An inline thermal treatment system for thermally treating a continuous product includes a gas supply system configured to supply a first gas flow and a power source configured to supply power. The system includes a plasma torch configured to receive the first gas flow from the gas supply system and power from the power source to form a plasma arc, wherein the plasma arc heats a portion of the continuous product disposed near the plasma arc.

A plastic container comprises an upper portion including a finish adapted to receive a closure, a lower portion including a base, and a sidewall extending between the upper portion and the lower portion. The upper portion, the lower portion, and the sidewall define an interior volume for storing liquid contents. The plastic container further comprises a pressure panel located on the container and moveable between an initial position and an activated position. The pressure panel is located in the initial position prior to filling the container, and is moved to the activated position after filling and sealing the container. Moving the pressure panel from the initial position to the activated position reduces the internal volume of the container and creates a positive pressure inside the container. The positive pressure reinforces the sidewall. A method of processing a container is also disclosed.

A method for pre-wetting a polypropylene (PP) filter for filtering slurry and a PP filter package are provided. The method for pre-wetting the PP filter for filter slurry consists of steps of: pre-wetting a PP filtering media of the PP filter and packaging the pre-wetted PP filter in a packaging member sealingly. A PP filter package includes a cartridge, a PP filtering media and a packaging member. The PP filtering media is disposed in the cartridge to form a PP filter. The PP filtering media is pre-wetted, and the PP filter is sealingly packaged in the packaging member.

An automated, unmanned continuous system (200) for packaging flowable food products at elevated temperatures and pressures includes an upstream thermal processing station (202) to heat the food products and direct the heated food products to a pressurized unmanned filling station (204), whereat containers (242) are filled with the heated food products within a pressurized housing (232), and then transported to a pressurized and unmanned sealing station (206) where the containers are sealed with a lid or cover (283) within a pressurized housing (282). Thereafter, the filled and sealed containers (242) are routed from the pressurized housing (282) through a pressurized transfer tube or passageway (208) for further processing at a downstream thermal processing station (210).

The present invention relates to a method for manufacturing glass containers for pharmaceutical use. This method allows obtaining containers with a low degree of alkalinity. In some preferred embodiments the process allows the manufacture of sterile containers and substantially free of particles ready to be used by the pharmaceutical industry.

The present invention relates to a method for manufacturing glass containers for pharmaceutical use. This method allows obtaining containers with a low degree of alkalinity. In some preferred embodiments the process allows the manufacture of sterile containers and substantially free of particles ready to be used by the pharmaceutical industry.

A sterile carbonated beverage filling system includes a beverage sterilizing section which sterilizes a raw material liquid to prepare a sterilized beverage, a beverage cooling section which cools the sterilized beverage, a carbonated beverage producing section which injects carbonic acid gas into the sterilized beverage to prepare a sterile carbonated beverage, and a carbonated beverage filling section which fills the sterile carbonated beverage into a bottle. The beverage sterilizing section, the beverage cooling section, the carbonated beverage producing section, and the carbonated beverage filling section are connected by a beverage supply pipeline. The carbonated beverage filling section and the beverage supply pipeline each include a rotary machine, and a boundary surface between a rotating body and a non-rotating body of the rotary machine is sealed with sterile water or sterile air.

A sterile carbonated beverage filling system includes a beverage sterilizing section which sterilizes a raw material liquid to prepare a sterilized beverage, a beverage cooling section which cools the sterilized beverage, a carbonated beverage producing section which injects carbonic acid gas into the sterilized beverage to prepare a sterile carbonated beverage, and a carbonated beverage filling section which fills the sterile carbonated beverage into a bottle. The beverage sterilizing section, the beverage cooling section, the carbonated beverage producing section, and the carbonated beverage filling section are connected by a beverage supply pipeline. The carbonated beverage filling section and the beverage supply pipeline each include a rotary machine, and a boundary surface between a rotating body and a non-rotating body of the rotary machine is sealed with sterile water or sterile air.

An assembly may include a shelf-stable pouch for fruits or vegetables. The assembly may comprise a pouch having a closed condition and an open configuration. The dosed configuration may be configured to seal portions of at least one of the fruits and vegetables and brine prior to heating the pouch for pasteurization. The open condition may allow for the removal and serving of the portions after pasteurization from heating,

A sterilization packaging includes an interior space for receiving medical packaged goods and a sensor unit adapted to measure a first parameter in the interior space. The packaging has a data transmission unit for receiving and transmitting parameter values measured by the sensor unit. The packaging and data transmission unit are matched to one another to allow transmission of parameter values received by the data transmission unit into an outer space around the packaging. A sterilization method includes: introducing packaged goods into packaging and closing the packaging; introducing the closed packaging into a receiving chamber of a sterilizer; starting a sterilization process flow in the sterilizer; detecting parameter values in the packaging and transmitting the parameter values to a control unit of the sterilizer; and controlling the sterilization process flow as a function of the parameter values.