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US3744945A - Apparatus for modular concrete constructions - Google Patents

Apparatus for modular concrete constructions
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US3744945A
US3744945AUS00203273AUS3744945DAUS3744945AUS 3744945 AUS3744945 AUS 3744945AUS 00203273 AUS00203273 AUS 00203273AUS 3744945D AUS3744945D AUS 3744945DAUS 3744945 AUS3744945 AUS 3744945A
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concrete
carriage
pour
posts
concrete form
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C Metrailer
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Abstract

Apparatus for modular concrete constructions. The apparatus comprises a carriage and a concrete form. It also comprises the combination of a concrete form detachably mounted on a portable carriage the former of which can be set in place and positioned for pouring. The carriage can then be detached from the concrete form, removed for further service and later reunited with the form for transport to a new pour position, as desired. The concrete form per se is comprised generally of a support structure atop which is provided a pour form. The pour form is constituted of a central span and, preferably, a pair of upwardly faced troughs located on opposite sides of the central span. The central span of the pour form can range from flat to highly contoured. The troughs are each provided with a plurality of bottom openings, these being formed between removable panels. In forming a module, wet concrete can be poured upon the central span of the pour form to form a roof, ceiling, or floor while a tubular member or column form can be fitted into the openings of the troughs at the column locations and wet concrete can be poured therein and into the troughs to cast columns and beams for support of the roof, ceiling or floor. After the concrete has set the pour form can be lowered, the troughs freed by removal of the panels at the columns, and the beam forms moved inwardly. The carriage can then be removed to an adjacent location for further pouring.

Description

ilnited Metrailer tes Patent 1191 [54] APPARATUS FOR MODULAR CONCRETE CONSTRUCTIONS Charles E. Metrailer, 3613 Government St., Baton Rouge, La. 70806 [22] Filed: Nov. 30, 1719 [21] Appl. No.: 203,273
[76] inventor:
[56] References Cited UNITED STATES lATENTS 3,234,620 .2/1966 Short 425/62 1111 3,74%4345 1451 an 1e, We
[57] ABSTRACT Apparatus for modular concrete constructions. The apparatus comprises a carriage and a concrete form. It also comprises the combination of a concrete form detachably mounted on a portable carriage the former of which can be set in place and positioned for pouring. The carriage can then be detached from the concrete form, removed for further service and later reunited with the form for transport to a new pour position, as desired. The concrete form per se is comprised generally of a support structure atop which is provided a pour form. The pour form is constituted of a central span and, preferably, a pair of upwardly faced troughs located on opposite sides of the central span. The central span of the pour form can range from flat to highly contoured. The troughs are each provided with a plurality of bottom openings, these being formed between 2 671 697 3/1954 removable panels. In forming a module, wet concrete :59 g 92 can be poured upon the central span of the pour form 3,274,306 9/1966 to form a roof, ceiling, or floor while a tubular member 3,148,434 9/1964 Gage et al 249/185 X or column form can be fitted into the openings of the FOREIGN PATENTS OR APPLICATIONS troughs at the column locations and wet concrete can S H .5 be poured therein and into the troughs to cast columns z f an and beams for support of the roof, ceiling or floor. 1 928'196 12/1970 German; 249/178 After the concrete has set the pour form can be low- 674i658 11/1963 Canadam: 111.. 249/27 the troughs freed by mm/a1 Panels at the 365,205 1211962 Switzerland 249/180 columns, and the beam forms moved inwardly- The carriage can then be removed to an adjacent location Primary Examiner-J. Spencer Overholser for further P Assistant Examiner-Ben D. Tobor 11 l 17 D F Attorney-Llewellyn A. Proctor C fi s, Y rawmglgures 4 2 v )XY 7 f a I A I i1 1 1 i 1 l/ i H .rii
Patented July 10, 1973 ll Sheets-Shoot I:
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Patented July 10, 1973 ll Sheets-Sheet 3 INVIINTOR. CHARLES E. METRAILER I-CL GU IZJ Patented July 10 1973 3,744,945
11 Sheets-Sheet 1 1N VENTOR. CHARLES E. METRAILER Patented July 10, 1973 ll Sheets-Sheet u INVENTOR. CHARLES E. METRAILE R Patented July 10, 1973 3,744,945
11 Sheets-Sheet 6 I NVENTOR. CHARLES E. METRAILER Patented July 10, 1973 3,744,945
11 Sheets-Sheet 7 INVE N TOR. CHARLES E. METRAILER QJIZZ.
Patented July 10,1973
ll Sheets-Sheet 1O l I i H. 142 y/A/ Fig. IO
iNVIiNTOIL CHARLES E. METRAILER Patented July 10, 1973 3,744345 ll Sheets-Sheet 11 INVENTOR CHARLES E. METRALE R APPARATUS FOR MODULAR CONCRETE CONSTRUCTIONS Portable carriages, the upper portion of which is provided with collapsible wall structures, or forms, for use in building or repairing arches, tunnels, and the like are known to the art. in a typical structure of such type, a railway flat car, or similar transportable carriage, is provided with a permanently attached elevatable form, usually of oval contour, for providing temporary support for stone, brick, concrete block, masonry or plastic like masses such as concrete. in a typical construction, a flat foundation slab is laid and rails are constructed thereon. The carriage is placed on the rails, The material to be used in the repair or construction is placed on the form, and the latter is used to elevate and place the materials in the proper position for the repair or construction. Where, e.g., a tunnel is being constructed of concrete, the wet concrete is thrust upward and held in place against the top of the tunnel until the concrete has set. The form is then collapsed, perhaps lowered and the carriage then moved with the form intact to an adjacent position to form another segment of the tunnel.
Such carriages have proven successful in the past for the repair and construction of sewers, tunnels and the like. They have saved time, labor and expense, particularly in concrete construction when contrasted with the use of forms which must be built and then torn down for each individual pour. The devices nonetheless have limited utility, and only in recent years have devices of such character been sufficiently improved that they have become acceptable in non-tunnel construction.
In U. S. Pat. No. 3,320,646 to A. H. Wilkins, for example, a portable carriage, equipped with an elevated pour section, with pivotally connected end portions, is employed for casting monolithic concrete roof structures. The roof section or roof modules that are formed are set on prefabricated pillars, and the carriage is moved from one pair of prefabricated pillars to another as a roof section is formed. This and other such prior art devices have their limitations.
Among the objects of this invention are:
To provide new and improved apparatus and method for modular constructions.
To provide a transportable concrete form with de tachable carriage, both of unique design, the concrete form of which can be set in place for receipt of plasticlike masses such as concrete and the like, for setting and converting same to desirable modular construction forms, including not only roofs, ceiling, floors and the like, but also beams and columns.
To provide the apparatus combination such as described wherein the carriage can be readily detached from the concrete form, removed for further service and later reunited with the concrete form for transport thereof, such combination being particularly useful for simultaneously pouring the above construction forms, including specifically floors, roofs, beams and columns whereupon the form can be released from the set concrete and transported by the carriage across a foundation or floor for different continuous modular pours, and then moved, if desired, to the next upper level for further pouring.
These objects and others are achieved in accordance with the present invention the apparatus embodiment of which comprises a concrete form and carriage, particularly the combination of a concrete form and detachable carriage, as generally described. In operation, the concrete form is transported to and set in place by the carriage which is particularly adapted by. two different sets of wheels, one set mounted at right angles to the other, to provide mobility for the setting and align ment of the concrete form. The concrete form is comprised of a concrete pour form, or forms, mounted on structural elements, including vertical posts supported on the carriage frame, by virtue of which the concrete pour form, or forms, can be supported and elevated or lowered with respect to the carriage, this providing flexibility such that the pour form, or forms, can be readily positioned for pouring. In position, the concrete form, in a preferred embodiment, is additionally supported by vertical shoring members. The carriage can be separated from the concrete form after the latter is positioned, removed for further service, and later reattached with the concrete form to transport the latter to a new pour position or location.
The invention, and its principle of operation, will be more fully understood by reference to the following detailed description of a specific embodiment, and to the attached drawings to which reference is made in the description. In the description, similar numbers are used to represent similar parts or components.
in the drawings:
FIG. 1 is a side elevation of a preferred type of portable carriage and concrete form or concrete form assembly, the preferred combination being shown in position for pouring concrete.
FIG. 2 is a plan view showing the carriage, or carriage assembly, which can be used for transport and positioning of a workpiece, particularly the concrete form, or concrete form assembly.
FIG. 3 is a fragmentary isometric view showing the vertical posts, shoring members and other telescoping components which constitute the upper portion of the concrete form support structure.
H6. 4 is a isometric view showing the concrete pan form sections and beam forms of the concrete form assembly, or pour forms, installed over the supporting members ready for pouring concrete.
W6. 5 is a plan view showing a contiguous pair of concrete pan form sections ready for pouring a monolithic self-supporting concrete structure including four columns two beams and central span.
FIG. 6 is an enlarged fragmentary isometric view showing the telescoping mechanism for retracting the main beam forms which carry concrete pour forms of the type used for forming beams and columns.
PEG. 7 is an enlarged fragmentary isometric view showing the removable section of the concrete pour form at columns used for pouring beams; lFllG. "7A is a plan view of the said removable section at columns; and FIG. 7B is a cross-sectional view of said removable section at columns.
P16. 8 is an enlarged fragmentary isometric view showing the carriage break away unit which allows the carriage to be removed from the concrete form support section.
FIG. 9 is an enlarged side view showing details of the eccentric axle by virtue of which the various wheels are attached to the frame member, and FIG. @A is a front view of the same eccentric axle.
FIG. Ml is an end elevation view of the carriage and form support frame with a preferred type of arch form.
FIG. 11 is an end elevation view showing the carriage supporting the arch form with beam forms replaced with curved section as used to pour tunnels, drainage structures, or quonset type building structures.
FIG. 12 is a fragmentary elevation view showing one of the removable vertical support members or shoring members for the beam forms.
FIG. 13 is a fragmentary elevation view showing one of the vertical support members used in supporting the pan form frames.
FIG. 14 is a diagrammatic representation of a series of views showing a step by step sequence of lowering the carriage and form assembly for removal after concrete has cured sufficiently.
With reference to FIG. 1 of the drawings,reference character 1 designates a concrete slab on grade or the floor slab of lower floors in a multi-story building made in accordance with the present invention. The horizontally orientedslab 2 is constructed as a unitary member having a plurality of horizontally disposed ribbed lower sections, and it is abutted by vertically disposed reinforcedbeam members 3 disposed in parallel planes. Thebeam members 3 are supported by vertically oriented columns 0, also made in accordance with the present invention. The reinforcingmembers 3, as well as thehorizontal slab 2 and columns 0, include internally disposed steel reinforcing (not shown) as is wellknown in the building art, which reinforces these portions of the floor normally in tension. The design of the particular floors will, of course, be varied with the requirements of the building, in accordance with established engineering procedures, and need not be further elaborated upon in this disclosure.
The apparatus of this invention is comprised generally of a carriage and a transportableconcrete form 100. Theportable carriage 10 and transportableconcrete form 100, which is detachably mounted on thecarriage 10, are preferably used in combination. The body of the portable carriage per se (FIG. 2) is constituted generally of a reinforced frame body fitted with wheels, and means whereby the said carriage can be attached to a vehicle and towed to a work site. Theconcrete form 100, which is adapted for transport upon thecarriage 10, is constituted generally of a frame structure on the top of which is supported a pour form, including a central portion or span and upwardly faced troughs or trough-like members, with a plurality of bottom openings, located alongside the central span for receipt of poured concrete. The pour form of the transportableconcrete form 100 is constituted generally of acentral span 4 and upwardly faced troughs ortroughlike members 5 for receipt of poured concrete. The frame structure per se comprises a plurality of telescoping tubular shapedvertical posts 8 secured together by supporting horizontal posts which connect to top and bottom portions of adjacentvertical posts 8. Diagonal reinforcing members are also connected to the bottom and top portions ofvertical posts 8, these being employed to further support and strengthen the frame structure. Shoringmembers 9, constituted of telescoping tubular members similar in purpose and function tovertical posts 8 are also provided to support thetroughs 5.Jacks 13 are provided within the lower terminal ends of each of the severalvertical posts 8 as well as within the lower terminal ends shoringmembers 9 which are used to support thetroughs 5.
Referring specifically to FIGS. 3 and 4, it will be observed that the pour form, which includescentral span 4 and upwardly facedtroughs 5% rests upon and are supported byhorizontal beams 6, 7.Beams 7 are parallelly aligned one with respect to another, and are di rectly perpendicularly affixed to the top terminal ends of the innermost tubular members ofvertical posts 8.Beams 6, on the other hand, are also parallelly aligned one member with respect to the other, but lie at right angles tobeams 7, and are affixed to the upper sides thereof. Thebeams 6, 7 also contain smallertelescoping tubular members 23, 21, respectively. The terminal ends of the lattertubular members 21 are U-shaped to supporttroughs 5, and bothtubular members 23, 21 are supported by shoringmembers 9 affixed to the ends thereof. The shoring members are particularly useful where, as observed by reference to FIG. 4, thetroughs 5 are projected outwardly and thecentral span 4, which comprises a concrete form element, are loaded with wet concrete.
The design and function of thevertical posts 8 and the shoringmembers 9 are quite similar and accordingly a complete description of one each of these elements will describe all of the several elements employed. Referring specifically to FIGS. 12 and 13, which describes these members in detail, it will be observed that eachvertical post 8 and shoringmember 9 includes a pair of telescoping tubular members 14, 19 (the former being of smaller size than the latter) and the length of eachmember 8 andmember 9 is adjustable. A jack is located at the lower terminal end of each member, a jack including foot orplatform member 1 1, having a nut 16 welded on the upper side thereof, which engages with externally threadedmember 13. Theplatform member 11 is fastened to the threadedmember 13 by means ofpin 12. Members 15 are nuts attached permanently within tubular member 14.Member 13 provides tool-engaging means 16 for elongating and contracting the length ofvertical posts 8 and shoringmembers 9 by rotation of the saidmember 13 which moves it upwardly or downwardly within the tubular member 14. The telescoping tubular members 14, 19 are also provided with means for lengthening and shortening thevertical posts 8 or shoringmembers 9. the pins 17 are thus removable passing through tubular members 19, 14 and shank members 18, 20. Members 14, 18 have a plurality of lateral openings within which the pins 17 can be fitted or removed thus permitting elongating and contractingvertical posts 8 and shoringmembers 9 in uniform increments. Member 20 is an attaching lug or shank which permits attachment of member 19 tobeam form 5. Member 18 is also a lug or shank which is permanently attached tomember 7.
Thetroughs 5 are designed in such manner that both beams and columns can be cast simultaneously, the required structural elements of which operation is best shown by specific references to FIGS. 7, 7A and 7B. Atrough 5 is thus provided with oppositely desposed pairedremovable panels 26, 27 each of which is provided with bottom semi-circular shaped notched lower edges and downwardly projected surroundingwalls 30 which, when fitted together with fastner 29, form a circular opening with an enclosing downwardly projecting collar. Thepanels 26, 27 overall are generally of U- shaped cross-section when fitted together and each of the upper edges are welded totubular member 31 to form a contiguoustubular edge member 25 through which a slightlysmaller tubular member 24 can be passed to hold or secure thepanels 26, 27 in place. By such construction the upper portion of a tubular member or column pour form (not shown) can be secured within the opening formed betweenwalls 30. The tubular member and thetrough 5 itself can then be filled with wet concrete to form beams and columns. After the concrete has cured thepanels 26, 27 at columns can be removed by withdrawal ofbar 24 and fastner 29. The outer wall constituting the tubular column form member can then be removed from the concrete columns after whichtrough 5 can be lowered below the poured set of concrete beams and pushed inwardly to clear columns by telescoping tubular members 231 back within themember 7.
In accordance with the best mode of practicing the present invention, in preference to manual manipulation, mechanical means are provided wherein both troughs S can be simultaneously projected or withdrawn, afterpanel members 26, 27 have been removed or swung away from the poured set columns. A series ofmiter gear boxes 32, aligned for convenience upon a fixedtubular member 22, are communicated one with another via ashaft 33 and each can be operated by rotation of theshaft 33 to extend or retract thetroughs 5. One such unit is described by reference to H6. 6. Ashaft 37, having threads of opposite cast, can thus be fitted withintubular members 7, 21, aligned with the axis of the tubular members via passage throughbushings 38, affixed withintubular members 7, and threadably engaged withnuts 39 affixed withintubular member 21. Theshaft 37 is fitted with asprocket 35 and coupled via achain 36 with a parallely aligned drive shaft 34lprovided with asimilar sprocket 35, the latter being driven through amiter gear box 32 affixed upon thetubular member 22. Rotation of theshaft 33, e.g. by rotation of thenut 40 affixed thereon as by operative engagement therewith of a machine tool, will produce rotation ofshaft 34 and, consequently rotation ofshaft 37. Rotation ofshaft 37 in one direction, on the one hand, will causetubular members 21 to telescope inwardly and, conversely, rotation in the opposite direction will cause thetubular members 21 to telescope out wardly.
The carriage it), best described by specific reference to FIG. 2, is preferably used in combination with theconcrete form 100 detachably mounted thereon, but is also susceptable for use in other services for transporting or positioning other different types of equipment or workpieces which need not be described herein. The frame of the carriage is constructed of achannel frame 43 resembling a parallelogram. The structure ofchannel members 43 is reinforced by theinner channels 43a which are perpendicular to, intersect and connect with theside channels 43. Additional structural support is added bychannel members 49 and 490. Two independent sets of wheels are mounted on the carriage it). A set, generally, of three wheels 4211, and a second set, generally, of threewheels 42b, are rotatably mounted uponeccentric axles 44 which are secured to frame $33. By utilizing two sets of three wheels independently mounted at right angles with one another, the carriage it) has infinite mobility for the positioning and alignment of workpieces, particularly the concrete form Hill.
The carriage ill is engaged to the form support structure at points marked 8 and fair as shown by reference to FIG. 2. The means of engagement or disengagement from the form support structure is best illustrated by reference to this figure and to FlG. the structural elements of which are as follows:Member 45 is a tubular segment which is permanently attached at a corner of frame 43) of the carriage. With themembers 45 and $0 engaged and thecarriage wheels 42 inflated, a foot ill-l of each of thevertical support members 8 and fir rests on the floor or foundation.Vertical support members 8r are retracted with foot members ill removed.Member 13 is retracted within member l4, and with pin 17 removed member lll is retracted within member 19 (See FIG. 13). The remainingvertical support members 8 remain to support the weight of the form support structure. The carriage it) is separated from the concrete form MW by deflatingtires 42. On deflatingtires 42,lug 50 will lower and become disengaged withsocket 45 and the carriage can be removed from beneath the form support structure.Members 8r are then extended and adjusted to provide further support for the concrete form on subsequent pouring of the concrete. Towingeye 43 is utilized in maneuvering the carriage laterally whiletires 42 are supporting.Control console 46, mounted on frame Alli is a means of rapidly varying air pressure to tires dZa and d2}; through air tubing members 43-7. Member ll is a detachable towing arm utilized in transporting the carriage, or both the carriage support structure and concrete form, via highway from one jobsite to another with the carriage supported on the pair ofrear wheels 42a (dual tires optional), while the other wheels are retracted.
A key and novel feature of the present invention relates to the method of raising and lowering the carriage lb, and supported concrete form Mill, by rapid inflation and deflation of the pneumatic tires in combination with the adjustable eccentrics on which the wheels are mounted upon the carriage. The means by which one set of wheels 4l2a supports the carriage while the other set ofwheels 42b is non-supporting, and vice versa, is best shown by specific reference to FllGS. 9 and 9A. Each wheel is thus affixed to the carriage frame or channel 4l3 by use of an eccentric wheel mounting device such as described by reference to these figures. Aneccentric member 34 is mounted upon the carriage frame 413 and aspindle 51, which carries a wheel, is permanently attached to eccentric member $41. Eccentric member permanently attached to thebolt 52 which is pivotally mounted upon thechannel 43 via passage ofbolt 52 through the bearing element orsleeve 56 mounted within an opening through the channel, and thebolt 52 is held in place by the washer 53A and thenut 53. A collar 54, permanently affixed uponchannel 43 on the side ofchannel 43 opposite the eccentric member 84, is slotted at desired increments to permit adjustment of the wheels at different levels of elevation. in this instance 90 increments are provided, thus permitting the spindle M to be elevated or lowered by latching the said spindle St in one or the other of four position levels by passage of the pin through the openings formed between the slots of collar 54 and the washer 53A, and through an opening through thebolt 52.
The manner in which a set of wheels is lowered or raised relative to another to lower or elevate the carriage lltl is illustrated by reference to FIG. 14. Five different positions which illustrate the lowering (or raising) of the carriage it) is described as follows:
Position 1: This figure illustrates the carriage resting onwheels 42b as would be the position of the carriage at maximum height. The sets of eccentrics ofwheels 42b and 42a are inflated and are in the down position.
Position 2: The tires ofwheels 42b are deflated until the carriage weight is supported onwheels 42a. As soon aswheels 42a are supporting the weight the eccentrics ofwheels 42b are loosened and 42b is reinflated and 42a partially deflated causing 42b to rotate 90 to the horizontal position, and the eccentrics on 42b are then locked in this position.
Position 3: The tires ofwheels 42a are further deflated until the carriage weight is again supported onwheels 42b. The eccentrics ofwheels 42a are loosened and 42a is reinflated and 42b partially deflated causing 42a to rotate 90 to the horizontal position and the eccentrics on 42a are locked at this position. 7
Position 4: The tires ofwheels 42b are again further deflated until the carriage weight is supported bywheels 42a. The eccentrics forwheels 42b are loosened and 42b is reinflated and 42a partially deflated causing 42b to rotate 90 to the up position and the eccentrics on 42b are locked at this position.
Position 5: The tires ofwheels 42a are again further deflated until the weight of the carriage is supported onwheels 42b. The eccentrics forwheels 42a are then loosened and 42a is reinflated and 42b deflated causing 42a to rotate 90 to the up position and the eccentrics on 42a are locked at this position. Further lowering can be done by deflating the tires ofwheels 42b.
To elevate the carriage the above procedure is merely reversed. In order to accomplish the above procedures rapidly anair console 46 design will incorporate two levers with deflate, inflate, and off positions, so each set of three tires can be inflated or deflated simultaneously.
In an operation, theconcrete form 100, mounted on thecarriage 10, is brought to a job site for use usually after the columns, footings, or foundations andfloor slab 1 has been completed. An initial concrete module comprising a roof, ceiling or floor supported upon columns and beams is begun after theconcrete form 100 has been set in place, detached from the carriage, supported and positioned for pouring as described. The carriage is disengaged from theconcrete form 100 and can be used to transport and position other concr'ete forms for pouring.
When the concrete has sufficiently cured to be selfsupporting thecarriage 10 can be re-engaged with theconcrete form structure 100 by reversing the removal procedure described above, as suggested. The concrete form structure is then lowered so the beam forms ortroughs 5 will pass below the poured concrete beam as described and illustrated by reference to FIG. 14. The
removable sections of thetroughs 5 at columns (FIG.
7) are removed allowing the saidtroughs 5 to be retracted as described in conjunction with FIG. 6. The carriage is then moved to the next position and aligned with the previous-construction by over-lapping the concrete pour forms over concrete previously poured. The beam forms ortroughs 5 are then extended outwardly and the form supports are then raised to the proper height, the removable trough or beam form sections of columns are reinstalled and the carriage can be disengaged for use with other form sections.
Modified designs of the concrete form, in association with the carriage previously described or a somewhat modified version thereof, are shown by reference to FIGS. 10 and 11. The principle difference between these designs and those previously described relates to the use of a highly contoured or semi-circular arch upon which a roof or ceiling is to be poured, and the difference in structure by virtue of which the beam forms or troughs are disengaged or freed from the poured concrete beams and columns.
Referring specifically to FIG. 10, it will be seen that thecarriage 10 and shoringelements 8, 9 are as previously described, but herein are utilized withposts 57, 58 to support themember 59 which are rolled in a semi-circular arch. Themembers 60 are permanently attached tomembers 59 and run in perpendicular planes thereto. The troughs or beam forms 61 readily fit upon previously shaped concrete beams 62, and hence continuous pouring of modular shapes by moving the concrete form in quite feasible. The trough orbeam form 61 is hinged to the arch shapedmember 59 viahinge 63 and can be readily swung free of the poured concrete beams and posts after the concrete 67 has set, as shown in phantom. Thehinge 63 in the final position is braced withmember 64 secured withpins 65.Member 61 is lowered by removingpins 65 andmember 64.Member 61 is interrupted at equal intervals to provide a removable section at column lines similar to that previously described and illustrated by reference to FIG. 7.Members 59 and 60 form a support forform 66 which may be sheet steel, plywood, formboard, etc. after hardening of the poured concrete 67,members 61 are lowered andcarriage 10 is lowered by deflatingtires 42, allowing the unit to be repositioned for next disposed section of structure. This configuration of the invention is suitable for producing concrete buildings with a plurality of arches running parallel to each other, these being supported byconcrete columns 68 or steel columns, as desired.
A carriage and concrete form particularly useful for the construction of a concrete tunnel or drainage structure is described by reference to FIG. 11. The carriage in this instance is provided with only a single set ofwheels 42 and, since high elevation of thearch member 59 is unnecessary shoringposts 8 are not needed, and there are no troughs or beam forms. Referring specifically to the figure it will be observed that the basic difference between the structures relates only to the hinged lower section of the arch form by virtue of which the arch can be freed from the poured concrete and moved from one location to another, or positioned for the pour. It will be observed that the pivotable section is adjoined tomember 59 via a hinge, and it is braced withmember 69 and secured in place with pins 65.Eye bolt 73 is embeded in slab to attachform 71 at its lower end.Bolt 72 withnuts 76 support the upper end ofform 71. After hardening of the concrete, the
assembly is lowered by removingpins 65,brace 69 andwedge 77, this permitting themember 70 to swing inwardly and loweringcarriage 10 by deflatingtires 42 for movement of the assembly to next disposed section.Forms 71 are removed andeyebolt 74 andbolt 72 remain in the concrete structure.Carriage 10 utilizes the break-away feature shown in FIG. 8.
It is thus understood that the invention is a highly useful means and method for constructing reinforced concrete buildings, tunnels, underground shelters or drainage structures utilizing a relatively small number of forms in succession to construct individual sections of the structure, the forms being removable as the concrete supported thereby becomes sufficiently hard to support itself. Practically all of the available forms may be used simultaneously and continuously, with a minimum of idle time, whereby both material and labor savings are effected.
Having described the invention, what is claimed is:
Apparatus for modular concrete constructions comprising, in combination, a concrete form detachaoly mounted upon a carriage,
the concrete form including a frame assembly comprising a plurality of vertically oriented telescoping posts, suitable braces for maintaining said alignment of the posts, a concrete pour form ranging in shape from flat to highly contoured mounted atop the said teiescoping posts, locking means whereby the telescoping posts can be raised, lowered and locked to support the concrete pour form at a desired elevation, means whereby the lower extremities of the posts can be detachably engaged with the carriage for transport and positioning of the said concrete form, and wherein the lower extremities of the vertical posts terminate on a common plane and the extremities are provided with jacks by means of which minor adjustments can be made to raise and lower the concrete form,
the carriage including a frame or" channel members,
two sets of wheels each set comprising at least three wheels provided with pneumatic tires, either set upon which the carriage can be independently supported and transported, one set of the wheels of which is mounted for movement at a 90 angle relative to the other, means whereby one set of the wheels can be alternatively retracted and the tires deflated while the other is inflated and in support ing position, and vice versa, and means for operative engagement with the concrete form,
whereby the concrete form can be engaged with the carriage for transport, set in place by the carriage and the pour form positioned for pouring concrete, detached from the carriage by deflation of one set of the tires, the carriage removed for further service and later reunited with the concrete form after the concrete has set for removal to a new pour position.
2. The apparatus ofclaim 1 wherein the vertical posts of the concrete form are constituted of tubular members with a plurality of lateral opening there through which pins can be passed to lock the posts and consequently the pour form at the desired elevation.
3. Apparatus for modular concrete constructions comprising, in combination, a concrete form detachably mounted upon a carriage,
the concrete form including a frame assembly comprising a plurality of vertically oriented telescoping posts, suitable braces for maintaining said alignment of the posts, a concrete pour form ranging in shape from flat to highly contoured mounted atop the said telescoping posts, laterally oriented telescoping members perpendicularly supported atop the vertically oriented telescoping posts, beam forms, in positions adjacent and one on each side of the said concrete pour form, supported upon the laterally oriented telescoping members, the said beam forms being provided with removable panels which form bottom openings within which can be fitted various sizes and shapes of column tubular forms, locking means whereby the telescoping posts can be raised, lowered and locked to support the concrete pour form at a desired elevation, means whereby the lower extremities of the posts can be detachably engaged with the carriage for transport and positioning of the said concrete form, and wherein the lower extremities of the vertical posts terminate on a common plane and the extremities are provided with jacks by means of which minor adjustments can be made to raise and lower the concrete form,
the carriage including a frame, a set comprising at least three wheels provided with pneumatic tires upon which the carriage can be rested and transported,
whereby the concrete form can be engaged with the carriage for transport, set in place by the carriage and the pour form positioned for pouring concrete, the carriage then removed after deflation of the tires, such that concrete can then be poured upon the said concrete pour form to provide a floor, ceiling or roof, into the beam forms to provide beams and into the tubular vertical forms to provide supporting columns, and the carriage can be later re united with the concrete form after the concrete has set, for removal of the concrete form to a new pour position.
4. The apparatus ofclaim 3 wherein the top portion of the frame assembly of the concrete form additionally carries a plurality of gear boxes adjoined one to an other through a rotatable shaft, the oppositely disposed laterally oriented tubular members which carry the beam forms are each provided with nuts affixed therein and shafts, having threads of opposite cast, operatively associated with the fixed nuts, and the rotatable shaft through the gear boxes are operatively connected together via appropriate linkage with the shafts having threads of opposite cast so that rotation in one direction of the shaft connecting the gear boxes will cause the beam forms to extend outwardly and rotation of the shaft in the other direction will cause the beam forms to retract.
5. The apparatus of claim it wherein each of the wheels of the set is mounted on a spindle perpendicu- Early mounted on an end of an eccentric member, the eccentric member is pivotally mounted on a channel member forming the frame of the carriage via a bolt provided with lateral openings which is passed through an opening through the opposite end of the eccentric member, a slotted collar is permanently affixed about the end of the bolt on the side of the channel member opposite that whereon the eccentric is located, the slots of the collar substantially corresponding with the location of the lateral openings through the bolt so that a pin passed through both the lateral openings and slots will secure and lock the eccentric, and consequently the spindle, at different position levels upon the frame whereby the carriage can be elevated and lowered by repositioning and locking the eccentrics at different levels with alternate inflation and deflation of the tires.
6. The apparatus ofclaim 5 wherein four slots are located at angles, one relative to the other, and the lateral openings through the bolt are aligned therewith, so that the levels of elevation correspond to 90 increments about the circumference of the path of travel of the eccentric which is rotatable about the bolt.
7. The apparatus of claim wherein the bolt is fitted within a bushing which is passed through the channel member forming the carriage frame, and the end of the bolt is threaded and held in place by a threaded nut.
8. The apparatus ofclaim 5 wherein air console means are provided for simultaneous rapid inflation and deflation of the pneumatic tires of a set of wheels.
9. The apparatus ofclaim 1 wherein outer corners of channel members forming the frame of the carriage are fitted with upwardly projecting lugs and the inside portions at the lower extremities of the vertical posts forming the frame assembly of the concrete form are provided with tubular segments, providing male and female members which secure the concrete form to the carriage and forms a ready breakaway feature for separation of the concrete form and carriage after the former has been positioned and set as desired.
10. The apparatus ofclaim 3 wherein a beam form is provided with oppositely disposed paired removable panels, of U-shaped cross-section, each of which is provided with shaped cut-away edges and downwardly projecting surrounding walls which, when fitted and secured together with fastening means, form an opening with an enclosing downwardly projecting collar within which a column tubular form can be fitted, the upper edges of which pair of removable panels are shaped as tubular sections which can be held in place upon a beam by passage of a bar therethrough.
11. The apparatus ofclaim 3 wherein a beam form is supported by a shoring member formed of telescoping tubular members, the height of which can be adjusted by locking means which support the said shoring member at the desired elevation.

Claims (11)

1. Apparatus for modular concrete constructions comprising, in combination, a concrete form detachably mounted upon a carriage, the concrete form including a frame assembly comprising a plurality of vertically oriented telescoping posts, suitable braces for maintaining said alignment of the posts, a concrete pour form ranging in shape from flat to highly contoured mounted atop the said telescoping posts, locking means whereby the telescoping posts can be raised, lowered and locked to support the concrete pour form at a desired elevation, means whereby the lower extremities of the posts can be detachably engaged with the carriage for transport and positioning of the said concrete form, and wherein the lower extremities of the vertical posts terminate on a common plane and the extremities are provided with jacks by means of which minor adjustments can be made to raise and lower the concrete form, the carriage including a frame of channel members, two sets of wheels each set comprising at least three wheels provided with pneumatic tires, either set upon which the carriage can be independently supported and transported, one set of the wheels of which is mounted for movement at a 90* angle relative to the other, means whereby one set of the wheels can be alternatively retracted and the tires deflated while the other is inflated and in supporting position, and vice versa, and meaNs for operative engagement with the concrete form, whereby the concrete form can be engaged with the carriage for transport, set in place by the carriage and the pour form positioned for pouring concrete, detached from the carriage by deflation of one set of the tires, the carriage removed for further service and later reunited with the concrete form after the concrete has set for removal to a new pour position.
3. Apparatus for modular concrete constructions comprising, in combination, a concrete form detachably mounted upon a carriage, the concrete form including a frame assembly comprising a plurality of vertically oriented telescoping posts, suitable braces for maintaining said alignment of the posts, a concrete pour form ranging in shape from flat to highly contoured mounted atop the said telescoping posts, laterally oriented telescoping members perpendicularly supported atop the vertically oriented telescoping posts, beam forms, in positions adjacent and one on each side of the said concrete pour form, supported upon the laterally oriented telescoping members, the said beam forms being provided with removable panels which form bottom openings within which can be fitted various sizes and shapes of column tubular forms, locking means whereby the telescoping posts can be raised, lowered and locked to support the concrete pour form at a desired elevation, means whereby the lower extremities of the posts can be detachably engaged with the carriage for transport and positioning of the said concrete form, and wherein the lower extremities of the vertical posts terminate on a common plane and the extremities are provided with jacks by means of which minor adjustments can be made to raise and lower the concrete form, the carriage including a frame, a set comprising at least three wheels provided with pneumatic tires upon which the carriage can be rested and transported, whereby the concrete form can be engaged with the carriage for transport, set in place by the carriage and the pour form positioned for pouring concrete, the carriage then removed after deflation of the tires, such that concrete can then be poured upon the said concrete pour form to provide a floor, ceiling or roof, into the beam forms to provide beams and into the tubular vertical forms to provide supporting columns, and the carriage can be later reunited with the concrete form after the concrete has set, for removal of the concrete form to a new pour position.
5. The apparatus of claim 1 wherein each of the wheels of the set is mounted on a spindle perpendicularly mounted on an end of an eccentric member, the eccentric member is pivotally mounted on a channel member forming the frame of the carriage via a bolt provided with lateral openings which is passed through an opening through the opposite end of the eccentric member, a slotted collar is permanently affixed about the end of the bolt on the side of the channel member opposite that whereon the eccentric is locaTed, the slots of the collar substantially corresponding with the location of the lateral openings through the bolt so that a pin passed through both the lateral openings and slots will secure and lock the eccentric, and consequently the spindle, at different position levels upon the frame whereby the carriage can be elevated and lowered by repositioning and locking the eccentrics at different levels with alternate inflation and deflation of the tires.
US00203273A1971-11-301971-11-30Apparatus for modular concrete constructionsExpired - LifetimeUS3744945A (en)

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Cited By (24)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
US3799490A (en)*1972-10-301974-03-26R BungerPortable slatted animal pen floor forming apparatus
US3940105A (en)*1973-04-121976-02-24Metrailer Charles EForm support for use in making arched ceiling
US3959423A (en)*1973-09-071976-05-25Gerald D. Hines InterestsModular construction system
US3966164A (en)*1973-08-131976-06-29Interform, Inc.Adjustable truss support and form for concrete construction
US4107899A (en)*1975-05-051978-08-22Frederick CrooksLoad-bearing walls and similar structures
US4248024A (en)*1978-03-021981-02-03Dahlstroem C I SCentering for casting concrete roofs
US4470574A (en)*1978-12-111984-09-11Jackson George WSupport structure for building forms
US4685264A (en)*1986-04-091987-08-11Epic Metals CorporationConcrete slab-beam form system for composite metal deck concrete construction
US4768938A (en)*1987-09-211988-09-06Greeson Logan CApparatus for pouring concrete slabs
US4921649A (en)*1987-09-211990-05-01Greeson Logan CMethod for pouring concrete slabs
US5616349A (en)*1994-01-201997-04-01Sasaki; MitsuoMovable slab form unit
RU2194831C2 (en)*2000-04-102002-12-20Еранов Владимир ЮрьевичSet of volumetric-traveling forms and process of erection of buildings with its use
US20100025563A1 (en)*2007-02-162010-02-04Tang Hang SengFormwork system
US8696010B2 (en)2010-12-152014-04-15Symbotic, LLCSuspension system for autonomous transports
US8965619B2 (en)2010-12-152015-02-24Symbotic, LLCBot having high speed stability
CN104652809A (en)*2015-01-072015-05-27福建工程学院Construction method of support system for templates of concrete beams and slabs
US9051120B2 (en)2009-04-102015-06-09Symbotic LlcControl system for storage and retrieval systems
US9187244B2 (en)2010-12-152015-11-17Symbotic, LLCBOT payload alignment and sensing
US9321591B2 (en)2009-04-102016-04-26Symbotic, LLCAutonomous transports for storage and retrieval systems
US9499338B2 (en)2010-12-152016-11-22Symbotic, LLCAutomated bot transfer arm drive system
US9561905B2 (en)2010-12-152017-02-07Symbotic, LLCAutonomous transport vehicle
US10822168B2 (en)2010-12-152020-11-03Symbotic LlcWarehousing scalable storage structure
US10894663B2 (en)2013-09-132021-01-19Symbotic LlcAutomated storage and retrieval system
US11078017B2 (en)2010-12-152021-08-03Symbotic LlcAutomated bot with transfer arm

Citations (10)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
US1596868A (en)*1920-04-131926-08-24Blaw Knox CoFloor form
US2671697A (en)*1950-02-241954-03-09Universal Mfg CoPortable shoring
CH346996A (en)*1957-06-171960-06-15Outinord Sa Ets Device for establishing constructions made of cast materials
AT214130B (en)*1958-09-201961-03-27Blivers Baugesellschaft M B H Formwork for concrete construction
CH365205A (en)*1959-12-221962-10-31Soc Et Et De Realisations De L Formwork device for the simultaneous erection of cross walls and corresponding upper floors
CA674658A (en)*1963-11-26E. Gaudry AlbertProcede de coffrage
US3148434A (en)*1962-03-121964-09-15Gage SeymourMeans and method for constructing buildings
US3234620A (en)*1962-08-231966-02-15Thomas W ShortHyperbolic paraboloid roof construction
US3274306A (en)*1966-09-20Method for casting concrete structures
DE1928196A1 (en)*1969-06-031970-12-10Huennebeck Gmbh Tunnel circuit

Patent Citations (10)

* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
CA674658A (en)*1963-11-26E. Gaudry AlbertProcede de coffrage
US3274306A (en)*1966-09-20Method for casting concrete structures
US1596868A (en)*1920-04-131926-08-24Blaw Knox CoFloor form
US2671697A (en)*1950-02-241954-03-09Universal Mfg CoPortable shoring
CH346996A (en)*1957-06-171960-06-15Outinord Sa Ets Device for establishing constructions made of cast materials
AT214130B (en)*1958-09-201961-03-27Blivers Baugesellschaft M B H Formwork for concrete construction
CH365205A (en)*1959-12-221962-10-31Soc Et Et De Realisations De L Formwork device for the simultaneous erection of cross walls and corresponding upper floors
US3148434A (en)*1962-03-121964-09-15Gage SeymourMeans and method for constructing buildings
US3234620A (en)*1962-08-231966-02-15Thomas W ShortHyperbolic paraboloid roof construction
DE1928196A1 (en)*1969-06-031970-12-10Huennebeck Gmbh Tunnel circuit

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* Cited by examiner, † Cited by third party
Publication numberPriority datePublication dateAssigneeTitle
US3799490A (en)*1972-10-301974-03-26R BungerPortable slatted animal pen floor forming apparatus
US3940105A (en)*1973-04-121976-02-24Metrailer Charles EForm support for use in making arched ceiling
US3966164A (en)*1973-08-131976-06-29Interform, Inc.Adjustable truss support and form for concrete construction
US3959423A (en)*1973-09-071976-05-25Gerald D. Hines InterestsModular construction system
US4107899A (en)*1975-05-051978-08-22Frederick CrooksLoad-bearing walls and similar structures
US4248024A (en)*1978-03-021981-02-03Dahlstroem C I SCentering for casting concrete roofs
US4470574A (en)*1978-12-111984-09-11Jackson George WSupport structure for building forms
US4685264A (en)*1986-04-091987-08-11Epic Metals CorporationConcrete slab-beam form system for composite metal deck concrete construction
AU592632B2 (en)*1986-04-091990-01-18Epic Metals CorporationConcrete slab-beam form system for composite metal deck construction
US4768938A (en)*1987-09-211988-09-06Greeson Logan CApparatus for pouring concrete slabs
US4921649A (en)*1987-09-211990-05-01Greeson Logan CMethod for pouring concrete slabs
US5616349A (en)*1994-01-201997-04-01Sasaki; MitsuoMovable slab form unit
RU2194831C2 (en)*2000-04-102002-12-20Еранов Владимир ЮрьевичSet of volumetric-traveling forms and process of erection of buildings with its use
US20100025563A1 (en)*2007-02-162010-02-04Tang Hang SengFormwork system
US8348221B2 (en)*2007-02-162013-01-08Tang Hang SengFormwork system for constructing a structural concrete floor with projecting floor beams
US11939158B2 (en)2009-04-102024-03-26Symbotic LlcStorage and retrieval system
US9321591B2 (en)2009-04-102016-04-26Symbotic, LLCAutonomous transports for storage and retrieval systems
US9771217B2 (en)2009-04-102017-09-26Symbotic, LLCControl system for storage and retrieval systems
US12358723B2 (en)2009-04-102025-07-15Symbotic LlcStorage and retrieval system
US9051120B2 (en)2009-04-102015-06-09Symbotic LlcControl system for storage and retrieval systems
US11858740B2 (en)2009-04-102024-01-02Symbotic LlcStorage and retrieval system
US11661279B2 (en)2009-04-102023-05-30Symbotic LlcAutonomous transports for storage and retrieval systems
US11254501B2 (en)2009-04-102022-02-22Symbotic LlcStorage and retrieval system
US11124361B2 (en)2009-04-102021-09-21Symbotic LlcStorage and retrieval system
US10759600B2 (en)2009-04-102020-09-01Symbotic LlcAutonomous transports for storage and retrieval systems
US10239691B2 (en)2009-04-102019-03-26Symbotic, LLCStorage and retrieval system
US10207870B2 (en)2009-04-102019-02-19Symbotic, LLCAutonomous transports for storage and retrieval systems
US9550225B2 (en)2010-12-152017-01-24Symbotic LlcBot having high speed stability
US11078017B2 (en)2010-12-152021-08-03Symbotic LlcAutomated bot with transfer arm
US9862543B2 (en)2010-12-152018-01-09Symbiotic, LLCBot payload alignment and sensing
US9908698B2 (en)2010-12-152018-03-06Symbotic, LLCAutomated bot transfer arm drive system
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US9561905B2 (en)2010-12-152017-02-07Symbotic, LLCAutonomous transport vehicle
US9499338B2 (en)2010-12-152016-11-22Symbotic, LLCAutomated bot transfer arm drive system
US10280000B2 (en)2010-12-152019-05-07Symbotic, LLCSuspension system for autonomous transports
US10414586B2 (en)2010-12-152019-09-17Symbotic, LLCAutonomous transport vehicle
US10683169B2 (en)2010-12-152020-06-16Symbotic, LLCAutomated bot transfer arm drive system
US9423796B2 (en)2010-12-152016-08-23Symbotic LlcBot having high speed stability
US10822168B2 (en)2010-12-152020-11-03Symbotic LlcWarehousing scalable storage structure
US8696010B2 (en)2010-12-152014-04-15Symbotic, LLCSuspension system for autonomous transports
US9676551B2 (en)2010-12-152017-06-13Symbotic, LLCBot payload alignment and sensing
US9327903B2 (en)2010-12-152016-05-03Symbotic, LLCSuspension system for autonomous transports
US9187244B2 (en)2010-12-152015-11-17Symbotic, LLCBOT payload alignment and sensing
US11273981B2 (en)2010-12-152022-03-15Symbolic LlcAutomated bot transfer arm drive system
US9156394B2 (en)2010-12-152015-10-13Symbotic, LLCSuspension system for autonomous transports
US12214959B2 (en)2010-12-152025-02-04Symbotic LlcAutomated bot with transfer arm
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US8919801B2 (en)2010-12-152014-12-30Symbotic, LLCSuspension system for autonomous transports
US11952214B2 (en)2010-12-152024-04-09Symbotic LlcAutomated bot transfer arm drive system
US11708218B2 (en)2013-09-132023-07-25Symbolic LlcAutomated storage and retrieval system
US10894663B2 (en)2013-09-132021-01-19Symbotic LlcAutomated storage and retrieval system
CN104652809A (en)*2015-01-072015-05-27福建工程学院Construction method of support system for templates of concrete beams and slabs

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