Abstract: A saliva-based testing method that bypasses the need for RNA isolation/purification is described herein. In experiments with inactivated SARS-CoV-2 virus spiked into saliva, this method has a limit of detection of 500-1000 viral particles per mL, rivalling the standard NP swab method. Initial studies showed excellent performance with 100 clinical samples. This saliva-based process is operationally simple, utilizes readily available materials, and can be easily implemented by existing testing sites thus allowing for high-throughput, rapid, and repeat testing of large populations.

Abstract: Methods are proposed for extracting transition metal oxides from scrap batteries by dissolving the metal oxides in a glass-forming oxide melt, followed by electrolytic reduction of the transition metal onto the cathode of an electrolytic cell. Suitable glass-forming oxide melts include borate and pyrophosphate melts with added Na2O or NaF. The method is particularly suited to the recovery of cobalt, nickel, and manganese from scrap battery and electronic materials. A preferred recycling process includes first recovering lithium metal from scrap battery material, and then extracting transition metal oxides from the lithium-depleted material.

Abstract: A conformable polymer coated lithium metal electrode provides the negative electrode and the solid electrolyte for a rechargeable lithium metal battery that further includes an inorganic molten salt electrolyte having a melting temperature below 140° C. interposed between the conformable polymer coating and a positive electrode. In some embodiments, the conformable polymer is a block or graft copolymer. Optionally, the positive electrode includes elemental sulfur in a conductive matrix. The conformable polymer coated lithium metal electrode may be manufactured by a process involving electroplating lithium metal through a conformable polymer coated conductive substrate. The conformable polymer coated conductive substrate may be prepared by coating the conductive substrate in a conformable polymer solution followed by evaporating the solvent. Alternatively, a lithium metal electrode may be coated directly with conformable polymer.

Abstract: An electropositive metal electrode coated by an ion-selective conformable polymer provides the negative electrode and the solid-state electrolyte for a rechargeable bi-electrolyte displacement battery that further includes a molten salt electrolyte having a melting temperature below 140° C. interposed between the conformable polymer coating and a positive electrode. Suitable electropositive metals include lithium, sodium, magnesium, and aluminum and the molten salt incorporates a soluble salt of the metal of the negative electrode. Positive electrodes may incorporate metals including Fe, Ni, Bi, Pb, Zn, Sn, and Cu, and thanks to the ion-selective conformable solid-state electrolyte the molten salt is able to incorporate a soluble salt of the metal of the positive electrode. The conformable polymer-coated electropositive metal electrode may be manufactured by a process involving electroplating electropositive metal through a conformable polymer-coated conductive substrate.

Abstract: An electrochemical cell and its method of operation includes an electrolyte having a binary salt system of an alkali hydroxide and a second alkali salt. The anode, cathode, and electrolyte may be in the molten phase. The cell is operational for both storing electrical energy and as a source of electrical energy as part of an uninterruptible power system. The cell is particularly suited to store electrical energy produced by a renewable energy source.

Abstract: A battery system that exchanges energy with an external device is provided. The battery system includes a positive electrode having a first metal or alloy, a negative electrode having a second metal or alloy, and an electrolyte including a salt of the second metal or alloy. The positive electrode, the negative electrode, and the electrolyte are in a liquid phase at an operating temperature during at least one portion of operation. The positive electrode is entirely in a liquid phase in one charged state and includes a solid phase in another charged state. The solid phase of the positive electrode includes a solid intermetallic formed by the first and the second metals or alloys. Methods of storing electrical energy from an external circuit using such a battery system are also provided.

Abstract: Electrochemical cells operating with molten electrodes and electrolyte, where the cathode is an alloy of a metal and metalloid, may be assembled in a discharged state by combining first an anodic metal with a cathodic metal to form a binary alloy. This binary alloy is then placed in a cell housing with the metalloid and the electrolyte, all in the solid state. The temperature is raised to, and maintained at, a temperature above the melting point of the highest melting component until components assembled into horizontal layers of electrolyte above a layer of a ternary alloy formed by the combination of the binary alloy and the metalloid. A charge and discharged cycle is then run through the electrochemical cell.

Abstract: A battery system that exchanges energy with an external device is provided. The battery system includes a positive electrode having a first metal or alloy, a negative electrode having a second metal or alloy, and an electrolyte including a salt of the second metal or alloy. The positive electrode, the negative electrode, and the electrolyte are in a liquid phase at an operating temperature during at least one portion of operation. The positive electrode is entirely in a liquid phase in one charged state and includes a solid phase in another charged state. The solid phase of the positive electrode includes a solid intermetallic formed by the first and the second metals or alloys. Methods of storing electrical energy from an external circuit using such a battery system are also provided.

Abstract: A cell for high temperature electrochemical reactions is provided. The cell includes a container, at least a portion of the container acting as a first electrode. An extension tube has a first end and a second end, the extension tube coupled to the container at the second end forming a conduit from the container to said first end. A second electrode is positioned in the container and extends out of the container via the conduit. A seal is positioned proximate the first end of the extension tube, for sealing the cell.

Abstract: An electrochemical cell and its method of operation includes an electrolyte having a binary salt system of an alkali hydroxide and a second alkali salt. The anode, cathode, and electrolyte may be in the molten phase. The cell is operational for both storing electrical energy and as a source of electrical energy as part of an uninterruptible power system. The cell is particularly suited to store electrical energy produced by a renewable energy source.

Abstract: A cell for high temperature electrochemical reactions is provided. The cell includes a container, at least a portion of the container acting as a first electrode. An extension tube has a first end and a second end, the extension tube coupled to the container at the second end forming a conduit from the container to said first end. A second electrode is positioned in the container and extends out of the container via the conduit. A seal is positioned proximate the first end of the extension tube, for sealing the cell.

Abstract: A method of displaying and merchandising a product that that provides customer interaction and product synchronization is disclosed. The method provides a product display that may include an upright display member having an illuminating member and lighting niches through which dynamic light shows may be projected. A product may be positioned in a lighting niche. A product experience shelf may also be coupled to the upright display member. The product experience shelf may include translucent recesses for holding and illuminating products and or samples of products. The product experience shelf may also incorporate an illuminated ring or border lining the outer edge of each recess for additional lighting effects. The method also provides an interactive customer interface that allows customers to adjust a control module which coordinates synchronized dynamic light shows throughout the display. The customer interface may also be illuminated and positioned on the product experience shelf.

Abstract: An illuminating product display providing customer interaction and product synchronization is disclosed. The product display may include an upright display member having an illuminating member and lighting niches through which dynamic light shows may be projected. A product may be positioned in a lighting niche. A product experience shelf may also be coupled to the upright display member. The product experience shelf may include translucent recesses for holding and illuminating demonstration products. The product experience shelf may also incorporate an illuminated ring or border lining the outer edge of each recess for additional lighting effects. An interactive customer interface may allow customers to adjust a control module which coordinates synchronized dynamic light shows throughout the display. The customer interface may also be illuminated and positioned on the product experience shelf. Furthermore, the dynamic light shows may be synchronized with the lighting products.

Abstract: A method of displaying and merchandising a product that that provides customer interaction and product synchronization is disclosed. The method provides a product display that may include an upright display member having an illuminating member and lighting niches through which dynamic light shows may be projected. A product may be positioned in a lighting niche. A product experience shelf may also be coupled to the upright display member. The product experience shelf may include translucent recesses for holding and illuminating products and or samples of products. The product experience shelf may also incorporate an illuminated ring or border lining the outer edge of each recess for additional lighting effects. The method also provides an interactive customer interface that allows customers to adjust a control module which coordinates synchronized dynamic light shows throughout the display. The customer interface may also be illuminated and positioned on the product experience shelf.

Abstract: An illuminating product display providing customer interaction and product synchronization is disclosed. The product display may include an upright display member having an illuminating member and lighting niches through which dynamic light shows may be projected. A product may be positioned in a lighting niche. A product experience shelf may also be coupled to the upright display member. The product experience shelf may include translucent recesses for holding and illuminating demonstration products. The product experience shelf may also incorporate an illuminated ring or border lining the outer edge of each recess for additional lighting effects. An interactive customer interface may allow customers to adjust a control module which coordinates synchronized dynamic light shows throughout the display. The customer interface may also be illuminated and positioned on the product experience shelf. Furthermore, the dynamic light shows may be synchronized with the lighting products.

Abstract: A polymeric material suitable for fabrication into an article and particularly a polymeric material suitable for fabrication into an article suitable for receiving paint is provided. The polymeric material may be a blend of impact copolymer and plastomer. The impact copolymer includes between 95 and 78 wt % homopolypropylene and between 5 and 22 wt % of ethylene-propylene rubber, wherein ethylene propylene rubber may have less than about 50 wt % ethylene. The plastomer may be an ethylene/hexene plastomer. The ethylene/hexene plastomer may have a density in the range from 0.88 to 0.915 g/cc and a melt index (dg/min) from 0.8 to 10. The impact copolymer may be present in the blend in a range of 95 to 70 wt % and the ethylene/hexene plastomer may be present in the blend in a range from 5 to 30 wt %. The propylene, ethylene and hexene components may be present in the blend in respective ranges of 73.2 to 84.2 wt %, 14.3 to 23.1 wt % and 1.5 to 3.7 wt %.