A synthetic resin container includes a mouth portion and body, the body being squeezed to discharge contents. The body has a flattened shape with a width larger than a thickness. An end on one side in an axial direction along a center axis line of the body is connected to the mouth portion, and an end on another side is closed and formed in a curved shape protruding toward the other side in the axial direction. Each widthwise ends of the body is provided with a bent portion extending in parallel with the axial direction. When the body is squeezed in the thickness direction to discharge the contents, the bent portion is configured to be a starting point when one of a front side wall and a rear side wall opposed to each other in the thickness direction of the body is inverted and deformed toward the other.

A travel container, system, kit, and method for carrying flowable materials onto a commercial airline are presently provided. The travel container has an outer wall with a top opening and a bottom opening and a maximum fill capacity of 3.4 ounces or at least one measure demarcation on the outer wall. The at least one measure demarcation demarks at most 3.4 ounces of flowable materials in the travel container. The travel kit has a carrier with a volume of at most one quart and is configured to hold and carry each of the travel containers.

A travel container, system, kit, and method for carrying flowable materials onto a commercial airline are presently provided. The travel container has an outer wall with a top opening and a bottom opening and a maximum fill capacity of 3.4 ounces or at least one measure demarcation on the outer wall. The at least one measure demarcation demarks at most 3.4 ounces of flowable materials in the travel container. The travel kit has a carrier with a volume of at most one quart and is configured to hold and carry each of the travel containers.

The invention relates to a device for dispensing an aqueous liquid through an interface membrane made partially hydrophilic and partially hydrophobic, made so that when in operation, during each operation of dispensing a metered amount of liquid, the streams of air and liquid flow alternately in a capillary channel (18) downstream from the membrane. Said interface membrane (7) is made of a filtering material which includes biocidal metal cations in the body thereof. Said device comprises a porous insert (8), which is permeable both to liquid and to air, which is arranged upstream from the membrane in the path of the fluids and which is made of a material including sites with negative charges capable of attracting biocidal metal cations from said membrane.

The invention relates to a device for dispensing an aqueous liquid through an interface membrane made partially hydrophilic and partially hydrophobic, made so that when in operation, during each operation of dispensing a metered amount of liquid, the streams of air and liquid flow alternately in a capillary channel (18) downstream from the membrane. Said interface membrane (7) is made of a filtering material which includes biocidal metal cations in the body thereof. Said device comprises a porous insert (8), which is permeable both to liquid and to air, which is arranged upstream from the membrane in the path of the fluids and which is made of a material including sites with negative charges capable of attracting biocidal metal cations from said membrane.

A conditioning agent (typically for use in repairing a flaw in a glazing panel) is contained in a sealed container which is itself disposed internally of a flexible outer walled container. Pressure applied to the outer flexible walled container can cause release of the conditioning agent from the internal conditioning agent container. The conditioning agent preparation may comprise a hygroscopic solvent (such as acetone) combined with one or more primer additives to prime the surface of the glazing panel for repair.

A conditioning agent (typically for use in repairing a flaw in a glazing panel) is contained in a sealed container which is itself disposed internally of a flexible outer walled container. Pressure applied to the outer flexible walled container can cause release of the conditioning agent from the internal conditioning agent container. The conditioning agent preparation may comprise a hygroscopic solvent (such as acetone) combined with one or more primer additives to prime the surface of the glazing panel for repair.

There is provided a pack for a product (12) to facilitate the dispensing of a liquid or particulate matter emanating from the product via a first openable portion (17). The pack comprises two films (13, 14) sealed together about a periphery to define a volume in which the product (12) is contained. The films at the openable portion (17) can be peeled apart in order to create an opening, but the size of the opening is limited by the provision of stronger connections (52) on either side of the openable portion.

There is provided a pack for a product (12) to facilitate the dispensing of a liquid or particulate matter emanating from the product via a first openable portion (17). The pack comprises two films (13, 14) sealed together about a periphery to define a volume in which the product (12) is contained. The films at the openable portion (17) can be peeled apart in order to create an opening, but the size of the opening is limited by the provision of stronger connections (52) on either side of the openable portion.

The invention proposes a biological protection membrane which is mounted, in a device for dispensing liquid from a sterile packaging bottle, across a fluid-circulation duct, in the path of the liquid extracted from the bottle and the outside air which is drawn into the bottle. The membrane (7) is made partially of a hydrophilic material and partially of a hydrophobic material. Both the hydrophobic portion (23) and the hydrophilic portion (22) are made from a polymer base, laden in the body thereof with a biocidal agent that is active in the destruction of bacteria by the ionic oxidation effect. The circulation of fluids through the membrane (7) is organised so as to promote the ionic action on the flow of outside air in the hydrophobic material, and to drive the ionically charged active agent by the liquid passing through the membrane in the hydrophilic portion thereof. A porous buffer (8), inserted in the path of the fluids on the inside of the membrane, collects the active agent extracted from the membrane by the remaining liquid not dispensed, passing through the membrane from the outside towards the inside.