Abstract: Disclosed is a magnetic closing device used with outdoor/patio umbrellas. The magnetic closing device is used for automatically closing the umbrella in windy conditions. The magnetic closing device includes two primary components: a magnetic component, or pole clamp collar; and a metallic component, or runner clamp collar. The runner clamp collar is attached to the runner hub of the umbrella, and the pole clamp collar is attachable to the intermediate pole section of the umbrella. The pole clamp collar, incorporates a plurality of magnets, which attract the runner clamp collar. The magnetic closing device keeps the umbrella in an open position as long as the magnetic connection between the magnetic component and the metallic component is maintained. The disruption of the magnetic connection results in closure of the umbrella, thereby protecting the umbrella from damage or complete destruction.

Abstract: Embodiments described herein relate to removal of aluminum impurities from battery waste. In some aspects, a method for removing aluminum impurities includes preprocessing a quantity of battery waste to improve removal of aluminum impurities from the quantity of battery waste. The method further includes removing at least a portion of the aluminum impurities from the quantity of battery waste, modifying the removed aluminum impurities to form a coating precursor and/or a doping precursor, and applying the coating precursor and/or the doping precursor to an electrode material. In some embodiments, the method further includes characterizing the aluminum impurities in the quantity of battery waste and regenerating the electrode material. In some embodiments, the removing can be via sieving, cyclone separation, air separation, elutriation, and/or dissolution. In some embodiments, the doping precursor can include aluminum hydroxide (Al(OH)3).

Abstract: Embodiments described herein relate to methods of recycling battery waste. In some aspects, a method can include applying a first heat treatment at a temperature of between about 100° C. and about 700° C. to the battery waste, the first heat treatment decomposing at least about 80 wt % of the binder, separating the electrode material from the current collector, and applying a second heat treatment at a temperature between about 400° C. and about 1,200° C. to the electrode material to produce a regenerated electrode material, the second heat treatment decomposing at least 90 wt % of binder remaining in the electrode material to produce a regenerated electrode material. In some embodiments, the method can include applying a surface treatment to the electrode material to remove surface coatings and/or surface impurities from the electrode material. In some embodiments, the surface treatment can include applying a solvent to the electrode material.

Abstract: Flight planning and/or optimizing flight plans can be performed using ground-based systems with little or no instrumented data, providing efficient communications between aircraft and ground-based systems. Estimates of airspeeds (i.e., derived airspeed) can be derived from transponder telemetry, which is optionally collected independently of flight planning. Alternative (adjusted or revised or modified) flight plans can be generated based on derived airspeed, weather, traffic, etc., and/or performance data specific to an individual aircraft. Aircraft performance models can be updated (e.g., fuel consumption) based on monitoring an aircraft over time. Winds aloft data can be updated based on monitoring of one or more aircraft. Data can be selectively identified and uplinked to aircraft based on certain criteria (e.g., data relevant to geographic areas and altitudes proximate flight path as indicated by flight plan).

Abstract: Systems and methods for forming finished electrode materials are described herein. The method includes mixing an electrode material and an electrode material precursor to form a material mixture and heating the material mixture to produce a finished electrode material. In some embodiments, at least one of an electrode material or an electrode material precursor can be partially or entirely formed from a battery waste material. The methods provided herein provide a sustainable and efficient pathway to produce finished electrode materials, and also expand the pool of source materials for the production of finished electrode materials.

Abstract: The present disclosure provides, among other things, personalized methods of administering PCS6422 and capecitabine in combination, personalized methods of cancer treatment, and methods of determining the frequency of (i) PCS6422 and capecitabine or (ii) capecitabine administration in a subject.

Abstract: Embodiments described herein relate to recycling of spent lithium battery material. In some aspects, a method can include suspending a lithium source in a solvent containing an oxidation reagent to extract lithium, forming an extracted lithium solution, separating the extracted lithium solution from residual solids of a lithium source, purifying the extracted lithium solution by precipitating and filtering impurities, and precipitating the lithium in the purified lithium solution to generate lithium carbonate (Li2CO3). In some embodiments, the method can further include preprocessing the lithium source to improve kinetics of the lithium extraction. In some embodiments, the preprocessing can include a cutting or shredding step to downsize the lithium source. In some embodiments, the lithium source can include lithium-ion battery waste.

Abstract: Embodiments described herein relate to removal of aluminum impurities from battery waste. In some aspects, a method for removing aluminum impurities includes preprocessing a quantity of battery waste to improve removal of aluminum impurities from the quantity of battery waste. The method further includes removing at least a portion of the aluminum impurities from the quantity of battery waste, modifying the removed aluminum impurities to form a coating precursor and/or a doping precursor, and applying the coating precursor and/or the doping precursor to an electrode material. In some embodiments, the method further includes characterizing the aluminum impurities in the quantity of battery waste and regenerating the electrode material. In some embodiments, the removing can be via sieving, cyclone separation, air separation, elutriation, and/or dissolution. In some embodiments, the doping precursor can include aluminum hydroxide (Al(OH)3).

Abstract: Examples of the disclosure include a system for modifying a trip level of a circuit, the system comprising a protection device configured to activate responsive to a differential current exceeding the trip level, a first current transformer coupled to an input of the circuit, a second current transformer coupled to the output of the circuit, at least one measurement circuit coupled to the first current transformer and to the second current transformer, the at least one measurement circuit being configured to obtain a first current measurement from the first current transformer, obtain a second current measurement from the second current transformer, determine a bias current based on the first current measurement and the second current measurement, and modify the trip level of the protection device based on the bias current.

Abstract: Embodiments described herein relate to recycling of spent lithium battery material. In some aspects, a method can include suspending a lithium source in a solvent containing an oxidation reagent to extract lithium, forming an extracted lithium solution, separating the extracted lithium solution from residual solids of a lithium source, purifying the extracted lithium solution by precipitating and filtering impurities, and precipitating the lithium in the purified lithium solution to generate lithium carbonate (Li2CO3). In some embodiments, the method can further include preprocessing the lithium source to improve kinetics of the lithium extraction. In some embodiments, the preprocessing can include a cutting or shredding step to downsize the lithium source. In some embodiments, the lithium source can include lithium-ion battery waste.

Abstract: An audio video display device (AVDD) is provided. The AVDD includes at least one processor, a display configured for presenting demanded images, and a computer readable storage medium bearing instructions executable by the at least one processor. The at least one processor is configured to present on the display a graphical user interface (GUI) including plural content panels, receive and execute voice commands to operate navigation features associated with at least the GUI. A numeral is provided next to each content panel so that a respective content panel can be selected by a voice command including a respective numeral associated with the respective content panel.

Abstract: A wireless sensor includes a radio frequency (RF) front end and a sensing integrated circuit (IC). The RF front end includes an antenna that is operable to transceive RF signals and a tuning circuit. The sensing IC includes a power supply. The sensing IC is operable to detect an impedance change of the power supply. The sensing IC is further operable to convert the impedance change into a digital value. The sensing IC is further operable to output, via the antenna, the digital value.

Abstract: Embodiments described herein relate to recycling of spent lithium battery material. In some aspects, a method can include suspending a lithium source in a solvent containing an oxidation reagent to extract lithium, forming an extracted lithium solution, separating the extracted lithium solution from residual solids of a lithium source, purifying the extracted lithium solution by precipitating and filtering impurities, and precipitating the lithium in the purified lithium solution to generate lithium carbonate (Li2CO3). In some embodiments, the method can further include preprocessing the lithium source to improve kinetics of the lithium extraction. In some embodiments, the preprocessing can include a cutting or shredding step to downsize the lithium source. In some embodiments, the lithium source can include lithium-ion battery waste.

Abstract: A method includes processing at least one battery into a plurality of core sections. Each core section in the plurality of core sections includes an anode section, a cathode section including a cathode material, a separator section disposed between the anode section and the cathode section, and an electrolyte. The method also includes disposing the plurality of core sections into a solvent so as to produce a mixture of cathode materials from the plurality of core sections. The solvent and the electrolyte form an ionic conductive medium, and the mixture of the cathode materials is characterized by a substantially homogeneous distribution of an active element in the cathode material.

Abstract: A radio frequency identification (RFID) tag includes a power harvesting circuit that operates generate power for the RFID tag from a continuous wave of a radio frequency (RF) signal. The RFID tag further includes a tuning circuit that is tuned based on a capacitance setting, where the capacitance setting is indicative of a power level of the power. The RFID tag further includes a processing module operably coupled to the tuning circuit, where the processing module operates to generate the capacitance setting to obtain a desired power level for the power.

Abstract: A process includes emulating, by a programmable logic device, a hardware component to provide an emulated hardware component. The emulated hardware component is capable of exercising the predetermined functionality. The process includes testing the emulated hardware component. The process includes determining, by the programmable logic device, whether the emulated hardware component exercised the predetermined functionality during the test. The determination includes, responsive to the testing, detecting, by a state sequence detector of the programmable logic device, whether the emulated hardware component sequenced through a plurality of states associated with the predetermined functionality. The process includes, responsive to the detection of whether the emulated hardware component sequenced through the plurality of states, generating, by the programmable logic device, an indicator representing a coverage of the predetermined functionality by the testing.

Abstract: Examples of the disclosure include a system for modifying a trip level of a circuit, the system comprising a protection device configured to activate responsive to a differential current exceeding the trip level, a first current transformer coupled to an input of the circuit, a second current transformer coupled to the output of the circuit, at least one measurement circuit coupled to the first current transformer and to the second current transformer, the at least one measurement circuit being configured to obtain a first current measurement from the first current transformer, obtain a second current measurement from the second current transformer, determine a bias current based on the first current measurement and the second current measurement, and modify the trip level of the protection device based on the bias current.

Abstract: In one aspect, the present disclosure implements a method that determines whether a submitted image satisfies a geographic constraint which includes defining a rule that establishes a geographic restriction on the submitted image, accessing a geo-code associated with the submitted image, determining whether the geo-code indicates that the submitted image was taken at a location that violates the geographic restriction defined in the rule, and if a determination is made that the submitted image was taken at a location that violates the geographic restriction defined in the rule, eliminating the submitted image from being considered a valid entry in the contest.

Abstract: A method includes processing at least one battery into a plurality of core sections. Each core section in the plurality of core sections includes an anode section, a cathode section including a cathode material, a separator section disposed between the anode section and the cathode section, and an electrolyte. The method also includes disposing the plurality of core sections into a solvent so as to produce a mixture of cathode materials from the plurality of core sections. The solvent and the electrolyte form an ionic conductive medium, and the mixture of the cathode materials is characterized by a substantially homogeneous distribution of an active element in the cathode material.

Abstract: According to an aspect of the present inventive concept there is provided a probe for analysis of a liquid in a mixture of the liquid and solid substance. The probe comprises: a tube comprising a sample end configured to be inserted into the mixture; a cap configured to come into contact with the mixture at the sample end, the cap comprising one or more openings configured for allowing passage of the liquid therethrough, and for preventing passage of the solid substance therethrough; and an optical measurement head arranged in the tube and configured to come into contact with the liquid having passed the one or more openings, wherein the optical measurement head is configured to collect measurement information for analysis of the liquid.