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| United States Patent | 4207868 |
| Link to this page | http://www.wikipatents.com/4207868.html |
| Inventor(s) | Peterson; Roger A. (1088-25th Ave. S.E., Minneapolis, MN 55414) |
| Abstract | A solar heating system for space air heating of a building has a solar
energy collector in air flow communication with underground heat storage
structure. The collector has an elongated frame defining a plurality of
air passages. A plurality of solar energy absorption panels are arranged
in ascending space elevations in each air passage so that the air flowing
through the passage transpires from the front to the rear of the panels
over the length of the passage. Transparent sheet members, as glass, are
mounted on the frame to cover the air passages. The heat storage structure
has a plurality of concrete blocks having aligned air passages. The
concrete blocks are covered with coarse rock. A pebble rock bed covers the
coarse rock so that the entire heat storage structure has a large heat
storing capacity. Heat insulated side walls surround the heat storage
structure. |
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Title Information  |
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Drawing from US Patent 4207868 |
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Solar energy system |
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| Publication Date |
June 17, 1980 |
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| Filing Date |
February 27, 1978 |
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Title Information  |
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References  |
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| *references marked with an asterisk below are user-added references |
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U.S. References |
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| Add a new US reference: |
| | Reference | Relevancy | Comments | Reference | Relevancy | Comments | 2671441
|      Your vote accepted [0 after 0 votes] | | 3412728
|      Your vote accepted [0 after 0 votes] | | 4153037 Isaacson 126/623 May,1979 |      Your vote accepted [0 after 0 votes] | | 4126270 Hummel 126/631 Nov,1978 |      Your vote accepted [0 after 0 votes] | | 4092978 Levine 126/675 Jun,1978 |      Your vote accepted [0 after 0 votes] | | 4090494 Borst 126/667 May,1978 |      Your vote accepted [0 after 0 votes] | | 4090497 Kelly 126/643 May,1978 |      Your vote accepted [0 after 0 votes] | | 4089142 Kachadorian 237/1R May,1978 |      Your vote accepted [0 after 0 votes] | | 4086908 Werner 126/634 May,1978 |      Your vote accepted [0 after 0 votes] | | 4076013 Bette 126/620 Feb,1978 |      Your vote accepted [0 after 0 votes] | | 4073282 Schriefer, Jr. 126/648 Feb,1978 |      Your vote accepted [0 after 0 votes] | | 4073283 Lof 126/704 Feb,1978 |      Your vote accepted [0 after 0 votes] | | 4068652 Worthington 126/603 Jan,1978 |      Your vote accepted [0 after 0 votes] | | 4066118 Goettl 165/236 Jan,1978 |      Your vote accepted [0 after 0 votes] | | 4062347 Jensen 126/591 Dec,1977 |      Your vote accepted [0 after 0 votes] | | 4061267 Lof 126/586 Dec,1977 |      Your vote accepted [0 after 0 votes] | | 4054246 Johnson 126/620 Oct,1977 |      Your vote accepted [0 after 0 votes] | | 4051891 Harrison 165/54 Oct,1977 |      Your vote accepted [0 after 0 votes] | | 4051999 Granger 126/591 Oct,1977 |      Your vote accepted [0 after 0 votes] | | 4041591 Noll 29/890.034 Aug,1977 |      Your vote accepted [0 after 0 votes] | | 4034736 Telkes 126/647 Jul,1977 |      Your vote accepted [0 after 0 votes] | | 4024910 Werner 165/45 May,1977 |      Your vote accepted [0 after 0 votes] | | 4019494 Safdari 126/658 Apr,1977 |      Your vote accepted [0 after 0 votes] | | 4016861 Taylor 126/620 Apr,1977 |      Your vote accepted [0 after 0 votes] | | 4006856 Nilsson 126/591 Feb,1977 |      Your vote accepted [0 after 0 votes] | | 3863621 Schoenfelder 126/633 Feb,1975 |      Your vote accepted [0 after 0 votes] | | |
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| Market Size |
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Estimate the gross annual revenues of the relevant market
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| Reasonable Royalty |
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Public's "Guesstimation" of Royalty Value
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Market Review  |
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Technical Review  |
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Claims  |
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The embodiments of the invention in which an exclusive property or
privilege is claimed are defined as follows:
1. An apparatus for collecting solar energy comprising: frame means having
an air passage, an inlet for directing air into the passage, and an outlet
for carrying air from the passage, said frames including elongated
laterally spaced members providing an elongated air passage between
adjacent members, said inlet located at one end of the air passage, and
said outlet located at the other end of the air passage, transparent means
mounted on the frame means to cover the passage, solar energy absorption
means located in the air passage for heating the air in the passage, said
solar energy absorption means including a plurality or sheet members
extended across the air passage, and along the length of the air passage,
said sheet members arranged in an ascending stepped relationship from
adjacent the inlet to adjacent the outlet, each sheet member having
outwardly directed side flanges adjacent sheet members having ends spaced
from each other to allow limited flow of air between said adjacent ends,
means on at least one of said ends of each adjacent sheet member to space
said ends from each other, means on the parallel spaced members engageable
with the side flanges supporting the sheet members end-to-end on the frame
means in different substantially parallel planes to locate adjacent sheet
members in said ascending stepped relation relative to each other, said
means on the parallel spaced members comprising a plurality of holders
mounted on the members, each holder having side walls with spaced ribs
forming grooves to accommodate the flanges of the sheet members, each
sheet member having a plurality of openings allowing air to flow through
the sheet members as the air moves through the passage from the inlet to
the outlet.
2. The apparatus of claim 1 wherein: each side flange has an angular shape
in cross section.
3. The apparatus of claim 1 wherein: each sheet member has downwardly and
forwardly directed tabs located below the openings in the sheet member.
4. The apparatus of claim 1 wherein: each sheet member has an end section
with spacer means engageable with an adjacent sheet member to hold the
adjacent sheet members spaced from each other.
5. The apparatus of claim 4 wherein; one end section of each sheet member
has downwardly directed tabs that engage an adjacent end section of a
sheet member.
6. The apparatus of claim 1 wherein: at least one side flange has an
angular shape in cross section.
7. An apparatus for collecting solar energy comprising: a pair of elongated
frames, said frames being laterally spaced from each other to define an
elongated air passage, an air inlet at one end of the passage, the
opposite end of said passage having an air outlet, transparent means
mounted on the frames to cover the top of the air passage, solar energy
absorption panels located in the air passage between the frames, said
panels comprising at least a pair of end-to-end sheet members, each sheet
member having a plurality of openings, and means on the frames for
supporting the sheet members at different elevations whereby the sheet
members are located in stepped relationship relative to each other,
whereby air flowing through the air passage flows through and between
adjacent sheet members so that heat absorbed by the sheet members from
solar energy is transferred to the air, each sheet member having outwardly
directed side flanges, means on the frames engageable with the side
flanges to hold the sheet members in selected positions relative to the
frames, said means on the frames comprising a plurality of holders mounted
on the frames, each holder having side members with spaced ribs forming
grooves to accommodate the flanges of the sheet members.
8. The apparatus of claim 7 wherein: each sheet member having a body with
first and second sides and a plurality of openings, tabs secured to the
body adjacent each opening, one side flange being secured to the first
side of the body and the other side flange being secured to the second
side of the body.
9. The apparatus of claim 8 wherein: said body and side flanges being a
single sheet member, said flanges having an angular cross section.
10. The apparatus of claim 7 wherein: each flange of the sheet member has
an angular shape and cross section.
11. The apparatus of claim 7 wherein: each sheet member has downwardly and
forwardly directed tabs extended below the openings in the sheet members.
12. The apparatus of claim 7 wherein: each sheet member has an end section
with spacer means engageable with an adjacent sheet member to hold the
adjacent sheet members at different elevations.
13. The apparatus of claim 12 wherein: the spacer means are downwardly
directed portions of the sheet members.
14. The apparatus of claim 7 wherein: each sheet member has an end section
with downwardly directed tabs that engage adjacent end sections of a sheet
member to hold the sheet members in substantially end-to-end positions.
15. An apparatus for collecting solar energy comprising: a pair of
elongated frames, said frames being laterally spaced from each other to
define an elongated air passage, an air inlet at one end of the passage,
the opposite end of said passage having an air outlet, transparent means
mounted on the frames to cover the top of the air passage, solar energy
absorption panels located in the air passage between the frames, said
panels comprising at least a pair of end-to-end sheet members, each sheet
member having a plurality of openings and outwardly directed side flanges,
said pair of sheet members being arranged in an ascending stepped
relationship from the inlet to the outlet, adjacent sheet members having
ends spaced from each other to allow a limited flow of air between said
adjacent ends, means on at least one of said ends of adjacent sheet
members to space said ends from each other, and means on the frames for
supporting the sheet members in said ascending stepped relationship on the
frames, said side flanges of each sheet member cooperating with the means
on the frames to support the sheet members on the frames whereby air
flowing through said air passage flows through and between adjacent sheet
members so that heat absorbed by the sheet members from solar energy is
transferred to the air.
16. The structure of claim 15 wherein: each sheet member has a body having
an end section, said end section having spacer means engageable with a
portion of an adjacent sheet member and a plurality of ears adapted to
engage said adjacent sheet member to locate said sheet member in an
end-to-end relationship with an adjacent sheet member.
17. The apparatus of claim 15 wherein: each sheet member has a generally
flat body, said plurality of openings being located in said body, tabs
secured to the body adjacent the openings, and side flanges comprising a
first side flange secured to one side of the body and a second side flange
secured to the second side of the body.
18. The apparatus of claim 11 wherein: the openings in the body have a
rectangular shape and are arranged in a rectangular coordinated pattern.
19. The apparatus of claim 17 wherein: the body and first and second side
flanges are a single sheet member, said side flanges having an angular
cross section.
20. The apparatus of claim 19 including: a lip extended outwardly from side
flanges.
21. The apparatus of claim 10 wherein: each lip extends the full length of
its associated side flange.
22. The apparatus of claim 17 wherein: the tabs are located below the
openings in the body.
23. An apparatus for collecting solar energy comprising: a pair of
elongated frames, said frames being laterally spaced from each other to
define an elongated air passage, an inlet at one end of the passage, the
opposite end of the passage having an air outlet, light transparent means
mounted on the frames to cover the top of the air passage, solar energy
absorption panels located in the air passage between the frames, said
panels comprising at least a pair of end-to-end sheet members, each sheet
member having a plurality of openings, said pair of sheet members being
arranged in an ascending stepped relationship from the inlet to the
outlet, adjacent sheet members having ends spaced from each other to allow
a limited flow of air between adjacent ends, means on at least one of said
ends of adjacent sheet members to space said ends from each other, and
means on the frame comprising a plurality of spaced ribs forming grooves
to accommodate portions of the sheet members for supporting the sheet
members in said ascending stepped relationship on the frames whereby air
flowing through said air passage flows through and between adjacent sheet
members so that heat absorbed by the sheet members from solar energy is
transferred to the air.
24. The apparatus of claim 23 wherein: each sheet member has outwardly
directed side flanges, said side flanges extended into the grooves and
cooperating with the ribs for supporting the sheet members on said frames.
25. The apparatus of claim 24 wherein: at least one of said side flanges
has an angular shape in cross section.
26. The apparatus of claim 23 wherein: each sheet member has a body having
an end section, said end section having spacer means engaging with a
portion of an adjacent sheet member and a plurality of ears adapted to
engage said adjacent sheet member to locate said sheet member in an
end-to-end relationship with an adjacent sheet member.
27. The sheet member of claim 23 wherein: each sheet member has at least
one side flange having an angular shape in cross section cooperating with
the ribs to support the sheet member on the ribs.
28. The apparatus of claim 23 wherein: said means on at least one of said
ends of adjacent sheet members includes a plurality of ears adapted to
engage another sheet member.
29. The apparatus of claim 23 wherein: the means on at least one of said
ends of adjacent sheet members includes spacer means comprising downwardly
directed portions of the body. |
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Claims  |
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Description  |
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SUMMARY OF THE INVENTION
The invention is directed to a solar energy system that has solar energy
collectors operable to heat air in elongated confined passages and
transfer the heated air to a heat storage means. The solar energy system
is used in association with a structure having an upper portion for
supporting the collectors. The structure is located over an underground
area used to accommodate the heat storage means. Manifolds and duct work
connect the collectors with the heat storage means. A first air moving
means is used to move the air in a circuit to and from the collectors and
heat storage means. A second air moving means is used to withdraw heated
air from the heat storage means in accordance with the heat requirements
of an enclosed environment, such as a home, office, or other suitable
environments.
The collector has frame means defining air passages in communication with
an inlet and an outlet. Transparent means, such as glass or plastic panes,
are mounted on the frame means to cover the passages. Solar energy
absorption means are located in the passages for heating the air as it
moves through the air passages. The solar energy absorption means includes
a plurality of end to end sheet members located in an ascending stepped
relationship in each of the air passages. Opposite edges of the sheet
members are supported on the frame means. Each sheet member has a
plurality of openings to allow air to transpire through the sheet members
and efficiently pick up the heat from the sheet members. The hot air is
pumped by the first air moving means to the heat storage means located
under the structure.
The heat storage means has a capacity to store substantial amounts of heat
energy over an extended period of time. The heat storage means includes
concrete blocks provided with passages for accommodating the hot air. The
blocks are positioned side-by-side with the passages of adjacent blocks
aligned with each other. A coarse rock bed covers the concrete blocks. A
pebble rock bed covers the coarse rock bed.
IN THE DRAWINGS
FIG. 1 is a perspective view, partly sectioned, of a structure equipped
with the solar heating system of the invention;
FIG. 2 is a sectional view taken along line 2--2 of FIG. 1;
FIG. 3 is a sectional view taken along line 3--3 of FIG. 2;
FIG. 4 is an enlarged sectional view taken along line 4--4 of FIG. 1;
FIG. 5 is a sectional view, on a reduced scale, taken along line 5--5 of
FIG. 4;
FIG. 6 is an enlarged sectional view taken along line 6--6 of FIG. 5;
FIG. 7 is an enlarged sectional view taken along line 7--7 of FIG. 5;
FIG. 8 is an enlarged sectional view taken along line 8--8 of FIG. 1;
FIG. 9 is a sectional view similar to FIG. 8 of a modified glass connector;
FIG. 10 is a perspective view of the collector plate holder;
FIG. 11 is an enlarged sectional view taken along line 11--11 of FIG. 5;
FIG. 12 is a plan view of the longitudinal seal strip;
FIG. 13 is a fragmentary perspective view of the collector assembly;
FIG. 14 is a perspective view of a modified solar energy collector of the
invention;
FIG. 15 is an enlarged sectional view taken along the line 15--15 of FIG.
14;
FIG. 16 is a sectional view taken along the line 16--16 of FIG. 14;
FIG. 17 is a top plan view of a solar energy absorption panel;
FIG. 18 is a sectional view taken along the line 18--18 of FIG. 17;
FIG. 19 is an enlarged sectional view taken along the line 19--19 of FIG.
17; and
FIG. 20 is an enlarged sectional view taken along line 20--20 of FIG. 17.
DESCRIPTION OF PREFERRED EMBODIMENTS:
Referring to FIGS. 1-3, there is shown a structure indicated generally at
10, as a home, garage, greenhouse, office, or an industrial building.
These uses of structure 20 are examples which are not intended to limit
the utility of the structure. Structure 20 has upright foundation walls 21
supported on footings 22 located below ground level. A generally
horizontal floor 23 extends between walls 21 and is supported thereon.
Floor 23 can be a concrete floor or made from conventional wood. Side
walls 24, front wall 26, and rear wall 27 extend upwardly from the outer
peripheral edges of floor 23 and support a roof indicated generally at 28.
Roof 28 has a first sloping portion 29 covered with the conventional roof
boards and shingles. Roof 28 is completed with a second longer inclined
portion 31 that is joined to front wall 26. Walls 24, 26, and 27 and roof
28 enclose a space or room 32. Wall 27 can have doors to facilitate the
movement of objects into and out of room 32.
Structure 20 is equipped with a solar heating system of the invention
indicated generally at 33. System 33 includes a solar collector assembly
indicated generally at 34 mounted on second portion 31 to roof 28 and a
heat storage means indicated generally at 36 located below floor 23. As
shown in FIG. 3, a first air pump or blower 37 operates to move air
through collector assembly 34 and to heat storage means 36. A second
blower 38 is operable to move air from heat storage means 36 to a selected
environment or space 39, such as a room, or the conventional heating air
distribution system of a home.
Referring to FIG. 4, roof portion 31 has laterally spaced roof rafters 41
supporting roof boards or panels 42. Insulation 43, as mineral wool, or
fiberglass blankets or batts, is located between adjacent rafters 41.
Inside panels, as wall board or rigid insulation 44, are attached to roof
rafters 41 to enclose insulation 43 between roof boards 42 and panel 44.
Solar collector assembly 34 is mounted on roof boards 42. Assembly 34 has a
plurality of upright frames or super structures 46 and 47 providing
upright elongated passages or spaces 48 to allow the movement of air from
the bottom of the collector assembly to the top of the collector assembly.
Frames 46 and 47 are 2.times.4 or 2.times.6 wood beams fastened to roof
boards 42 and roof rafters 41. Suitable conventional fasteners (not
shown), as screws, nails, adhesives, and the like, are used to attach
frames 46 and 47 to roof boards 42.
As shown in FIGS. 5, 6, and 7, a plurality of end-to-end solar energy
absorption panels 49, 50, 51, and 52 are located in air passage 48 between
frames 46 and 47. The number of panels can vary according to the length of
frames 46 and 47. Panels 49-52 are positioned in ascending elevation from
the inlet end of passage 48. Adjacent panels are in stepped relationship
with each other.
Panels 49-52 are identical in structure. Referring to FIGS. 17 and 18,
panel 50 has a first side flange 53 having a generally right angle shape
terminating in an outwardly directed foot or lip 54. The opposite side of
panel 50 has a second right angle flange 56 terminating in an outwardly
directed foot or lip 57. Lips 54 and 57 extend the full length of flanges
53 and 56. Flanges 53 and 56 are integral with a generally flat body or
sheet member 58. Body 58 has a plurality of openings or rectangular holes
59 arranged in a rectangular coordinated pattern as shown in FIGS. 5 and
17. The top side of body 58 and flanges 53 and 56 are coated with a black
material 60, as paint, plastic, and the like, to enhance solar energy
absorption. Downwardly directed tabs or ears 61 secured to body 58 form
one edge of openings 59. Ears 61 are formed by stamping generally
rectangular portions of body 58 to form openings 59. A U-shaped cut is
made in the body for each opening 59. The tab 61 for each opening 59
extends downwardly and forwardly from the leading or inlet end of the
opening. The air moving through passage 48 flows through the openings 59.
Openings 59 can have other shapes, as oval, circular, triangle and the
like.
Returning to FIG. 7, absorption panel 50 is located in end-to-end relation
relative to absorption panel 51. The lower edge of panel 51 has a
downwardly and inwardly directed ear or tab 62 forming a pocket 64 for the
upper edge of panel 50. Downwardly directed depressions or dimples 63
located between ears 62 space the body 58A a short distance above the body
58 of panel 50. This permits a small amount of air to flow between panels
50 and 51. All of the air flowing through passage 48 flows from the space
above the panels to the space below the panels. The air transpires through
openings 59 in the panels and through the transverse space between
adjacent ends of the panels.
Referring to FIG. 10, there is shown a holder indicated generally at 66 for
positioning absorption panels 49-52 at selected elevations between frames
46 and 47. Holder 66 has a pair of upright side walls or members 67 and
68. Wall 67 has a plurality of horizontal outwardly directed ribs 69
forming vertically separated horizontal grooves 71. Ribs 69 extend from a
bottom outwardly directed lip 72 to adjacent the top of wall 67. Wall 68
has a plurality of horizontal ribs 73 defining vertically separated
horizontal grooves 74. The bottom of wall 68 has an outwardly directed lip
76. Lips 72 and 76 facilitate the placement of holder 66 on frames 46 and
47 as shown in FIG. 4. Holder 66 fits over a frame to locate the frame in
the space between walls 67 and 68. The upper ends of walls 67 and 68 are
joined with a top or outwardly directed shoulder 77 and a generally
inverted U-shaped head 78. The center of the head 78 has a hole 79. Holder
66 can be an extruded metal member, such as an extruded aluminum, plastic,
wood or other structural materials.
As shown in FIGS. 4, 8, 11, and 13, air passage 48 is covered with
transparent sheet members 81 and 82. Sheet members 81 and 82 can be glass,
plastic, or like transparent sheet materials. Members 81 and 82 are spaced
from each other and enclosed on air space 83. A seal assembly indicated
generally at 84 maintains the space relationship between members 81 and
82. Seal assembly is also used to mount members 81 and 82 on the holders
66 and frames 46 and 47.
As shown in FIG. 11, seal assembly 84 has a base strip 86 that extends
longitudinally along the top of frame 46. Base strip 86, as shown in FIG.
12, has a plurality of longitudinally spaced rectangular slots to
accommodate the heads 78 of holders 66. Base strip 86 also serves as a
spacer for holders 66. The seal assembly 84 includes a middle strip 88 and
a top strip 89. The inside sheet member 82 is located between strips 86
and 88. The outside sheet member 81 is located between the strips 88 and
89. Sealing strips 86, 88, and 89 are identical in structure, each having
longitudinal rectangular slots to accommodate the heads 78 of the holders
66. Strips 86, 88, and 89 are elastic members having longitudinal fabric
reinforcing cords. A longitudinal strip or cover 91 serves to clamp the
seal strips 86, 88, and 89 together. Cover 91 has a hole to accommodate a
fastener 92, as a screw. Fastener 92 extends through hole 79 in head 78
and is turned into frame 46. Other types of fasteners can be used to
attach cover 91 to frame 46.
As shown in FIG. 8, the transverse adjacent edges of the sheet members 81
and 82 are connected together with a lateral connector indicated generally
at 93. Lateral connector 93 is a double H-shaped member having a first
H-shaped structure 94 and a second H-shaped structure 96. A transverse web
97 connects the H-shaped structure 94 and 96. The adjacent edges of the
sheet members 81 and 82 fit into the channels formed by the H-shaped
structures 94 and 96. A sealant 98 is located in the base of the channels
and serves as an expansion structure for the sheet members 81 and 82, as
well as a seal holding the sheet members 81 and 82 on connector 93. p
Referring to FIG. 9, there is shown a modification of the lateral
connector indicated generally at 99. Connector 99 has a first generally
H-shaped structure 101 and a two-piece second H-shaped structure 102.
Structure 102 has an inner part 103 joined to the first H-shaped structure
with a web 104. Web 104 has a generally square cross section with the
opposite corners of the web attached to the H-shaped structure 101 and the
inner part 102. Part 102 has an upwardly extended transverse body formed
with an undercut slot 107. The second H-shaped member has a second
T-shaped part 108 having an inwardly directed locking rib 109. Rib 109 is
forced into the undercut 107 so that its enlarged head fits into the
enlarged or undercut portion of the slot, thereby locking the second or
outer part 108 on the body 106. The sheet members 81 and 82 are clamped
between the inner part 103 and the outer part 102. The outer part 102 can
be removed from the body 106 to facilitate the replacement of sheet member
81.
As shown in FIG. 3, return air from the room 39 moves up the inlet duct or
return air duct 111 to the space 112 above the heat storage means 36. The
heat storage means 36 is a porous rock bed located between underground
walls 21 of the structure. The rock bed comprises a gravel or medium sized
rock or pebble layer 113, a coarse or larger rock layer 114, and a core of
concrete or cinder blocks 115. Each block 115 has a plurality of openings.
The blocks 115 are arranged side-by-side with the openings aligned with
each other so that the core of blocks has a plurality of air passages for
accommodating the hot air from the collector assembly. The entire heat
storage means 36 is surrounded with insulating sheet material 116, as
shown in FIGS. 2 and 3.
The hot air from panels 49-52 is carried downwardly through inlet duct 117
into the air passages of the concrete blocks 115. Blower 37 functions to
move the air through the duct 117 and into one end of the heat storage
blocks 115. The air moves through the blocks and into the rock bed 114 and
pebble bed 113. This raises the heat energy of the bed. When the consuming
structure needs heat, air is carried via the pipes 118 to the ducts of the
heating system. The blower 38 is used to move the air through the pipes
118 to the duct 119. The pipes 118, as shown in FIGS. 1 and 3, lead from
one end of the concrete blocks 115 to the lower end of the duct 119.
The floor 23 has a plurality of longitudinal passages 121 which lead to an
inlet housing 122 adjacent the inside of wall 126. Housing 122 forms an
inlet chamber or manifold 123. The chamber 123 is open to the lower or
inlet end of the air passage 48 containing panels 49-52. The upper or
outlet end of the air passage 48 is open to a collection or outlet chamber
124 formed by a manifold housing or casing 126. Housing 126 is open to the
inlet end of the duct 117.
Referring to FIGS. 14 and 15, there is shown a modification of the
collector assembly of the invention indicated generally at 200. Collector
assembly 200 has a box type frame 201. Frame 201 has an elongated
generally rectangular shape form including longitudina | | |