The present invention generally relates to vacuum packaging appliances. More particularly, the invention is directed to a vacuum packaging appliance that can be conveniently stored.
Vacuum packaging is a process for removing oxygen and other gases from containers holding food and other products that deteriorate in the presence of gases. For example, food spoilage can occur due to oxidation. Thus, vacuum packaging can extend the life of products that deteriorate in the presence of gases by removing nearly all of the gases in a sealed container in which such products are stored.
While vacuum packaging appliances are very useful, as with most appliances, appliance components suffer from wear and tear. For example, those movable components that are frequently handled are prone to fall into disrepair. Further, such appliances can be unwieldy and occupy a good deal of valuable counter space and/or storage space.
In addition, vacuum sealing appliances typically include a lid that is closed on the open end of a bag to isolate the bag end from ambient air. Such isolation is typically achieved by the use of resilient gaskets on the lid and the housing portion covered by the lid. Deforming the gaskets can take some effort for a user, who must force the lid downwardly until it is properly latched.
Accordingly, there is a need for vacuum packaging appliances that are configured for reduced wear and tear and for convenient storage. There is further a need for vacuum packaging appliances having a mechanism for easily securing the lid and providing adequate sealing.
It is an advantage of the present invention to provide a vacuum sealing appliance which is easy to store.
It is also an advantage of the present invention to provide a vacuum sealing appliance that can be rotated between an operating position and a storage position.
It is further an advantage of the present invention to provide a vacuum sealing appliance having a lid that can be selectively secured in a closed position.
It is still a further advantage of the present invention to provide a vacuum sealing appliance having a lid that can be selectively secured in a closed position by a latching mechanism including an actuator that is moveable by a user.
In the efficient attainment of these and other advantages, the present invention provides an apparatus for vacuum sealing a storage bag including a base and a receptacle component for receiving the end of a storage bag. A vacuum generating device is disposed in either the base or the receptacle. The receptacle includes a vacuum chamber for accepting the open end of the bag. The receptacle is pivotally secured to the base and is rotatable relative thereto between a first and second position. A sealing device is disposed on the receptacle for sealing the open end of the bag.
The present invention may further provide a receptacle having a lid movable between an open and closed position, and a latch for selectively securing the lid in the closed position.
The present invention may further provide a locking feature for selectively locking the receptacle relative to the base.
The present invention is illustrated by way of example, and not by way of limitation.
The present invention includes a vacuum sealing appliance having improved service life. The present invention also provides a vacuum sealing appliance which can be easily stored by pivoting between a first operating position and a second storage position.
According to certain embodiments the vacuum appliance is designed to be lidless in order to reduce the number of movable parts and thus effectively reduce wear and tear of the appliance. Further, the lidless design described herein allows for convenient placement in the operational environment of the appliance. For example, a lidless vacuum appliance can be affixed under a counter or cabinet so as to save counter-top space as well as allow for convenient access during operational mode. When such an appliance is not is use, there is no need to find storage space for the appliance since the appliance is affixed in a location that is largely non-intrusive.
In order to vacuum seal packaging bag 106, packaging bag 106 is inserted in slot 126 of lidless vacuum appliance. Guide track 118 guides the mouth of packaging bag 106 into drip tray 110. Drip tray 110 is for catching any fluids or other particles that might fall out of the bag during the vacuum packaging process. Before the vacuum packaging process begins, bladders 112 and 114 each inflate in order to clamp onto packaging bag 106 to form an air-tight seal such that air does not flow through slot 126 past the bladders into the vacuum chamber. Bladders 112 and 114 are inflated by an intake of air through connectivity components 120 caused by operation of motor components 108. Phantom bladders 112b and 114b show the inflated position of bladders 112 and 114. When an airtight seal is formed, the vacuum packaging process can begin by evacuating gases from the vacuum chamber 122 and from the interior of packaging bag 106. When packaging bag 106 is sufficiently evacuated of gases, heating element 116 can be activated for forming a heat seal on packaging bag 106. Such a heat seal prevents air from re-entering the bag. After packaging bag 106 is heat sealed, bladders 112 and 114 can be deflated to allow packaging bag 106 to be extricated from the lidless vacuuming appliance 104.
According to certain embodiments, drip tray 110 can be detached from the lidless vacuuming appliance 104 conveniently through an opening on the side of the appliance as described herein with reference to
In an alternative embodiment, shown in
The sealing function may be automatically activated when the lid of the movable receptacle component 606 is in the closed position over one end of a storage bag, which end is not in a vacuum channel of the vacuum packaging apparatus. When a storage bag is being evacuated through activation of the vacuuming function, the instant seal button 610 may be used to seal a storage bag before a complete vacuum is created in the storage bag. This feature is useful when vacuum packaging fragile items so that such items do not get crushed. In addition, control panel 607 may include indicator lights 613 to signal the start or completion of various processes such as the sealing process, vacuum process and/or machine re-programming when transitioning from one process to the next. Control panel 607 may optionally include an automatic On/Off button. The automatic On/Off button acts as a fail-safe mechanism to ensure that the heat sealing and or vacuum mechanisms are not unintentionally activated. Further, control panel 607 may optionally include a Cancel Button for canceling a given operation in progress.
Control panel 607 may also include sealing time adjustment knob 619 for controlling the heating element associated with the sealing mechanism. For example, the sealing time adjustment can be set to a first setting when storage bags are being sealed. The sealing time adjustment can be set to a second setting when canisters are being sealed. In the case of sealing canisters, there is no need for activating the heating element.
In certain embodiments, the vacuum operation for removing gases automatically starts when the lid of movable receptacle component is in the closed position. In such cases, control panel 607 may include an extended vacuum button. The extended vacuum button may be used to extend the vacuum time to ensure that the maximum amount of air is removed especially when using extra large storage canisters or bags.
The movable receptacle component 606 may include a compartment 617 with a lid 614. Compartment 617 includes a vacuum chamber. The vacuum chamber includes a vacuum channel that is in communication with the vacuum pump. Further, the vacuum chamber includes one or more gaskets for statically sealing the vacuum chamber when the lid 614 is in the closed position. Compartment 617 may include a storage bag cutter 615 integrated into lid 614. Bag cutter 615 may include a sliding blade 615a which travels in a slotted track 615b disposed on the lid 614 in a manner well know in the art. The compartment 617 may also contain a shelf mechanism for holding one or more rolls of storage bags. Furthermore, movable receptacle component 606 may include a latch 605 that automatically locks during the sealing and/or vacuuming operation. Latch 605 is released in order to pop lid 614 open.
Movable receptacle component 606 may optionally include an x-ray style strip 609 for holding notes and recipes 618. X-ray style strip 609 doubles as a foot when movable receptacle component 606 lies flat on the countertop surface during operation mode. The pivoted configuration as shown in
Vacuum packaging apparatus 702 further includes a trough 718 running along the length of the receptacle 706. The front end of the bag 726 extends into the trough which is sealed by gaskets 719a and 719b surrounding the trough. The trough may be evacuated permitting air within the bag to be evacuated through the bag opening. After the bag is evacuated, the opening may be sealed by a heating strip 720 in a manner well known in the art. The receptacle 706 may also include a bag roll storage area 722 for holding a roll of bag material 724.
One of the differences between vacuum packaging apparatus 602 and vacuum packaging apparatus 702 is that the control panel 707 is on lid 714 rather than on a top frontal portion of stationary base 702. Further, accessory port 708 may be situated on an exposed lower housing 732.
One of the differences between vacuum packaging apparatus 602 and vacuum packaging apparatus 802 is that the movable receptacle component 806 is operable to house a dual bag roll shelf 842 as shown in
An alternative preferred embodiment is shown in
With specific reference to
The trough 1008 may be surrounded by an elastomeric first gasket 1018 which may cooperate with a second elastomeric gasket 1020 located on the under side 1022 of the lid. Second gasket 1020 may surround an elongate depression 1024 in the underside of lid 1022 which includes a vacuum port 1016. The first and second gaskets may adjoin one another in a compressed manner when the lid is in the closed position, to form an air-tight seal around the trough 1008.
A strip-like heating element 1026 of a type known in the art may be located on receptacle 1004 running along the front side of the trough 1008. Heating strip 1026 aligns with resilient strip 1028 disposed along the front of the lid. When the lid 1006 is in the closed position the resilient strip 1028 urges the bag against the heating strip 1026 to assist in affecting a secure seal when the heating strip is energized after the bag has been evacuated.
With reference to
An alternative embodiment of the drip tray 1012 is shown in
With reference to
The linkage 1034 may include a first component 1038 fixedly secured to the actuator 1032. Rotation of the actuator results in rotation of the first linkage component 1038. First linkage component 1038 may have a connecting pin 1040 disposed a distance, d, from an axis of rotation, R, of the actuator 1032. On an end opposite of the pin 1040, first component 1038 may include a plurality of ridges 1042, which may be used to provide discrete detented positions for the actuator. A second linkage component 1044 may have an elongated shape with one end connected to the end of the shaft 1036. The second linkage component 1044 includes an elongated slot 1046 which receives in sliding engagement the pin 1040 of the first linkage component 1038. Rotation of the actuator 1032 causes pin 1040 to rotate and to translate within the slot 1046 resulting in rotation of the second linkage component 1044 and shaft 1036. When the shaft is in its fully rotated position, the pin 1040 may be at the top of the slot 1046 and is at the furthest distance from the axis of rotation, S, of the shaft. The cooperation between the first and second linkage components helps maintain the actuator in the fully secured position and resist the force of the gaskets 1018 and 1020 which are compressed in this position.
With regard to the detent feature of the present invention, a resilient member 1043 may include a V-shaped portion 1043a that rides within one of the ridges 1042 of the first linkage component 1038. The resilient member 1043 may be secured at each end to a plate 1045. Plate 1045 is secured to a sidewall of the receptacle 1048 (
Shaft 1036 includes a pair of spaced catches 1048 secured thereto. Catches 1048 are located below slots 1050 (
After evacuation and/or sealing is completed, a user may reverse the rotation of the actuator 1032 and fully unlatch the lid 1006 to permit removal of the bag. Accordingly, the actuator may include three discrete positions, open, retained and sealing. The actuator of the present invention permits the lid to be fully secured on both ends, and opened and closed by one operation, i.e., the moving of the actuator 1032.
It is within the contemplation of the present invention that only an open and sealing position may be provided. It is further within the contemplation of the present invention that other types of latching devices, e.g. mechanical and vacuum latches, could be used to secure the lid as is well known in the art.
The vacuum packaging appliance 1000 is rotatable between an operative position and a storage position. In the operative position (
With additional reference to
The locking hinge 1062 may further include a locking member 1082 which extends through the cross-shaped inner profiles 1078 and 1080. The locking member 1082 may be moved between a locked and unlocked position. Locking member 1082 is preferably an elongated member including a round post-like end portion 1084. End portion 1084 leads to a profile portion 1086. Profile portion may have a configuration that is complementary to the inner profiles 1078 and 1080. Preferably, profile portion 1086 has a plurality of radially spaced projections 1088 running axially along its perimeter. Projections 1088 are spaced 90 degrees around the perimeter and correspond to the cross-shape (
The locking member 1082 is biased by a spring 1094 toward a locked position. In this position (shown in
The locking member 1082 further preferably includes an actuation end, or button 1096, which is accessible on the outer surface of the sidewall of the receptacle as shown in
To move the receptacle from the storage position to the operating position, the user presses in the button 1096, which permits the receptacle to rotate and will continue rotating until it has reached the operating position.
The use of the cross-shaped profile with openings every 90 degrees, permits engagement at 90 degree intervals. It is within the contemplation of the present invention that other non-round profiles, such as a square, could be used to achieve the locking engagement.
It is further within the contemplation of the present invention that other types of latches or detents could be used to allow the receptacle to rotate between various positions and become rotatably locked on those positions.
In the foregoing specification, embodiments of the invention have been described with reference to numerous specific details that may vary from implementation to implementation. The specification and drawings are, accordingly, to be regarded in an illustrative rather than a restrictive sense.
This application is a continuation-in-part of U.S. patent application Ser. No. 10/909,971, filed on Jul. 30, 2004, now U.S. Pat. No. 7,200,974 which claims priority to U.S. Provisional Application Nos. 60/492,035, filed on Jul. 31, 2003, and 60/492,090 filed Jul. 31, 2003, all three aforementioned applications are herein incorporated by reference in their entireties.
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Child | 11385133 | US |