The present invention relates generally to pouches. More specifically, the present invention relates to a flexible pouch for storing and transporting hydrogenated water.
Hydrogen-rich water is being transported and stored in a variety of containers including flexible pouches. Hydrogen rich water can be produced by placing a metallic magnesium (99.9%) stick into drinking water (hydrogen concentration—0.55#-0.65#mm) by the following reaction: Mg+2H2O→Mg(OH)2+H2. Water can also be infused with hydrogen through other methods known to those in the industry. Hydrogen has to be produced constantly so that the water in the pouch retains high levels of hydrogen. However, hydrogen can be diffused in the water by oxygen. Therefore, the packaging of hydrogen water must be carefully done to ensure sufficient shelf life. Many of the current packages have a short shelf life because of the ingress of oxygen into the package which then contacts the water and diffuses hydrogen in the hydrogen water.
A flexible pouch having a fitment for accessing the hydrogen water mounted in the corner of the pouch. A frangible seal is disposed between the contents of the pouch and the fitment. The frangible seal is placed on the pouch before the hydrogen water is filled into the pouch. The seal is placed just above the level of the hydrogen water so as to minimize the amount of oxygen that can enter the pouch and contact the hydrogen water and also to prevent the water from coming into contact with the fitment and cap where the hydrogen can escape due to the fitment and cap having no barrier properties. The pouch may have a fold line to assist the user in breaking the seal to access the hydrogen water.
A pouch is adapted to hold a supply of hydrogenated fluid. The pouch includes a first wall and a second wall forming a compartment, the compartment adapted to hold the supply of hydrogenated fluid. An opening to the compartment is also provided. A frangible seal is positioned between the opening to the compartment and the supply of hydrogenated fluid, the frangible seal adapted to prevent the supply of hydrogenated fluid from contacting the opening so as to prevent the escape of hydrogen from the water.
In one embodiment, the seal is generally half circular shaped, the seal positioned between the supply of hydrogenated fluid and the opening. In another embodiment, the seal is straight, the seal positioned between the supply of hydrogenated fluid and the opening, the seal connected with at least one side seal of the pouch. Furthermore, the cap can be sealed into the pouch, the seal positioned between the cap and the supply of hydrogenated fluid so as to prevent any hydrogenated fluid from contacting the cap. The frangible seal is broken upon a squeezing force supplied by the user prior to drinking the fluid.
In a slightly varied embodiment, a flexible pouch in provided having a compartment adapted to hold a supply of fluid, an opening to the compartment and a frangible seal positioned between the opening to the compartment and the supply of fluid, the frangible seal positioned to prevent the supply of fluid from contacting the opening of the compartment. The fluid can be any liquid or gas suitable to fit in the pouch. The seal is configured in any manner such as discussed above.
In another slightly varied embodiment, a pouch is provided adapted to hold a supply of fluid wherein the fluid is infused with a gas. The fluid can be any fluid capable of holding a gas and capable of fitting into a pouch. The pouch may be flexible or otherwise hard walled. The pouch includes a first wall and a second wall forming a compartment, the compartment adapted to hold the supply of fluid, an opening to the compartment and a frangible seal positioned between the opening to the compartment and the supply of hydrogenated fluid, the frangible seal adapted to prevent the supply of hydrogenated fluid from contacting the opening so as to prevent the escape of gas from the fluid.
The fluid can be any liquid or gas suitable to fit in the pouch. The seal is configured such as discussed above. In some embodiment, a cap (or fitment) positioned on an upper edge of the pouch where the seal expends generally horizontally between two sealed side portions of the pouch, the seal positioned between the supply of fluid and the cap. In other embodiments, the cap positioned on an angled corner of the pouch wherein the seal is angled generally at a 45 degree angle, a pair of ends extending between the side seals of the pouch. In even further embodiments, the ends of the seal extend between at least one side seal of the pouch.
Thus a novel pouch and method of manufacturing the pouch includes a flexible pouch having a fitment for accessing the hydrogen water mounted in the corner of the pouch. A frangible seal is disposed between the contents of the pouch and the fitment. The frangible seal is placed on the pouch before the hydrogen water is filled into the pouch. The seal is placed just above the level of the hydrogen water so as to minimize the amount of oxygen that can enter the pouch and contact the hydrogen water and also to prevent the water from coming into contact with the fitment and cap where the hydrogen can escape due to the fitment and cap having no barrier properties. The pouch may have a fold line to assist the user in breaking the seal to access the hydrogen water.
A number of embodiments of the pouch are shown in
The first embodiment as illustrated in
In this first embodiment, the pouch 100 includes corner portions 128, 134, 116 and 130. The corner portion 130 includes the cap 106. In this embodiment, a gusset 124 is provided to allow the pouch to stand in an upright position.
The panels are formed from a film laminate including a layer of aluminum or silicon oxide. The laminate may be PET/AL/NY/LLDPE; PETALOx/NY/LLDPE; or PETSiOx/NY/LLDPE. The film structure is also very important. Film with barrier properties prevents the hydrogen from escaping through the pouch. The film is formed into a pouch having three sides on a conventional pouch making machine. The fitment is heat sealed or ultra-sonically welded to an upper corner of the pouch. A frangible seal is formed to extend from the corner seal from one side of the fitment to the other side of the fitment. The pouch has an open top. The empty pouch moves around the turret and a diving nozzle enters into the opening at the top of the pouch and disperses the hydrogenated water into the pouch. The pouch travels to the next station where seal bars are moved inwardly against the pouch to place a seal horizontally across the top of the pouch sealing the front panel to the rear panel just above the level of the hydrogen water. The fitment has a top which is removable to permit access to the contents of the pouch. The fitment may be provided with a childproof or tamperproof feature to prevent ready access to or tampering of the product. As shown in
A second embodiment is shown in
The second embodiment as illustrated in
A third embodiment of the invention having a curved seal and straight bottom without a gusset is shown in
A fourth embodiment of the invention having a straight frangible seal and a straight bottom is shown in
The fourth embodiment as illustrated in
A fifth embodiment is similar to the first in that the pouch has a fitment with a closure on the top of the pouch. The fitment is installed and a curved frangible seal is formed to extend outwardly from the top seal 130. The pouch then is loaded into a turret with the bottom of the pouch open but facing upwardly. The pouch then is moved to a fill station where a diving nozzle fills the hydrogen water into the pouch. The pouch is moved to a final seal station where a horizontal seal is placed across the open edges of the inverted pouch to seal the water into the pouch.
The fifth embodiment as illustrated in
In all embodiments, the pouch is filled with the hydrogenated water at a fill station having a hood positioned above. The hood is adapted to control the filling environment to prevent the hydrogen from escaping the water. In one embodiment, the pouch is filled when the hood emits nitrogen. The nitrogen replaces the air at the filling station. Since nitrogen is an inert gas, it will not mix with the hydrogen in the water. Accordingly, nitrogen fills the space in the pouch not occupied by the hydrogenated water so as to prevent the hydrogen from escaping the water.
A sixth embodiment is shown in
A seventh embodiment is shown in
An eighth embodiment is shown in
A ninth alternative embodiment is shown in
When the pouch is ready for use by the consumer, the pouch is folded over at the frangible seal to promote rupturing of the seal or the contents are squeezed against the seal to rupture the frangible seal. The fitment is then opened and the contents are ready to be consumed by the consumer. The inner frangible seal prevents the hydrogenated water from reaching the fitment and cap where the hydrogen in the water can escape through the fitment and cap that both have very little barrier properties. The inner frangible seal also prevents oxygen from reaching the contents and thereby diffusing the contents.
The invention is not restricted to the illustrative examples and embodiments described above. The embodiments are not intended as limitations on the scope of the invention. Methods, apparatus, compositions, and the like described herein are exemplary and not intended as limitations on the scope of the invention. Changes therein and other uses will occur to those skilled in the art. The scope of the invention is defined by the scope of the appended claims.
This Application claims the benefit of U.S. Provisional Application 62/039,038 filed on Aug. 19, 2014, the contents of which are incorporated in its entirety.
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