mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying a plurality of interactions with a digitizer sensor, the method comprising: assigning a set of values to a respective set of entries of a relative magnitude matrix according to a set of measured values, the set of values corresponding to a respective set of junctions in the digitizer sensor, wherein a value corresponding to a junction is calculated based on relating a measured value of the junction to a reference value associated with the junction; determining an interaction threshold; a. determining a set of entries in the relative magnitude matrix having values above the interaction threshold; b. determining at least one subset of entries in the set, the subset associated with a continuous area of the digitizer sensor; c. for each of the at least one subset of entries: if the continuous area is associated with a predefined arrangement of junctions, indicating the continuous area as an interaction area; and if the continuous area is larger than a predefined size, increasing the interaction threshold by an amount and repeating steps a, b and c. assigning a set of values to a respective set of entries of a relative magnitude matrix according to a set of measured values, the set of values corresponding to a respective set of junctions in the digitizer sensor, wherein a value corresponding to a junction is calculated based on relating a measured value of the junction to a reference value associated with the junction; determining an interaction threshold; a. determining a set of entries in the relative magnitude matrix having values above the interaction threshold; b. determining at least one subset of entries in the set, the subset associated with a continuous area of the digitizer sensor; c. for each of the at least one subset of entries: if the continuous area is associated with a predefined arrangement of junctions, indicating the continuous area as an interaction area; and if the continuous area is larger than a predefined size, increasing the interaction threshold by an amount and repeating steps a, b and c. a. determining a set of entries in the relative magnitude matrix having values above the interaction threshold; b. determining at least one subset of entries in the set, the subset associated with a continuous area of the digitizer sensor; c. for each of the at least one subset of entries: if the continuous area is associated with a predefined arrangement of junctions, indicating the continuous area as an interaction area; and if the continuous area is larger than a predefined size, increasing the interaction threshold by an amount and repeating steps a, b and c. if the continuous area is associated with a predefined arrangement of junctions, indicating the continuous area as an interaction area; and if the continuous area is larger than a predefined size, increasing the interaction threshold by an amount and repeating steps a, b and c.
Steer-by-wire steering system for a vehicle, having a steering wheel, having a steering gear actuator mechanically decoupled from the steering wheel, having a steering sensor which detects a turn position and/or a term movement of the steering wheel as a steering command, having an electronic control device which, as a function of the detected steering command, controls the steering gear actuator in order to set a vehicle wheel steering angle (α), and having a manual actuator which can be controlled by the control device which generates for the driver on the steering wheel items of haptic feedback (R1, R2, R3) in the form of a steering feedback, in which a steering counter moment is applied to the steering wheel, particularly during a steering procedure, a road feedback, which correlates with an interference exercitation on the road acting on the vehicle, and a warning feedback which draws the attention of the driver to an error in the steer-by-wire steering system, characterised in that the control device is assigned an evaluation unit by means of which, in the case of the presence of a steering system error, the haptic road feedback can be at least weakened or deactivated in comparison with a steering system normal operation without steering system error, such that the driver's ability to perceive the warning feedback is heightened.
A combination of prednisolone, methyl prednisolone, prednisone, prednicarbate or pharmaceutically acceptable salts thereof and a compound of the formula: wherein R 1 is a 5-membered heteroaryl radical which contains, as hetero atoms, 2 to 4 N-atoms or 1 or 2 N-atoms as well as 1 O- or S-atom, and which is unsubstituted or C-substituted by lower alkyl, phenyl or phenyl which is substituted by lower alkyl, lower alkoxy and/or halogen, or by lower alkoxy, hydroxy, di-lower alkylamino, lower alkylthio and/or halogen, and/or is N-substituted at a N-atom which is capable of substitution by lower alkyl, lower alkoxy and/or halogen, and R 2 is hydrogen, hydroxy, amino, lower alkylthio or halogen, wherein the term "lower" means from 1 to 7 carbon atoms, lower alkoxy is C 1-4 alkoxy, di-lower alkylamino is di- C 1-4 alkylamino, lower alkylthio is C 1-4 alkylthio, halogen is fluorine, chlorine or bromine for use in a method of treating or preventing osteoarthritis.
Light for illuminating breeding facilities having a light radiation characteristic, the light comprising a controller and a plurality of light sources connected to the controller, wherein the light radiation characteristic is defined by a superposition of radiation patterns of the light sources, wherein the light sources comprise a first group of light sources having a radiation characteristic with a first intensity maximum being at a first wavelength position between 510 nm and 650 nm, and a second group of light sources having a radiation characteristic with a second intensity maximum being at a second wavelength position between 451 nm and 500 nm, and a third group of light sources having a radiation characteristic with a third intensity maximum being at a third wavelength position between 420 nm and 450 nm, and a fourth group of light sources having a radiation characteristic with a fourth intensity maximum being at a fourth wavelength position between 300 nm and 419 nm, in particular between 360 nm and 410 nm, wherein the controller is designed to control the light sources in an operation state of the light in such a way that the third intensity maximum is greater than the second intensity maximum and the fourth intensity maximum, and characterized in that the first intensity maximum is greater than the third intensity maximum.
Method for expanding adult stem cells from blood, said method comprising: - growth and de-programming of the adult blood stem cells of a blood sample which has been taken, using in vitro treatment of the blood sample with MCSF; - ozonization of the blood sample. - growth and de-programming of the adult blood stem cells of a blood sample which has been taken, using in vitro treatment of the blood sample with MCSF; - ozonization of the blood sample.
Cardiac mask characterised by - being configured for use in a cardiac ablation; - by comprising at least an opening configured to provide at least an area of interest identifying a portion of the heart being ablated; and - by being ∘ made of an electrically or thermally insulating material; and ∘ substantially counter-shaped to a portion of said heart not subject to said cardiac ablation so as to rest on said heart during said cardiac ablation. - being configured for use in a cardiac ablation; - by comprising at least an opening configured to provide at least an area of interest identifying a portion of the heart being ablated; and - by being ∘ made of an electrically or thermally insulating material; and ∘ substantially counter-shaped to a portion of said heart not subject to said cardiac ablation so as to rest on said heart during said cardiac ablation. ∘ made of an electrically or thermally insulating material; and ∘ substantially counter-shaped to a portion of said heart not subject to said cardiac ablation so as to rest on said heart during said cardiac ablation.
A dehydration catalyst for preparing N-substituted maleimide represented by the following Formula 1: [Formula 1] Zr x (H a PO b) c wherein, in Formula 1, x is 0.5 to 1.5, a and b are each independently 0 to 8, and c is 1 to 4, wherein the dehydration catalyst has an amorphous form or an orthorhombic structure, a surface area of 450 m 2 /g or less, as measured by a BET instrument, and a pore size of 8 nm to 30 nm, as measured by a number average particle size. wherein, in Formula 1, x is 0.5 to 1.5, a and b are each independently 0 to 8, and c is 1 to 4, wherein the dehydration catalyst has an amorphous form or an orthorhombic structure, a surface area of 450 m 2 /g or less, as measured by a BET instrument, and a pore size of 8 nm to 30 nm, as measured by a number average particle size.
Liquid line having an associated nozzle body, wherein a branch line (5, 34) to the at least one dispensing nozzle of the nozzle body branches off in a branching region from the liquid line, which liquid line has at least one line wall, wherein the branch line is assigned a shut-off valve having shut-off elements, wherein a partial quantity of the liquid stream in the liquid line branches off into the branch line (5, 34) to the dispensing nozzle, characterized in that the shut-off elements are situated in a region of the liquid stream and are flowed around and/or flushed around by a liquid stream which is greater than the quantity of liquid dispensed via the dispensing nozzle, and in that, from the branch line (5, 34), a further intermediate line (28, 35) which is connected to the liquid line and has an opening to the liquid line is assigned in the region of the shut-off elements.
A spark ignition engine of the rotary type with a double rotation center, comprising a stator with a stator central body having a compartment (1, 2), a first side cover and a second side cover, wherein the compartment includes an expansion compartment and a compression compartment and a combustion chamber at an upper portion of the compartment (1, 2), a rotor with an expansion rotating element, a compressing rotating element and a hinging linear element interposed between said expansion rotating element and the compression rotating element, the rotor is arranged in the compartment (1, 2) of the stator central body, characterized in that the expansion compartment comprises a concave inner surface and the compression compartment comprises a convex inner surface.
A cyclohexane triester-based plasticizer composition comprising, as cyclohexane triesters: a lower non-hybrid-type cyclohexane triester including a compound of Chemical Formula 1; a lower hybrid-type cyclohexane triester including two or more compounds of Chemical Formula 2; a higher hybrid-type cyclohexane triester including two or more compounds of Chemical Formula 3; and a higher non-hybrid-type cyclohexane triester including a compound of Chemical Formula 4: wherein in Chemical Formulas 1 to 4, R L is a C3-C6 alkyl group, and R H is a C7-C10 alkyl group. a lower non-hybrid-type cyclohexane triester including a compound of Chemical Formula 1; a lower hybrid-type cyclohexane triester including two or more compounds of Chemical Formula 2; a higher hybrid-type cyclohexane triester including two or more compounds of Chemical Formula 3; and a higher non-hybrid-type cyclohexane triester including a compound of Chemical Formula 4:
A method of charge management for electric work vehicles, the method comprising: communicating charger properties from a charging module to an electric work vehicle; communicating vehicle properties from the electric work vehicle to the charging module; and providing charging information to an operator, wherein the charging information is based on the charger properties and the vehicle properties; wherein the charger properties comprise: a location of the charging module; and an availability of the charging module; and wherein the vehicle properties comprise: a current state of charge of a battery of the electric work vehicle; a capacity of the battery of the electric work vehicle; and an available time period for charging based on a return-to-work time of the electric work vehicle; characterised in that the vehicle properties further comprise: a predicted time before charging is required, wherein the predicted time is based on data from previous discharging of the battery of the electric work vehicle comprising one or more of: discharge rates at different states of charge; discharge rates for the operator; and discharge rates for performing various tasks with the electric work vehicle. communicating charger properties from a charging module to an electric work vehicle; communicating vehicle properties from the electric work vehicle to the charging module; and providing charging information to an operator, wherein the charging information is based on the charger properties and the vehicle properties; wherein the charger properties comprise: a location of the charging module; and an availability of the charging module; and a location of the charging module; and an availability of the charging module; and wherein the vehicle properties comprise: a current state of charge of a battery of the electric work vehicle; a capacity of the battery of the electric work vehicle; and an available time period for charging based on a return-to-work time of the electric work vehicle; a current state of charge of a battery of the electric work vehicle; a capacity of the battery of the electric work vehicle; and an available time period for charging based on a return-to-work time of the electric work vehicle; characterised in that the vehicle properties further comprise: a predicted time before charging is required, wherein the predicted time is based on data from previous discharging of the battery of the electric work vehicle comprising one or more of: discharge rates at different states of charge; discharge rates for the operator; and discharge rates for performing various tasks with the electric work vehicle. discharge rates at different states of charge; discharge rates for the operator; and discharge rates for performing various tasks with the electric work vehicle.
A method for a calibration of at least one playback device comprising: receiving by a network device, audio data from a microphone for a predetermined duration of time; based on a first subset of the audio data received by the microphone during a first time of the predetermined duration of time, generating a first frequency response based on at least the first subset of the audio data; displaying a representation of the first frequency response circularly wrapped along a concentric frequency axis and a representation of the first time; subsequently, based on a second subset of the audio data received by the microphone during a second time of the predetermined duration of time, generating a second frequency response; displaying a representation of the second frequency response and a representation of the second time. receiving by a network device, audio data from a microphone for a predetermined duration of time; based on a first subset of the audio data received by the microphone during a first time of the predetermined duration of time, generating a first frequency response based on at least the first subset of the audio data; displaying a representation of the first frequency response circularly wrapped along a concentric frequency axis and a representation of the first time; subsequently, based on a second subset of the audio data received by the microphone during a second time of the predetermined duration of time, generating a second frequency response; displaying a representation of the second frequency response and a representation of the second time.
A non-volatile storage system, comprising: a substrate; a monolithic three dimensional memory array of memory cells positioned above and not in the substrate; word lines connected to the memory cells; a plurality of word line drivers and in communication with the word lines; a plurality of bit line drivers; a plurality of global bit lines connected to the bit line drivers; and a plurality of vertically oriented bit lines above and not in the substrate, the vertically oriented bit lines are connected to the memory cells; characterised in that: it further comprises a plurality of vertically oriented select devices that are above, but not in the substrate, and that are connected to the vertically oriented bit lines and the global bit lines; the plurality of word line drivers and the plurality of bit line drivers are in the substrate; and it further comprises a plurality of select lines (580; 582; 584; 586; 588; 590) that are connected to the select devices and are each driven by a respective select line driver, wherein each select device is positioned between two neighboring ones of the select lines so that each select device can be controlled by its two neighboring select lines (580; 582; 584; 586; 588; 590). a substrate; a monolithic three dimensional memory array of memory cells positioned above and not in the substrate; word lines connected to the memory cells; a plurality of word line drivers and in communication with the word lines; a plurality of bit line drivers; a plurality of global bit lines connected to the bit line drivers; and a plurality of vertically oriented bit lines above and not in the substrate, the vertically oriented bit lines are connected to the memory cells; characterised in that: it further comprises a plurality of vertically oriented select devices that are above, but not in the substrate, and that are connected to the vertically oriented bit lines and the global bit lines; the plurality of word line drivers and the plurality of bit line drivers are in the substrate; and it further comprises a plurality of select lines (580; 582; 584; 586; 588; 590) that are connected to the select devices and are each driven by a respective select line driver, wherein each select device is positioned between two neighboring ones of the select lines so that each select device can be controlled by its two neighboring select lines (580; 582; 584; 586; 588; 590). it further comprises a plurality of vertically oriented select devices that are above, but not in the substrate, and that are connected to the vertically oriented bit lines and the global bit lines; the plurality of word line drivers and the plurality of bit line drivers are in the substrate; and it further comprises a plurality of select lines (580; 582; 584; 586; 588; 590) that are connected to the select devices and are each driven by a respective select line driver, wherein each select device is positioned between two neighboring ones of the select lines so that each select device can be controlled by its two neighboring select lines (580; 582; 584; 586; 588; 590).
A wing comprising: a non-water-repellent coating film that forms an outermost layer in a water droplet impact region in a leading edge portion of the wing; and a water-repellent coating film that forms an outermost layer in a water-repellent region adjacent to the water droplet impact region and is formed of a mixed coating material comprising: a resin that undergoes reaction curing at normal room temperature; and a particulate fluororesin, wherein a constituent ratio of the particulate fluororesin in a coating film that is a cured state of the mixed coating material is 43 wt% or more and 82 wt% or less, wherein the non-water-repellent coating film extends from the water droplet impact region to the water-repellent region, and the water-repellent coating film is on the non-water-repellent coating film. a non-water-repellent coating film that forms an outermost layer in a water droplet impact region in a leading edge portion of the wing; and a water-repellent coating film that forms an outermost layer in a water-repellent region adjacent to the water droplet impact region and is formed of a mixed coating material comprising: a resin that undergoes reaction curing at normal room temperature; and a particulate fluororesin, wherein a constituent ratio of the particulate fluororesin in a coating film that is a cured state of the mixed coating material is 43 wt% or more and 82 wt% or less, wherein the non-water-repellent coating film extends from the water droplet impact region to the water-repellent region, and the water-repellent coating film is on the non-water-repellent coating film. a resin that undergoes reaction curing at normal room temperature; and a particulate fluororesin, wherein a constituent ratio of the particulate fluororesin in a coating film that is a cured state of the mixed coating material is 43 wt% or more and 82 wt% or less, wherein the non-water-repellent coating film extends from the water droplet impact region to the water-repellent region, and the water-repellent coating film is on the non-water-repellent coating film.
A CTLA4-binding protein, which can specifically bind to CTLA4 and comprises at least one immunoglobulin single variable domain, which comprises the CDR1 set forth in SEQ ID NO:25, CDR2 set forth in SEQ ID NO:26, CDR3 set forth in SEQ ID NO:27; preferably wherein said immunoglobulin single variable domain is a VHH, more preferably a humanized VHH. preferably wherein said immunoglobulin single variable domain is a VHH, more preferably a humanized VHH.
Process for applying a winding protection layer for producing a semi-finished product of organic electronic components, comprising a layer stack on a substrate foil optionally with barrier function, where the winding protection layer protects the layer stack before and during the final manufacture of the semi-finished product from environmental effects and damage due to handling, where the process is a continuous roll-to-roll process under reduced pressure, which comprises the following steps: - applying a water-free and solvent-free, crosslinkable or curable protection layer material which is fluid at least temporarily in the application phase and is compatible with the layer stack in fluid and in solid phase and also with the conditions during the roll-to-roll process, by means of a printing process which comprises at least one of the processes composed of screen printing, flexographic printing, plotting, inkjet printing, slot die printing or a process suitable for 3D printing, - crosslinking or curing the protection layer material by at least one of the processes composed of UV crosslinking, thermal crosslinking, cooling or drying, where the protection layer material in the liquid state is water-free and solvent-free, characterized in that the protection layer material has a vapour pressure which is below the ambient pressure envisaged in the production process, and in the printing process, regions of the contacts and/or of the busbars are kept clear of protection layer material, and/or the crosslinking by UV crosslinking or other radiation source takes place selectively, so that contact regions remain uncrosslinked and can be easily wiped, rinsed or otherwise freed from the liquid protection layer material, while the remaining regions are already crosslinked and joined firmly to the base. - applying a water-free and solvent-free, crosslinkable or curable protection layer material which is fluid at least temporarily in the application phase and is compatible with the layer stack in fluid and in solid phase and also with the conditions during the roll-to-roll process, by means of a printing process which comprises at least one of the processes composed of screen printing, flexographic printing, plotting, inkjet printing, slot die printing or a process suitable for 3D printing, - crosslinking or curing the protection layer material by at least one of the processes composed of UV crosslinking, thermal crosslinking, cooling or drying,