mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a refractive index profile of a transparent optical object having a cylindrical surface and a longitudinal cylinder axis (A), the method comprising: (a) scanning the cylindrical surface of the optical object at a first plurality of scanning locations by one or more optical beams impinging perpendicularly to the longitudinal cylinder axis (A), a pinhole aperture being located in a path of the one or more optical beams upstream of the cylindrical surface , wherein the pinhole aperture has a diameter of between about 50 micrometers and about 500 micrometers; (b) measuring a first deflection function of the optical object based on detection of the one or more optical beams after deflection by the optical object for each of the first plurality of scanning locations; (c) scanning the cylindrical surface of the optical object at a second plurality of scanning locations by one or more optical beams impinging perpendicularly to the longitudinal cylinder axis (A), the path of the one or more optical beams being free of the pinhole aperture ; (d) measuring a second deflection function of the optical object based on detection of the one or more optical beams after deflection by the optical object for each of the second plurality of scanning locations; (e) merging at least a portion of the first deflection function with at least a portion of the second deflection function to obtain a composite deflection function; and (f) calculating the refractive index profile of the optical object using the composite deflection function. (a) scanning the cylindrical surface of the optical object at a first plurality of scanning locations by one or more optical beams impinging perpendicularly to the longitudinal cylinder axis (A), a pinhole aperture being located in a path of the one or more optical beams upstream of the cylindrical surface , wherein the pinhole aperture has a diameter of between about 50 micrometers and about 500 micrometers; (b) measuring a first deflection function of the optical object based on detection of the one or more optical beams after deflection by the optical object for each of the first plurality of scanning locations; (c) scanning the cylindrical surface of the optical object at a second plurality of scanning locations by one or more optical beams impinging perpendicularly to the longitudinal cylinder axis (A), the path of the one or more optical beams being free of the pinhole aperture ; (d) measuring a second deflection function of the optical object based on detection of the one or more optical beams after deflection by the optical object for each of the second plurality of scanning locations; (e) merging at least a portion of the first deflection function with at least a portion of the second deflection function to obtain a composite deflection function; and (f) calculating the refractive index profile of the optical object using the composite deflection function.
A method of manufacturing a delaminatable container , comprising: a container body formation step, comprising forming a container body having an outer shell and an inner bag ; and a preliminary delamination step, comprising preliminarily delaminating the inner bag from the outer shell ; characterized in that the preliminary delamination step is an entire circumference preliminary delamination step, comprising preliminarily delaminating the inner bag from the outer shell in an entire circumference of a storage portion of the container body by rotating the container body while pressing the storage portion with a pressing mechanism from outside for compression or by moving the pressing mechanism along an outer circumference of the container body . a container body formation step, comprising forming a container body having an outer shell and an inner bag ; and a preliminary delamination step, comprising preliminarily delaminating the inner bag from the outer shell ; characterized in that the preliminary delamination step is an entire circumference preliminary delamination step, comprising preliminarily delaminating the inner bag from the outer shell in an entire circumference of a storage portion of the container body by rotating the container body while pressing the storage portion with a pressing mechanism from outside for compression or by moving the pressing mechanism along an outer circumference of the container body .
A method for context-aware decision making of an autonomous agent, the method comprising: • receiving a set of inputs from a sensor subsystem of the autonomous agent, wherein the set of inputs includes at least a pose of the autonomous agent; • determining a context of the autonomous agent based on the set of inputs and a map (S220), wherein the map prescribes a predetermined series of contexts for a fixed route of the autonomous agent; • based on the context, selecting a context-aware learning model from a set of context-aware learning models (S230), wherein each of the context-aware learning models is trained on data that includes: data collected within a respective context, and data collected during traversal of the fixed route; • with the context-aware learning model, defining an action space for the autonomous agent (S240); • selecting an action from the action space (S250); • transmitting the action to a motion planner of the autonomous agent, wherein the motion planner determines a trajectory for the autonomous agent based on the action (S260); • operating the autonomous agent according to the trajectory; • receiving a second set of inputs from the sensor subsystem; and • detecting that the autonomous agent is transitioning to a second context of the predetermined series of contexts based on the second set of inputs and the map. • receiving a set of inputs from a sensor subsystem of the autonomous agent, wherein the set of inputs includes at least a pose of the autonomous agent; • determining a context of the autonomous agent based on the set of inputs and a map (S220), wherein the map prescribes a predetermined series of contexts for a fixed route of the autonomous agent; • based on the context, selecting a context-aware learning model from a set of context-aware learning models (S230), wherein each of the context-aware learning models is trained on data that includes: data collected within a respective context, and data collected during traversal of the fixed route; • with the context-aware learning model, defining an action space for the autonomous agent (S240); • selecting an action from the action space (S250); • transmitting the action to a motion planner of the autonomous agent, wherein the motion planner determines a trajectory for the autonomous agent based on the action (S260); • operating the autonomous agent according to the trajectory; • receiving a second set of inputs from the sensor subsystem; and • detecting that the autonomous agent is transitioning to a second context of the predetermined series of contexts based on the second set of inputs and the map.
A dishwasher , comprising a rack wherein the dishes are placed; a body that is disposed at both sides of the rack ; a carrier on which the body is mounted, an arm that is disposed on the body , that has a lock opening position that enables the body to be moved on the carrier when moved towards the rack by applying force and that has a locking position that enables the rack to be kept at the desired height by the position of the body being fixed on the carrier in the situation when the external force is not applied, a housing arranged on the carrier ; more than one recess that is arranged on the body so as to be on top of each other, and a pin , characterized in that the pin is moved by means of the arm by contacting the arm , such that the pin is almost entirely outside the housing so as to be seated in the recess when the arm is in the locking position and it is released from the recess by being pushed into the housing by the arm while the arm is brought to the lock opening position.
A positive electrode active material for a lithium-sulfur battery comprising: metal nano particles; carbon material to support the metal nano particles therein; and a sulfur series material to locate the carbon material on at least a part of its surface to form a composite, wherein the metal nano particles are ruthenium nano particles, the carbon material is an electrical conductor comprising carbon particles, and the sulfur series material is a sulfur material having sulfur-sulfur bonds. metal nano particles; carbon material to support the metal nano particles therein; and a sulfur series material to locate the carbon material on at least a part of its surface to form a composite, wherein the metal nano particles are ruthenium nano particles, the carbon material is an electrical conductor comprising carbon particles, and the sulfur series material is a sulfur material having sulfur-sulfur bonds.
Water-bound facility having a power supply system , wherein the water-bound facility comprises a first zone and a second zone , having a first DC voltage bus for a first DC voltage and having a second DC voltage bus for a second DC voltage, having a first energy source and having a second energy source , wherein the first energy source is provided in the first zone to feed at least one DC voltage bus of the at least two DC voltage buses and wherein the second energy source is provided in the second zone to feed at least one DC voltage bus of the at least two DC voltage buses , wherein the power supply system is at least partly subdivided in a zone-dependent manner, wherein the first DC voltage bus is suitable or provided for a first DC voltage level and the second DC voltage bus is suitable or provided for a second DC voltage level , characterized in that the first DC voltage level is higher than the second DC voltage level , wherein at least one of the DC voltage buses comprises a switching device , wherein the switching device in the DC voltage bus is a fault isolator , the fault isolator disconnecting the bus in particular in the event of a short-circuit fault. having a first DC voltage bus for a first DC voltage and having a second DC voltage bus for a second DC voltage, having a first energy source and having a second energy source , wherein the first energy source is provided in the first zone to feed at least one DC voltage bus of the at least two DC voltage buses and wherein the second energy source is provided in the second zone to feed at least one DC voltage bus of the at least two DC voltage buses , wherein the power supply system is at least partly subdivided in a zone-dependent manner, wherein the first DC voltage bus is suitable or provided for a first DC voltage level and the second DC voltage bus is suitable or provided for a second DC voltage level , characterized in that the first DC voltage level is higher than the second DC voltage level , wherein at least one of the DC voltage buses comprises a switching device , wherein the switching device in the DC voltage bus is a fault isolator , the fault isolator disconnecting the bus in particular in the event of a short-circuit fault.
A method for electronic detection and determination of analyte using a test strip, comprising the following steps: detecting a signal T0 in a detection zone and a signal R0 in a reference zone before a sample is added (S101, S201); adding a sample and detecting the signal in each of the detection zone and the reference zone at an interval of a second preset period (S102); characterized by further comprising the following steps: calculating a judgement value based on a number of the immediately previous signals in each of the detection zone and the reference zone, the signal T0 in the detection zone before the sample is added, and the signal R0 in the reference zone before the sample is added, each time when a number of successive signals are detected in each of the detection zone and the reference zone, the number of successive detections being k and the number of the immediately previous signals being 2 k (S103, S205); and determining a judgement result based on a number of successive judgement values and a preset result threshold corresponding to a current detection time, the number of successive judgement values being m (S104, S206). detecting a signal T0 in a detection zone and a signal R0 in a reference zone before a sample is added (S101, S201); adding a sample and detecting the signal in each of the detection zone and the reference zone at an interval of a second preset period (S102); characterized by further comprising the following steps: calculating a judgement value based on a number of the immediately previous signals in each of the detection zone and the reference zone, the signal T0 in the detection zone before the sample is added, and the signal R0 in the reference zone before the sample is added, each time when a number of successive signals are detected in each of the detection zone and the reference zone, the number of successive detections being k and the number of the immediately previous signals being 2 k (S103, S205); and determining a judgement result based on a number of successive judgement values and a preset result threshold corresponding to a current detection time, the number of successive judgement values being m (S104, S206). calculating a judgement value based on a number of the immediately previous signals in each of the detection zone and the reference zone, the signal T0 in the detection zone before the sample is added, and the signal R0 in the reference zone before the sample is added, each time when a number of successive signals are detected in each of the detection zone and the reference zone, the number of successive detections being k and the number of the immediately previous signals being 2 k (S103, S205); and determining a judgement result based on a number of successive judgement values and a preset result threshold corresponding to a current detection time, the number of successive judgement values being m (S104, S206).
40-O-(2-hydroxyethyl)-rapamycin for use in the treatment of a solid tumor other than lymphatic cancer, wherein the 40-O-(2-hydroxyethyl)-rapamycin is administered in daily dosages and is used as the sole active ingredient.
A staple cartridge assembly, comprising: a cartridge body comprising a deck and a plurality of staple cavities defined in said deck ; a plurality of staples removably stored in said staple cavities; and an implantable layer positioned over said staple cavities, wherein said implantable layer comprises: a top surface and a bottom surface ; structural fibers weaved into and between said top surface and said bottom surface to form pillar walls extending between said top surface and said bottom surface ; and reinforcement fibers interwoven within said pillar walls. a cartridge body comprising a deck and a plurality of staple cavities defined in said deck ; a plurality of staples removably stored in said staple cavities; and an implantable layer positioned over said staple cavities, wherein said implantable layer comprises: a top surface and a bottom surface ; structural fibers weaved into and between said top surface and said bottom surface to form pillar walls extending between said top surface and said bottom surface ; and reinforcement fibers interwoven within said pillar walls. a top surface and a bottom surface ; structural fibers weaved into and between said top surface and said bottom surface to form pillar walls extending between said top surface and said bottom surface ; and reinforcement fibers interwoven within said pillar walls.
Light deflecting device comprising: - an areal, transparent light guide , - a microstructure provided on the light guide at least in regions for coupling out light coupled into the light guide and - a transparent cover layer applied areally to the light guide at least in regions, wherein the microstructure has microstructure elements (6, 6', 6a - 6i), wherein the microstructure is provided between the cover layer and the light guide , wherein the cover layer , on the surface facing the light guide , has the microstructure for coupling out light coupled into the light guide , and wherein at least a part of the microstructure elements of the microstructure is convexly curved at least in sections when viewed in cross section, wherein the microstructure elements (6, 6', 6a - 6i) each have a substantially point-like geometry for contact with the light guide , characterised in that the width of the effective contact region of the microstructure elements (6, 6', 6a - 6i) with the light guide , in the region of the substantially point-like geometry, is at most 10 μm wide when viewed in cross section, and the microstructure is formed such that at least 50% of the outcoupled light is emitted in an angular range of at most 30° around one or more desired directions. - an areal, transparent light guide , - a microstructure provided on the light guide at least in regions for coupling out light coupled into the light guide and - a transparent cover layer applied areally to the light guide at least in regions, wherein the microstructure has microstructure elements (6, 6', 6a - 6i), wherein the microstructure is provided between the cover layer and the light guide , wherein the cover layer , on the surface facing the light guide , has the microstructure for coupling out light coupled into the light guide , and wherein at least a part of the microstructure elements of the microstructure is convexly curved at least in sections when viewed in cross section, wherein the microstructure elements (6, 6', 6a - 6i) each have a substantially point-like geometry for contact with the light guide , characterised in that the width of the effective contact region of the microstructure elements (6, 6', 6a - 6i) with the light guide , in the region of the substantially point-like geometry, is at most 10 μm wide when viewed in cross section, and the microstructure is formed such that at least 50% of the outcoupled light is emitted in an angular range of at most 30° around one or more desired directions.
A remote controlled robot system , comprising: a mobile robot with a camera system including a first camera that can capture a zoom image and a second camera that can capture a non-zoom image, the field of view of said non-zoom image includes the field of said zoom image; and, a remote control station that is adapted to transmit commands to control said mobile robot , said remote control station includes a monitor that displays a graphical user interface that includes a robot view field that is adapted to display either the zoom image or the non-zoom image; and a graphical user interface function that is adapted to switch said robot view field to display said zoom image or said non-zoom image, wherein said graphical user interface function includes a highlighted area created with input from a user that is smaller than said non-zoom image, and said camera system is adapted to move to a center of said highlighted area. a mobile robot with a camera system including a first camera that can capture a zoom image and a second camera that can capture a non-zoom image, the field of view of said non-zoom image includes the field of said zoom image; and, a remote control station that is adapted to transmit commands to control said mobile robot , said remote control station includes a monitor that displays a graphical user interface that includes a robot view field that is adapted to display either the zoom image or the non-zoom image; and a graphical user interface function that is adapted to switch said robot view field to display said zoom image or said non-zoom image, wherein said graphical user interface function includes a highlighted area created with input from a user that is smaller than said non-zoom image, and said camera system is adapted to move to a center of said highlighted area.
A steam reforming catalyst that promotes production of hydrogen from a gas containing a hydrocarbon in the presence of steam, the steam reforming catalyst comprising: a carrier; and two or more catalyst metals supported on the carrier and including a first metal and a second metal, wherein the first metal is Ni, the second metal is at least one of Co and Ru, and the carrier is formed of La 1-x Sr x NbO 4 where x is in a range of 0.08 ≤ x ≤ 0.12, a content of the catalyst metals is 1% by mass or more and 5% by mass or less based on a total of the catalyst metals and the carrier, and a content of the second metal is 0.15% by mass or more and 0.5% by mass or less based on the total of the catalyst metals and the carrier. a carrier; and two or more catalyst metals supported on the carrier and including a first metal and a second metal, wherein the first metal is Ni, the second metal is at least one of Co and Ru, and the carrier is formed of La 1-x Sr x NbO 4 where x is in a range of 0.08 ≤ x ≤ 0.12, a content of the catalyst metals is 1% by mass or more and 5% by mass or less based on a total of the catalyst metals and the carrier, and a content of the second metal is 0.15% by mass or more and 0.5% by mass or less based on the total of the catalyst metals and the carrier.
An electrode for a secondary battery comprising: a carbon nanotube sheet provided on one surface or both surfaces of a current collector , an electrode mixture layer obtained by coating an electrode mixture slurry containing an electrode active material , a conductive material and a binder onto the carbon nanotube sheet , characterized in that the carbon nanotube sheet has a sheet structure including a plurality of pores with a porosity of 40% to 80% and a thickness of 5 micrometers to 20 micrometers, and the carbon nanotube sheet is bonded to the current collector by the binder of the electrode mixture slurry penetrating the pores. a carbon nanotube sheet provided on one surface or both surfaces of a current collector , an electrode mixture layer obtained by coating an electrode mixture slurry containing an electrode active material , a conductive material and a binder onto the carbon nanotube sheet , characterized in that the carbon nanotube sheet has a sheet structure including a plurality of pores with a porosity of 40% to 80% and a thickness of 5 micrometers to 20 micrometers, and the carbon nanotube sheet is bonded to the current collector by the binder of the electrode mixture slurry penetrating the pores.
A portable electronic device holder for a passenger seat, comprising: a longitudinal clamping structure having a generally L-shaped cross-section, comprising: a supporting flap forming an L-base of the generally L-shaped clamping structure, and configured to support a portable electronic device, a clamping flap forming an L-leg of the generally L-shaped clamping structure, and configured to clamp the portable electronic device against a surface abutting the portable electronic device, wherein the clamping flap is pivotably coupled to the supporting flap through a hinge, wherein the clamping structure comprises a biasing element configured to urge the clamping flap towards the supporting flap, and a mounting element for slidably or tiltably mounting the clamping structure to the passenger seat. a supporting flap forming an L-base of the generally L-shaped clamping structure, and configured to support a portable electronic device, a clamping flap forming an L-leg of the generally L-shaped clamping structure, and configured to clamp the portable electronic device against a surface abutting the portable electronic device, wherein the clamping flap is pivotably coupled to the supporting flap through a hinge, wherein the clamping structure comprises a biasing element configured to urge the clamping flap towards the supporting flap, and a mounting element for slidably or tiltably mounting the clamping structure to the passenger seat.