mhurhangee/ep-ind-claims huggingface dataset:
A switchable circulator system comprising: a waveguide having three ports (326-1, 326-2, 326-3); a ferrite element (101, 201, 301) having three segments (102-1, 102-2, 102-3) that each extend from a center portion, the ferrite element having a first resonant section defined by a first channel in each of the three segments and a second resonant section defined by a second channel in each of the three segments; a first magnetizing winding disposed in the first channel in each of the three segments; and a second magnetizing winding disposed in the second channel in each of the three segments; a controller circuit configured to apply a current pulse to one of the first magnetizing winding and the second magnetizing winding, wherein the controller circuit switches an operating frequency band of the switchable circulator by switching the magnetizing winding to which the current pulse is applied; wherein, when the current pulse is applied to the first magnetizing winding, performance of the switchable circulator in a first frequency band meets desired performance levels better than when a current pulse is applied to the second magnetizing winding; wherein, when the current pulse is applied to the second magnetizing winding, performance of the switchable circulator in a second frequency band meets desired performance levels better than when a current pulse is applied to the first magnetizing winding; and wherein the first frequency band and the second frequency band are not adjacent frequency bands, wherein the first frequency band and the second frequency band are separated by a guard band. a waveguide having three ports (326-1, 326-2, 326-3); a ferrite element (101, 201, 301) having three segments (102-1, 102-2, 102-3) that each extend from a center portion, the ferrite element having a first resonant section defined by a first channel in each of the three segments and a second resonant section defined by a second channel in each of the three segments; a first magnetizing winding disposed in the first channel in each of the three segments; and a second magnetizing winding disposed in the second channel in each of the three segments; a controller circuit configured to apply a current pulse to one of the first magnetizing winding and the second magnetizing winding, wherein the controller circuit switches an operating frequency band of the switchable circulator by switching the magnetizing winding to which the current pulse is applied; wherein, when the current pulse is applied to the first magnetizing winding, performance of the switchable circulator in a first frequency band meets desired performance levels better than when a current pulse is applied to the second magnetizing winding; wherein, when the current pulse is applied to the second magnetizing winding, performance of the switchable circulator in a second frequency band meets desired performance levels better than when a current pulse is applied to the first magnetizing winding; and wherein the first frequency band and the second frequency band are not adjacent frequency bands, wherein the first frequency band and the second frequency band are separated by a guard band.
A daisy chain, comprising: - a first webbing and - a second webbing, wherein one-piece webbing units are jointed relative to one another on opposite sides of the first webbing and the second webbing, the one-piece webbing units being uniformly distributed along the daisy chain at intervals; thereby a loop is provided between each pair of adjacent one-piece webbing units, characterized in that the first webbing and the second webbing are seamlessly jointed together at two ends thereof, respectively, wherein the one-piece webbing units are woven relative to one another on opposite sides of the first webbing and the second webbing, wherein the first and second webbings are different in thermal shrinkage. - a first webbing and - a second webbing,
An immunogenic formulation comprising an antigen and an adjuvant composition including a lipopeptide, the lipopeptide having the structure of: in which one of R 1, R 2, and R 3 is C 14-20 alkenyl, and each of the others, independently is C 14-20 alkyl or C 14-20 alkenyl; and X is an amino acid sequence, wherein X is SEQ ID NO:7 or 8. one of R 1, R 2, and R 3 is C 14-20 alkenyl, and each of the others, independently is C 14-20 alkyl or C 14-20 alkenyl; and X is an amino acid sequence, wherein X is SEQ ID NO:7 or 8.
A processor-implemented method comprising: displaying two or more user interface controls at a surface (108, 208, 308, 408, 508, 608, 818) of an electronic device (102, 202, 302, 402, 502, 602, 800), the surface (108, 208, 308, 408, 508, 608, 818) being further optically reflective; detecting an alignment between a reflected image (112, 212, 522) optically reflected on the optically reflective surface of the electronic device toward a user of the electronic device, and a physical location on the optically reflective surface at which a user interface control of the two or more user interface controls is displayed, wherein the reflected image is an optically reflected image from a source external to the electronic device and is not electronically generated or electronically displayed by the electronic device, is observed by the user from a respective observation point of the user, and is optically aligned by the user with the physical location on the reflective surface to select the displayed user interface control; detecting a selection action while the alignment is maintained; and activating the user interface control responsive to the detected alignment and the detected selection action. displaying two or more user interface controls at a surface (108, 208, 308, 408, 508, 608, 818) of an electronic device (102, 202, 302, 402, 502, 602, 800), the surface (108, 208, 308, 408, 508, 608, 818) being further optically reflective; detecting an alignment between a reflected image (112, 212, 522) optically reflected on the optically reflective surface of the electronic device toward a user of the electronic device, and a physical location on the optically reflective surface at which a user interface control of the two or more user interface controls is displayed, wherein the reflected image is an optically reflected image from a source external to the electronic device and is not electronically generated or electronically displayed by the electronic device, is observed by the user from a respective observation point of the user, and is optically aligned by the user with the physical location on the reflective surface to select the displayed user interface control; detecting a selection action while the alignment is maintained; and activating the user interface control responsive to the detected alignment and the detected selection action.
A method of counting biological cells using a brightfield microscope, the method comprising the steps of, by a processing device: a. positioning a sample to be viewed by way of an objective lens of the microscope, and on an x-y plane at an x-y position of a plurality of x-y positions, the sample comprising a plurality of biological cells; b. capturing and storing, using an image capturing apparatus, one or more focal image stacks, each said focal image stack comprising a plurality of focal images of the sample positioned at the x-y position, each of the focal images in the focal image stack being captured at a different focal position of a plurality of discrete focal positions within a focal range, the focal range being located on a z plane perpendicular to the x-y plane; c. processing the one or more focal image stacks using a cell localisation neural network, the cell localisation neural network outputting a list of one or more cell locations, each said cell location corresponding to a cell characteristic determined by the cell localisation neural network; d. determining, using the list of cell locations, one or more cell focal image stacks, each cell focal image stack being obtained from the one or more focal image stacks; and e. processing the one or more cell focal image stacks using an encoder neural network, the encoder neural network outputting a list of cell fingerprints, each said cell fingerprint corresponding to a cell of the plurality of biological cells; f. determining, using the list of cell locations and the list of cell fingerprints, a number of cells within the sample. a. positioning a sample to be viewed by way of an objective lens of the microscope, and on an x-y plane at an x-y position of a plurality of x-y positions, the sample comprising a plurality of biological cells; b. capturing and storing, using an image capturing apparatus, one or more focal image stacks, each said focal image stack comprising a plurality of focal images of the sample positioned at the x-y position, each of the focal images in the focal image stack being captured at a different focal position of a plurality of discrete focal positions within a focal range, the focal range being located on a z plane perpendicular to the x-y plane; c. processing the one or more focal image stacks using a cell localisation neural network, the cell localisation neural network outputting a list of one or more cell locations, each said cell location corresponding to a cell characteristic determined by the cell localisation neural network; d. determining, using the list of cell locations, one or more cell focal image stacks, each cell focal image stack being obtained from the one or more focal image stacks; and e. processing the one or more cell focal image stacks using an encoder neural network, the encoder neural network outputting a list of cell fingerprints, each said cell fingerprint corresponding to a cell of the plurality of biological cells; f. determining, using the list of cell locations and the list of cell fingerprints, a number of cells within the sample.
A device for protecting an optical sensor for motor vehicle, the device for protection comprising: the protection device comprising: - a transparent optical element mounted rotably movable about an axis of rotation, said optical element being configured to be arranged upstream from an optical unit of the optical sensor such that the axis of rotation of said optical element coincides with the optical axis of the optical sensor, and - a motor comprising a rotary shaft configured to rotate about an axis of rotation, the motor being configured to rotate said optical element such that the axis of rotation of said optical element further coincides with the axis of rotation of the rotary shaft of the motor (5 the protection device is characterized in that the motor is arranged on the opposite side to said optical element. - a transparent optical element mounted rotably movable about an axis of rotation, said optical element being configured to be arranged upstream from an optical unit of the optical sensor such that the axis of rotation of said optical element coincides with the optical axis of the optical sensor, and - a motor comprising a rotary shaft configured to rotate about an axis of rotation, the motor being configured to rotate said optical element such that the axis of rotation of said optical element further coincides with the axis of rotation of the rotary shaft of the motor (5
An electrolytic cell cover or a corrosion resistant article selected from piping, end boxes used in mercury cells, inlet box used in mercury cells, wash box used in mercury cells, sidewalls of mercury cells, membrane frames for membrane cells, headers, valves, manifolds, interrupter cups, interrupter assemblies, reagent and product distribution devices, dip tubes, lids, containers, liners, covers, flanges, support structures, funnels, pipe fittings, tanks, tank liners, pipe liners, containment vessels, drums, drum liners, vessels, and vessel liners, comprising: a resin composition comprising at least one cyclic olefin and at least one Group 8 olefin metathesis catalyst which contains Ru as the Group 8 transition metal.
Feeder for stacks of flat media, comprising a take-off device, and a first lifting device, which can be moved between a loading position and a working position; wherein, in the loading position, the first lifting device is arranged in such a way that it can be equipped with a first stack and, in the working position, is arranged in such a way that a respective medium can be taken off the first stack by the take-off device; wherein the feeder comprises a second lifting device, which can be moved between the or a further loading position and the working position; wherein, in the or the further loading position, the second lifting device is arranged in such a way that it can be equipped with a second stack and, in the working position, is arranged in such a way that a respective medium can be taken off the second stack by the take-off device; characterized in that the first and second lifting device (2, 4) can each be moved in sections rotationally and translationally between the associated loading position and the working position.
A sunscreen composition comprising: a) zinc oxide particles defined by a mean particle size (volume) distribution-D50 of about 400 nm to about 650nm measured by Dynamic Light Scattering, wherein the zinc oxide particles have zincite hexagonal structure and elongated morphology; wherein 0.0 % of the zinc oxide particles fall below 100 nm and the % is based on a number of particles in the distribution, b) and optionally, a cosmetically acceptable adjuvant. a) zinc oxide particles defined by a mean particle size (volume) distribution-D50 of about 400 nm to about 650nm measured by Dynamic Light Scattering, wherein the zinc oxide particles have zincite hexagonal structure and elongated morphology; wherein 0.0 % of the zinc oxide particles fall below 100 nm and the % is based on a number of particles in the distribution, b) and optionally, a cosmetically acceptable adjuvant.
A method to improve wireless communication range and reliability in a wireless mesh network by a wireless mesh router, the method comprising: measuring a first indication of a link quality between the wireless mesh router and a first wireless device (110-112, 130); determining a number of spatial streams for the wireless communication based on the measured first indication of link quality; using the determined number of spatial streams to select a channel bandwidth and a Modulation and Coding Scheme, MCS, for the wireless communication; and configuring a wireless transceiver for the wireless communication using the determined number of spatial streams, the selected channel bandwidth, and the selected MCS. measuring a first indication of a link quality between the wireless mesh router and a first wireless device (110-112, 130); determining a number of spatial streams for the wireless communication based on the measured first indication of link quality; using the determined number of spatial streams to select a channel bandwidth and a Modulation and Coding Scheme, MCS, for the wireless communication; and configuring a wireless transceiver for the wireless communication using the determined number of spatial streams, the selected channel bandwidth, and the selected MCS.
A viscous dispersion liquid comprising: a dispersion medium including water; and titanium dioxide nanoparticles as the main component of semiconductor particles contained in the viscous dispersion liquid; wherein the viscous dispersion liquid has a solid content concentration of 30% by mass to 60% by mass, the titanium dioxide nanoparticles include anatase crystalline titanium dioxide nanoparticles having an average particle diameter of 10 nm to 100 nm, and brookite crystalline titanium dioxide nanoparticles having an average particle diameter of 5 nm to 15 nm, the viscous dispersion liquid has a viscosity of 10 Pa·s to 500 Pa·s at 25°C, and the amount of organic materials having a boiling point of 150 °C or higher at a pressure of 1 atm is 1% by mass or less in terms of solid content, characterized in that the dispersion medium includes water in a proportion of 95 % by mass or more. a dispersion medium including water; and titanium dioxide nanoparticles as the main component of semiconductor particles contained in the viscous dispersion liquid; wherein
A control method of an exhaust gas purification system comprising an exhaust gas purification device having an oxidation catalyst device carrying an oxidation catalyst on the upstream side or an exhaust gas purification device carrying an oxidation catalyst in an exhaust passage of an internal combustion engine and a controller for carrying out forced regeneration control for recovering purification capability of said exhaust gas purification device, in which at forced regeneration control, the controller executes multi injection control in order to raise an exhaust temperature, characterized in that in case said forced regeneration control is carried out, a region for control is divided into a multi-injection control region (Rm), a transition region (Rt), and a normal injection control region (Rn), which does not require a temperature rise by the multi-injection control, corresponding to a rotation speed (Ne, Nem) and a load (Q, Qm) of the internal combustion engine, the multi-injection control region (Rm) is made to correspond to a low-/medium-load operation region of the internal combustion engine,the normal injection control region (Rn) is made to correspond to a high-load operation region of the internal combustion engine, at said forced regeneration control, if an operation state of the internal combustion engine is the low-/medium-load operation region,the multi-injection control is carried out in the multi-injection control region(Rm), at said forced regeneration control, if an operation state of the internal combustion engine is the high-load operation state, a normal injection control is carried out in the normal injection control region, at said forced regeneration control, if an operation state of the internal combustion engine is the transition region, the multi-fuel injection control is carried out by using data (Ft) for injection control obtained by interpolation of data used for injection control (Fm) on the multi-injection control region side and data (Fn) used for injection control of the normal injection control on the normal injection control region side.
An intraoral orthosis comprising a first shell and a second shell, said shells (10, 20) being connected together by an adjustable connection device, said adjustable connection device comprising two notched tabs that are arranged respectively on either side of one of the shells(10, 20), each notched tab co-operating in adjustable manner with a respective adjustment housing, arranged correspondingly on either side of the other of said shells (10, 20), each notched tab having adjustment teeth to adjust the position of the shells (10, 20) one relative to the other, each adjustment housing including at least one adjustment tooth adapted to co-operate with at least one respective adjustment tooth of the corresponding notched tab, so as to define a position of the first shell relative to the second shell, characterized in that each notched tab comprises locking housings to lock the position of the shells (10, 20) one relative to the other, said locking housings being oriented transversally relative to said adjustment teeth,and it that each adjustment housing includes a locking system comprising a locking element that is movable relative to said adjustment housing between a locked position, in which locking projections of the locking element co-operate with said locking housings of said notched tab, and an unlocked position in which said locking projections do not co-operate with said locking housings.
A mobile phone network node operable to: determine traffic load associated with a mobile phone network; initiate discontinuous transmission at a frame level, based at least in part upon, determining that the traffic load is less than a first threshold; characterized in that the mobile phone network node is further operable to: initiate discontinuous transmission at a subframe level, based at least in part upon, determining that the traffic load is greater than the first threshold and less than a second threshold; and initiate discontinuous transmission at a symbol level, based at least in part upon, determining that the traffic load is greater than the second threshold. determine traffic load associated with a mobile phone network; initiate discontinuous transmission at a frame level, based at least in part upon, determining that the traffic load is less than a first threshold; characterized in that the mobile phone network node is further operable to: initiate discontinuous transmission at a subframe level, based at least in part upon, determining that the traffic load is greater than the first threshold and less than a second threshold; and initiate discontinuous transmission at a symbol level, based at least in part upon, determining that the traffic load is greater than the second threshold.
Method for controlling a drive apparatus of a micro-oscillation mirror, in which - at least one actuation signal is generated, and the drive apparatus is actuated therewith in such a way that it drives the micro-oscillation mirror in an oscillating fashion, - at least one position signal which characterizes the deflection of the micro-oscillation mirror is sensed, - the at least one actuation signal is closed-loop controlled on the basis of the at least one position signal in such a way that the micro-oscillation mirror is driven at its resonant frequency, characterized in that the amplitude of the at least one position signal is continuously compared with at least one threshold value (38a, 38b, 38c), and at least one time interval (42a, 42b, 42c) between at least two passes of the at least one position signal through at least one threshold value (38a, 38b, 38c) is determined, and the at least one actuation signal is closed-loop controlled on the basis of the at least one time interval (42a, 42b, 42c), wherein a time interval between a pass of the at least one position signal through a first threshold value and the next pass through a second threshold value on the same edge is determined and a deflection of the micro-oscillation mirror is determined therefrom. - at least one actuation signal is generated, and the drive apparatus is actuated therewith in such a way that it drives the micro-oscillation mirror in an oscillating fashion, - at least one position signal which characterizes the deflection of the micro-oscillation mirror is sensed, - the at least one actuation signal is closed-loop controlled on the basis of the at least one position signal in such a way that the micro-oscillation mirror is driven at its resonant frequency,