A degradable containment includes an outer structural layer constructed of a pulp material, a central carrier layer constructed of a biopolymer, and an interior nanomaterial layer constructed of a nanomaterial.

Packaging for a pharmaceutical product and a method of validating pharmaceuticals is disclosed. The packaging comprising a cavity; and validation circuitry comprising: a sensor adapted to output a signal in response to detecting a vapour in the cavity; and a detection circuit adapted to output an indication when the signal indicates a predefined vapour signature.

An example security device includes a tag and a sled. The tag may include a security element, a receiving recess, a locking channel adjacent to the receiving recess, and a slug biased towards a sled facing surface of the tag. The sled may include a base having a tab extending therefrom, an adhesive applied to a product facing surface of the base for applying the sled to a product, and a cavity in the base having an opening on a tag facing surface of the base.

A smart cap for use with a liquid container and a system therefor is disclosed herein. The components of the smart cap preferably comprise a micro motor, a microcontroller, a wireless transceiver (BTLE), a lithium ion battery, LED indicators, a waterproof rated charging port, a nozzle quick connect, a controllable valve, a touch sensor, a thermal sensor, a physical button, an impeller, and a cap housing.

The invention relates to a container comprising: a receptacle with an outer wall visible from outside the container the peripheral outer wall is provided with a translucent layer, a housing that defines an inner space, an electronic circuit that comprises a central light source that emits light in a main emission direction. The light source is offset relative to the translucent layer. The electronic circuit is arranged within the inner space. A wave guide is arranged opposite the light source such as to guide a light wave emitted by the light source into the translucent layer.

Universal fluid dispensing container cap assemblies having a closure in which is disposed an integrated externally pointing LED light, a battery power source, circuit with switch actuatable to automatically turn-ON the LED when the cap closure is actuated to open an aperture for portion dispensing. This permits one-handed dispensing in low light environments. The LED may be located in or on the cap lid, so that it is automatically oriented to point in the direction of dispensing and at the surface location on which the dispensing is directed, in order to illuminate the target area so that the contents are accurately disposed directly from the container in terms of target location and amount. In Pop-up cap embodiments, the LED may be positioned to shine through a clear cap wall or positioned on the cap exterior, pointing in the direction of the target area. White or colored LEDs may be used.

A closure assembly includes a top, a base, and a follower. The top includes a plurality of top teeth extending from the inner surface and arranged around a fluid orifice. The base is coupled to the top, wherein the top is moveable relative to the base. The base includes a central hub defining a cam path. The follower includes a plurality of top follower teeth engaged with the plurality of top teeth of the top and a plurality of base follower teeth disposed in the cam path of the base. The top and the follower are biased away from the base, and depressing the top relative to the base causes the follower to rotate relative to the top between an open position in which a fluid flow path is open to the fluid orifice and a closed position in which the fluid flow path is closed to the fluid orifice.

The present invention relates to a container and a lid for food products, wherein the lid produces audible and tactile feedback when the container is closed with the lid. The invention further relates to a method for forming a lid for engagement with a container for food products. The container with a lid comprises a body with a neck surrounding an opening; at least one thread on the neck; at least one thread on the lid for engaging the at least one thread on the neck; and an engagement mechanism on the lid to secure the lid to the body when the lid is in a fully engaged position. Audible and tactile feedback are produced when the lid moves into the fully engaged position.

A bottle having a water volume measuring function comprises a bottle-lid, a bottle-body, and a measure module disposed in the bottle-lid which comprises at least a micro controller unit, a memory unit and a sound wave transceiver unit. The memory unit stores a lookup table with corresponding relationships between a plurality of frequencies and remained water volumes in the bottle-body. The sound wave transceiver unit emits sound waves with sweeping frequencies towards the bottle-body and receives reflected waves. The micro controller unit determines if any frequency of the sound waves is an air-resonance frequency according to the energy level of each of the reflected waves. When a sound wave frequency is determined as an air-resonance frequency, the micro controller unit obtains the corresponding remained water volume by checking with the air-resonance frequency in the lookup table and users can view the remained water volume without opening the bottle-lid.

A medicine bottle cap includes a flip-top assembly and an outer cap pivotably attached to the flip top assembly and having an interior wall of the side wall that includes gear teeth. The medicine bottle cap further includes a pill delivery gear having gear teeth that engage the gear teeth in the outer cap and an inner cap having a slot for receiving a tab from the pill delivery gear for rotation thereof.