mhurhangee/ep-ind-claims huggingface dataset:
A mass spectrometer comprising: a first Time of Flight mass analyser arranged and adapted to analyse positive ions; a second Time of Flight mass analyser arranged and adapted to analyse negative ions; wherein said second Time of Flight mass analyser is arranged adjacent to said first Time of Flight mass analyser; wherein said mass spectrometer further comprises a pusher electrode common to said first and second Time of Flight mass analysers, wherein said first Time of Flight mass analyser further comprises a first grid electrode and said second Time of Flight mass analyser further comprises a first grid electrode; wherein, in use, ions are arranged to arrive in an orthogonal acceleration extraction region arranged between said pusher electrode and said first grid electrodes (14a, 14b) and wherein either positive ions are directed into said first Time of Flight mass analyser or negative ions are directed into said second Time of Flight mass analyser by choosing the polarity of a voltage pulse applied to said pusher electrode. a first Time of Flight mass analyser arranged and adapted to analyse positive ions; a second Time of Flight mass analyser arranged and adapted to analyse negative ions; wherein said second Time of Flight mass analyser is arranged adjacent to said first Time of Flight mass analyser; wherein said mass spectrometer further comprises a pusher electrode common to said first and second Time of Flight mass analysers, wherein said first Time of Flight mass analyser further comprises a first grid electrode and said second Time of Flight mass analyser further comprises a first grid electrode; wherein, in use, ions are arranged to arrive in an orthogonal acceleration extraction region arranged between said pusher electrode and said first grid electrodes (14a, 14b) and wherein either positive ions are directed into said first Time of Flight mass analyser or negative ions are directed into said second Time of Flight mass analyser by choosing the polarity of a voltage pulse applied to said pusher electrode.
An aqueous manicure preparation for use in an applicator (A; B) which is equipped with at least a liquid storing part and an applying member and which is adapted such that a liquid is transported from the liquid storing part to the applying member by virtue of capillary force, the aqueous manicure preparation to be stored in use in the liquid storing part contains at least water, a water-soluble resin consisting of copolymers of tert-butyl acrylate, ethyl acrylate and methacrylic acid, a tabular pigment selected from Group A below, an emulsion resin, a moisturizing agent and a fungicide and is provided with a surface tension at 25°C of 33 dyn/cm or less and that it further contains crystalline cellulose and is provided with a viscosity satisfying the following condition in measuring the viscosity at a temperature of 25°C by means of a cone plate type viscometer: shear rate (s -1) viscosity (mPa·s) 3.83 30 to 150 19.15 10 to 50 38.30 10 to 40 76.60 10 to 40 383.00 5 to 20 Group A: mica, titanium dioxide coated mica, carmine- titanium dioxide coated mica, prussian blue-titanium dioxide coated mica, black iron oxide-titanium dioxide coated mica, black iron oxide-carmine-titanium dioxide coated mica, black iron oxide-prussian blue-titanium dioxide coated mica, prussian blue-titanium dioxide coated mica, iron oxide red-coated mica, iron oxide red-titanium dioxide coated mica, iron oxide red-carmine-titanium dioxide coated mica, iron oxide red-black iron oxide-titanium dioxide coated mica, iron oxide red-prussian blue-titanium dioxide coated mica, iron oxide red-black iron oxide-prussian blue-titanium dioxide coated mica, brilliant pigments prepared by coating metal or metal oxide on a glass flake or a massive flake used as a base material.
An information processing device comprising: a regular behavior estimation unit that collects time-series positional data composed of time-series positional information of a mobile communication body and estimates a regular behavior of a user of the mobile communication body on the basis of the collected time-series positional data of the mobile communication body, and an information distribution event determination and execution unit that determines information to be distributed to the user on the basis of an estimation result of the regular behavior estimation unit and distributes the information to the mobile communication body of the user according to a determination result, wherein the regular behavior estimation unit includes a periodic behavior estimation unit that detects a periodic behavior of the user on the basis of the time-series positional data, extracts each site to which the user periodically visits as a feature site on the basis of a detection result, and estimates each attribute of each of the extracted feature sites, and wherein the information distribution event determination and execution unit determines information to be distributed to the mobile communication body of the user on the basis of an estimation result of the attribute of each of the feature sites estimated by the periodic behavior estimation unit. a regular behavior estimation unit that collects time-series positional data composed of time-series positional information of a mobile communication body and estimates a regular behavior of a user of the mobile communication body on the basis of the collected time-series positional data of the mobile communication body, and an information distribution event determination and execution unit that determines information to be distributed to the user on the basis of an estimation result of the regular behavior estimation unit and distributes the information to the mobile communication body of the user according to a determination result, wherein the regular behavior estimation unit includes a periodic behavior estimation unit that detects a periodic behavior of the user on the basis of the time-series positional data, extracts each site to which the user periodically visits as a feature site on the basis of a detection result, and estimates each attribute of each of the extracted feature sites, and wherein the information distribution event determination and execution unit determines information to be distributed to the mobile communication body of the user on the basis of an estimation result of the attribute of each of the feature sites estimated by the periodic behavior estimation unit.
Wind turbine tower supported by a foundation, wherein the wind turbine tower is a concrete tower and comprises post-tensioning strands whose ends are fastened to the foundation, the foundation comprising: an annular base plate comprising a supporting surface configured to transmit, in use, the loads of a wind turbine from the foundation to a soil wherein the foundation lies, the annular base plate defining a central hollow by at least an inner lateral surface, wherein the central hollow further comprises a lower surface arranged at a level lower than a level of the supporting surface; wherein the central hollow has a dimension, defined by the distance between at least an inner upper surface and the lower surface, configured such as to allocate additional equipment between both surfaces; and wherein the dimension allows allocating post-tensioning equipment and performing post-tensioning operations of the strands of the wind turbine tower, wherein the ends of the strands are fastened directly to the foundation towards a post-tensioning surface located in the at least an inner upper surface. an annular base plate comprising a supporting surface configured to transmit, in use, the loads of a wind turbine from the foundation to a soil wherein the foundation lies, the annular base plate defining a central hollow by at least an inner lateral surface, wherein the central hollow further comprises a lower surface arranged at a level lower than a level of the supporting surface; wherein the central hollow has a dimension, defined by the distance between at least an inner upper surface and the lower surface, configured such as to allocate additional equipment between both surfaces; and wherein the dimension allows allocating post-tensioning equipment and performing post-tensioning operations of the strands of the wind turbine tower, wherein the ends of the strands are fastened directly to the foundation towards a post-tensioning surface located in the at least an inner upper surface.
A method of operating a wind turbine, the method comprising: sensing a set of operational data points of the wind turbine, wherein at least one data point in the set of operational data points comprises at least bending stress values of a rotor shaft of the wind turbine; computing a load scenario indicator value based on the bending stress values; estimating a loading threshold value based on the set of operational data points; and controlling the wind turbine so as to operate the wind turbine in a safe mode when the load scenario indicator value exceeds the loading threshold value; characterized in that computing the load scenario indicator value comprises; obtaining a set of high pass filtered bending stress values from the bending stress values; obtaining a set of low pass filtered bending stress values from the bending stress values; and computing a difference between the set of high pass filtered bending stress values and the low pass filtered bending stress values. sensing a set of operational data points of the wind turbine, wherein at least one data point in the set of operational data points comprises at least bending stress values of a rotor shaft of the wind turbine; computing a load scenario indicator value based on the bending stress values; estimating a loading threshold value based on the set of operational data points; and controlling the wind turbine so as to operate the wind turbine in a safe mode when the load scenario indicator value exceeds the loading threshold value; characterized in that computing the load scenario indicator value comprises; obtaining a set of high pass filtered bending stress values from the bending stress values; obtaining a set of low pass filtered bending stress values from the bending stress values; and computing a difference between the set of high pass filtered bending stress values and the low pass filtered bending stress values.
A 2-(R 2 -thio)-10-[3-(4-R 1 -piperazin-1-yl)propyl]-10 H -phenothiazin according to the general formula I wherein the residue R 1 is a methyl group, the residue R 2 is an ethyl group, and the residues R 3 and R 7 are hydrogen, for treating a β-amyloidopathy or an α-synucleinopathy accompanied by a cerebral protein deposit and a reduced activity of the cerebral ABCC1-transporter.
A process for the preparation of cucurbituril and/or one or more derivatives thereof comprising mixing glycoluril with a methylene bridging agent, in the presence of an acid and in the absence of any formaldehyde, or formaldehyde precursor, wherein the glycoluril is selected from the group consisting of unsubstituted glycoluril, alkoxy-methylated glycoluril, other derivatives thereof, and mixtures thereof, preferably the glycoluril is unsubstituted glycoluril, preferably wherein the glycoluril, the methylene bridging agent and the acid are mixed simultaneously, or are mixed sequentially, wherein the methylene bridging agent is selected from the group consisting of a 1,3-cycloketal, an alkoxymethyl alkane sulphonate, and a compound of formula: wherein each X is independently selected from an electronegative atom; R 1 and R 2 are each independently selected from hydrogen, an unsubstituted or substituted straight chain, branched or cyclic, saturated or unsaturated hydrocarbon radical; and R represents hydrogen, wherein the electronegative atom is selected from oxygen, nitrogen, sulphur and phosphorus. wherein the methylene bridging agent is selected from the group consisting of a 1,3-cycloketal, an alkoxymethyl alkane sulphonate, and a compound of formula: wherein each X is independently selected from an electronegative atom; R 1 and R 2 are each independently selected from hydrogen, an unsubstituted or substituted straight chain, branched or cyclic, saturated or unsaturated hydrocarbon radical; and R represents hydrogen, wherein the electronegative atom is selected from oxygen, nitrogen, sulphur and phosphorus.
An autonomous unmanned aircraft vehicle, UAV, for harvesting or diluting fruit, comprising: i) a computing system comprising a memory and a processor; ii) a fruit harvesting unit; iii) a power source; iv) an anti-collision system; v) a fruit detection unit adapted for calculating a fruit's position in relation to the UAV; and vi) a protruding, netted cage adapted for both protecting UAV's propellers and pushing branches and leaves; wherein: - said anti-collision system prevents collision of said UAV with obstacles thus enabling autonomous navigation, flight and maneuvering of said UAV towards a predetermined target location; - said UAV uses fruit position information received from the fruit detection unit in order to maneuver said UAV and position the harvesting unit in a place where it can harvest the identified fruit; - said cage is adapted to assist the harvesting process by protecting UAV's propellers as well as pushing branches and leaves aside to thereby enable the UAV to penetrate into the treetop / leafage and reach fruit inside, and/or providing a counter push when pulling said fruit off a branch by the harvesting unit. i) a computing system comprising a memory and a processor; ii) a fruit harvesting unit; iii) a power source; iv) an anti-collision system; v) a fruit detection unit adapted for calculating a fruit's position in relation to the UAV; and vi) a protruding, netted cage adapted for both protecting UAV's propellers and pushing branches and leaves; wherein: - said anti-collision system prevents collision of said UAV with obstacles thus enabling autonomous navigation, flight and maneuvering of said UAV towards a predetermined target location; - said UAV uses fruit position information received from the fruit detection unit in order to maneuver said UAV and position the harvesting unit in a place where it can harvest the identified fruit; - said cage is adapted to assist the harvesting process by protecting UAV's propellers as well as pushing branches and leaves aside to thereby enable the UAV to penetrate into the treetop / leafage and reach fruit inside, and/or providing a counter push when pulling said fruit off a branch by the harvesting unit. - said anti-collision system prevents collision of said UAV with obstacles thus enabling autonomous navigation, flight and maneuvering of said UAV towards a predetermined target location; - said UAV uses fruit position information received from the fruit detection unit in order to maneuver said UAV and position the harvesting unit in a place where it can harvest the identified fruit; - said cage is adapted to assist the harvesting process by protecting UAV's propellers as well as pushing branches and leaves aside to thereby enable the UAV to penetrate into the treetop / leafage and reach fruit inside, and/or providing a counter push when pulling said fruit off a branch by the harvesting unit.
A yo-yo ball with friction motion energy storage and acceleration functions, comprising two rotating bodies and a connecting shaft connecting the two rotating bodies, either of the rotating bodies comprises a disk body and a side cover, characterized in that the disk body can rotate relatively to the side cover, either of the disk bodies is internally provided with a friction motion energy storage mechanism, one end of the friction motion energy storage mechanism is connected to the disk body and the other end is connected to the side cover, by pinching the side cover of the two rotating bodies, the disk bodies are in contact with an external contact surface to realize energy storage for the friction motion energy storage mechanism by means of friction rolling; after the energy storage, the disk bodies are out of contact with the external contact surface, and the friction motion energy storage mechanism releases the energy to drive the two disk bodies to synchronously rotate towards a direction opposite to a rolling direction.
An adjustable covering for use with a reduced-pressure treatment system, the adjustable covering comprising: a drape member comprising a first drape layer and a second drape layer, wherein the first drape layer has a first perforation path and the second drape layer has a second perforation path, the first perforation path is misregistered from the second perforation path, and the drape member has a first initiation edge and a second initiation edge and has a first side and a second, patient-facing side; and a plurality of non-leaking tear paths extending across at least a portion of a width of the drape, wherein each non-leaking tear path comprises a weakened path of the drape member that facilitates tearing of the drape, and an area of misregistration between the first perforation path and the second perforation path comprises a tear path of the plurality of tear paths. a drape member comprising a first drape layer and a second drape layer, wherein the first drape layer has a first perforation path and the second drape layer has a second perforation path, the first perforation path is misregistered from the second perforation path, and the drape member has a first initiation edge and a second initiation edge and has a first side and a second, patient-facing side; and a plurality of non-leaking tear paths extending across at least a portion of a width of the drape, wherein each non-leaking tear path comprises a weakened path of the drape member that facilitates tearing of the drape, and an area of misregistration between the first perforation path and the second perforation path comprises a tear path of the plurality of tear paths.
A refrigeration circuit, comprising, in the flow direction, a liquefier/gas cooler, an intermediate expansion device (a), a collecting container, an expansion device (b, c) upstream of an evaporator (E2, E3), an evaporator (E2, E3) and a compressor unit, wherein an additional compressor unit and at least one deep-freezing consumer with an upstream expansion valve (d) are provided, wherein, during operation, refrigerant is drawn via a suction line from the collecting container, expanded in the expansion device (b, c) and supplied to the evaporators (E2, E3), and, after evaporation in the evaporators (E2, E3), supplied via a suction line to the compressor unit, and a partial refrigerant flow from the collecting container is supplied via the suction line and a line branching off therefrom to the at least one deep-freezing consumer, and, after the evaporation that has occurred therein, it is supplied to the additional compressor unit, wherein the refrigeration circuit enables a supercritical operation, wherein, during operation, the additional compressor unit compresses the partial refrigerant flow to the inlet pressure of the compressor unit and supplies it, via a suction line leading in front of the compressor unit into the suction line, to the inlet side of the compressor unit, and wherein the gas space of the collecting container is connected or can be connected to the inlet of the compressor unit, and wherein, in the connecting line (11, 12), between the gas space of the collecting container and the inlet of the compressor unit, an expansion valve (e) is provided.
An electrostatic separation method for separating unburned carbon ash contained in coal ash by an electrostatic force, comprising the steps of: disposing a first side electrode and a second side electrode; and generating a DC electric field between the first side electrode and the second side electrode, vibrating a case accommodating the first side electrode and the second side electrode, characterized by providing a dielectric resin element (8, 12, 12') in a circuit for applying a voltage between the first side electrode and the second side electrode; inserting intermediately the dielectric resin element (12, 12') into a portion of a feeder line extending between the second side electrode and the DC power source, and/or into a ground wire of the DC power source; sandwiching the dielectric resin element (12, 12') by a pair of metal terminals (7, 7'); and disposing the dielectric resin element (12, 12') outside of the case. disposing a first side electrode and a second side electrode; and generating a DC electric field between the first side electrode and the second side electrode, vibrating a case accommodating the first side electrode and the second side electrode, characterized by providing a dielectric resin element (8, 12, 12') in a circuit for applying a voltage between the first side electrode and the second side electrode; inserting intermediately the dielectric resin element (12, 12') into a portion of a feeder line extending between the second side electrode and the DC power source, and/or into a ground wire of the DC power source; sandwiching the dielectric resin element (12, 12') by a pair of metal terminals (7, 7'); and disposing the dielectric resin element (12, 12') outside of the case.
An electrically powered wheelchair comprising: a main frame; a seat frame that is disposed above the main frame, and supports a sitting seat which supports buttocks and thighs of a user; a seat back frame that is disposed behind the main frame, and supports a backrest which supports a back of the user; a footrest frame that is disposed in front of the main frame, and supports a footrest which supports feet of the user; a wheel section that movably supports the main frame; a sensor base (123, 323) that projects forward in front of the main frame, an obstacle detection sensor that is installed in front of the seat frame on the sensor base, and detects an obstacle within a sensing range on the front side of electrically powered wheelchair; and a foot cover disposed at a position that matches a boundary of the sensing range, wherein the foot cover restricts a disposal range of the feet and regulates the feet of the user not to fall within a detection range of the obstacle detection sensor when the obstacle detection sensor performs detection. a main frame; a seat frame that is disposed above the main frame, and supports a sitting seat which supports buttocks and thighs of a user; a seat back frame that is disposed behind the main frame, and supports a backrest which supports a back of the user; a footrest frame that is disposed in front of the main frame, and supports a footrest which supports feet of the user; a wheel section that movably supports the main frame; a sensor base (123, 323) that projects forward in front of the main frame, an obstacle detection sensor that is installed in front of the seat frame on the sensor base, and detects an obstacle within a sensing range on the front side of electrically powered wheelchair; and a foot cover disposed at a position that matches a boundary of the sensing range, wherein the foot cover restricts a disposal range of the feet and regulates the feet of the user not to fall within a detection range of the obstacle detection sensor when the obstacle detection sensor performs detection.