A cover assembly for protecting a chemical container according to the present disclosure includes: a first cover member encompassing a part of an inner container; a second cover member encompassing the other part of the inner container; and a binding member for connecting the first cover member and the second cover member, wherein the binding member includes a binding body formed at any one of the first cover member and the second cover member and coupled to the other. The cover assembly for protecting a chemical container, which is the present invention, is configured such that the outside of a glass bottle accommodating a chemical is formed with a protection member capable of being separated into two or more layers, thereby suppressing a negative influence on the surroundings thereof by minimizing leakage of the solution to the outside even if the glass bottle is broken by an impact when a worker handles or moves the glass bottle.

A packaged food product includes a container having at least one sidewall, a first end closure sealing a first end of the container and a second end closure sealing a second end of the container. The packaged food product also includes at least one dough product and a cup within the container. The cup has at least one sidewall, a bottom wall and a slit in the at least one sidewall. The at least one sidewall of the cup contacts the at least one sidewall of the container upon inserting the cup into the container, with the slit allowing deflection of the cup sidewall during insertion and a reduction in a required insertion force. The packaged food product further includes at least one additional food ingredient within the cup.

An apparatus for application of a composition to a surface, the apparatus comprising: receptacle(s) for all component(s) of the composition in one or multiple parts; an applicator pad configured for dispensing the composition onto the surface; and at least one integrated light source operable to illuminate the surface while the surface is contacted with the applicator pad. Methods for using the apparatus include a method for disinfecting a skin surface wherein the composition is an antimicrobial skin prep solution comprising at least one fluorescing agent and the at least one integrated light source operates to visually evaluate coverage of the skin prep solution

Proposed is a refillable cosmetic container to which an inner container containing cosmetic contents is coupled. The inner container is inserted into an outer container so that a coupling part (22) provided on the upper portion of the inner container (20) is coupled to the stepped part (12) provided on the upper portion of the outer container (10), and a press groove (15) is formed on the first side of the stepped part of the outer container to be recessed downward, so the inner container can be simply separated by the gap formed as the upper portion of the second side of the inner container is lifted upward from the outer container by downwardly pushing the press groove of the outer container on the first side of the upper portion of the inner container, thus making it convenient to refill and use the inner container.

A lockable Electronic child resistant medicinal substance container is provided and includes a cylindrical medicinal substance container body, a divider ring, a domed medicinal substance container lid, an electromagnetic locking system, a processor, a memory, a battery, a programmable LED light, a wired interface, a wireless interface, and a medicinal substance cartridge assembly having a first and a second sterile medicinal substance cartridges.

The invention relates to a package (2; 3) for an object, preferably a medical object, the package comprising a bottom shell (21; 31); a top shell (22; 32) having a closure portion (24; 34) referred to as a cap, and a connection portion (23; 33) in the form of a hollow body and connected to the closure portion (24) by a hinge (25) to enable the closure portion (24; 34) to tilt relative to the connection portion (23; 33) in order to release access to the inside of the bottom shell (21; 31) through the connection portion (23; 33). The connection portion (23; 33) is provided with a stiffener element (290; 390) and a sealing strip (4; 4) connects together the edges (241, 231) of the cap (24; 34) and of the connection portion (23; 33) that face each other over the entire length of said edges. Said connection portion (23; 33) of the top shell (22; 32) and of the bottom shell (21; 31) are two parts that are fastened to each other, preferably by bonding.

A multi-compartment food package is disclosed including a food bowl to hold a first food (e.g., hummus) and an independent second food container to hold a second food (e.g., a topping to be added to the first food). In one embodiment, a peel-off film is removably attached across the first food container below the top thereof. A lid is detachably connected to the first food container to surround the second food container. The lid has an annular container retaining groove formed therein and extending downwardly therefrom towards the first food container. The second food container is surrounded and frictionally engaged by the annular container retaining groove, whereby the second food container is removably attached to and suspended downwardly from the lid to be received through the top of the first food container and seated on the peel-off film located below the top thereof.

A bottle-within-a-bottle technology is presented herein, where the outer container is vacuum sealed to protect against oxygen, heat, light, moisture etc. and to extend the shelf-life of probiotics, dietary supplements, or any other live (life) products within the inner packaging. This invention is an innovative method of packaging for live or sensitive products. The vacuum sealing technique is used to obtain the beneficial effects of live products. Vacuum-sealing enhances the shelf-life of beneficial microorganisms which must survive for the good gut health of the consumer. The bottle-within-a-bottle technology does not need to change industry standards. The bottle-within-a-bottle technology conceals the deformed container, which is inevitable with direct vacuuming. The bottle-within-a-bottle technology prevents powder leakage of capsules due to air pressure changes.

A storage container for a cylindrical tube of viscous construction material includes a body dimensioned to receive a cylindrical tube of viscous construction material. A nozzle enclosure is attached to a top end of the body and is dimensioned to receive a nozzle of a cylindrical tube of viscous construction material. A plug is positioned in the nozzle enclosure and dimensioned to fit into an inner diameter of the nozzle of the cylindrical tube of viscous construction material. A gasket is positioned between the body and the nozzle that substantially prevents air in the body from entering into the nozzle enclosure. A base seals the cylindrical tube of viscous construction material in the body.

The embodiments disclose a tray method and devices including a method including creating a half-cylindrical tray with anti-slide features on an interior surface and a flexible pull tab at one end of the half-cylindrical tray, forming a child proof bottle with child proof bottle security tabs wherein the tray can be inserted, forming a child proof cap with child proof cap security tabs corresponding to the child proof bottle security tabs for securing the child proof cap to the child proof bottle, and wherein storing gelatin edible wafers in the tray includes gelatin edible candies and gelatin wafer products with infused medicinal ingredients.