ZIPPER LOCKING DEVICE

Abstract

A zipper locking hasp is described which adapts to most conventional zippers without modification to the zipper or to the movable slider parts of a zipper. The hasp is comprised of a plate component with prongs pivotally joined to a channel component. The plate component is fabricated having narrow prongs designed to fit through the conventional aperture present on most zipper sliders. In normal operation, when a zipper is closed, a pair of sliders is brought together along the zipper chain. When the hasp is open, the prongs formed by the plate are inserted through apertures in adjacent sliders which inhibits movement of each slider relative to one another. When the hasp is closed, holes provided in the plate and channel assembly are aligned. A shackle of a padlock can be inserted through the aligned holes keeping the plate and channel components mated locking the zipper.

Claims

1. A zipper locking device comprising: a hasp; a padlock; the hasp comprising a flat plate component with narrow prongs pivotally connected to a channel component; said prongs adapted for insertion through apertures in a pair of zipper sliders brought together along a zipper chain, into rotational engagement with the interior floor of the channel component permitting a hole to align said plate and channel components to selectively receive the shackle of a padlock or similar locking device.

2. A zipper locking device as in claim 1, wherein more than one hole is provided to align said plate and channel components to selectively receive the shackle of a padlock or similar locking device.

3. A zipper locking device as in claim 2, wherein a permanent magnet is placed in the vicinity of the prongs to attract the prongs when the jaws of the device are nearly closed.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

[0008] FIG. 1 depicts a side elevation of plate component 12 of the current invention.

[0009] FIG. 2 depicts a side elevation of channel component 14 of the current invention.

[0010] FIG. 3, in a perspective view, depicts plate component 12 in FIG. 1 positioned within the channel component 14 shown in FIG. 2 and a pivot component fastener 18 used to join the plate and channel components.

[0011] FIG. 4 is a side elevation of plate 12 and channel 14 components of the current invention 110 shown in relation to one another in an “open” configuration (with the pivot fastener 18 absent).

[0012] FIG. 5 is a side elevation of plate 12 and channel 14 components of the current invention 110 in a “closed” configuration (with the pivot fastener 18 absent).

[0013] FIG. 6 is a perspective view of the plate and channel components relative to one another of the current invention 110 showing the pivot axis in an “open” jaw configuration (with the pivot fastener 18 absent).

[0014] FIG. 7 is a perspective view of the plate and channel components of the current invention 110 in a “closed” jaw configuration without pivot fastener 18.

[0015] FIG. 8 is a perspective depiction of the assembled zipper latching hasp in an “open” condition showing the component prongs penetrating a pair of apertures on the zipper chain sliders (interlocking elements of the zipper chain normally adjacent to the zipper sliders not shown).

[0016] FIG. 9 is a depiction of the zipper latching invention 110 in a closed and locked condition with an external padlock of rugged construction requiring the largest hole to accommodate the shackle component of the padlock.

[0017] FIG. 10 is a depiction of the zipper latching invention 110 in a closed and locked condition with an external padlock of rugged construction requiring the mid-size hole to accommodate the shackle component of the padlock.

[0018] FIG. 11 is a depiction of the zipper latching invention 110 in a closed and locked condition with an external ISA style padlock using the smallest diameter hole to accommodate the shackle component of the combination padlock.

DETAILED DESCRIPTION OF THE INVENTION

[0019] Zippers are normally comprised of a “tape” which is the name given to the flexible portion of a zipper which is usually fabric or flexible material. The tape is affixed along one border to the backing material and along a parallel border to the zipper “chain”. The zipper chain is comprised of a row of teeth which form individual elements of the chain. The toothlike elements intermesh to close the zipper. A “slider”, or “carriage”, is selectively moved along the chain urging the elements to intermesh closing the zipper or, selectively and oppositely, moved along the chain separating the elements to open the zipper. For definitional clarity, the words contained between quotation marks are commonly used in the zipper industry.

[0020] A “pull tab” to facilitate manual movement of the slider is provided on most zippers. The pull tab is loosely connected through an aperture provided as an integral part of the slider. Commonly, a conventional zipper lock is connected to the slider through a hole or opening on the pull tab which is loosely fastened to the slider.

[0021] Visible examples of pull tabs are shown vertically oriented in the perspective drawings of the preferred embodiment of the current inventive assemblies 110 shown in FIGS. 8-11.

[0022] In the preferred embodiment of the present invention, a latching hasp device is provided with rigid projections—prongs 16—which are inserted through an aperture integral to each zipper slider. This design effectively prevents movement of the sliders and is more secure than connections to loosely attached zipper pull tabs.

[0023] With reference to FIGS. 1-7 of the Drawing, a preferred embodiment of the zipper latching device is comprised of plate component 12 shown in FIG. 1, and channel component 14, shown in FIG. 2.

[0024] In FIGS. 4-7 the components 12,14 are combined and shown pivotally oriented and rotatable around pivot axis 21. The pivot axis 21 extends perpendicular to plate 12 through the hole near a corner of plate 12. Pivot fastener 18 holds components 12 and 14 together keeping component 12 contained within channel 14. When plate component 12 is rotated in the direction of the open channel component 14 it is received within the channel without interference from the surfaces, upright walls or flanges defining channel 14.

[0025] The plate 12 fastened to channel component 14 by fastener 18 is rotatable around pivot axis 21 and each prong 16 is dimensionally adapted for insertion through a wide variety of apertures in zipper sliders.

[0026] In a typical application, a pair of zipper sliders are brought together from opposing directions to close a zipper chain. Plate component 12 is rotated away from channel component 14 permitting access to the narrow distal ends of prongs 16. Prongs 16 are then inserted through the aperture on each slider. Subsequently, channel component 14 is rotated until the interior floor of channel 14 engages the plate component prongs 16 preventing further rotation and the hasp component jaws are fully closed.

[0027] The shackle of a padlock, such as those shown in FIG. 9, 10 or 11, can then be selectively inserted through holes 23A, 23B or 23C, and through holes 25A, 25B or 25C, as each hole is aligned through both components of the zipper hasp 110 when the pivotally connected plate component jaw is fully closed. Zipper security is positively established when the padlock is locked.

[0028] This embodiment of the zipper latch 110 as shown is fabricated from 1/16″ thick stainless steel sheet material for toughness and rust resistance. The size, composition and configuration reinforce the impression that this is an effective security enhancement.

[0029] The zipper latch device is designed to be readily portable and pocketable. When the jaw is closed, the device approximates the size of a standard credit card. The embodiment shown in the FIGS. is 2.79″ (79 mm) wide and 1.44″ (37 mm) tall and 0.187″ (90 mm) thick.

[0030] In another embodiment (not shown) the pivoted jaw components are mechanically attracted to one another when the jaws are nearly fully closed. This is readily accomplished magnetically by placing a permanent magnet within the channel component in the vicinity of the prongs. In this embodiment the material used to make the components is to some degree ferromagnetic, e. g. 400 series stainless steel or equivalent. Alternatively, spring biasing movement of the components toward closure can be provided. Magnetic attraction or spring biasing of the components keeps the zipper latching device jaws closed and confined to its smallest area dimension when not in service.

[0031] While the invention has been specifically described in connection with the embodiments illustrated in the drawings, it is understood that these are for illustration and not limitation and that modifications are possible without departing from the scope of the invention as described and presently disclosed.