US1375232A - Breakwater and pier and method of making the same - Google Patents

Breakwater and pier and method of making the same Download PDF

Info

Publication number
US1375232A
US1375232A US106075A US10607516A US1375232A US 1375232 A US1375232 A US 1375232A US 106075 A US106075 A US 106075A US 10607516 A US10607516 A US 10607516A US 1375232 A US1375232 A US 1375232A
Authority
US
United States
Prior art keywords
piles
pier
breakwater
concrete
piers
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Lifetime
Application number
US106075A
Inventor
Allan C Rush
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to US106075A priority Critical patent/US1375232A/en
Application granted granted Critical
Publication of US1375232A publication Critical patent/US1375232A/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

Links

Images

Classifications

    • EFIXED CONSTRUCTIONS
    • E02HYDRAULIC ENGINEERING; FOUNDATIONS; SOIL SHIFTING
    • E02BHYDRAULIC ENGINEERING
    • E02B3/00Engineering works in connection with control or use of streams, rivers, coasts, or other marine sites; Sealings or joints for engineering works in general
    • E02B3/04Structures or apparatus for, or methods of, protecting banks, coasts, or harbours
    • E02B3/06Moles; Piers; Quays; Quay walls; Groynes; Breakwaters ; Wave dissipating walls; Quay equipment
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02ATECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A10/00TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE at coastal zones; at river basins
    • Y02A10/11Hard structures, e.g. dams, dykes or breakwaters

Definitions

  • Vi-in object of this invention iste make provision whereby an ocean frontY in comparatively shallow waters may be converted into a harbor, and incidentally to this object the invention includes a pier base construction forA loose formation such as sandy4 or mud' bottoms. f
  • An object of this invention is to provide a stable pier structure that will give a suit able foundationcapable of resisting all theV forces and the stress and strain to which the same may be subjected.
  • the invention is'not only capable of such use. but it is also adapted to afford a solidy Application filed June 26, 1916. Serial( No. r106,075.
  • An object is to stabilize a wave resisting pier or sea wall on a soft or loose bottom of sand,'silt or sedimentary deposits.
  • pier structure comprising a massive monolithic body adapted to have a superstructure thereupon and resting'on a sedimentitious bottom, and piles integral with such body and extending down from such body intoV such bottom' reinforcing means which interlock the pilesand also serve as stabilizing means for the pier; a bed of wood or other compressible material laid in the monolithic body on top of the piles for resiliently supporting the superstructure and the monolithic body above the wooden bed; abed of crossed iron rails on the wooden bed for reinforcing the monolithic body above the wooden bed and for distributing equally the weight ofthe superstructure and the monolithio body above the piles and the wooden bed; and also the construction of the pier front receding rearwardly from an intermediate point and 'sloping rearwardly so as to break the waves and curl them over upon themselves so that each wave will tend to destroy the force of a succeeding wave.
  • Figure l is a perspective view showing at low, tide, bridge piers and breakwater piers constructed in accordance with this invention.
  • Fig. 2 is a broken elevation partly in section of one of the units shown in Fig. 1.
  • Fig. 6 is a plan of a' pier base in com pleted construction .before the cofferdam has been removed. Parts are broken away to show various features of construction. j s
  • the cofferdam a may be of any practical structure and is shown as constructed of .tongue and groove piling of the character commonly in use for constructing cofferdams, said piling being driven into the sand or mud bottom Z to a depth sulicient to enable the operator to pump out the water, sand and other debris within said cofferdam a, to a suitable depth above the bottom of such cofferdam.
  • the piling l for the pier base structure y may bey of any appropriate length, say 150 feet more or less7 and piling ofvthis character may be 1d to 18 inches, more or less, in diameter at the upper end.
  • rthese piles may be of any suitable character and material,
  • the work of driving saic piles may be largely done before the cofferdam is built. After the cofferdam has been built and the piles 1 have been driven to such depth as may be convenient and appropriate, the water inside the coiferdam will be pumped out, and thereupon the piles l may be cut off or driven to bring their tops to a depth or level below the level of the water surrounding ⁇ the cofferdam.
  • the piles may be spaced apart a greater or less distance and are shown as beingrspaced about two feet apart. down, they compress the soft Vbed between them and together with the compressed bed form a strong and solid foundation.
  • armold c is placed upon the bottom and extends upward around the body or cluster of driven piles 1, and then a concrete lling of a more or less reinforced character is built within the mold o and directly on 'the compressed and solidified bottom.
  • the concrete filling 2 between the piles may be without reinforcement throughout its lower portion andthe concrete collar 3 between the mold c Vand the body or-cluster of ⁇ piles may be wellsupplied with reinforce reinforced concrete collar.
  • the principal reinforcing elements 5 of the concrete vbetween the piles may be located mainly near the level of the top of the piles asindicated by the railroad 'l' irons 5, but ties 5 of iron, steel or other suitable material may be appliedr at appropriate points, When the mold c has been filled with concrete with and without reinforcing as inf dicated in Fig.
  • a cap 6 of wood or other suitable yielding material may be laid upon the concrete and the pile tops and projecting laterally beyond therpiletops, and upon the top of said wooden cap, two sets 7, 8 of reinforcingand structural irons, such as railroad T irons, are arranged in cross relation to eachother, and the spaces between the reinforcing elements thus applied are filled in with con ⁇ crete so that the cap 6 alsois embedded therein, and finally the whole is entirely covered by a concrete layer 9, which may or ay not be reinforced, according to the judgment of the constructor.
  • this lip is to confine the i033-, which the pier base is formed.
  • any-depth ofezca-- ation may bem de around thev cluster of piles within the 3udgment and at the Vcon- Avenience of the constructor.
  • the piles are preferably coniso nected by means of bands, links or rings 13 Vof galvanized iron, steel or other suitable p material applied at intervals fromthe level n depth below theA concrete body: thereof.
  • Said piles may or'may not extend to bed rock indicated at Z in Fig. 3.
  • the overhanging Yorprojecting collar 3 is symmetrically arranged relative to the clusf' ter of piles and said cluster as a whole has a coefficient of strength andV stability far in excess of that to which the structure may be subjected.
  • the downwardly extending lip 11 incloses an upper stratum of the soft bottom b, and the hydrostatic pressure tends to force the soft bottoni up into the space between the lip 11 and the cluster of piles 1 and the'interstitial filling formed betweenthe piles by the soft bottom b; thus adding greatly to the ultimate strength of the structure.
  • the piers constructed as set forth may be located to face the open sea as indicated at 14 in Fig, 1 and may be used as bridge piers as indicated at 1li in said Fig. 1, 'it
  • Each pier is provided with one or more prow like projections 15, and their front surfaces are somewhat conformed to the shape of a double mold boa-rd plow and serve as deflectors, being curved in horizontal traces as at 16 and receding rearwardly on feach sfidev Iof the central Pfol action *ff-)ir nose 15, andthe faces 17 slant upward and backward and are curved both in verticaland horizontal directions and areprovid'ed' along the bottom with a riser 18,*its'top sloping upward from the central pointorj' nose 1r so that waves impinging against pier will'be Vdeflected laterally and up, land so that Athe force lofthe waves is exerted ⁇ measurably downward to hold the structure in placeand the energy is erpended largely v inlifting the water'by its own action.
  • the piers are arranged adjacent to each other closeenough together to cause the deflected waters from two adjoining piers to combat each other thus neutralizing their forces.
  • Front faces 17, 18 may ⁇ be provided on two sides of thesame pier as shown so as to take care ofwave action from different di-l rections. at'fdifierent times. This maysometime prove ⁇ of great service, as at the mouths of rivers or estuaries where destructive forces, floods andv tides may occur.
  • tector for a harbor f maybe formed of a series of piers 14 of'llOO feet length and 3 0() .feet width and 50 feet depth, the piles 1 be-'vv Y ing formed as integral downwardy extensions thereof seated in the sedimentary bed b.
  • VThe surrounding Yreinforced concrete collar -3 may extend 30 feet, more or less, beyond'the pile clusterk an'dmayk bel 50 feet, more or less, in depth, and mayj be more or less submerged.
  • an open coast an incoming wave may be many hundred feet long and may come landward with tremendous power. 1n practical operation such wave meets the sharp point of the pierand iscut iny two. This lessens its power, and the momentum of the upper portion of the wave being greater than that of the lower portion, the upper portion rises 4as it advances, and pushes on and part of it drops back and part is too strong and deflects to each side of the pier. The dei'iected water from adjacent piers co acts and the line of piers is thus made ef fective as a breakwater.
  • the cap is of a comy pressible material vand therefore resiliently supports the superstructure and the monolithic base above the piles and the cap, thereby allowing the center of the superstructure to settle somewhat and thus to compensate the .external settling of the piling and to compact the sand or silt within the compass of the piling.
  • the heavyweight ofthe T-rail bed or its equivalent also serves to give great resisting power tothe pier.
  • the pier constructionis especially adaptedforY supporting-heavy bridge superstrucported center and the soft bed supported rim of concrete outside the piles.
  • a pier having a forward'projection and lrearwardly extending curved faces Vsloping'upwardly from the front toward the rear, the loweredge of saidupward Y slope being higher. at the ends of said curved faces than at said projection so that the water impelled by wave action will be lifted and at the same timefdeflected laterally to neutralize its own momentum.
  • a series Vof piers spaced apart and forming a brcakwater outside of ya shore each pier having a forward projection and rearwardly extending curved faces sloping upwardly from the front toward the rear, and the lower edge of the upward slope being higher atV the ends of the curved faces ⁇ than at the projection so that the water impelled by the action of the waves will be lifted and deflected for the purpose of neu-k tralizing its own momentum.

Landscapes

  • Engineering & Computer Science (AREA)
  • General Engineering & Computer Science (AREA)
  • Environmental & Geological Engineering (AREA)
  • Ocean & Marine Engineering (AREA)
  • Mechanical Engineering (AREA)
  • Civil Engineering (AREA)
  • Structural Engineering (AREA)
  • Revetment (AREA)

Description

A. C. RUSH.
BREAKWATER AND PIER AND METHUD 0F MAKING THESAME.
APPLICATION FILED luNEz. w16.
1 ,$375,232. Patented Apr. 19, 1921.
3 SHEETS-SHEET 2.
A. C. RUSH.
h BREAKWATER AND PIER AND METHOD 0F MAKING THE SAME.
APPLICATION FILED IUNE Z6. I9l6. 1,375,232, Patented Apr. 19, 1921.
3 SHEETS-SHEET 3.
LLL- in@ oo Y Y 1 ooooooo oooooooo oooooooooo ooooooooooo oooocooooooo oooooooooooo oooooooooooo oo'ooooooooco oooooooooooo 'ooooooooooooo o ooo oooo oo oo oooooloaoooo4 00o ooo oo Oooo ooo con fade/dor Zan (f5/fiar )w/w pier bases spaced apart on a loose or sedij Anarransrarns Partnr orriii.
ALLAN o. RUSH, or' Los ANGELES, CALIFORNIA.
BREAKWATER AND PER AND METHOD MAKING V'EI-1E SAME.
intense.
To all whom t may concern:
it known that I, ALLAN Crnus RUSH, a citizen of the United States7 residing at Los Angeles, in the county of Los Angeles and lState of California, have invented a new anduseful Brealwater and Pier and Method of Making the Same, of which the following is a specification.
Vi-in object of this invention iste make provision whereby an ocean frontY in comparatively shallow waters may be converted into a harbor, and incidentally to this object the invention includes a pier base construction forA loose formation such as sandy4 or mud' bottoms. f
'A principle of the invention in one of itsv` applications is the construction of suitable mentary deposit and arranged to direct wave, swell or current action into internal combat so as to neutralize the destructive force thereof and toV protect the waters otherwise subject to suoli force, with a minimum expanse of, and expense for, protective structure.
lt is well knownthat along many coasts there are shallow waters of sufiicient depths for floating the largest vessels and yet unavailable for harbor purposes on account of` the danger from the high seas; and that it has heretofore been deemed impossible yto I build piers to protect such waters for the reason that the ocean bottom formation is loose for vdepths too great to allow the pier substructure to reach a solid formation Y therebeneath without prohibitive expense or Y diiliculty of construction.
An object of this invention is to provide a stable pier structure that will give a suit able foundationcapable of resisting all theV forces and the stress and strain to which the same may be subjected.
The invention is'not only capable of such use. but it is also adapted to afford a solidy Application filed June 26, 1916. Serial( No. r106,075.
the appended claims.
Specification ofILetters Patent. E'gttntcd Api', 19,19%1.
or swells yand will break them up causing the waterto lift itself andfail back to de-' stroy its own momentum, with minimum destructive tendency toward breaking orA undermining the pier.
- An object is to stabilize a wave resisting pier or sea wall on a soft or loose bottom of sand,'silt or sedimentary deposits.
I regard the invention as broadly new and pioneerin various features among which may be mentioned the formation of a sea-wall formed of individual piers spaced apart and arranged tov direct the wave action `to inter-` nal combat to neutralize the momentum Vof the waves and tide; the construction of a pier with a forwardly projecting point with wave deflecting rear wings to break long swells and waves to destroyV their force; the,
pier structure comprising a massive monolithic body adapted to have a superstructure thereupon and resting'on a sedimentitious bottom, and piles integral with such body and extending down from such body intoV such bottom' reinforcing means which interlock the pilesand also serve as stabilizing means for the pier; a bed of wood or other compressible material laid in the monolithic body on top of the piles for resiliently suporting the superstructure and the monolithic body above the wooden bed; abed of crossed iron rails on the wooden bed for reinforcing the monolithic body above the wooden bed and for distributing equally the weight ofthe superstructure and the monolithio body above the piles and the wooden bed; and also the construction of the pier front receding rearwardly from an intermediate point and 'sloping rearwardly so as to break the waves and curl them over upon themselves so that each wave will tend to destroy the force of a succeeding wave.
Other objects, advantages, and features of novelty may appear from the accompanying drawings, the subjoined specification and The invention may erence vto the accompanying drawings.
Figure l is a perspective view showing at low, tide, bridge piers and breakwater piers constructed in accordance with this invention. c
Fig. 2 is a broken elevation partly in section of one of the units shown in Fig. 1.
A portion of the temporary cofferdam made v of joined piles is also shown.
be understoodr by ref- Fig. 3 is an enlarged broken Asectional detail elevation of the pier structure shown 'in Figs. l and 2, omitting the water.A
on a larger scale than the other figures, ofd
a pier in completed construction.
Fig. 6 is a plan of a' pier base in com pleted construction .before the cofferdam has been removed. Parts are broken away to show various features of construction. j s
Referring to Figs. 2, 5 and 6, the cofferdam a may be of any practical structure and is shown as constructed of .tongue and groove piling of the character commonly in use for constructing cofferdams, said piling being driven into the sand or mud bottom Z to a depth sulicient to enable the operator to pump out the water, sand and other debris within said cofferdam a, to a suitable depth above the bottom of such cofferdam. The piling l for the pier base structure ymay bey of any appropriate length, say 150 feet more or less7 and piling ofvthis character may be 1d to 18 inches, more or less, in diameter at the upper end. rthese piles may be of any suitable character and material,
Vas wood, reinforced concrete or equivalents therefor, and are driven in any well known way as `by hydraulic, electrical or drop weight means to a required depth in the sand or mud Vbottom The work of driving saic piles may be largely done before the cofferdam is built. After the cofferdam has been built and the piles 1 have been driven to such depth as may be convenient and appropriate, the water inside the coiferdam will be pumped out, and thereupon the piles l may be cut off or driven to bring their tops to a depth or level below the level of the water surrounding` the cofferdam. rThe piles may be spaced apart a greater or less distance and are shown as beingrspaced about two feet apart. down, they compress the soft Vbed between them and together with the compressed bed form a strong and solid foundation.
lWhen the cofferdam e has been constructed and the water inside the same has been pumped out, and the tops of the 'piles have been driven down or cut off to the required depth, armold c is placed upon the bottom and extends upward around the body or cluster of driven piles 1, and then a concrete lling of a more or less reinforced character is built within the mold o and directly on 'the compressed and solidified bottom. The concrete filling 2 between the piles may be without reinforcement throughout its lower portion andthe concrete collar 3 between the mold c Vand the body or-cluster of `piles may be wellsupplied with reinforce reinforced concrete collar.
As the piles are driven.
upper portion of the softl formation ment l from the bottom `to the top, so that the pile lcluster is entirely surrounded by a The principal reinforcing elements 5 of the concrete vbetween the piles may be located mainly near the level of the top of the piles asindicated by the railroad 'l' irons 5, but ties 5 of iron, steel or other suitable material may be appliedr at appropriate points, When the mold c has been filled with concrete with and without reinforcing as inf dicated in Fig. 5, to the tops of the piles, a cap 6 of wood or other suitable yielding material may be laid upon the concrete and the pile tops and projecting laterally beyond therpiletops, and upon the top of said wooden cap, two sets 7, 8 of reinforcingand structural irons, such as railroad T irons, are arranged in cross relation to eachother, and the spaces between the reinforcing elements thus applied are filled in with con` crete so that the cap 6 alsois embedded therein, and finally the whole is entirely covered by a concrete layer 9, which may or ay not be reinforced, according to the judgment of the constructor. The lwork of construction is carried on Ain a well known sov manner so as to make a practically rein-y forced monolith of sufficient size, say, d0() feet in length by 300 feet in width..V rlhe pier base is thus completed and preferably terminates below the level of the water outside of the coiferdam. Y
ln this way the base structure, including the wooden piles, wooden cap, the reinforc ing T rails, Von top of said `cap'and the protecting cover 9 of concrete, vare all belowv the level of the water at low tide, so that they are practically protected from atmospheric action. Upon the topV of the covering a superstructure l0 of any suitable material may be built. Saidsuperstructure is shown in the drawings as constructedof granite blocks. n
ln the course of construction, whenl the mold c has been'stationed onthebottom Z) a trench will be dug just inside the mold, sothat as the concrete is poured, there will be formed concrete lip or apron 11 which will extend down below the levelof the bot- "11 more or less, in depth.
The purpose ofthis lip is to confine the i033-, which the pier base is formed.
ligtis understood that any-depth ofezca-- ation may bem de around thev cluster of piles within the 3udgment and at the Vcon- Avenience of the constructor.
It'may be found advisable toprovidesuch a reinforcement for the structural piles l in addition to the ties 5, 5, 7 and 8, that the `pier base is also stabilized thereby, and for this purpose the piles are preferably coniso nected by means of bands, links or rings 13 Vof galvanized iron, steel or other suitable p material applied at intervals fromthe level n depth below theA concrete body: thereof.
Said piles may or'may not extend to bed rock indicated at Z in Fig. 3. Y
'ln theV process of driving vthe piles 1t is deemed desirable to begin centrally of theV space to be covered and to drive piles therearound until the requisite number yof piles I are driven. By this method, the consolidation of the mud, silt or sand caused by driving the piles, need not be such'as to prevent driving` the piles'by' an ordinary pile-driver buta great ronsolidation of the bottom Zn is thus effected. Y A
The overhanging Yorprojecting collar 3 is symmetrically arranged relative to the clusf' ter of piles and said cluster as a whole has a coefficient of strength andV stability far in excess of that to which the structure may be subjected. Y
The downwardly extending lip 11 incloses an upper stratum of the soft bottom b, and the hydrostatic pressure tends to force the soft bottoni up into the space between the lip 11 and the cluster of piles 1 and the'interstitial filling formed betweenthe piles by the soft bottom b; thus adding greatly to the ultimate strength of the structure.
1t is understood that where deposits of silt, sand, or the like occur, there may in course of time occur changes of current tendingto wash away the bottom b and this is guarded against by the depth of piles below the surface. Vlf the bottom is cut away on one side, the piles thus exposed become resisting elements held in place by the interlocked mass of piles, reinforcing, ties and concrete.
In soineinstances heavy masses and blocks of stone c maybe filled into the space around the lip thus giving additional protection.
The piers constructed as set forth may be located to face the open sea as indicated at 14 in Fig, 1 and may be used as bridge piers as indicated at 1li in said Fig. 1, 'it
being understood that the pier construction in each instance is practically the same.
Each pier is provided with one or more prow like projections 15, and their front surfaces are somewhat conformed to the shape of a double mold boa-rd plow and serve as deflectors, being curved in horizontal traces as at 16 and receding rearwardly on feach sfidev Iof the central Pfol action *ff-)ir nose 15, andthe faces 17 slant upward and backward and are curved both in verticaland horizontal directions and areprovid'ed' along the bottom with a riser 18,*its'top sloping upward from the central pointorj' nose 1r so that waves impinging against pier will'be Vdeflected laterally and up, land so that Athe force lofthe waves is exerted` measurably downward to hold the structure in placeand the energy is erpended largely v inlifting the water'by its own action.
The piers are arranged adjacent to each other closeenough together to cause the deflected waters from two adjoining piers to combat each other thus neutralizing their forces. Y
Front faces 17, 18 may `be provided on two sides of thesame pier as shown so as to take care ofwave action from different di-l rections. at'fdifierent times. This maysometime prove `of great service, as at the mouths of rivers or estuaries where destructive forces, floods andv tides may occur.
1t is understood that the' dimensions and relative proportions Amay vary greatly to"l l Y y 1n some instances the breakwater` or sea AwallV pro-V accommodate diflierent conditions.
tector for a harbor f maybe formed of a series of piers 14 of'llOO feet length and 3 0() .feet width and 50 feet depth, the piles 1 be-'vv Y ing formed as integral downwardy extensions thereof seated in the sedimentary bed b.
upon which the bottom 12 ofthemonolithic body rests. VThe surrounding Yreinforced concrete collar -3 may extend 30 feet, more or less, beyond'the pile clusterk an'dmayk bel 50 feet, more or less, in depth, and mayj be more or less submerged.
0n an open coast an incoming wave may be many hundred feet long and may come landward with tremendous power. 1n practical operation such wave meets the sharp point of the pierand iscut iny two. This lessens its power, and the momentum of the upper portion of the wave being greater than that of the lower portion, the upper portion rises 4as it advances, and pushes on and part of it drops back and part is too strong and deflects to each side of the pier. The dei'iected water from adjacent piers co acts and the line of piers is thus made ef fective as a breakwater. The deflected portions of the wave come together between the two breakwater sections 14, strike upon each other and destroy their own power with the result that this form of breakwater will take the place of a solid wall that under the prac-Y .Theorossed railway iron with theinterstitialeconcrete forms a heavy,y rigidY and i Vsolidfbed on top of the piles so, that the thev cluster ofV piles.
pressure above the piles lto support the superstructure will be equally distributed over A It should in thisfconnection'l be noted that the cap is of a comy pressible material vand therefore resiliently supports the superstructure and the monolithic base above the piles and the cap, thereby allowing the center of the superstructure to settle somewhat and thus to compensate the .external settling of the piling and to compact the sand or silt within the compass of the piling. y
The heavyweight ofthe T-rail bed or its equivalent also serves to give great resisting power tothe pier. I Y ,Y
The pier constructionis especially adaptedforY supporting-heavy bridge superstrucported center and the soft bed supported rim of concrete outside the piles.
It is understood that the dimensions mentioned hereinare not arbitrary and that they and other features of construction may be changed within the judgment of the constructor without departing from the spirit of the invention.
vI claim:
1. A pier having a forward'projection and lrearwardly extending curved faces Vsloping'upwardly from the front toward the rear, the loweredge of saidupward Y slope being higher. at the ends of said curved faces than at said projection so that the water impelled by wave action will be lifted and at the same timefdeflected laterally to neutralize its own momentum.
v2. A` series of piers forming afbreakwater outside of a shore, eachpier'having a for* ward projection and rearwardly extending curved faces sloping upwardly y'from the front toward the rear, and the lower edge of Vthe upward slope being higher at the ends of the curved faces than at the projection so that the water impelled by the action ofV the waves will be lifted and deflected for the purpose of neutralizing its own momentum. .Y
3. A series Vof piers spaced apart and forming a brcakwater outside of ya shore, each pier having a forward projection and rearwardly extending curved faces sloping upwardly from the front toward the rear, and the lower edge of the upward slope being higher atV the ends of the curved faces `than at the projection so that the water impelled by the action of the waves will be lifted and deflected for the purpose of neu-k tralizing its own momentum.
In testimony whereof, I have hereunto set Los Angeles, California, thisVV my hand at 21st day of June, 1916.v Y
ALLAN C. RUSH.
Witness: Y
' JAMES R. ToWNsEND.
US106075A 1916-06-26 1916-06-26 Breakwater and pier and method of making the same Expired - Lifetime US1375232A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
US106075A US1375232A (en) 1916-06-26 1916-06-26 Breakwater and pier and method of making the same

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
US106075A US1375232A (en) 1916-06-26 1916-06-26 Breakwater and pier and method of making the same

Publications (1)

Publication Number Publication Date
US1375232A true US1375232A (en) 1921-04-19

Family

ID=22309337

Family Applications (1)

Application Number Title Priority Date Filing Date
US106075A Expired - Lifetime US1375232A (en) 1916-06-26 1916-06-26 Breakwater and pier and method of making the same

Country Status (1)

Country Link
US (1) US1375232A (en)

Cited By (8)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3667234A (en) * 1970-02-10 1972-06-06 Tecnico Inc Reducing and retarding volume and velocity of a liquid free-flowing in one direction
US4255066A (en) * 1977-09-13 1981-03-10 Sentralinstitutt For Industriell Forskning Arrangement for concentrating sea waves
US4273475A (en) * 1976-09-22 1981-06-16 Raymond International Inc. Load supporting structure
WO1982000840A1 (en) * 1980-09-09 1982-03-18 Hydrodynamic Energy Systems Co Apparatus for increasing the velocity of water flow for electric power generation and other uses
US4363564A (en) * 1980-09-09 1982-12-14 Hydrodynamic Energy Systems Corporation Water power generator
US4407608A (en) * 1981-07-27 1983-10-04 Hubbard Thom W Method and apparatus for controlling fluid currents
US5185085A (en) * 1991-06-12 1993-02-09 Borgren Peter M Water craft and method for treating a body of water
US9151008B1 (en) * 2014-08-22 2015-10-06 Robin G Carstens Wave break device

Cited By (9)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3667234A (en) * 1970-02-10 1972-06-06 Tecnico Inc Reducing and retarding volume and velocity of a liquid free-flowing in one direction
US4273475A (en) * 1976-09-22 1981-06-16 Raymond International Inc. Load supporting structure
US4255066A (en) * 1977-09-13 1981-03-10 Sentralinstitutt For Industriell Forskning Arrangement for concentrating sea waves
USRE32054E (en) * 1977-09-13 1985-12-24 Sentralinstitutt For Industriell Forskning Arrangement for concentrating sea waves
WO1982000840A1 (en) * 1980-09-09 1982-03-18 Hydrodynamic Energy Systems Co Apparatus for increasing the velocity of water flow for electric power generation and other uses
US4363564A (en) * 1980-09-09 1982-12-14 Hydrodynamic Energy Systems Corporation Water power generator
US4407608A (en) * 1981-07-27 1983-10-04 Hubbard Thom W Method and apparatus for controlling fluid currents
US5185085A (en) * 1991-06-12 1993-02-09 Borgren Peter M Water craft and method for treating a body of water
US9151008B1 (en) * 2014-08-22 2015-10-06 Robin G Carstens Wave break device

Similar Documents

Publication Publication Date Title
US3802205A (en) Sea wall construction
US1375232A (en) Breakwater and pier and method of making the same
KR20180124108A (en) Undersea base structure and its installation method
US5911545A (en) Method for stabilizing and repair of docks and seawalls
US1971324A (en) Sea wall
GB263997A (en) Improvements in and relating to the construction of quay walls, piers and other marine structures
US2387965A (en) Art of beach protection
US3399535A (en) Block and maritime structure formed therefrom
US757368A (en) Construction of bulkheads.
US411704A (en) Construction of breakwaters
Oleson Underwater survey and excavation in the port of Pyrgi (Santa Severa), 1974
US1691335A (en) Sea wall, jetty, and similar structure
US1575362A (en) Beach-reclamation system
Elliott ACCOUNT OF THE DYMCHURCH WALL, WHICH FORMS TH, E SEA DEFENCES OF ROMNEY MARSH.(INCLUDES PLATE).
US400101A (en) Levee-protector
CN217378752U (en) Check dam type dike foot scour protection structure
US715557A (en) Means for forming beaches.
RU2280730C1 (en) Protective bank consolidation structure and method of structure erection
US1006247A (en) Dock construction and method of constructing docks.
CN206667424U (en) Rain pipe buries structure
RU152226U1 (en) ARTIFICIAL ISLAND
US687382A (en) Submerged hollow-fascine dike.
ELIOT THE MANCHESTER SHIP-CANAL: MERSEY ESTUARY EMBANKMENTS.-EASTHAM DIVISION.(INCLUDING PLATES AT BACK OF VOLUME).
Escoffier Design and performance of sea walls in Mississippi Sound
Haupt et al. Discussion on How to Build A Stone Jetty