Patent Application
20220113113
The invention relates to devices used for launching explosive projectiles, including fireworks, mortar shells, munitions, and other explosive projectiles.
Fireworks and explosive projectiles are increasingly enjoyed as a form of personal and group entertainment, and are more widely available than ever, through increases in global trade, the removal or relaxation of state regulatory mechanisms, and on native sovereign treaty lands. Where the availability and use of explosive projectiles are more widespread than ever, advances in safety have not necessarily followed in step. As home use in particular continues to rise, as well as professional uses for holidays, fairs, sporting events, private parties, and myriad other occasions. The explosive projectiles used in these celebrations can be dangerous, the exposure to risk and launch system failure rises proportionally with use. The present state of the art for explosive projectile launch systems has been largely utilitarian in nature, having emerged homemade solutions driven largely by considerations of ease of construction, ease and availability of common materials, and considerations of expense. Alternatively, some solutions have been over-engineered for safety, such as with welded steel rack systems, making them extremely difficult to transport, carry, and use.
Frequently, launching systems are used to hold an explosive projectile in place before the projectiles are fired. Launching systems are often made from lumber, nails, screws, and other components that are easily and affordably put together, which tend to get damaged when explosive projectiles are launched from them. Additionally, because these launching systems are made from lumber connected together by screws or nails, if a device explodes within the launching system, portions of a launching system become shrapnel and may hurt or kill spectators or crew members setting off the explosive projectiles.
Explosive projectile launching systems ordinarily use mechanical connectors such as metal screws or nails to attach system pieces together. The mechanical connectors may not hold an explosive projectile, launch system, frame member, or its connectors, in place when an explosive projectile explodes inside the launching system. This is due to a low resistance to the force of the explosion within the launch system rack and between member connections. Connectors can become dangerous shrapnel projectiles upon explosion of the explosive projectile inside the launching system, causing severe physical harm to users and spectators, including wounds to vital organs, and even death.
Wood frame members are commonly used to construct explosive projectile launch systems, which tends to splinter and become sharp projectiles upon system launch system failure. Wooden pieces holding nails, screws, and staples also create sharp harmful shrapnel endangering humans. There are some uses of aluminum and steel launch system frames in the art as well. Aluminum is light in weight, and does not solve the problem of metal shrapnel during launch system failure. Ferrous metal frames are sturdy and do not typically fail. However, their weight is typically prohibitive for common usage and transport, except under special and unique conditions.
Launch system tubes are frequently comprised of cardboard, or occasionally fiberglass tubes, or high density polyethylene pipe tubes, with wooden base plugs. Polyvinyl Chloride launch tubes have been used in the past, and are recognized as a severe safety hazard, for their splintering properties upon explosion failure.
There is nothing in the state of the art applying novel, non-obvious, shatter-resistant materials to launch system racks, and the present invention contemplates this important need, and addresses a recognized absence in the state of the art.
The state of the art in explosive projectile launch systems safety is to prepare launch systems during daylight hours, and to use handheld, head mounted, or stationary mounted light sources to view the launch system in low or no light environments.
The present invention addresses a noted absence of art in the field to address safety of the entirety of the launch system materials, with novel methods and devices of connection, reinforcement, and material use, repair, and illumination.
The Applicant is aware of a number of fireworks and explosive projectile launching device inventions related to the proffered invention, including U.S. Patents Numbered:
Viewing the aforementioned known inventions individually and as a whole, there is no suggestion of any configuration that approximates the current invention. A need still exists for or an Explosive Projectile Launch System Rack, with Fiber and Adhesive Connection Reinforcement to enable and enhance structural integrity, without the use of metallic or other shrapnel producing fasteners, to help minimize potential harm to humans, other living organisms, property, and environments.
Furthermore, —a need still exists for launching systems assembled with Interlocking Members, to enable structural integrity, and to minimize potential harm to humans, without the use of metallic or other shrapnel producing fasteners, to help minimize potential harm to humans, other living organisms, property, and environments.
Furthermore, a need still exists for launching systems assembled in a modular fashion such that damaged launching system component members may be easily replaced.
Furthermore, a need still exists for launching systems comprising entirely of a shatter resistant material, to help minimize or eliminate the probability of launch system projectiles causing harm to humans, other living organisms, property, or environments
Furthermore, a need still exists for launching systems comprising the integration or application of luminescence, glow-in-the-dark, or other illuminating materials, to enable visual sighting, in the dark, of explosive projectile launch system racks, and other related items, including but not limited to, explosive projectiles themselves, and their packaging, for improved use in low or no light environments.
While several of the inventions cited, and the prior art, present explosive projectile launch systems with various material and configuration, they lack a device enabling an explosive projectile launch system rack, with fiber and adhesive connection connection reinforcement, interlocking members, modular replacement, shatter resistant material, and light emitting material.
The applicant claims the benefit of United States Provisional Patent Application # US 63/076,927 filed Sep. 10, 2020 for an “Explosive Projectile Launch System with Reinforced Connections without Fasteners, Glow-in-the-Dark Explosive Projectile and Launching System.”
The present invention is an explosive projectile launch system rack, and the means, modes, methods, and members comprising engendering its assembly. An explosive projectile launching system rack is typically a frame launching system having supports that are connected together. A launching system. holds an explosive projectile device (or devices), that launch from a launching system by explosive action, to achieve an intended purpose.
The explosive projectile launching system rack of the present invention comprises one or more frames of members, with reinforced fiber connections. This fiber may be comprised of single or multiple fibers, cloth, string, cord, line, or other filament, arranged in a linear, cross-linear, bundled, mesh, or any pattern to achieve a desired attachment or tensile strength objective. Reinforcement may be comprised of any material, including but not limited to glues, resins, adhesives, epoxies, tapes, or other reinforcing agents, referred to here, both generally and inclusively, as adhesives
In the preferred embodiment, reinforced fiber connections replace commonly used mechanical attachment devices such as screws and nail to join members together. Mechanical attachment devices become dangerous projectiles in the event of an unintended, accidental, or unwanted explosion, or launch system failure.
In the preferred embodiment, a connection reinforced with epoxy and fiber has a resistance to explosion that is stronger than that of commonly used mechanical attachment devices such as screws and nails. This increases the probability that a launching system will maintain its integrity and stability during an unintended or unwanted explosion. In the preferred embodiment, fibers used to reinforce an epoxy connection may be aramid, fiberglass, Kevlar, carbon fiber or a mixture of these materials.
Explosive launching system connections may also be reinforced with glued interconnecting joint connections of various shapes. They may be connected without fasteners, by friction alone, or with adhesive, or with additional connection reinforcements The invention contemplates shaped connection joint types that will produce a strong connection without the use of fasteners, i, eliminating dangerous shrapnel from metalic, mechanical, or other dangerous joint types, in the event of an accidental explosion within the launching system. Contemplated safer connection types include, but are not limited to, biscuit, bridle, dado, dovetail, box, finger, lap, tongue & groove, mortise & tenon, and dowel. Additionally, with the application of adequate adhesive and contact surface, these shaped joint connections can exceed the strength of mechanical fasteners, thus eliminating dangerous shrapnel in the event of an accidental explosion within the launching system.
Also, this invention creates launching systems that fits together in a modular fashion, enabling a user to replace damaged sections of an explosive projectile launch system rack.
By designing a modular system of explosive projectile launching systems, a user can replace just the damaged sections, instead of replacing an entire launching system.
The launching system rack may be joined together in a modular fashion such that damaged component members may easily be removed and replaced in the case of accidental or unintended damage, or for any reason
The explosive projectile launch system rack, and multi section explosive projectile launching system, may be constructed of shatter resistant material to minimize shrapnel and debris upon explosion. Shatter resistant material may include, though is not limited to, shatter resistant thermoplastics, and fiber and adhesive materials, Whereas shatter resistant materials are frequently used in launch system tubes, their use in constructing the entirety of a launch system rack is notably absent, and there is no evidence of their use elsewhere. The present invention contemplates this use as an improvement upon the use in the prior art of wood and metal, and addresses a recognized absent need for improved safety over wood, with improved weight considerations for transportation in relation to steel and other metals, as well as the ease of interchanging rack members that is not easily achieved with metals. The invention contemplates, and addresses, a noted absence and needs in the field of art for a an explosive projectile launch system rack comprising engendering shatter resistant material.
Pyrotechnic explosive projectiles are commonly used at night. The application of light emitting material enables users to see launch systems, avoiding tripping hazards, accidental firing, and injury
This invention contemplates the use of light emitting, or light capturing, material to enable users or viewers to see the launching system, or its contents, components, or elements, in low or no light settings. Light emitting material may be, but is not limited to, glow-in-the-dark paint or adhesive, electric lighting, combustible material, or other illuminating or vision enhancing material, substance, devices, or processes.
The preferred embodiment for vision enhancement material in this invention contemplates applying glow-in-the-dark material to adhesives, resins, mixtures, compositions, epoxy, and paint, and applying onto, or integrating into, launch systems, racks, fireworks, and related explosive items.
These light emitting material may help users to safely identify explosive projectiles, explosive projectile parts, explosive projectile launching systems, and other explosive projectile related items, particularly in low light settings.
Also, this invention creates launching systems that fits together in a modular fashion, enabling a user to replace damaged sections of a launching system.
Though the field presents a variety of explosive projectile launch devices, none approximates the present invention as an Explosive Projectile Launch System Rack device, enabling the minimization or elimination of explosive shrapnel that harms users, audiences, and passers by, enables interlocking members without screws, metal, mechanical, or other metal fasteners, enables modular replacement in the case of partial rack destruction caused by unintended explosion , and enables a light emitting application to enable sighting the device in low or no light environments. The present device solves these recognized needs.
The accompanying figures together illustrate the best mode currently contemplated for the present invention. The figures, in which like reference numerals refer to identical or functionally-similar elements throughout the separate views and which are incorporated in and form part of the specification, serve to illustrate the present invention and, together with the detailed description of the invention, explain the principles of the present invention.
The particular values and configurations discussed in these non-limiting examples incorporate the accompanying figures and descriptions cited above. They can be varied, and are cited merely to illustrate an embodiment of the present invention. They are not intended to limit the scope of the invention.
The Explosive Projectile Launch System Rack, with Fiber and Adhesive Connection & Connection Reinforcement, Interlocking Members, Modular Replacement, Shatter Resistant Material, and Light Emitting Material device enables the launch of pyrotechnics and other explosive projectiles in a wide variety of applications. It enables strong and reinforced rack member connections, with adhesive and fiber, to improve safety. Additionally, it enables interlocking rack member connections. Additionally, it enables rack member modularity for member replacement. Additionally it enables shatter resistance for rack member material to improve safety. And additionally, it enables light-emitting vision enhancement for improved safety and ease of use in low-light environments.
In the best mode, the exploding projectile launch system rack is comprising geometrically shaped members, variously interconnected with interlocking joint connections, having adjustable configurations, replaceable members or modules, the connections having fiber and adhesive reinforcement, replaceable member modules, and members comprising shatterproof thermoplastic, that is impregnated or coated with luminescent material.
It is appropriate to appreciate, however, that an explosive projectile launch system rack device may be comprised of one or more different parts, and that those parts may be of different materials or configurations.
It is also appropriate to appreciate that the present invention may be used as an explosive projectile launching system rack device for use in numerous and various applications, including, but not limited to launching fireworks for entertainment, and deployment in multiple industrial, commercial, military, geological, aerospace, and other applications.
It is appropriate to appreciate too, that the current configuration and application may be altered in part or in whole to utilize some or all of the various components, or by adding additional components, to effect a similar, yet alternative resulting explosive projectile launching system rack device.
In the best mode, the exploding projectile launching system rack is comprising a geometrically shaped members, variously interconnected with interlocking joint connections, having adjustable configurations, replaceable members or modules, the connections having fiber and adhesive reinforcement, replaceable member modules, and members comprising shatterproof thermoplastic, that is impregnated or coated with luminescent material.
It is appropriate to appreciate, however, that an explosive projectile launch system rack device may be comprised of one or more different parts, and that those parts may be of different materials or configurations.
It should be appreciated, however, that interlocking member attachments may be comprised of one or more different parts, and that those parts may be of different materials or configurations, or have different effects for attachment.
It should be appreciated, however, that interlocking member attachments may be comprised of one or more different parts, and that those parts may be of different materials or configurations, or have different effects for attachment.
It should be appreciated, however, that interlocking member attachments may be comprised of one or more different parts, and that those parts may be of different materials or configurations, or have different effects for attachment.
It should be appreciated, however, that interlocking member attachments may be comprised of one or more different parts, and that those parts may be of different materials or configurations, or have different effects for attachment.
It should be appreciated, however, that the modular, replaceable, interchangeable, member sections may be comprised of one or more different parts, and that those parts may be of different materials or configurations, or have different effects for replacement, adjustment, or interchangeability.
It should be appreciated, however, that the shatter resistant material may be comprised of one or more different parts, and that those parts may be of different materials or configurations.
It should further be appreciated that luminescent material may be comprised of one or more different parts, or applications, or devices, and that those may be of different materials or configurations.
The explosive projectile device launch system rack system described here demonstrates a novel device for launching explosive projectiles that improves human safety and well-being, assembly, repair, and ease of use and operation.
The embodiments and examples set forth herein are presented to best explain the present invention and its practical application and to thereby enable those skilled in the art to make and utilize the invention. Those skilled in the art, however, will recognize that the foregoing description and examples are presented for the purpose of illustration and example only. Other variations and modifications of the present invention will be apparent to those of skill in the art, and it is the intent of the inventor that such variations and modifications be covered. The description as set forth is not intended to be exhaustive or limit the scope of the invention. Numerous variations and modifications are possible in light of the above teaching without departing from the spirit and scope of the specifications. It is contemplated that the use of the present invention can involve components having different characteristics, and intended that the scope of the present invention be defined by the claims included here, giving full cognizance to equivalents in all respects.
| Number | Date | Country | |
|---|---|---|---|
| 63076927 | Sep 2020 | US |
