With the advancement of transportations and the proliferation of trade barriers among nations, goods from one country can be easily transported and sold to another country. Consumers worldwide benefit the most from this advancement and proliferation as foreign goods are no longer out-of-reach due to either the mere impracticality of shipping as well as exorbitant prices. Despite these developments, international or domestic shipping cost is still an inevitable overhead expense for goods sold in any country.
Shipping cost is determined by both weight and size. To reduce weight, there must be innovative designs that would minimize materials used yet provide proper structural integrity to render a product suitable for its intended use. To reduce volume, parts must be innovatively designed to occupy the smallest footprint possible for ease of packaging and transportation. Designing a product with shipping economy and ease of distribution in mind, the product would have a much higher market penetration power than a similar product not so designed.
The present invention is a rectangular shape flame heater and a pyramid shape flame heater. Both products are rather tall and bulky when fully assembled. The nature of a heater demands strong rigidity and high durability per safety and reliability expectations. For these reasons, traditional flame heaters are made by welding solid metallic parts together. They are therefore very heavy and bulky for shipping, distribution and relocation purposes.
To overcome these shortcomings, the present invention provides a knock-down design of a rectangular shape flame heater and a knock-down design of a pyramid shape flame heater. Before being fully assembled, parts of either heater occupy a space volume many times smaller than the space volume of a fully assembled heater. The pre-assembled compact size is ideal for economy of shipment and ease of distribution.
The first object of the present invention is to provide an outdoor rectangular shape flame heater.
The second object of the present invention is to provide an outdoor pyramid shape flame heater.
The third object of the present invention is to provide an outdoor rectangular shape flame heater that can be assembled and disassembled.
The fourth object of the present invention is to provide an outdoor pyramid shape flame heater that can be assembled and disassembled.
The fifth object of the present invention is to provide an outdoor rectangular shape flame heater with a knock-down design that fully meets structural rigidity requirements once fully assembled.
The sixth object of the present invention is to provide an outdoor pyramid shape flame heater with a knock-down design that fully meets structural rigidity requirements once fully assembled.
The seventh object of the present invention is to provide an outdoor rectangular shape flame heater with a knock-down design that can be disassembled and packed into a space many times smaller than the space occupied by a fully assembled heater.
The eighth object of the present invention is to provide an outdoor pyramid shape flame heater with a knock-down design that can be disassembled and packed into a space many times smaller than the space occupied by a fully assembled heater.
The ninth object of the present invention is to provide an outdoor rectangular shape flame heater with a knock-down design that is lighter in weight than a welded design.
The tenth object of the present invention is to provide an outdoor pyramid shape flame heater with a knock-down design that is lighter in weight than a welded design.
The eleventh object of the present invention is to provide an outdoor rectangular shape flame heater using one of a whole tube and a plurality of glass tubes to house burning flames.
The twelfth object of the present invention is to provide an outdoor pyramid shape flame heater using one of a whole tube and a plurality of glass tubes to house burning flames.
The front panel may be removeably installed by a number of known means and in this case is removeably installed by a magnet along with a safety chain. The other three panels are not removeably installed as in the case of the front panel. Instead, they are permanently installed by a number of known means and in this case are by resorting to screws and pre-cut retaining tongue and slot. The removeably installed front panel and the three permanently installed side panels form an interior chamber to house the LP tank and other accessories.
A set of wheels 1702 may be installed underneath either one of the three permanently installed side panels but preferably on the back side panel opposite to the front panel 102. This is the most desirable location because when the pyramid shaped flame heater is tilted to engage the set of wheels to the ground for relocation, any LP tank or other accessories may be securely retained inside the interior chamber and would not inadvertently fall out or roll out of the chamber, which very well could happen if the set of wheels are installed underneath the front panel 102 or underneath either the left side panel or the right side panel of the heater.
As shown by way of an example is an opening 108 residing on a side panel 106. Opening 108 serves safety ventilation, ease of access and ease of observation purposes.
Major components of the pyramid shape flame heater as shown in the exploded view include a reflector 202, a damper 204, an upper plate 206, a set of four upper support members 208 with an upper central hole 251, a set of four upper protection guards 210, a glass tube 212, a set of fours lower protection guards 214, a plate cover 216, a set of four connection stems 220 affixed to four corners of a middle plate 218 with a middle central hole 253, a set of four lower support members 224 each with a center-folded linear intermediate connecting piece 222, a front panel 226, a control box 228, a set of three side panels 230 and a bottom plate 232 where each corner thereof is a vertical connection stem 234.
The set of four upper support members 208 and the set of four lower support members 224 are the major components responsible for keeping the pyramid shape flame heater standing upright. Therefore, their load bearing capacity is of critical importance. Traditional supports may be made of heavy gage solid steel rods or hollow steel pipes. To minimize weight hence optimize shipping economy without sacrificing structural rigidity, metallic alloys or light metallic materials may be used. However, a special structural design is needed to reinforce its rigidity and ensure its weight bearing capacity.
Once the set of four upper support members 208 are correspondingly connected to the set of four lower support members 224 via a set of four center-fold linear intermediate connecting pieces 222, they serve as four pairs of end supports of the flame heater. The four pairs of end support members are held together by being affixed to an upper plate 206 on the top portion, a middle plate 218 on the mid portion, and a bottom plate 232 on the bottom portion.
For the middle plate 218, in addition to interconnecting the upper support member 208 and the lower support member 224, the mid corner vertical connection tab 702 also reinforce the rigidity and lead bearing capacity of the connected members. By so reinforcing, it has successfully eliminated the weakest juncture which is usually where two members are connected.
Corners of the upper plate 206 do not contain tabs similar to tabs 602 and 702. Instead, the corners are pre-cut as shown in
Remaining parts to be assembled are internal parts and external parts. Internal parts to be installed include a control box 228 and a glass tube 212 or a plurality of glass tubes that can be co-jointed to form one tube structure. The glass tube 212 rests on the middle plate 218 throw a hole opening of plate cover 216 as shown in
The top of the glass tube 212 is fitted into a circular opening 1104 of the upper plate 206, seated by a retaining lip 1106 protruding above a surface of the upper plate 208 and stabilized by a set of retaining clips 1108 as clearly shown in
The control box 228 as shown in
External parts to be assembled are divided into upper portions and lower portions. Upper portions include installing the reflector 202 onto the damper 204 and the damper 204 onto the upper plate 206, and installing a set of upper protection guards and a set of lower protection guards onto a set of upper support members 208.
The purpose of the damper 204 is to provide a controlled flow of hot air coming from within the glass tube 212 to the reflector 202. The flow rate is controlled by the heights and differences thereof between the set of lower damper legs 1002 and the set of upper damper legs 1004. As illustrated in
The upper protection guard 210 and the lower protection guard 214 are installed to the upper support members by way of using a number of hooks 1210 to latch onto a number of elongated oval openings 1302, as shown in
In the example given in
The lower portions of the external installation include installing a front door and three side panels. The three panels are each affixed to the lower support member 224 by fasteners 1402 through a set of pre-drill holes as shown in
The front door has a pair of interior catch brackets 1502 meant to be latched onto a pair of hook brackets 1504 residing on the bottom plate 232 as shown in
Lower ends of the set of lower support members 226 are each installed with a height adjustable stoppers 1602 as shown in
Underneath the back panel opposite to the front door is installed a pair of wheels 1702 to the bottom plate 232 as shown by way of an example in
This non-provisional patent application hereby claims under 35 U.S.C. 119(e) the benefit of U.S. Provisional Patent Application No. 61/202,604 filed on Mar. 17, 2009 and U.S. Provisional Patent Application No. 61/202,618 filed on Mar. 18, 2009. This non-provisional patent application hereby incorporates by reference U.S. Provisional Patent Application No. 61/202,604 filed on Mar. 17, 2009 and U.S. Provisional Patent Application No. 61/202,618 filed on Mar. 18, 2009.
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