between which the additional sample plane is situated is smaller than the smallest axial spacing which can be resolved by the microscope and larger than half of this smallest resolvable axial spacing and that for the reconstruction of the resulting image at least one solution of a set of equations is being approximatively determined which describes the interaction of the light structure with optical properties of the sample and with the point spread function of the microscope both in the focal planes and in the sample plane being situated between the focal planes.
A welding-type system , comprising: a welding-type power supply configured to generate output power for an arc welding process; and a controller configured to: calculate a representative duration of a plurality of short circuit events during the arc welding process, wherein each short circuit event comprises a transitional phase (P1; AP1), an intermediate phase (P2; P2A, P2B), and an end phase (P3; AP3); characterised in that the controller is configured to calculate a sum of a duration of the transitional phase (P1), a duration of the intermediate phase (P2; P2A, P2B), and a duration of a ramp down time from a target current (96; 96, 100) of the intermediate phase to a target current of the end phase associated with a given short circuit event; and control the welding-type power supply to adjust a duration of the transitional phase, the intermediate phase or the ramp down time associated with the given short circuit event such that the sum is within the threshold range of the representative duration, and to maintain a duration of the end phase less than a predetermined value. a welding-type power supply configured to generate output power for an arc welding process; and a controller configured to: calculate a representative duration of a plurality of short circuit events during the arc welding process, wherein each short circuit event comprises a transitional phase (P1; AP1), an intermediate phase (P2; P2A, P2B), and an end phase (P3; AP3); characterised in that the controller is configured to calculate a sum of a duration of the transitional phase (P1), a duration of the intermediate phase (P2; P2A, P2B), and a duration of a ramp down time from a target current (96; 96, 100) of the intermediate phase to a target current of the end phase associated with a given short circuit event; and control the welding-type power supply to adjust a duration of the transitional phase, the intermediate phase or the ramp down time associated with the given short circuit event such that the sum is within the threshold range of the representative duration, and to maintain a duration of the end phase less than a predetermined value. calculate a representative duration of a plurality of short circuit events during the arc welding process, wherein each short circuit event comprises a transitional phase (P1; AP1), an intermediate phase (P2; P2A, P2B), and an end phase (P3; AP3); characterised in that the controller is configured to calculate a sum of a duration of the transitional phase (P1), a duration of the intermediate phase (P2; P2A, P2B), and a duration of a ramp down time from a target current (96; 96, 100) of the intermediate phase to a target current of the end phase associated with a given short circuit event; and control the welding-type power supply to adjust a duration of the transitional phase, the intermediate phase or the ramp down time associated with the given short circuit event such that the sum is within the threshold range of the representative duration, and to maintain a duration of the end phase less than a predetermined value.
A system for washing a plurality of fluid samples respectively located within a plurality of cuvettes , comprising: a rotor configured to rotate the plurality of cuvettes about an axis, the rotor including a plurality of sections , each section including a plurality of apertures and angled from an outer diameter of the rotor to an inner diameter or the rotor , wherein the plurality of apertures within each section are configured to hold an individual cuvette and form an arc from an end of the respective section located at the outer diameter of the rotor to an opposite end of the section located at the inner diameter of the rotor ; a traveler mechanism located beneath the rotor , the traveler mechanism including a plurality of magnets positioned in an arc that corresponds to the arc of the plurality of apertures that are located on the rotor and configured to move the plurality of magnets parallel to the axis of rotation of the rotor to position the plurality of magnets so that each cuvette of a single section of the plurality of sections is located adjacent to at least one magnet of the plurality of magnets ; and a wash system located above the rotor , the wash system configured to at least one of inject fluid into or aspirate fluid from the cuvettes of the single section, while the plurality of magnets suspend magnetic particles located within each of the cuvettes of the single section. a rotor configured to rotate the plurality of cuvettes about an axis, the rotor including a plurality of sections , each section including a plurality of apertures and angled from an outer diameter of the rotor to an inner diameter or the rotor , wherein the plurality of apertures within each section are configured to hold an individual cuvette and form an arc from an end of the respective section located at the outer diameter of the rotor to an opposite end of the section located at the inner diameter of the rotor ; a traveler mechanism located beneath the rotor , the traveler mechanism including a plurality of magnets positioned in an arc that corresponds to the arc of the plurality of apertures that are located on the rotor and configured to move the plurality of magnets parallel to the axis of rotation of the rotor to position the plurality of magnets so that each cuvette of a single section of the plurality of sections is located adjacent to at least one magnet of the plurality of magnets ; and a wash system located above the rotor , the wash system configured to at least one of inject fluid into or aspirate fluid from the cuvettes of the single section, while the plurality of magnets suspend magnetic particles located within each of the cuvettes of the single section.
A diesel fuel composition comprising: a. a renewable paraffinic diesel component at most 95 vol-% of the total diesel fuel composition volume, the renewable paraffinic diesel component comprising paraffins in the range of carbon number C15-C18 at least 70 wt-% of the total weight of paraffins in the renewable paraffinic diesel component; and b. di-glycerol tert-butyl ether (di-GTBE) at least 5 vol-% of the total diesel fuel composition volume. a. a renewable paraffinic diesel component at most 95 vol-% of the total diesel fuel composition volume, the renewable paraffinic diesel component comprising paraffins in the range of carbon number C15-C18 at least 70 wt-% of the total weight of paraffins in the renewable paraffinic diesel component; and b. di-glycerol tert-butyl ether (di-GTBE) at least 5 vol-% of the total diesel fuel composition volume.
A positive electrode material for a secondary battery, comprising a positive electrode active material , and a coating layer disposed on a surface of the positive electrode active material , wherein the positive active electrode material includes a composite oxide containing lithium, nickel, cobalt and manganese, and characterized in that the coating layer comprises: a p-type semiconductor material that is an ionic crystal and disposed on the surface of the positive electrode active material , and an n-type semiconductor material that is an ionic crystal and disposed on the surface of the positive electrode active material . a p-type semiconductor material that is an ionic crystal and disposed on the surface of the positive electrode active material , and an n-type semiconductor material that is an ionic crystal and disposed on the surface of the positive electrode active material .
Cooling apparatus comprising: a fluid reservoir substantially in the shape of a distorted S-curve as viewed in a side or profile view for holding in use a fluid to be cooled, the reservoir having a head region and a body region below the head region each arranged to contain the fluid to be cooled, the fluid reservoir being arranged such that a cross-sectional area of the reservoir decreases by tapering as a function of distance from the head region to the body region over at least a portion of the distance from the head region to the body region ; a heat exchange portion arranged in use in thermal communication with the fluid in the body region to allow thermal transfer between the heat exchange portion and the fluid in the body region ; and a cold store portion configured in use to permit cooling means to cool the fluid in the head region . a fluid reservoir substantially in the shape of a distorted S-curve as viewed in a side or profile view for holding in use a fluid to be cooled, the reservoir having a head region and a body region below the head region each arranged to contain the fluid to be cooled, the fluid reservoir being arranged such that a cross-sectional area of the reservoir decreases by tapering as a function of distance from the head region to the body region over at least a portion of the distance from the head region to the body region ; a heat exchange portion arranged in use in thermal communication with the fluid in the body region to allow thermal transfer between the heat exchange portion and the fluid in the body region ; and a cold store portion configured in use to permit cooling means to cool the fluid in the head region .
An electrically operated smoking device configured to receive a smoking article , comprising: a housing defining a cavity for at least partially receiving the smoking article; and a sensing system for detecting indicia on the smoking article, the sensing system positioned on a periphery of the cavity and comprising a light source , an image detector , and a plurality of microlenses positioned on the image detector. a housing defining a cavity for at least partially receiving the smoking article; and a sensing system for detecting indicia on the smoking article, the sensing system positioned on a periphery of the cavity and comprising a light source , an image detector , and a plurality of microlenses positioned on the image detector.
A display device comprising: a substrate ; a pixel (SP) including a driving thin film transistor (T2) on the substrate ; a first planarization layer covering the pixel (SP); a concave portion in the first planarization layer ; a light emitting diode in the concave portion , the light emitting diode including a first electrode (E1) and a second electrode (E2); a second planarization layer on the first planarization layer ; a pixel electrode (AE) electrically connected to the driving thin film transistor (T2) and the first electrode (E1) of the light emitting diode ; and a common electrode (CE) electrically connected to the second electrode (E2) of the light emitting diode , wherein the pixel electrode (AE) is on the second planarization layer , wherein the light emitting diode is surrounded by the first planarization layer and the second planarization layer , and wherein the second planarization layer covers the light emitting diode device except for an area of a first electrode contact hole (ECH1) through which the first electrode (E1) is electrically connected to the pixel electrode (AE) and an area of a second electrode contact hole (ECH2) through which the second electrode (E2) is electrically connected to the common electrode (CE). a substrate ; a pixel (SP) including a driving thin film transistor (T2) on the substrate ; a first planarization layer covering the pixel (SP); a concave portion in the first planarization layer ; a light emitting diode in the concave portion , the light emitting diode including a first electrode (E1) and a second electrode (E2); a second planarization layer on the first planarization layer ; a pixel electrode (AE) electrically connected to the driving thin film transistor (T2) and the first electrode (E1) of the light emitting diode ; and a common electrode (CE) electrically connected to the second electrode (E2) of the light emitting diode , wherein the pixel electrode (AE) is on the second planarization layer , wherein the light emitting diode is surrounded by the first planarization layer and the second planarization layer , and wherein the second planarization layer covers the light emitting diode device except for an area of a first electrode contact hole (ECH1) through which the first electrode (E1) is electrically connected to the pixel electrode (AE) and an area of a second electrode contact hole (ECH2) through which the second electrode (E2) is electrically connected to the common electrode (CE).
A carbon film formed from a carbon nanotube assembly, a pore distribution curve of the carbon film indicating a relationship between a pore size and a Log differential pore capacity obtained from an adsorption isotherm at 77 K of liquid nitrogen based on the Barrett-Joyner-Halenda method having a peak in which the Log differential pore capacity is maximized within a pore size range of 10 nm or more and 100 nm or less, and a value of the Log differential pore capacity at the peak being 1.2 cm 3 /g or more. a pore distribution curve of the carbon film indicating a relationship between a pore size and a Log differential pore capacity obtained from an adsorption isotherm at 77 K of liquid nitrogen based on the Barrett-Joyner-Halenda method having a peak in which the Log differential pore capacity is maximized within a pore size range of 10 nm or more and 100 nm or less, and a value of the Log differential pore capacity at the peak being 1.2 cm 3 /g or more.
A power conversion apparatus for controlling a load apparatus by position sensorless control, the power conversion apparatus comprising: a saliency ratio estimation unit , characterized in that the saliency ratio estimation unit including a saliency ratio reference table holding a saliency ratio estimated value corresponding to a current command ( i * d ) on a d-axis of a rotor coordinate system and a current command ( i * q ) on a q-axis of the rotor coordinate system, the saliency ratio estimation unit being configured to refer to the saliency ratio reference table based on the current command on the d-axis and the current command on the q-axis to output the saliency ratio estimated value ( L dq ^); and a saliency ratio control unit configured to output a current component (Δ i d ) that increases or decreases a current command value on the d-axis, based on a deviation between the saliency ratio estimated value and a predetermined saliency ratio. a saliency ratio estimation unit , characterized in that the saliency ratio estimation unit including a saliency ratio reference table holding a saliency ratio estimated value corresponding to a current command ( i * d ) on a d-axis of a rotor coordinate system and a current command ( i * q ) on a q-axis of the rotor coordinate system, the saliency ratio estimation unit being configured to refer to the saliency ratio reference table based on the current command on the d-axis and the current command on the q-axis to output the saliency ratio estimated value ( L dq ^); and a saliency ratio control unit configured to output a current component (Δ i d ) that increases or decreases a current command value on the d-axis, based on a deviation between the saliency ratio estimated value and a predetermined saliency ratio. the saliency ratio estimation unit being configured to refer to the saliency ratio reference table based on the current command on the d-axis and the current command on the q-axis to output the saliency ratio estimated value ( L dq ^); and a saliency ratio control unit configured to output a current component (Δ i d ) that increases or decreases a current command value on the d-axis, based on a deviation between the saliency ratio estimated value and a predetermined saliency ratio.
A plasma atomization metal powder manufacturing process comprising: providing a heated metal source; aligning the heated metal source with a plasma of at least one plasma source, the aligning comprising positioning the heated metal source within at most 5 centimeters from an outlet nozzle of the at least one plasma source; and contacting said heated metal source with the plasma of the at least one plasma source under conditions effective for causing atomization of said heated metal source, wherein said atomization is carried out by using a total gas to metal mass ratio of less than about 20, wherein said ratio refers to the mass per unit of time (Kg/s) of gas injected for the mass rate (Kg/s) of metal source to the atomization zone, thereby at least 80% of the obtained powder has a particle size distribution of about 0-106μm, measured according to ASTM B214. providing a heated metal source; aligning the heated metal source with a plasma of at least one plasma source, the aligning comprising positioning the heated metal source within at most 5 centimeters from an outlet nozzle of the at least one plasma source; and contacting said heated metal source with the plasma of the at least one plasma source under conditions effective for causing atomization of said heated metal source, wherein said atomization is carried out by using a total gas to metal mass ratio of less than about 20, wherein said ratio refers to the mass per unit of time (Kg/s) of gas injected for the mass rate (Kg/s) of metal source to the atomization zone, thereby at least 80% of the obtained powder has a particle size distribution of about 0-106μm, measured according to ASTM B214.
Sanitary support system for a sanitary fitting, in particular a washbasin, including two supports which are located spaced apart from one another and are mountable in a fixed manner, a housing which is located between the two supports and has an interior cavity which is delimited by side walls , a drain unit which is arrangeable or arranged fixedly in said interior cavity and two cross members each with at least one fastening location for receiving fastening elements for fastening the sanitary fitting to the two cross members , wherein each of the cross members is fixedly connected to a respective one of the supports and projects transversely from the respective support on the side of the support located opposite the housing . wherein the housing is displaceable relative to the fixed supports in its vertical position along an adjustment movement (E) and is fixable to the fixed supports following displacement, characterized in that the cross members are operatively connected to the housing in such a manner that when the vertical position of the housing is adjusted relative to the fixed supports , the cross members are displaced jointly with the housing so that the relative position between the cross members and the housing with the drain unit is identical in every vertical position.
A method for controlling an application, comprising: reading, by a first device, of information of a second device included in a near-field communication, NFC, sensor in response to a distance between the first device and the NFC sensor external to the first device reaching an NFC effective communication distance, and determining the second device based on the information of the second device; determining (S12, S22, S44), by the first device, a function currently executed by the first device, and determining a capability of the second device; switching (S13, S23, S45), by the first device, to the second device to continue to execute the function in response to determining that the capability of the second device matches the function; wherein the function currently executed by the first device comprises an active application of the first device and a function currently executed by the active application; and wherein determining that the capability of the second device matches the function comprises: determining that the capability of the second device matches the function currently executed by the first device in response to determining the second device as being capable of being installed with the active application. reading, by a first device, of information of a second device included in a near-field communication, NFC, sensor in response to a distance between the first device and the NFC sensor external to the first device reaching an NFC effective communication distance, and determining the second device based on the information of the second device; determining (S12, S22, S44), by the first device, a function currently executed by the first device, and determining a capability of the second device; switching (S13, S23, S45), by the first device, to the second device to continue to execute the function in response to determining that the capability of the second device matches the function; wherein the function currently executed by the first device comprises an active application of the first device and a function currently executed by the active application; and wherein determining that the capability of the second device matches the function comprises: determining that the capability of the second device matches the function currently executed by the first device in response to determining the second device as being capable of being installed with the active application.