mhurhangee/patent-ind-claim-en huggingface dataset:
A workbench system comprising: two workbenches , wherein each workbench comprises a benchtop and a display coupled to the upper surface of the benchtop; a multi-axis robot proximate to a workbench and located between the two workbenches; a visible light projector ; a sensor system comprising one or more sensors, the sensor system configured to identify a user in a workspace in which a workbench is located and a controller configured to: based on the identity of the user, determine a task to be performed by the user using the workbench system; and based on the identity of the user and/or the determined task, control one or more properties of a workbench; control the multi-axis robot to move the robot through a space; control the visible light projector to project a visible light indication of the space onto at least one of a surface of a workbench and a surface of the workspace in which the workbench is located; and contact a further user to attend to the user performing the task. two workbenches , wherein each workbench comprises a benchtop and a display coupled to the upper surface of the benchtop; a multi-axis robot proximate to a workbench and located between the two workbenches; a visible light projector ; a sensor system comprising one or more sensors, the sensor system configured to identify a user in a workspace in which a workbench is located and a controller configured to: based on the identity of the user, determine a task to be performed by the user using the workbench system; and based on the identity of the user and/or the determined task, control one or more properties of a workbench; control the multi-axis robot to move the robot through a space; control the visible light projector to project a visible light indication of the space onto at least one of a surface of a workbench and a surface of the workspace in which the workbench is located; and contact a further user to attend to the user performing the task. based on the identity of the user, determine a task to be performed by the user using the workbench system; and based on the identity of the user and/or the determined task, control one or more properties of a workbench; control the multi-axis robot to move the robot through a space; control the visible light projector to project a visible light indication of the space onto at least one of a surface of a workbench and a surface of the workspace in which the workbench is located; and contact a further user to attend to the user performing the task.
A bipolar fuel cell plate for use in a fuel cell comprising: a plurality of flow field channels ; a coolant distribution structure formed as part of the fluid flow field plate, the coolant distribution structure configured to direct coolant droplets into the flow field channels ; wherein the coolant distribution structure comprises one or more elements associated with one or more flow field channels , the elements having a first surface for receiving a coolant droplet and a second surface for directing a coolant droplet into the associated field flow channel; characterised by first and second arrays of channels formed in a surface thereof within a folded region of the plate, the first array of channels extending from an edge of the plate across a first internal face of the folded region , the second array of channels extending across a second opposing face of the folded region in a second direction transverse to the first direction, wherein openings of the first array of channels at the edge of the plate are configured to provide coolant droplets to the first surface of the elements . a plurality of flow field channels ; a coolant distribution structure formed as part of the fluid flow field plate, the coolant distribution structure configured to direct coolant droplets into the flow field channels ; wherein the coolant distribution structure comprises one or more elements associated with one or more flow field channels , the elements having a first surface for receiving a coolant droplet and a second surface for directing a coolant droplet into the associated field flow channel; characterised by first and second arrays of channels formed in a surface thereof within a folded region of the plate, the first array of channels extending from an edge of the plate across a first internal face of the folded region , the second array of channels extending across a second opposing face of the folded region in a second direction transverse to the first direction, wherein openings of the first array of channels at the edge of the plate are configured to provide coolant droplets to the first surface of the elements .
A method of processing position information indicative of an object position of an audio object, wherein the processing is performed using an MPEG-H 3D Audio decoder, wherein the object position is usable for rendering of the audio object, the method comprising: obtaining (S510) listener orientation information indicative of an orientation of a listener's head; obtaining (S520) listener displacement information indicative of a displacement of the listener's head relative to a nominal listening position, via an MPEG-H 3D Audio decoder input interface; determining (S530) the object position from the position information; modifying (S540) the object position based on the listener displacement information by applying a translation to the object position; and further modifying (S550) the modified object position based on the listener orientation information, wherein when the listener displacement information is indicative of a displacement of the listener's head from the nominal listening position by a small positional displacement, the small positional displacement having an absolute value of 0.5 meter or less than 0.5 meter, a distance between the modified audio object position and a listening position after displacement of the listener's head is kept equal to an original distance between the audio object position and the nominal listening position. obtaining (S510) listener orientation information indicative of an orientation of a listener's head; obtaining (S520) listener displacement information indicative of a displacement of the listener's head relative to a nominal listening position, via an MPEG-H 3D Audio decoder input interface; determining (S530) the object position from the position information; modifying (S540) the object position based on the listener displacement information by applying a translation to the object position; and further modifying (S550) the modified object position based on the listener orientation information, wherein
An inhibitor of the interaction between Helicobacter pylori HopQ and a member of the carcinoembryonic antigen-related cell adhesion molecule (CEACAM) family for use in a method of preventing or treating a disease or disorder selected from the group consisting of H. pylori infection and gastroduodenal disorders caused by H. pylori, wherein the inhibitor is selected from the group consisting of (a) (poly-)peptide ligands binding to an extracellular domain of H. pylori HopQ; (b) nucleic acid molecules encoding the (poly-)peptide ligands of (a); and (c) nucleic acid ligands binding to an extracellular domain of H. pylori HopQ, wherein the extracellular domain of H. pylori HopQ is the insertion domain, loop A, loop B, loop C or loop D of H. pylori HopQ, wherein loop A is located between helix H3 and strand S1 of H. pylori HopQ; loop B is located between strand S2 and helix H4 of H. pylori HopQ; loop C is located between helix H5 and helix H6 of H. pylori HopQ; and loop D is located between helix H7 and helix H8 of H. pylori HopQ. wherein the inhibitor is selected from the group consisting of (a) (poly-)peptide ligands binding to an extracellular domain of H. pylori HopQ; (b) nucleic acid molecules encoding the (poly-)peptide ligands of (a); and (c) nucleic acid ligands binding to an extracellular domain of H. pylori HopQ, (a) (poly-)peptide ligands binding to an extracellular domain of H. pylori HopQ; (b) nucleic acid molecules encoding the (poly-)peptide ligands of (a); and (c) nucleic acid ligands binding to an extracellular domain of H. pylori HopQ, wherein the extracellular domain of H. pylori HopQ is the insertion domain, loop A, loop B, loop C or loop D of H. pylori HopQ, wherein loop A is located between helix H3 and strand S1 of H. pylori HopQ; loop B is located between strand S2 and helix H4 of H. pylori HopQ; loop C is located between helix H5 and helix H6 of H. pylori HopQ; and loop D is located between helix H7 and helix H8 of H. pylori HopQ.
Method for cleaning an interior of a motor vehicle , comprising the following steps: - capturing at least one floor region of the interior by means of at least one camera device , - determining a degree of soiling of the floor region by evaluating the image captured by the camera device , - cleaning at least the floor region if the determined degree of soiling exceeds a predefinable first limit value. - capturing at least one floor region of the interior by means of at least one camera device , - determining a degree of soiling of the floor region by evaluating the image captured by the camera device , - cleaning at least the floor region if the determined degree of soiling exceeds a predefinable first limit value.
A composition for use in treating Type 1 diabetic disease, the composition comprising a vegetable powder mixture prepared by mixing buckwheat powders, onion powders, and cacao nibs powders, and/or cricket (Gryllus bimaculatus) powders.
A device for directly control a blade, particularly for an aircraft, said rotary device comprising: - a rotor rotating around a rotor axis - at least one blade carrier composed with at least one permanent magnet , said blade carrier pivotally coupled with a rotor around a blade axis , a blade plane is defined by said rotor axis and said blade axis , - at least one blade attached to the blade carrier - a stator composed of at least one coil , the centre of said stator being the intersection of the blade axis and the rotor axis , device characterized in that said stator is a partially spherical stator, the internal face of said magnet is curved, offset from the blade axis perpendicular with the blade plane radially close to the stator to allow electromagnetic interaction to control the rotation of the blades around the blade axis . - a rotor rotating around a rotor axis - at least one blade carrier composed with at least one permanent magnet , said blade carrier pivotally coupled with a rotor around a blade axis , a blade plane is defined by said rotor axis and said blade axis , - at least one blade attached to the blade carrier - a stator composed of at least one coil , the centre of said stator being the intersection of the blade axis and the rotor axis ,
An apparatus comprising: addition circuitry configured to receive a probe signal that has passed through a channel having a complex transmission and a reference signal that has not passed through the channel and configured to produce at least: a plurality of weighted additions comprising an addition of the probe signal and the reference signal with different relative phase rotations applied before addition between the probe signal and the reference signal , wherein each of the plurality of weighted additions comprises an addition, differently weighted, of the same probe signal and the same reference signal wherein the probe signal and the reference signal are contemporaneous; and processing circuitry configured to use at least two of the plurality of weighted additions to determine a first quantitative parameter for the channel dependent upon the complex transmission for the channel . addition circuitry configured to receive a probe signal that has passed through a channel having a complex transmission and a reference signal that has not passed through the channel and configured to produce at least: a plurality of weighted additions comprising an addition of the probe signal and the reference signal with different relative phase rotations applied before addition between the probe signal and the reference signal , wherein each of the plurality of weighted additions comprises an addition, differently weighted, of the same probe signal and the same reference signal wherein the probe signal and the reference signal are contemporaneous; and processing circuitry configured to use at least two of the plurality of weighted additions to determine a first quantitative parameter for the channel dependent upon the complex transmission for the channel .
A culture method comprising: three-dimensionally culturing a cell population including two or more cells in a predetermined area, the cell population including a cell derived from a stem cell and a mesenchymal cell, the cell derived from a stem cell being a cell of one or more types selected from the group consisting of an undifferentiated endodermal cell, an undifferentiated ectodermal cell, and an undifferentiated mesodermal cell, wherein the area is formed of a space in which cells are movable, when the space has a volume of V mm 3 and the number of the mesenchymal cells seeded in the space is represented by N, the V is equal to or less than 400 and N/V is in a range from 100 to 300, the space is formed of a microchamber, an equivalent diameter of the microchamber is in a range from 20 μm to 2.5 mm, a depth of the microchamber is in a range from 20 μm to 2.5 mm, the microchamber includes a culture surface in contact with a cell, and the culture surface is coated with a polymer having cell non-adhesive properties, and a ratio of the number of the mesenchymal cells to a total number of cells used for culture is 0.5% or more but less than 5%. three-dimensionally culturing a cell population including two or more cells in a predetermined area, the cell population including a cell derived from a stem cell and a mesenchymal cell, the cell derived from a stem cell being a cell of one or more types selected from the group consisting of an undifferentiated endodermal cell, an undifferentiated ectodermal cell, and an undifferentiated mesodermal cell, wherein the area is formed of a space in which cells are movable, when the space has a volume of V mm 3 and the number of the mesenchymal cells seeded in the space is represented by N, the V is equal to or less than 400 and N/V is in a range from 100 to 300, the space is formed of a microchamber, an equivalent diameter of the microchamber is in a range from 20 μm to 2.5 mm, a depth of the microchamber is in a range from 20 μm to 2.5 mm, the microchamber includes a culture surface in contact with a cell, and the culture surface is coated with a polymer having cell non-adhesive properties, and a ratio of the number of the mesenchymal cells to a total number of cells used for culture is 0.5% or more but less than 5%.
A hybrid propulsion architecture for an aircraft, comprising: - a first source , of a first type, of electrical energy, - a plurality of second sources , of a second type, of electrical energy, said second type being different from said first type, - a plurality of electrical propulsion systems , - an electrical energy supply network connecting said first source and said second sources to said electrical propulsion systems such that each electrical propulsion system is powered by said first source and by one of said second sources , - propulsion channels , each propulsion channel comprising said first source , one of said second sources , one of said electrical propulsion systems , and a portion of the electrical energy supply network , said architecture being characterized in that it further comprises: - means for segregating said electrical propulsion systems , said segregation means being arranged on the electrical energy supply network and configured to impose a direction of flow of electric power from said first source to said electrical propulsion systems so that said propulsion channels are segregated. - a first source , of a first type, of electrical energy, - a plurality of second sources , of a second type, of electrical energy, said second type being different from said first type, - a plurality of electrical propulsion systems , - an electrical energy supply network connecting said first source and said second sources to said electrical propulsion systems such that each electrical propulsion system is powered by said first source and by one of said second sources , - propulsion channels , each propulsion channel comprising said first source , one of said second sources , one of said electrical propulsion systems , and a portion of the electrical energy supply network , - means for segregating said electrical propulsion systems , said segregation means being arranged on the electrical energy supply network and configured to impose a direction of flow of electric power from said first source to said electrical propulsion systems so that said propulsion channels are segregated.
A method suitable for optimizing a biological treatment of pools, wherein the method comprises the monitoring of one or more system parameters comprising a carbonate hardness (KH), a global hardness (GH) which refers to the concentration of divalent metal ions per volume of water, and a potential of Hydrogen (pH), wherein the pH is maintained within a range of about 6.5 to 8.5, and characterized in that a ratio of the KH and GH (KH/GH) is maintained within a range of about 60 % to 95 %, wherein the GH is maintained within a range of about 50 ppm to 370 ppm, and wherein the KH/GH is maintained within the range for at least about 7 days after the startup.
An airfoil for a gas turbine engine comprising: a first cavity ; a second cavity ; a rib extending from a suction sidewall to a pressure sidewall and separating the first cavity from the second cavity , wherein the rib includes a central portion , a first edge portion extending from the pressure sidewall to the central portion , and a second edge portion extending from the suction sidewall to the central portion , the rib defining one or more communication openings from the first cavity to the second cavity in the first edge portion ; a first baffle disposed in the first cavity , wherein the first baffle abuts the rib ; and a second baffle disposed in the second cavity , wherein the second baffle abuts the rib , the first baffle and the pressure sidewall bound a first passage , the second baffle and the pressure sidewall bound a pressure sidewall passage , and the one or more communication openings are in the first edge portion and extend from the first passage to the pressure sidewall passage . a first cavity ; a second cavity ; a rib extending from a suction sidewall to a pressure sidewall and separating the first cavity from the second cavity , wherein the rib includes a central portion , a first edge portion extending from the pressure sidewall to the central portion , and a second edge portion extending from the suction sidewall to the central portion , the rib defining one or more communication openings from the first cavity to the second cavity in the first edge portion ; a first baffle disposed in the first cavity , wherein the first baffle abuts the rib ; and a second baffle disposed in the second cavity , wherein the second baffle abuts the rib , the first baffle and the pressure sidewall bound a first passage , the second baffle and the pressure sidewall bound a pressure sidewall passage , and the one or more communication openings are in the first edge portion and extend from the first passage to the pressure sidewall passage .
A method for a wireless device , comprising: determining a synchronization source for the wireless device; determining a synchronization priority of the synchronization source; characterized by determining one or more rules for dropping transmissions of sidelink synchronization signals, the one or more rules corresponding to the synchronization priority of the synchronization source; wherein when the synchronization source has a first synchronization priority, the one or more rules corresponding to the first synchronization priority comprising a rule prohibiting the wireless device from dropping transmissions of sidelink synchronization signals for the purpose of detecting incoming synchronization signals; and when the synchronization source has a second synchronization priority that is lower than the first synchronization priority, the one or more rules corresponding to the second synchronization priority comprising a rule allowing the wireless device to drop a first amount of sidelink synchronization signal transmissions for the purpose of detecting incoming synchronization signals, wherein the first amount comprises one of a first fraction of sidelink synchronization signal transmissions and a first number of sidelink synchronization signal transmissions within a period of time. determining a synchronization source for the wireless device; determining a synchronization priority of the synchronization source; characterized by determining one or more rules for dropping transmissions of sidelink synchronization signals, the one or more rules corresponding to the synchronization priority of the synchronization source; wherein when the synchronization source has a first synchronization priority, the one or more rules corresponding to the first synchronization priority comprising a rule prohibiting the wireless device from dropping transmissions of sidelink synchronization signals for the purpose of detecting incoming synchronization signals; and when the synchronization source has a second synchronization priority that is lower than the first synchronization priority, the one or more rules corresponding to the second synchronization priority comprising a rule allowing the wireless device to drop a first amount of sidelink synchronization signal transmissions for the purpose of detecting incoming synchronization signals, wherein the first amount comprises one of a first fraction of sidelink synchronization signal transmissions and a first number of sidelink synchronization signal transmissions within a period of time.
An apparatus comprising optics configured to direct radiation from a characteristic scene along an optical axis, said optics having a longitudinal chromatic dispersion that is a function of a characteristic spectral signature for the scene, the characteristic spectral signature being reformulated as a plurality of discrete wavelengths, the optics being configured to focus each of the plurality of discrete wavelengths to a different focal point, characterized by the focal points being substantially equally spaced along the optical axis, so as to produce a polychromatic blur that, for an extended depth-of-field region, is substantially spatially constant along said optical axis.