Awea/Z2-7Erta So Wao As Ae As So As /7Aeow/2Waza Oa 1774 Car Sis

Total Page:16

File Type:pdf, Size:1020Kb

Awea/Z2-7Erta So Wao As Ae As So As /7Aeow/2Waza Oa 1774 Car Sis Sept. 19, 1939. E. F. ZAPARKA 2,173,674 AILERON DEVICE Original Filled June 7, 1933 3 Sheets-Sheet l S NS vue tot in Awea/Z2-7erta so wao As ae as so as /7aeow/2waza oA 1774 car sis rtist it v Sept. 19, 1939. E. F. ZAPARKA 2,173,674 AILERON DEVICE Original Filled June 7, l933 3. Sheets-Sheet 2 M 74.12. M2 -or 2 T-277t a 27 Awaa(7 / 27aaeia sy e/r. 7-8%. detotivo 40 Sept. 19, 1939. E. F. ZAPARKA 2,173,674 ALERON DEWICE Original Filled June 7, l933 3 Sheets-Sheet 3 rvuertot Awezázzaze/7 "24-c. 4c. dittozvot y Patented Sept. 19, 1939 2,173,674 UNITED STATES PATENT OFFICE 2,173,674 AERON DEVICE Edward F. Zaparka, Baltimore, Md., assignor to Zap Development Corporation, Baltimore, Md., a. corporation of Delaware Application June 7, 1933, Serial No. 674,729 Renewed January 13, 1937 Claims. (C, 244-90) My invention relates to ailerons, and more wing equipped with the form of aileron shown particularly to ailerons which are balanced so in Figure 1; that it requires gradually increasing control stick Fig. 3 is a graph showing the control stick forces to move them from the neutral position. forces plotted with respect to the angle of at 5 Though I am not to be limited to any par tack of a combined pair of ailerons; 5. ticular location of the ailerons, the ailerons I Fig. 4 is a view in side elevation of an air have shown are of the type illustrated and de plane wing showing another form of my aileron; scribed in my application Serial No. 653,918, filed Fig. 5 is a detail view partly in section show January 27, 1933. ing the form of aileron illustrated in Figure 4, 10 The present application deals with the construc the different positions of the aileron being indi- 10 tion of the aileron per se, and the location of cated by dotted lines; the aileron as specified in Serial No. 653,918 is Fig. 6 is a detail view in side elevation and not restrictive in considering claims in this ap partly in section showing another form of ai plication, except as the language imposes such leron, the different positions being indicated in 15 limitations. dotted lines; Heretofore when a pair of ailerons moved in Fig. 7 is a detail view in side elevation and opposite directions from the neutral position, partly in section showing another form of aileron, there was a "soupy' action at the control stick the different positions being indicated in dotted for the first few degrees of movement of the pair lines; 20 of Zap ailerons from the neutral position. This Fig. 8 is a detail view in side elevation and 20 Soupy action was followed by a very sharp in partly in section showing another form of aileron, Crease in the stick forces necessary to move the the different positions being indicated in dotted pair of Zap ailerons when the change from the lines; vertical angle became great. Fig. 9 is a detail view in side elevation and 25. It is one of the objects of this invention to pro partly in section showing another form of aileron, 25 vide ailerons such that the forces necessary to the different positions being indicated in dotted move the pair of Zap ailerons through increas lines; ing plus and minus angles of attack is consider Fig. 10 is a side elevation of another modifica ably less than for a pair of normal Zap ailerons. tion of my aileron, the different positions being 30. It is a further object of this invention to pro indicated in dotted lines; 30 vide ailerons in which the center of pressure shift Fig. 11 is a rear elevational view of a wing at varying angles of attack creates favorable showing a different form of my aileron in posi hinge moments. - tion above the Wing; A still further object of my invention is to Fig. 12 is a detail view in side elevation of the . 35 provide aileron constructions which are so piv aileron illustrated in Figure 11. 35 oted that the pivot shifts with the angular move Referring to the drawings, in Figures 1 and 2 ment of the .aileron so that the shift in center of I have shown a form of my aileron having a pressure is compensated largely by varying the front slot construction. In Figure 1 I have shown moment arm between the center of pressure and an aileron having a fuselage , a motor 2, pro 40 the point of pivoting. w peller 3 and wings 4. Above the wings 4 and 40 Still another object of my invention is to pro near the trailing edge thereof, as shown in the vide ailerons so constructed that the tendency drawings, I have mounted ailerons 5. The ailerons for the center of pressure to shift on any one 5 are mounted on horns 6; the ailerons being piv designed area of an aileron in one direction is oted at T on the horns 6. The ailerons have 45 compensated for by shift of center of pressure in attached to their upper surface horns 8 to which 45 the opposite direction on another designed area, are pivoted at 9 the aileron control rods O. Em whereby there is a tendency for these opposite pennage surfaces are indicated at 4. shifts in center of pressure on the different de The aileron control rods 0 are pivoted at , 50 signed areas to at least in part neutralize each as diagrammatically illustrated in Figure 1, to a other. control member 2, which is pivoted at 3. The 50 In the drawings: control member 2 is provided with two arms 4 and 5, indicated in dotted lines. The arms 4. Figure 1 is a top plan view of an airplane are connected by a cable 6 and the arms 5 are equipped with one form of my aileron; connected by a cable 7. The cable passes 55 Fig. 2 is a detail view inside elevation of a over pulleys 8 and is attached to a control stick 55. 2,178,674 2 obtained, i.e. stick forces are such that the pilot 9. The aileron control mechanism is of the can control the plane easily; well known type and the details of construction (3) Additionally an increased rolling moment are not given herein. r Spaced from the upper front edge of the aileron is obtained due to the increased lift of the posi 5 is an element 20 which has a curved front sur tive aileron, which is in some instances in the face and is so shaped at its rear as to provide nature of 20 per cent increase in lift of positive a Substantially parallel slot 2 which slopes back aileron, and, therefore, a 10 per cent increase in total rolling moment. - Wardly and upwardly above the upper leading In Figs. 4 and 5 I have shown the aileron 5 pro edge of the aileron 5. The element 20 is sup vided with a supplemental airfoil 23, pivoted at O 10 ported in its spaced relationship to the upper 24 to the trailing edge of the aileron 5. The leading edge of the aileron 5 by means of support supplemental airfoil 23 is provided with a horn elements 22, only one of which is shown. 25 to which is pivoted at 26 a link 27 whose other Referring to Fig. 3, I have shown a graph in end is pivoted at 28 to the supporting horn 6 which the control stick forces in pounds necessary for the aileron 5. 15 5 to accomplish a certain movement of a pair of In Fig. 5 the interior construction of the aileron Zap ailerons in minus or plus directions from the 5 is shown, which is similar to the forms shown neutral position are indicated. The dotted line in Figs. 1 to 8, namely a construction in which . indicates the action of a pair of Zap ailerons there is a front hollow bracing tube 29 having placed as shown in Fig. 2, but without the slot supports 3 pivoted at 7 on the upper tip of the 20 S20 ted front construction just described. The un horn 6. There are provided slots 33 to permit the broken line on the graph indicates the stick forces horns 6 to pass into the interior of the aileron plotted with respect to a pair of Zap ailerons with 5. The position of the aileron 5 with respect leading edge fixed slots. Both lines approxi to the flap or supplemental airfoil 23 in varying mate actual performance. positions is shown in dotted lines in Fig. 5. 25 From an inspection of the dotted line in Fig. 3, Here the supplemental airfoil or flap 23 and it will be seen that for the first few degrees of the linkage indicated causes a phenomenon simi movement of the pair of ailerons from their neu lar to that in the form of aileron shown in Fig. 2, tral position the feel on the control stick is what namely a reduction in the hinge moment of the is known to pilots as “soupy'. The forces neces pair at high plus and minus angles of attack. 30 30 Sary to move the pair of ailerons then become Moreover, the flap increases the rolling moment Sharply greater, and at about ten degrees in the of the pair due to the down aileron. particular graph shown, the force to move an In the form of aileron shown in Fig.
Recommended publications
  • Modeling an Airframe Tutorial
    EAA SOLIDWORKS University p 1/11 Modeling an Airframe Tutorial Difficulty: Intermediate | Time: 1 hour As an Intermediate Tutorial, it is assumed that you have completed the Quick Start Tutorial and know how to sketch in 2D and 3D. If you struggle to recall how to do basic functions, please review the Tips Sheet. The Modeling an Airframe Tutorial guides you through the creation of a tubular airframe in SOLIDWORKS. The objective of the lesson is to teach you how to use the tools to design an aircraft frame. Time limits prevent us from completing this airframe, but you should learn the skills to model an airframe. You will create this part and drawing: This lesson includes: Creating a 3D Sketches Using the Weldment feature to add structural members Trimming structural members Creating a drawing and adding a ‘cut list’ Bill of Materials (BoM) EAA SOLIDWORKS University p 2/11 Modeling an Airframe Tutorial Creating a 3D Sketch for the Airframe In this lesson we will use the weldment feature to create an airframe. Weldments are structural members defined by a cross section picked from a library and a sketch line to define its length. This sketch line can be from multiple 2D sketches, or a single 3D sketch. By using two layout sketches (side and plan elevations), you can control the 3D sketch easily and any future changes will be reflected in your airframe. The layout sketches capture the design intent and the dimensions of the finished frame. 1. Open a New Part, verify Units are inches, and Save As “Airframe” (Top Menu / File / Save As).
    [Show full text]
  • Unit-1 Notes Faculty Name
    SCHOOL OF AERONAUTICS (NEEMRANA) UNIT-1 NOTES FACULTY NAME: D.SUKUMAR CLASS: B.Tech AERONAUTICAL SUBJECT CODE: 7AN6.3 SEMESTER: VII SUBJECT NAME: MAINTENANCE OF AIRFRAME AND SYSTEMS DESIGN AIRFRAME CONSTRUCTION: Various types of structures in airframe construction, tubular, braced monocoque, semimoncoque, etc. longerons, stringers, formers, bulkhead, spars and ribs, honeycomb construction. Introduction: An aircraft is a device that is used for, or is intended to be used for, flight in the air. Major categories of aircraft are airplane, rotorcraft, glider, and lighter-than-air vehicles. Each of these may be divided further by major distinguishing features of the aircraft, such as airships and balloons. Both are lighter-than-air aircraft but have differentiating features and are operated differently. The concentration of this handbook is on the airframe of aircraft; specifically, the fuselage, booms, nacelles, cowlings, fairings, airfoil surfaces, and landing gear. Also included are the various accessories and controls that accompany these structures. Note that the rotors of a helicopter are considered part of the airframe since they are actually rotating wings. By contrast, propellers and rotating airfoils of an engine on an airplane are not considered part of the airframe. The most common aircraft is the fixed-wing aircraft. As the name implies, the wings on this type of flying machine are attached to the fuselage and are not intended to move independently in a fashion that results in the creation of lift. One, two, or three sets of wings have all been successfully utilized. Rotary-wing aircraft such as helicopters are also widespread. This handbook discusses features and maintenance aspects common to both fixed wing and rotary-wing categories of aircraft.
    [Show full text]
  • Hangar 9 Ultimate Manual
    TM® WE GET PEOPLE FLYING 46% TOC Ultimate 10-300 ASSEMBLY MANUAL Specifications Wingspan ..........................................................................................100 in (2540 mm) Length ................................................................................................110 in (2794 mm) Wing Area.........................................................................................3310 sq in (213.5 sq dm) Weight ...............................................................................................40–44 lb (18–20 kg) Engine.................................................................................................150–200cc gas engine Radio ..................................................................................................6-channel w/15 servos Introduction Thank you for purchasing the Hangar 9® 46% TOC Ultimate. Because size and weight of this model creates a higher degree for potential danger, an added measure of care and responsibility is needed for both building and flying this or any giant-scale model. It’s important that you carefully follow these instructions, especially those regarding hinging and the section on flying. Like all giant-scale aerobatic aircraft, the Hangar 9® TOC Ultimate requires powerful, heavy-duty servos. Servos greatly affect the flight performance, feel and response of the model. To get the most out of your Ultimate, it’s important to use accurate, powerful servos on all control surfaces. In the prototype models, we used JR 8411 digital servos with excellent
    [Show full text]
  • Aircraft Circulars National Advisory
    AIRCRAFT CIRCULARS NATIONAL ADVISORY coLaITTEE FOR AERONAUTICS 1o. 164 THE STIEGER ST. 4 LIGHT AIRPLANE (BRITISH) A Twin-Engine Four-Seat Low-Wing 0,-).bin Monoplane Washington May, 1932 NATIONAL ADVISORY COMMITTEE FOR AERONAUTICS AIRCRAFT CIRCULAR NO. 164 THE STIEGER ST. 4 LIGHT AIRPLANE (BRITISH)* A Twin-Engine Four-Seat Low-Wing Cabin Monoplane The ST. 4 is a twin-engine low-wing monoplane of the full cantilever type. Great care has been taken to keep the aerodynamic design "clean," and in order to avoid too great interference between fuselage and wing roots, the latter have been brought down to a thin section, while simultaneously. the trailing edge near the body has been raised. (Figs. 1, 2, 3.) Structurally, this arrangement has been achieved, by continuing the top boom of . the wing spar right across the fuselage, while the upper wing sur- face has been gradually reduced in camber as the fuselage is approached. As this surface drops away from the top spar boom, the latter becomes exposed, and is faired over the portion, which extends from the surface of the wing to the side of the fuselage. The wing consists structurally of three portions, or rather of two portions and a variation of one of them. These are: the wing root, the middle portion, and the wing tip . The middle portion and the tip are of dissimilar construction, although they are permanently attached to- gether, while the wing root, permanently attached to the fuselage and, indeed, forming an integral part of it, shows a type of construction quite different from both the middle and the end portions of the wing.
    [Show full text]
  • Class 244 Aeronautics and Astronautics 244 - 1
    CLASS 244 AERONAUTICS AND ASTRONAUTICS 244 - 1 244 AERONAUTICS AND ASTRONAUTICS 1 R MISCELLANEOUS 168 ..By solar pressure 1 N .Noise abatement 169 ..By jet motor 1 A .Lightning arresters and static 170 ..By nutation damper eliminators 171 ..With attitude sensor means 1 TD .Trailing devices 171.1 .With propulsion 2 COMPOSITE AIRCRAFT 171.2 ..Steerable mount 3 .Trains 171.3 ..Launch from surface to orbit 3.1 MISSILE STABILIZATION OR 171.4 ...Horizontal launch TRAJECTORY CONTROL 171.5 ..Without mass expulsion 3.11 .Remote control 171.6 .Having launch pad cooperating 3.12 ..Trailing wire structure 3.13 ..Beam rider 171.7 .With shield or other protective 3.14 ..Radio wave means (e.g., meteorite shield, 3.15 .Automatic guidance insulation, radiation/plasma 3.16 ..Optical (includes infrared) shield) 3.17 ...Optical correlation 171.8 ..Active thermal control 3.18 ...Celestial navigation 171.9 .With special crew accommodations 3.19 ..Radio wave 172.1 ..Emergency rescue means (e.g., escape pod) 3.2 ..Inertial 172.2 .With fuel system details 3.21 ..Attitude control mechanisms 172.3 ..Fuel tank arrangement 3.22 ...Fluid reaction type 172.4 .Rendezvous or docking 3.23 .Stabilized by rotation 172.5 ..Including satellite servicing 3.24 .Externally mounted stabilizing appendage (e.g., fin) 172.6 .With deployable appendage 3.25 ..Removable 172.7 .With solar panel 3.26 ..Sliding 172.8 ..Having solar concentrator 3.27 ..Collapsible 172.9 ..Having launch hold down means 3.28 ...Longitudinally rotating 173.1 .With payload accommodation 3.29 ...Radially rotating
    [Show full text]
  • The US Army Air Forces in WWII
    DEPARTMENT OF THE AIR FORCE HEADQUARTERS UNITED STATES AIR FORCE Air Force Historical Studies Office 28 June 2011 Errata Sheet for the Air Force History and Museum Program publication: With Courage: the United States Army Air Forces in WWII, 1994, by Bernard C. Nalty, John F. Shiner, and George M. Watson. Page 215 Correct: Second Lieutenant Lloyd D. Hughes To: Second Lieutenant Lloyd H. Hughes Page 218 Correct Lieutenant Hughes To: Second Lieutenant Lloyd H. Hughes Page 357 Correct Hughes, Lloyd D., 215, 218 To: Hughes, Lloyd H., 215, 218 Foreword In the last decade of the twentieth century, the United States Air Force commemorates two significant benchmarks in its heritage. The first is the occasion for the publication of this book, a tribute to the men and women who served in the U.S. Army Air Forces during World War 11. The four years between 1991 and 1995 mark the fiftieth anniversary cycle of events in which the nation raised and trained an air armada and com- mitted it to operations on a scale unknown to that time. With Courage: U.S.Army Air Forces in World War ZZ retells the story of sacrifice, valor, and achievements in air campaigns against tough, determined adversaries. It describes the development of a uniquely American doctrine for the application of air power against an opponent's key industries and centers of national life, a doctrine whose legacy today is the Global Reach - Global Power strategic planning framework of the modern U.S. Air Force. The narrative integrates aspects of strategic intelligence, logistics, technology, and leadership to offer a full yet concise account of the contributions of American air power to victory in that war.
    [Show full text]
  • The Birth of Powered Flight in Minnesota / Gerald N. Sandvick
    -rH^ AEROPLANE AUTOMOBILE MOTORCYCLE RACES il '^. An Event in the History of the Northwest-Finish Flight by Aeroplanes GLEN H. CURTISS and Seat> for 25,000 People at these Price* 'ml Tu'Wly •nvi>n Bou-a nr Otaod HtiiiKl T(o BARNEY OLDFIELD DON'T MISS IT F IniiiKp at (Irnnd HUnd Bpxti .... UD wbo have tnvclcd fMter than any othrr lium«ii hrintrn A MaKnili'-fi" Pronrtun-.t llinb Spctd F.viutft. Not a I'ull Monn.-iit G :l•"^ <n Mill) ttn rolu diiyi. Jiiiir ^i. 'iX it. Sb $SO.M in k rKRc from Start to Khiifth. Tlie latttt-st Aeropbinf. tlic K.isH-i.t Aiito Car, \ii'imin><-l'». iiineial ulmliminu. lio>, pukMl in ptrblns the Fu.^iest }|orst.' PitTeiJ AKanisi V.ach Otlur In H Gr«siil Triple Kacfl >ii-"lnii pm ant (ocnipim nr iLiii>ri'iiplM) BOC AEROPLANE vs. AUTOMOBaE K(>*prT>-il Urn'a en 8<ila, Hli>ii<Miyo11>, Mctre^llao UvMc Co., 41 OIdfl«i(i. with bu llghlr.inj Ben; r»r. ^nd Kimrbirr. BIKili ttu^'-i nnut). •)• r>U, Wir^ke « DfWTT. PltUl Ud Bohert. wUb bU DuTtcq ckr, bgalnit world t rn^'irds on » iir VxT .-•n.-xil iilnnuti.-n mrtrnr. WnlUr B Wllmot. OMWtkl outar tfftck WALTER R. WILMOT. General Mqr. M.u.k.. %:. iii.i llmi-r, Miiiiif.'MI* T 0 Phooe, ABHM IT*. THE BIRTH OF POWERED FLIGHT IN MINNESOTA Gerald N. Sandvick AVIATION in Minnesota began in the first decade of the Aviation can be broadly divided into two areas: aero­ 20th century.
    [Show full text]
  • Structural Optimization and Design of a Strut-Braced Wing Aircraft
    Structural Optimization and Design of a Strut-Braced Wing Aircraft Amir H. Naghshineh-Pour Thesis submitted to the Faculty of the Virginia Polytechnic Institute and State University in partial fulfillment of the requirements for the degree of Master of Science in Aerospace Engineering Rakesh K. Kapania, Chair Joseph A. Schetz William H. Mason Eric R. Johnson November 30, 1998 Blacksburg, Virginia Keywords: Aircraft Design, Multidisciplinary Design Optimization, Structural Optimization, Strut-Braced Wing, Wing Box Copyright © 1998, Amir H. Naghshineh-Pour Structural Optimization and Design of a Strut-Braced Wing Aircraft Amir H. Naghshineh-Pour (ABSTRACT) A significant improvement can be achieved in the performance of transonic transport aircraft using Multidisciplinary Design Optimization (MDO) by implementing truss- braced wing concepts in combination with other advanced technologies and novel design innovations. A considerable reduction in drag can be obtained by using a high aspect ratio wing with thin airfoil sections and tip-mounted engines. However, such wing structures could suffer from a significant weight penalty. Thus, the use of an external strut or a truss bracing is promising for weight reduction. Due to the unconventional nature of the proposed concept, commonly available wing weight equations for transport aircraft will not be sufficiently accurate. Hence, a bending material weight calculation procedure was developed to take into account the influence of the strut upon the wing weight, and this was coupled to the Flight Optimization System (FLOPS) for total wing weight estimation. The wing bending material weight for single-strut configurations is estimated by modeling the wing structure as an idealized double-plate model using a piecewise linear load method.
    [Show full text]
  • Aircraft Circulars National Advisory Co(Ittee For
    https://ntrs.nasa.gov/search.jsp?R=19930084895 2020-06-17T18:30:32+00:00Z View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by NASA Technical Reports Server AIRCRAFT CIRCULARS NATIONAL ADVISORY CO(ITTEE FOR AERONAUTICS No. 2 THE PANDER LIGHT BIPLANE A School Two-Seater with 45 I. Anzani Engine From Flight, April 1 1 1926 A 01? - ¶ Washington April, 1926 NATIONAL ADVISORY COM1ITTEE FOR.AERON?UTIC8.. AIRCRAFT CIRCULAR NO. THE PANDER LIGHT BPANE.* A, SchoQi Two-Seater with 45 . }. AnzaiEngin.e.. Afte' the success whichttonded the production of the light monoplane with30 HP. Atnzani engine, which was exhibited at the last Paris Aero Show, and of which several specimens have fiom time to time visited this country, it is not sur- prising-that Mr. H. Pander of the Hague, should have turned his attbntion to a two-seater. Then we visited the Pander Works ]st. summer we had an opportunity of seeing the sketch dcsign . 1'or.thc two-seater and also some of the parts which were t1en in 'cous-f-manufacture at the Pander Works. The airplane, iown as the type E, has now been finished and was ±a± recently by Lieutenant Elker'oout of the Dutch Navy. The airplane was found to be perfect as regards trim, arid dur- ing a preliminary test flight, the maneuverability was proved t.o be excellent. The Pander type E, it will be seen from the accompanying illustrations (Figs. 1 and-2), is a biplane having a very small lower wing.
    [Show full text]
  • Aircraft Propulsion C Fayette Taylor
    SMITHSONIAN ANNALS OF FLIGHT AIRCRAFT PROPULSION C FAYETTE TAYLOR %L~^» ^ 0 *.». "itfnm^t.P *7 "•SI if' 9 #s$j?M | _•*• *• r " 12 H' .—• K- ZZZT "^ '! « 1 OOKfc —•II • • ~ Ifrfil K. • ««• ••arTT ' ,^IfimmP\ IS T A Review of the Evolution of Aircraft Piston Engines Volume 1, Number 4 (End of Volume) NATIONAL AIR AND SPACE MUSEUM 0/\ SMITHSONIAN INSTITUTION SMITHSONIAN INSTITUTION NATIONAL AIR AND SPACE MUSEUM SMITHSONIAN ANNALS OF FLIGHT VOLUME 1 . NUMBER 4 . (END OF VOLUME) AIRCRAFT PROPULSION A Review of the Evolution 0£ Aircraft Piston Engines C. FAYETTE TAYLOR Professor of Automotive Engineering Emeritus Massachusetts Institute of Technology SMITHSONIAN INSTITUTION PRESS CITY OF WASHINGTON • 1971 Smithsonian Annals of Flight Numbers 1-4 constitute volume one of Smithsonian Annals of Flight. Subsequent numbers will not bear a volume designation, which has been dropped. The following earlier numbers of Smithsonian Annals of Flight are available from the Superintendent of Documents as indicated below: 1. The First Nonstop Coast-to-Coast Flight and the Historic T-2 Airplane, by Louis S. Casey, 1964. 90 pages, 43 figures, appendix, bibliography. Price 60ff. 2. The First Airplane Diesel Engine: Packard Model DR-980 of 1928, by Robert B. Meyer. 1964. 48 pages, 37 figures, appendix, bibliography. Price 60^. 3. The Liberty Engine 1918-1942, by Philip S. Dickey. 1968. 110 pages, 20 figures, appendix, bibliography. Price 75jf. The following numbers are in press: 5. The Wright Brothers Engines and Their Design, by Leonard S. Hobbs. 6. Langley's Aero Engine of 1903, by Robert B. Meyer. 7. The Curtiss D-12 Aero Engine, by Hugo Byttebier.
    [Show full text]
  • Historic Structure Report: Miller Field, the Seaplane Hangar
    historic structure report historical data and archeological data december 1981 Q 1 /9 MILLER FIELD - THE SEAPLANE HANGAR -(6UILDING NO. 38) NATIONAL RECREATION AREA/NEW YORK-NEW JERSEY I* HISTORIC STRUCTURE REPORT 1 MILLER FIELD - THE SEAPLANE HANGAR - (BUILDING NO. 38) HISTORICAL DATA AND ARCHEOLOGICAL DATA I GATEWAY NATIONAL RECREATION AREA 1 NEW YORK - NEW JERSEY I I by Harlan D. Unrau and Jackie W. Powell I t DENVER SERVICE CENTER BRANCH OF HISTORIC PRESERVATION I MID-ATLANTIC/NORTH ATLANTIC TEAM NATIONAL PARK SERVICE t UNITED STATES DEPARTMENT OF THE INTERIOR 1 DENVER, COLORADO 1 I I t 1, .1 I 0 t I I 1 0 TABLE OF CONTENTS 1 Preface vi 1 Statement of Historical Significance viii Chapter One: Early History of Area on Which Miller Field is Located: 1 1635 - 1919. 1 Chapter Two: Establishment of Air Coast Defense Stations: 1916 - 1918. 6 Chapter Three: Selection and Acquisition of Site at New Dorp on Staten 10 I Island for Air Coast Defense Station to be named Miller Field: 1918 - 1919. Chapter Four: Construction of the Seaplane Hangar: 1919 - 1921. 19 Chapter Five: Structural Modifications and Utilization of the Seaplane 33 Hangar: 1921 - 1979. Chapter Six: Historic Events Associated with Miller Field: 1920 - 1960. 51 Recommendations 62 Drawings 64 Appendixes 69 A. Aerial Coast Defense Station, Itemized Estimate of Typical 70 Station of Permanent Construction for I Squadron, January 31, 1919. B. List of Personnel from Office of Constructing Quartermaster 71 Involved in Work at Miller Field. 1 C. List of Subcontractors of Smith, Hauser and Maclsaac, Inc., for 72 Hangar Group of Buildings.
    [Show full text]
  • Amateur-Built Fabrication and Assembly Checklist (2009) Job Aid
    Amateur-Built Fabrication and Assembly Checklist (2009) Job Aid AAAAAAmmmmmmaaaaattttteeeeeuuuuurrrrr­­­­B­BBBBuuuuuiiiililltltlt tt FFF FFaaaaabbbbbrrrrriiiiciccccaaaaatttttiiiioioooonnnnn ateur­Built Fabrication aaannnddd AAAsssssseeemmmbbblllyyy CCChhheeeccckkkllliiisssttt aaannn ddd AAAsssssseeemmmbbblllyyy CCChhheeeccckkklliiisssttt (((222000000999))) JJJooobbb AAAiiiddd JJJooobbb AAAiiiddd Production and Airworthiness Division, AIR­200 Evaluation and Special Projects Branch, AIR­240 Federal Aviation Administration Washington, D.C. 1 August 25, 2011 Amateur-Built Fabrication and Assembly Checklist (2009) Job Aid THIS PAGE INTENTIONALLY LEFT BLANK 2 Amateur-Built Fabrication and Assembly Checklist (2009) Job Aid Table of Contents Page Introduction..............................................................................................................3 Fabrication and Assembly ......................................................................................6 Commercial Assistance............................................................................................7 Credit Allocation......................................................................................................7 Original Condition...................................................................................................9 The Wings (Metal) .................................................................................................10 Standard Kit...........................................................................................................18
    [Show full text]