Elementary Architectural Drawing
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AABTKJX0 Giesecke ©2004 by Prentice Hall, Inc
Figure Number: 03-01 AABTKJX0 Giesecke ©2004 by Prentice Hall, Inc. Engineering Graphics, 8E A Pearson Company Page Number: Principal Items of Equipment. Figure Number: 03-02 AABTKJY0 Giesecke ©2004 by Prentice Hall, Inc. Engineering Graphics, 8E A Pearson Company Page Number: The T-square. Figure Number: 03-03 AABTKJZ0 Giesecke ©2004 by Prentice Hall, Inc. Engineering Graphics, 8E A Pearson Company Page Number: Testing the Working Edge of the Drawing Board. Figure Number: 03-04 AABTKKA0 Giesecke ©2004 by Prentice Hall, Inc. Engineering Graphics, 8E A Pearson Company Page Number: Testing the T-square. Figure Number: 03-05 AABTKKB0 Giesecke ©2004 by Prentice Hall, Inc. Engineering Graphics, 8E A Pearson Company Page Number: Placing Paper on Drawing Board. Figure Number: 03-06 AABTKKC0 Giesecke ©2004 by Prentice Hall, Inc. Engineering Graphics, 8E A Pearson Company Page Number: Positions of Drafting Tape. Figure Number: 03-07 a-c AABTKKD0 Giesecke ©2004 by Prentice Hall, Inc. Engineering Graphics, 8E A Pearson Company Page Number: Drawing Pencils. Hard Medium Soft The hard leads in this group (left) These grades are for general These leads are too soft to be useful are used where extreme accuracy purpose work in technical drawing. in mechanical drafting. Their use for is required, as on graphical com- The softer grades (right) are used such work results in smudged, rough putations and charts and diagrams. for technical sketching, for letter- lines that are hard to erase, and the The softer leads in this group ing, arrowheads, and other free- lead must be sharpened continually. (right) are sometimes used for line hand work on mechanical These grades are used for art work work on engineering drawings, but drawings. -
Architecture's Cartographic Turn
Edinburgh Research Explorer Architecture’s Cartographic Turn Citation for published version: Dorrian, M 2005, Architecture’s Cartographic Turn. in F Pousin (ed.), Figures de la Ville et Construction des Savoirs: Architecture, Urbanisme, Geographie. CNRS Editions, Paris, pp. 61-72. <http://books.openedition.org/editionscnrs/4291> Link: Link to publication record in Edinburgh Research Explorer Document Version: Early version, also known as pre-print Published In: Figures de la Ville et Construction des Savoirs Publisher Rights Statement: Dorrian, M. (2005). Architecture’s Cartographic Turn. In F. Pousin (Ed.), Figures de la Ville et Construction des Savoirs. (pp. 61-72). Paris: CNRS Editions. General rights Copyright for the publications made accessible via the Edinburgh Research Explorer is retained by the author(s) and / or other copyright owners and it is a condition of accessing these publications that users recognise and abide by the legal requirements associated with these rights. Take down policy The University of Edinburgh has made every reasonable effort to ensure that Edinburgh Research Explorer content complies with UK legislation. If you believe that the public display of this file breaches copyright please contact [email protected] providing details, and we will remove access to the work immediately and investigate your claim. Download date: 28. Sep. 2021 1 Architecture’s ‘Cartographic Turn’ Mark Dorrian (Architecture, School of Arts, Culture and Environment, Univ. Of Edinburgh) Over the past thirty years something of a ‘cartographic turn’ has taken place in key areas of architectural theory and practice.1 What I mean by this is that there has been an increasing use of mapping as a generative – that is as a formal, formative, and not simply analytical – process within architectural projects. -
Drawing & Stencilling
DRAWING & STENCILLING CHARCOAL Sharpies The artist’s and Charcoal Willow charcoal of a consistent celebrity’s choice of marker. high quality. We stock the largest size of willow Permanent on most surfaces, fade- & STENCILLING 2: DRAWING which is approx 20 mm diameter! You might and water-resistant, quick drying ink. Also available in retractable. need a Charcoal Holder [page 71]. They are incredibly useful little pens! Charcoal box qty code price Sharpie Markers code price 12 + Thin 25 sticks PAT652 £3.16 Fine Point PATS81107B £1.30 £1.16 2: XXXX Medium 25 sticks PAT651 £3.91 Retractable Fine Point PAT713862 £2.10 £1.89 Scene Painter’s 12 sticks PAT650 £5.21 Extra Thick 4 sticks PAT650ET £4.16 Metal Marker Valve action Tree Sticks [140 x approx 20 mm Ø] each PAT650TS £2.16 bullet point paint marker for Charcoal Pencils code price marking metal, glass, plastic etc. Dries in 3 minutes. White. Charcoal Pencils each PAT656 £1.89 Metal Marker code price Bullet Point PAT685 £6.39 CHALK, PENCILS & MARKERS Chalk For throwing at school children. SCALE RULES AND DRAUGHTING Scenery Scale Rule Chalk box qty code price This triangular section theatre rule 100 TOL695 £7.20 features three laser etched scales. It is made of lightweight aluminium with a black finish. Pencils The very best drawing pencils. Made in Cumbria. HB stands for Hard Black. The higher the H number, the harder the pencil and the 4 Triangular section 4 Black Anodised 4 4 ft imperial markings higher the B number, the blacker [or softer] the pencil. -
Surveying and Drawing Instruments
SURVEYING AND DRAWING INSTRUMENTS MAY \?\ 10 1917 , -;&gt;. 1, :rks, \ C. F. CASELLA & Co., Ltd II to 15, Rochester Row, London, S.W. Telegrams: "ESCUTCHEON. LONDON." Telephone : Westminster 5599. 1911. List No. 330. RECENT AWARDS Franco-British Exhibition, London, 1908 GRAND PRIZE AND DIPLOMA OF HONOUR. Japan-British Exhibition, London, 1910 DIPLOMA. Engineering Exhibition, Allahabad, 1910 GOLD MEDAL. SURVEYING AND DRAWING INSTRUMENTS - . V &*&gt;%$&gt; ^ .f C. F. CASELLA & Co., Ltd MAKERS OF SURVEYING, METEOROLOGICAL & OTHER SCIENTIFIC INSTRUMENTS TO The Admiralty, Ordnance, Office of Works and other Home Departments, and to the Indian, Canadian and all Foreign Governments. II to 15, Rochester Row, Victoria Street, London, S.W. 1911 Established 1810. LIST No. 330. This List cancels previous issues and is subject to alteration with out notice. The prices are for delivery in London, packing extra. New customers are requested to send remittance with order or to furnish the usual references. C. F. CAS ELL A & CO., LTD. Y-THEODOLITES (1) 3-inch Y-Theodolite, divided on silver, with verniers to i minute with rack achromatic reading ; adjustment, telescope, erect and inverting eye-pieces, tangent screw and clamp adjustments, compass, cross levels, three screws and locking plate or parallel plates, etc., etc., in mahogany case, with tripod stand, complete 19 10 Weight of instrument, case and stand, about 14 Ibs. (6-4 kilos). (2) 4-inch Do., with all improvements, as above, to i minute... 22 (3) 5-inch Do., ... 24 (4) 6-inch Do., 20 seconds 27 (6 inch, to 10 seconds, 403. extra.) Larger sizes and special patterns made to order. -
Caliper Abuse for Beginners a Guide to Quick and Accurate Layout Using Digital Calipers
Caliper Abuse for Beginners A Guide to Quick and Accurate Layout Using Digital Calipers charles z guan productions 21 Mar 2010 In your 2.007 kit, you have been provided with a set of 6” (150mm) digital calipers. You should use these not only for measuring and ascertaining dimensions of parts, but for accurate positioning of holes and other features when manually fabricating a part. Marking out feature positions and part dimensions using a standard ruler is often the first choice for students unfamiliar with engineering tools. This method yields marginal results and usually results in parts which need filing, sanding, or other “one-off” fitting. This document is intended to exposit a fairly common but usually unspoken shortcut that balances time spent laying out a part for fabrication with reasonably accurate results. We will be using a 3 x 1” aluminum box extrusion as the example workpiece. Let's say that we wanted to drill a hole that is 0.975” above the bottom edge of this piece and 1.150” from the right edge. Neither dimension is a common fraction, nor a demarcation found on most rulers. How would we drill such a hole on the drill press? Here, I have set the caliper to 0.975”, after making sure it is properly zeroed. Use the knurled knob to physically lock the caliper to a reading. These calipers have a resolution of 0.0005”. However, this last digit is extremely uncertain. Treat your dimensions as if Calipers are magnetic and can they only have 3 digits attract dirt and grit. -
MICHIGAN STATE COLLEGE Paul W
A STUDY OF RECENT DEVELOPMENTS AND INVENTIONS IN ENGINEERING INSTRUMENTS Thai: for III. Dean. of I. S. MICHIGAN STATE COLLEGE Paul W. Hoynigor I948 This]: _ C./ SUPP! '3' Nagy NIH: LJWIHL WA KOF BOOK A STUDY OF RECENT DEVELOPMENTS AND INVENTIONS IN ENGINEERING’INSIRUMENTS A Thesis Submitted to The Faculty of MICHIGAN‘STATE COLLEGE OF AGRICULTURE AND.APPLIED SCIENCE by Paul W. Heyniger Candidate for the Degree of Batchelor of Science June 1948 \. HE-UI: PREFACE This Thesis is submitted to the faculty of Michigan State College as one of the requirements for a B. S. De- gree in Civil Engineering.' At this time,I Iish to express my appreciation to c. M. Cade, Professor of Civil Engineering at Michigan State Collegeafor his assistance throughout the course and to the manufacturers,vhose products are represented, for their help by freely giving of the data used in this paper. In preparing the laterial used in this thesis, it was the authors at: to point out new develop-ants on existing instruments and recent inventions or engineer- ing equipment used principally by the Civil Engineer. 20 6052 TAEEE OF CONTENTS Chapter One Page Introduction B. Drafting Equipment ----------------------- 13 Chapter Two Telescopic Inprovenents A. Glass Reticles .......................... -32 B. Coated Lenses .......................... --J.B Chapter three The Tilting Level- ............................ -33 Chapter rear The First One-Second.Anerican Optical 28 “00d011 ‘6- -------------------------- e- --------- Chapter rive Chapter Six The Latest Type Altineter ----- - ................ 5.5 TABLE OF CONTENTS , Chapter Seven Page The Most Recent Drafting Machine ........... -39.--- Chapter Eight Chapter Nine SmOnnB By Radar ....... - ------------------ In”.-- Chapter Ten Conclusion ------------ - ----- -. -
FIELD EXTENSIONS and the CLASSICAL COMPASS and STRAIGHT-EDGE CONSTRUCTIONS 1. Introduction to the Classical Geometric Problems 1
FIELD EXTENSIONS AND THE CLASSICAL COMPASS AND STRAIGHT-EDGE CONSTRUCTIONS WINSTON GAO Abstract. This paper will introduce the reader to field extensions at a rudi- mentary level and then pursue the subject further by looking to its applications in a discussion of some constructibility issues in the classical straight-edge and compass problems. Field extensions, especially their degrees are explored at an introductory level. Properties of minimal polynomials are discussed to this end. The paper ends with geometric problems and the construction of polygons which have their proofs in the roots of field theory. Contents 1. introduction to the classical geometric problems 1 2. fields, field extensions, and preliminaries 2 3. geometric problems 5 4. constructing regular polygons 8 Acknowledgments 9 References 9 1. Introduction to the Classical Geometric Problems One very important and interesting set of problems within classical Euclidean ge- ometry is the set of compass and straight-edge questions. Basically, these questions deal with what is and is not constructible with only an idealized ruler and compass. The ruler has no markings (hence technically a straight-edge) has infinite length, and zero width. The compass can be extended to infinite distance and is assumed to collapse when lifted from the paper (a restriction that we shall see is irrelevant). Given these, we then study the set of constructible elements. However, while it is interesting to note what kinds objects we can create, it is far less straight forward to show that certain objects are impossible to create with these tools. Three famous problems that we will investigate will be the squaring the circle, doubling the cube, and trisecting an angle. -
The Computer's Role in Sketch Design: a Transparent Sketching
The Computer’s Role in Sketch Design: A Transparent Sketching Medium Michael Trinder The Martin Centre for Architectural and Urban Studies, University of Cambridge Department of Architecture Key words: sketching, sketch design, user-interface, transparency, immersion, computer- aided design Abstract: Starting from an analysis of the current unsuitability of computers for sketching, three key requirements are identified, in particular the notion that re-drawing or over-drawing are more important than editing and tweaking. These requirements are encapsulated in the broad concept of Transparency, understood both literally and metaphorically. Two experiments in implementing aspects of Transparency are described. One subverts the Macintosh window manager to provide windows with variable transparency, so that tracing between applications becomes a practical possibility. The other implements a graphical interface that requires no on-screen palettes or sliders to control it, allowing uninterrupted concentration on the design in hand. User tests show that the tool can be learnt quickly, is engaging to use, and most importantly, has character. 1. INTRODUCTION Computers are being used by architects almost exclusively for the later stages of design: one UK practice has been quoted as using CAAD for upwards of 90% of their issued drawings while early presentation work and sketches are made with pencil and paper. Under the temporal, financial and aesthetic pressures of the design office any tool will be used only for tasks that designers perceive are within its capability. Whether their current perception is based in prejudice, preference or past experience, designers avoid using computers for sketching. The software currently available for sketch design is plainly not working. -
6. Determination of Height and Distance: Theodolite
Geography (H), UG, 2nd Sem CC-04-TH: Thematic Cartography 6. Determination of Height and Distance: Theodolite What is Theodolite? A Theodolite is a measuring instrument used to measure the horizontal and vertical angles are determined with great precision. Theodolite is more precise than magnetic compass. Magnetic compass measures the angle up to as accuracy of 30’. Anyhow a vernier theodolite measures the angles up to and accuracy of 10’’, 20”. It is of either transit or non- transit type. In Transit theodolites the telescope can rotate in a complete circle in the vertical plane while Non-transit theodolites are those in which the telescope can rotate only in a semicircle in the vertical plane. Types of Theodolite A Transit Theodolite Non transit Theodolite B Vernier Theodolite Micrometer Theodolite A I. Transit Theodolite: a theodolite is called transit theodolite when its telescope can be transited i.e. revolved through a complete revolution about its horizontal axis in the vertical plane. II. Non transit Theodolite: the telescope cannot be transited. They are inferior in utility and have now become obsolete. Kaberi Murmu B I. Vernier Theodolite: For reading the graduated circle if verniers are used, the theodolite is called a vernier theodolit. II. Whereas, if a micrometer is provided to read the graduated circle the same is called as a Micrometer Theodolite. Vernier type theodolites are commonly used. Uses of Theodolite Theodolite uses for many purposes, but mainly it is used for measuring angles, scaling points of constructional works. For example, to determine highway points, huge buildings’ escalating edges theodolites are used. -
Architectural Drawing (TE 8437) Grades 10 - 12 One Credit, One Year Counselors Are Available to Assist Parents and Students with Course Selections and Career Planning
Department of Teaching & Learning Parent/Student Course Information Technical Design and Illustration Program Architectural Drawing (TE 8437) Grades 10 - 12 One Credit, One Year Counselors are available to assist parents and students with course selections and career planning. Parents may arrange to meet with the counselor by calling the school's guidance department. COURSE DESCRIPTION The courses in engineering and technology provide opportunities for students to acquire skills and knowledge necessary for technological literacy, entry-level careers, and lifelong learning. Students learn Virginia’s 21 Workplace Readiness Skills within the content area. Those who are completing a two-year sequence have the opportunity to verify their knowledge of the workplace readiness skills through an industry assessment. This course provides students with the opportunity to learn more about the principles of architecture and related drafting practices and techniques. It provides helpful information for the homeowner and is beneficial to the future architect, interior designer, or homebuilder. Students use resource materials, standard books, and computers as they learn the general principles, practices and techniques of architectural drawing. The course includes designing residential structures and drawing plot plans, elevations, schedules and renderings. PREREQUISITE Basic Technical Drawing CERTIFICATION Students successfully completing the Technical Design and Illustration Program of Study will be prepared for the AutoCAD REVIT and or AutoCAD Architecture industry credential. STUDENT ORGANIZATION Technology Student Association (TSA) is a co-curricular organization for all students enrolled in engineering and technology courses. Students are encouraged to be active members of their youth organization to develop leadership and teamwork skills and to receive recognition for their participation in local, regional, state and national activities. -
Basic Drawing Equipment Worksheet
Drawing Equipment Technical drawings, graphic images and sketches can be created using a variety of instruments, ranging from traditional tools such as pencils, compasses, rulers and a variety of triangles as well as by computer. Drawing tools are used to make accurate and legible drawings and models. Whilst the computer can be used for most drawing and modeling requirements today, traditional drawing instruments such as those mentioned above are still important very important, particularly for freehand sketching and experimenting with shapes and lines. When drawing, sketching or attempting basic graphics work the pieces of equipment shown below are very useful and often essential. A protractor is used to measure angles. A typical protractor is a semi- circular piece of plastic with 180 degrees printed around its curve. This piece of equipment is not only used in graphics for constructing accurate drawings but is also used in subjects like Mathematics. Also available for graphics is a full circle protractor which can be used to accurately measure angles greater than 180 degrees. A Mechanical pencil (sometimes known as a clutch pencil or refillable pencil) are used in drawings such as Orthogonal or Isometric drawings as they provide a very constant line thickness. The pencils come in a number of line thicknesses with the more common being 0.35, 0.5, and 0.7. These pencils can be very expensive as are the refills. A compass (or pair of compasses) is a technical drawing instrument that can be used for drawing circles or arcs. As dividers, they can also be used as tools to measure distances, in particular on maps. -
Instruments and Methods of Physical Measurement
INSTRUMENTS AND METHODS OF PHYSICAL MEASUREMENT By J. W. MOORE, . i» Professor of Mechanics and Experimental Philosophy, LAFAYETTE COLLEGE. Easton, Pa.: The Eschenbach Printing House. 1892. Copyright by J. W. Moore, 1892 PREFACE. 'y'HE following pages have been arranged for use in the physical laboratory. The aim has been to be as concise as is con- sistent with clearness. sources of information have been used, and in many cases, perhaps, the ipsissima verba of well- known authors. j. w. M. Lafayette College, August 23,' 18g2. TABLE OF CONTENTS. Measurement of A. Length— I. The Diagonal Scale 7 11. The Vernier, Straight 8 * 111. Mayer’s Vernier Microscope . 9 IV. The Vernier Calipers 9 V. The Beam Compass 10 VI. The Kathetometer 10 VII. The Reading Telescope 12 VIII. Stage Micrometer with Camera Lucida 12 IX. Jackson’s Eye-piece Micrometer 13 X. Quincke’s Kathetometer Microscope 13 XI. The Screw . 14 a. The Micrometer Calipers 14 b. The Spherometer 15 c. The Micrometer Microscope or Reading Microscope . 16 d. The Dividing Engine 17 To Divide a Line into Equal Parts by 1. The Beam Compass . 17 2. The Dividing Engine 17 To Divide a Line “Originally” into Equal Parts by 1. Spring Dividers or Beam Compass 18 2. Spring Dividers and Straight Edge 18 3. Another Method 18 B. Angees— 1. Arc Verniers 19 2. The Spirit Level 20 3. The Reading Microscope with Micrometer Attachment .... 22 4. The Filar Micrometer 5. The Optical Method— 1. The Optical Lever 23 2. Poggendorff’s Method 25 3. The Objective or English Method 28 6.