Abstract: A method for establishing ballast protection film over a waterproofing membrane, the method comprising: a. providing at least one layer of a waterproofing membrane on a surface to form a waterproof seal upon said surface; and b. applying onto a surface of the waterproofing membrane a liquid curable composition at an average uncured thickness of no less than 0.5 mm and no greater than 50 mm, wherein the liquid curable composition comprises (i) at least one reactive acrylate-based monomer, and (ii) a polymerization initiator added to activate polymerization of the reactive acrylate-based monomer, wherein the liquid curable composition cures and forms a resin film when applied to the surface of the waterproofing membrane.

Abstract: A curable waterproofing composition, waterproofing kit, method of use, and building product containing such composition is provided. The curable composition, upon cure, exhibits strong adhesion to the construction surfaces on which it is applied as well as to concrete cast upon the cured curable composition, producing a continuous and fully bonded waterproof system, even though different surfaces and surface textures are presented at the surface-to-surface joinder among various components within a pre-applied waterproofing construction site.

Abstract: Waterproofing bonding coating compositions comprise synthetic film-forming polymer having very small average particle size within emulsion systems that enable the coating to be used on various substrates, including formwork, conventional as well as pre-applied waterproofing membranes, and even on other coatings, to provide an excellent waterproofing bond with post-cast concrete. Waterproofing bonding coating compositions can be applied in liquid form upon various substrates and building surfaces. They can be used in the manner of a bonding coating layer, or additional bonding coating layer, when applied upon membranes installed at the building site, or, alternatively, when incorporated onto the membrane as an outermost layer at the membrane manufacturing plant. The waterproofing bonding coating can be used to enhance water- and weather-resistance in both conventional and pre-applied waterproofing membranes.

Abstract: The present disclosure provides ROR1 binding proteins, particularly anti-ROR1 antibodies, or antigen-binding portions thereof, that specifically bind ROR1 and uses thereof. Various aspects of the anti-ROR1 antibodies relate to antibody fragments, single-chain antibodies, pharmaceutical compositions, nucleic acids, recombinant expression vectors, host cells, and methods for preparing and using such anti-ROR1 antibodies. Methods for using the anti-ROR1 antibodies include in vitro and in vivo methods for binding ROR1, detecting ROR1 and treating diseases associated with ROR1 expression.

Abstract: A self-generating power supply apparatus includes a power generating body, an energy harvester, and a power consumer. The power generating body generates an electromagnetic field when a force is applied, an energy of the electromagnetic field is received by the energy harvester and subsequently transferred to the power consumer; or alternatively, the energy harvester is not provided and the energy of the electromagnetic field is directly received and used by the power consumer. The energy of the electromagnetic field is harvested by the energy harvester contacting or not contacting the power generating body, and then is converted into electrical energy, which is transferred out in a wired or wireless manner to enable self-generating power supply for the apparatus. The self-generating power supply apparatus has an immeasurable impact on the development in the fields such as wearable devices, small mobile communication devices, Internet of Things, new energy etc.

Abstract: Electrolytes for lithium ion batteries with carbon-based, silicon-based, or carbon-and silicon-based anodes include a lithium salt; a nonaqueous solvent comprising at least one of the following components: (i) an ester, (ii) a sulfur-containing solvent, (iii) a phosphorus-containing solvent, (iv) an ether, (v) a nitrile, or any combination thereof, wherein the lithium salt is soluble in the solvent; a diluent comprising a fluoroalkyl ether, a fluorinated orthoformate, a fluorinated carbonate, a fluorinated borate, a fluorinated phosphate, a fluorinated phosphite, or any combination thereof, wherein the lithium salt has a solubility in the diluent at least 10 times less than a solubility of the lithium salt in the solvent; and an additive having a different composition than the lithium salt, a different composition than the solvent, and a different composition than the diluent. In some electrolytes, the nonaqueous solvent comprises an ester.

Abstract: A lithium-ion battery includes an anode current collector, a cathode current collector, an anode disposed on and/or in the anode current collector, a cathode disposed on and/or in the cathode current collector, and an electrolyte ionically coupling the anode and the cathode. The electrolyte includes (1) a lithium salt composition, (2) a co-solvent composition, and (3) a diluent composition. In some embodiments, the lithium salt composition includes lithium bis(fluorosulfonyl) imide (LiFSI), the co-solvent composition includes dimethyl carbonate (DMC) and/or ethyl propionate (EP), and the diluent composition includes 1,1,2,2-tetrafluoroethyl-2,2,3,3-tetrafluropropyl ether (TTE). In some embodiments, the anode includes composite particles including carbon and silicon, wherein the composite particles include pores and at least some of the silicon is nanosized silicon in the pores.

Abstract: Electrolytes for lithium ion batteries with carbon-based, silicon-based, or carbon- and silicon-based anodes include a lithium salt; a nonaqueous solvent comprising at least one of the following components: (i) an ester, (ii) a sulfur-containing solvent, (iii) a phosphorus-containing solvent, (iv) an ether, (v) a nitrile, or any combination thereof, wherein the lithium salt is soluble in the solvent; a diluent comprising a fluoroalkyl ether, a fluorinated orthoformate, a fluorinated carbonate, a fluorinated borate, a fluorinated phosphate, a fluorinated phosphite, or any combination thereof, wherein the lithium salt has a solubility in the diluent at least 10 times less than a solubility of the lithium salt in the solvent; and an additive having a different composition than the lithium salt, a different composition than the solvent, and a different composition than the diluent. In some electrolytes, the nonaqueous solvent comprises an ester.

Abstract: A polyurethane waterproofing membrane composition, method of use, and building product containing such composition. The polyurethane composition, upon cure, exhibits strong adhesion to the construction substrates on which it is applied as well as to concrete cast upon the cured membrane, producing a continuous and fully bonded waterproof system, even though different surfaces and surface textures are presented at the surface-to-surface joinder among various components within a pre-applied waterproofing construction site.

Abstract: A pressure-sensitive adhesive (PSA) composition and method of use across a wide operable temperature window. The PSA composition includes a triblock copolymer rubber with relatively low diblock content, an aliphatic tackifier, an aromatic tackifier, and an oil-based plasticizer. The combination of components results in the PSA having a phase-separated morphology, where the PSA includes two domains that do not mix with each other. This morphology’ results in superior performance of the PSA across a wide range of temperatures, such that separate adhesives for low temperatures and high temperatures are no longer required.

Abstract: The present disclosure provides fully human antibodies that specifically bind the spike (S) protein of the SARS-CoV-2 coronavirus with high affinity, or antigen-binding proteins derived from such antibodies, and uses thereof. Included are anti-spike protein antibodies, antibody fragments, and single-chain antibodies, that are coronavirus neutralizing antibodies, as well as pharmaceutical compositions that include such antibodies and antibody fragments. Methods for using the anti-spike protein antibodies include methods of treating or preventing infection with a coronavirus, such as the SARS-CoV-2 coronavirus, by administering an antibody or antibody fragment as disclosed herein, including by intranasal delivery. Methods and compositions for treating or preventing coronavirus infection by administering a composition that includes a nucleic acid construct that encodes a neutralizing antibody are also provided.

Abstract: The present disclosure provides antigen-binding proteins, such as fully human antibodies, that specifically bind the spike (S) protein of the SARS-CoV-2 coronavirus and uses thereof. In various embodiments, the anti-spike protein antibodies are neutralizing antibodies that prevent binding of the SARS-CoV-2 coronavirus to a target cell expressing the ACE2 protein. Included are anti-spike protein antibodies, antibody fragments, and single-chain antibodies, as well as pharmaceutical compositions that include such antibodies and antibody fragments. Also provided herein are nucleic acids and recombinant expression vectors that encode the anti-spike protein antibodies and antibody fragments disclosed herein and transgenic cells transected with such nucleic acids and expression vectors. Further provided are methods for preparing and using such anti-spike protein antibodies.

Abstract: Electrolytes for lithium ion batteries with carbon-based, silicon-based, or carbon- and silicon-based anodes include a lithium salt; a nonaqueous solvent comprising at least one of the following components: (i) an ester, (ii) a sulfur-containing solvent, (iii) a phosphorus-containing solvent, (iv) an ether, (v) a nitrile, or any combination thereof, wherein the lithium salt is soluble in the solvent; a diluent comprising a fluoroalkyl ether, a fluorinated orthoformate, a fluorinated carbonate, a fluorinated borate, a fluorinated phosphate, a fluorinated phosphite, or any combination thereof, wherein the lithium salt has a solubility in the diluent at least 10 times less than a solubility of the lithium salt in the solvent; and an additive having a different composition than the lithium salt, a different composition than the solvent, and a different composition than the diluent. In some electrolytes, the nonaqueous solvent comprises an ester.

Abstract: Electrolytes for lithium ion batteries with carbon-based, silicon-based, or carbon- and silicon-based anodes include a lithium salt; a nonaqueous solvent comprising at least one of the following components: (i) an ester, (ii) a sulfur-containing solvent, (iii) a phosphorus-containing solvent, (iv) an ether, (v) a nitrile, or any combination thereof, wherein the lithium salt is soluble in the solvent; a diluent comprising a fluoroalkyl ether, a fluorinated orthoformate, a fluorinated carbonate, a fluorinated borate, a fluorinated phosphate, a fluorinated phosphite, or any combination thereof, wherein the lithium salt has a solubility in the diluent at least 10 times less than a solubility of the lithium salt in the solvent; and an additive having a different composition than the lithium salt, a different composition than the solvent, and a different composition than the diluent. In some electrolytes, the nonaqueous solvent comprises an ester.

Abstract: A computer-implemented method, system, and computer program product for identifying requirements in a document. A document including requirements is received. Attribute related information in the document is identified using an attribute model. Component information in the document is identified using a component model. The attribute related information and the component information identified in the document are merged. Requirements in the document are identified from the merged attribute related information and component information. The requirements identified in the document are used to develop a product.

Abstract: A self-driving pulse microcurrent cosmetic mask is provided. The self-driving pulse microcurrent cosmetic mask includes not less than one layer of the mask body. It can work by rubbing or massaging the cosmetic mask to generate Maxwell's displacement electric field and pulse microcurrent, which stimulate the expansion of blood vessels from point to plane on the skin, improve the circulation of blood and lymphatic fluid, accelerate cell metabolism and enhance skin vitality; open the gap between skin cells and promote the absorption of nutrients; clean the skin and kill bacteria and mites on the skin, etc., thus achieving effects of anti-aging, skin tightening and skin whitening and delicate. The cosmetic mask does not need any power source, is easy to carry and operate, and is thus suitable for many parts of the body and people of all ages.

Abstract: Localized superconcentrated electrolytes (LSEs) and electrochemical devices including the LSEs are disclosed. The LSE includes an active salt, a solvent in which the active salt is soluble, and a diluent in which the active salt is insoluble or poorly soluble, wherein the diluent includes a fluorinated orthoformate.

Abstract: Electrolytes for lithium ion batteries with carbon-based, silicon-based, or carbon- and silicon-based anodes include a lithium salt; a nonaqueous solvent comprising at least one of the following components: (i) an ester, (ii) a sulfur-containing solvent, (iii) a phosphorus-containing solvent, (iv) an ether, (v) a nitrile, or any combination thereof, wherein the lithium salt is soluble in the solvent; a diluent comprising a fluoroalkyl ether, a fluorinated orthoformate, a fluorinated carbonate, a fluorinated borate, or a combination thereof, wherein the lithium salt has a solubility in the diluent at least 10 times less than a solubility of the lithium salt in the solvent; and an additive having a different composition than the lithium salt, a different composition than the solvent, and a different composition than the diluent.