A method for manufacturing a lithium hydroxide powder includes a pulverizing step of pulverizing coarse particles of lithium hydroxide to obtain lithium hydroxide powder; and a carbonation-suppressing step of storing the lithium hydroxide powder in an airtight container in an atmosphere satisfying requirements (1) and (2). (1) A partial pressure of carbon dioxide gas is 100 Pa or less with respect to a total amount of gas present in the airtight container. (2) A relative humidity in the airtight container is 60% or less.

A method for manufacturing a lithium hydroxide powder includes a pulverizing step of pulverizing coarse particles of lithium hydroxide to obtain lithium hydroxide powder; and a carbonation-suppressing step of storing the lithium hydroxide powder in an airtight container in an atmosphere satisfying requirements (1) and (2). (1) A partial pressure of carbon dioxide gas is 100 Pa or less with respect to a total amount of gas present in the airtight container. (2) A relative humidity in the airtight container is 60% or less.

An envelope generally comprises a sandwich of layers comprising an outer layer, outer plastic film layers affixed to the outer layer, a ceramic fiber layer, a radiant barrier layer, and one or more plastic film layers affixed to an obverse or reverse side of the radiant barrier layer. The sandwich of layers is folded over unto itself at the bottom and sealed at the sides so as to form an envelope, and the top closure being formed by folding the top downward over the folded lower portion. In other embodiments, the sandwich of layers comprises an outer radiant barrier layer and an inner radiant barrier layer, first, second, and third plastic film layers, and a ceramic fiber layer. In some embodiments, the envelope comprises a mesh layer.

An envelope generally comprises a sandwich of layers comprising an outer layer, outer plastic film layers affixed to the outer layer, a ceramic fiber layer, a radiant barrier layer, and one or more plastic film layers affixed to an obverse or reverse side of the radiant barrier layer. The sandwich of layers is folded over unto itself at the bottom and sealed at the sides so as to form an envelope, and the top closure being formed by folding the top downward over the folded lower portion. In other embodiments, the sandwich of layers comprises an outer radiant barrier layer and an inner radiant barrier layer, first, second, and third plastic film layers, and a ceramic fiber layer. In some embodiments, the envelope comprises a mesh layer.

A storage vessel assembly for storing chemical includes a storage vessel, a frame for housing the storage vessel, an agitation device disposed in the storage vessel, a temperature control system coupled to the storage vessel, and a controller configured to operate the agitation device and the temperature control system.

Exemplary embodiments are disclosed of liners, linings, and liquid containment vessels including the same. Also disclosed are exemplary method of providing liners and linings for liquid containment vessels, such as process tanks, immersion tanks, containment pits, gravity feed conduits for transferring or conveying liquid, etc. In an exemplary embodiment, a liner or lining is anchored to at least one structural component by at least one extrusion weld and at least one mechanical fastener. The mechanical fastener is coupled to the structural component. The extrusion weld is coupled to the mechanical fastener. The liner or lining may be anchored to a wide range of structural components, such as a frame, a framework, a frame member, a tank, a wall, a support member, a reinforcing member, an outer shell, a substrate (e.g., concrete, etc.) or sidewalls defining a pit or a gravity feed conduit, combinations thereof, other structures or components, etc.

Exemplary embodiments are disclosed of liners, linings, and liquid containment vessels including the same. Also disclosed are exemplary method of providing liners and linings for liquid containment vessels, such as process tanks, immersion tanks, containment pits, gravity feed conduits for transferring or conveying liquid, etc. In an exemplary embodiment, a liner or lining is anchored to at least one structural component by at least one extrusion weld and at least one mechanical fastener. The mechanical fastener is coupled to the structural component. The extrusion weld is coupled to the mechanical fastener. The liner or lining may be anchored to a wide range of structural components, such as a frame, a framework, a frame member, a tank, a wall, a support member, a reinforcing member, an outer shell, a substrate (e.g., concrete, etc.) or sidewalls defining a pit or a gravity feed conduit, combinations thereof, other structures or components, etc.

A chemical dispensing system can include a docking stating that receives a reservoir containing chemical to be dispensed. The reservoir may have a slidable closure covering an opening through which the chemical can be dispensed from the reservoir. The reservoir may be engaged with the docking station so that the slidable closure on the reservoir is operably coupled to a movable element on the docking station. A user can engage the movable element on the docking station to cause a slidable closure on the reservoir to open. As a result, chemical in the reservoir can discharge through the opening uncovered by moving the slidable closure. In this way, the contents of the reservoir may be dispensed without the user coming into physical content with the chemical in the reservoir.

A storage method of HCFO-1233zd (Z) according to an embodiment of the present invention, includes using a storage container having a liquid-contact portion thereof. The liquid-contact portion is formed of a material selected from the group consisting of epoxy-phenolic resin, phenolic resin, phenolic-butyral resin, stainless steel, iron phosphate, zinc phosphate and glass.

A water soluble film useful in unit-dose chemical packaging is disclosed. The film may include: a water soluble saccharide and a polyvinyl alcohol copolymer consisting essentially of: (a) from 80 to 99 mole percent of vinyl alcohol and vinyl ester monomer; and (b) from 1 to 20 mole percent of a pyrrolidone comonomer. Such compositions may be used to provide a water-soluble film simultaneously satisfying requirements in regard to water solubility, biodegradability, and physical properties, even when used for packaging a broad range of harsh, oxidizing chemicals.