In a method for filling a predefined cylindrical container, a closed filling valve is moved with its filling tip through the container opening into the container. A gas contained in the container is displaced or compressed in the container. The container opening is sealed about the filling valve; the point in time of sealing determines a pressure in the container. The container is filled by opening the filling valve to allow fluid flow. The end face of the filling valve is below a fluid level in a radial gap volume between container wall and filling valve. Upward movement of the filling valve is adjusted according to predefined control parameters; filling occurs below fluid level in that the fluid level is above the end face of the filling valve. The filing valve is closed upon reaching the predefined filling volume. The closed filling valve is removed from the container.

Vaporizer device cartridges are provided. In some implementations, a cartridge comprises a storage compartment having first and second opposing ends, a sealing material sealing the second end, and a wick positioned proximate to the first end. The storage compartment is configured to hold a liquid vaporizable material. The sealing material is configured for insertion of a needle through the sealing material for dispensing the liquid vaporizable material into the storage compartment. The wick comprises opposing ends in communication with the storage compartment and is configured to allow a volume of air to exit the storage compartment through the wick when the storage compartment is being filled with the liquid vaporizable material.

Vaporizer device cartridges are provided. In some implementations, a cartridge comprises a storage compartment having first and second opposing ends, a sealing material sealing the second end, and a wick positioned proximate to the first end. The storage compartment is configured to hold a liquid vaporizable material. The sealing material is configured for insertion of a needle through the sealing material for dispensing the liquid vaporizable material into the storage compartment. The wick comprises opposing ends in communication with the storage compartment and is configured to allow a volume of air to exit the storage compartment through the wick when the storage compartment is being filled with the liquid vaporizable material.

A liquid blow molding method of molding a synthetic resin preform having a mouth portion into a liquid container of a predetermined shape, the method including: an air-liquid replacement step of exhausting the air inside the preform to the outside while a liquid is supplied into the preform from the mouth portion through a blow nozzle; an air-liquid separation step of separating the air from the liquid inside the preform by rotating the preform about an axial center of the mouth portion; and a blow molding step of molding the preform into a container of a predetermined shape by supplying a pressurized liquid into the preform from the mouth portion through the blow nozzle, after the air-liquid separation step.

The present disclosure is directed to a non-traceable vent tube and a traceable vent tube cap apparatus, system and methods incorporating a traceable material such as a Radio Frequency Identification (RFID) tag or a magnet for use in conjunction with a filling machine during container filling operations for a quicker and more accurate detection of the location of the non-traceable vent tube or the traceable vent tube cap after becoming detached from a filling machine during filling operations, and to increase the safety of the filling operation and reduce costs and time when a malfunction occurs.

The present disclosure is directed to a non-traceable vent tube and a traceable vent tube cap apparatus, system and methods incorporating a traceable material such as a Radio Frequency Identification (RFID) tag or a magnet for use in conjunction with a filling machine during container filling operations for a quicker and more accurate detection of the location of the non-traceable vent tube or the traceable vent tube cap after becoming detached from a filling machine during filling operations, and to increase the safety of the filling operation and reduce costs and time when a malfunction occurs.

The present disclosure is directed to a non-traceable vent tube and a traceable vent tube cap apparatus, system and methods incorporating a traceable material such as a Radio Frequency Identification (RFID) tag or a magnet for use in conjunction with a filling machine during container filling operations for a quicker and more accurate detection of the location of the non-traceable vent tube or the traceable vent tube cap after becoming detached from a filling machine during filling operations, and to increase the safety of the filling operation and reduce costs and time when a malfunction occurs.

The present disclosure is directed to a non-traceable vent tube and a traceable vent tube cap apparatus, system and methods incorporating a traceable material such as a Radio Frequency Identification (RFID) tag or a magnet for use in conjunction with a filling machine during container filling operations for a quicker and more accurate detection of the location of the non-traceable vent tube or the traceable vent tube cap after becoming detached from a filling machine during filling operations, and to increase the safety of the filling operation and reduce costs and time when a malfunction occurs.

The disclosure herein is directed to a beverage container that can be used as a cup comprising: a body defining an internal volume for a single-serve of a beverage, the body has a mouth at a first end having a removable seal for drinking the beverage from the container and a stem having a filling opening at second end, wherein the filling opening is sealed by a closure after filling, and the filling opening and the stem adjacent to the filling opening are narrower than the mouth.

An apparatus for treating containers includes treatment positions arranged on a transport element with a rotor, a transport element, treatment blocks, and functional elements. The treatment positions are formed on the treatment blocks, with at least two per block. Each treatment position ha all functional elements required for treating a container. The functional elements can be for controlled relative movement between treatment blocks and containers, for control of controlled fluid paths for a fluid treatment medium, for monitoring the treatment process, a functional element for controlling the treatment process, or for actuating elements or drives. At least one common functional element needed for treatment of the containers is provided jointly for all treatment positions assigned to one treatment block.