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201 OPTI - Geometrical and Instrumental Optics Exam IV Monday, December 9, 2002 6:00 9:00 PM One 8 1/2 x 11 Crib Sheet and a calculator may be used. PLEASE USE SEPARATE SHEET OF PAPER FOR ANSWERS ONLY ON ONE SIDE AND CIRCLE ANSWERS The following items may be helpful: h = 6.625 x10 e = 16 x10 . 34 J s = 4.134 x10 15 eV s ( + ) = + = + div(F + G) = divF + divG curl(F + G) = curlF + curlG 19 8 Coul c = 3.0 x10 m / sec k = 138 x10 . 23 8 J/K 4 2 = 5.67 x10 W /K m F/m (F G) = (F )G + (G )F + F curlG + G curlF div F = divF + F div(F G) = G curlF F curlG divcurlF = 0 curl F = curlF + F curl(F G) = FdivG GdivF + ( G )F (F )G curlcurlF = graddivF F curl = 0 sF n da = v divFd x cF dl = x curlF n da s n da = v d x sF(G n)da = v F div G d x + v (G )Fd x sn F da = v curlF d x 3 3 3 3 3 2 o = 8.85 x10 o = 126 x10 . 12 6 H/m sin( A B) = sin A cos B cos A sin B cos( A B) = cos A cos B sin A sin B 2 cos A cos B = cos( A B) + cos( A + B) 2 sin A sin B = cos( A B) cos( A + B) 2 sin A cos B = sin( A + B) + sin( A B) 2 cos A sin B = sin( A + B) sin( A B) sin 2A = 2 sin A cos A cos 2A = 2 cos A 1 cos 2A = 1 2 sin A d = 587.6nm c = 656.3 nm F = 486.1nm nd = 1.5168 nc = 15143 . nF = 15224 . 2 2 1 Instructor: Dr. Eustace Dereniak OPTI 201R, F/2002 Exam IV December 9, 2002 OPL = c = h n= c Vn 1 n 1 l1 n ' n = n '+ n 2 4n ' n = 2 (n '+ n ) zs = y2 2R n ' n R s in I c = n' n V # nd 1 = nf nc P= n ' u ' = n u yP y 2 = y1 + t' ( n ' u ') n' t P1 P 2 n n' n = +P s' s P= n' n = f* f s '/ n ' s/n P = P1 + P 2 C1 + C 2 C1 C 2 R 2 + R1 R 2 R1 MT = S= 2 Mz = MT xx* = ff * S= d P2 = n n ' P * d P1 = n '' n' P HN = H * N* = f * +f z2 y2 =1 a 2 b2 z2 y2 + =1 a 2 b2 2 OPTI 201R, F/2002 Exam IV December 9, 2002 E.IV.1. The telephoto system is used with the design shown (all dimensions in mm). Refractive index of the glasses = 1.5: a) What is the effective focal length of this lens system? b) If the efl is assumed to be 20 mm, what is a design for a similar lens with an efl of 50 mm? R3= -30 R4= 30 Air Air 3 6 3 R1 = 15 R2 = -15 E.IV.2 If the FFOV is 20 for a Cooke Triplett Optical System an with entrance pupil diameter of 50 mm and the image space f/# is four [(F/4]. The object fills the full field of view. a) What is the image height? b) If the chief ray angle in image space is 0.1 radian, what is the diameter of the exit pupil? 3 OPTI 201R, F/2002 Exam IV December 9, 2002 E.IV.3. For the thin lens optical system below, (all dimensions in mm) with object at infinity. 5 7.5 7.5 3 CA = 12 CA = 8 CA = 10 CA = 15 ef l = 30 CA = 10 ef l = 15 a) What is the exit pupil diameter? b) What is the (F/#) of this system 4 OPTI 201R, F/2002 Exam IV December 9, 2002 E.IV.4. For the thin lens system, show with a 2 mm height object 20 mm in front of the lens: 7.5 20 Object ef l = 15 CA = 6 CA = 10 a) What is the numerical aperture in object space? b) What is the diameter transverse magnification of the image? c) What is the working F/# in image space? E.IV.5. Two thin lenses with 5 cm diameters have effective focal length of 10 and -40 cm but are cemented together to form a doublet. A 3 cm diameter aperture is placed at the back focal point (F*): a) What is the (F/# ) of this lens system? b) What is the full field of view? E.IV.6. For a thin lens with efl of 15 (efl = 15 mm) and the initial object distance of 35 mm from the lens, how much does the object need to be moved and in what direction to shift the image by -3mm? 5 OPTI 201R, F/2002 Exam IV December 9, 2002 Questions 7-10 pertain to the attached ray trace sheet with the marginal ray unscaled. All units are in millimeters. E.IV.7. Answer the following questions using the ray trace sheet attached. a) b) c) d) What is the efl of the system? What is the back focal distance (BFD)? What is the image height? What is the location of the back principle plane (H*) relative to the last surface (7)? E.IV.8. Answer the following questions using the ray trace sheet attached: a) Where is the entrance pupil located relative to the first surface (1) and what it its diameter? b) Which surface is the stop? c) What is the FFOV in degrees E.IV.9. Answer the following questions using the ray trace sheet attached. a) b) c) d) E.IV.10. What is the scale factor to get a full field of view of 30 ? What is the LaGrange Invariant? Which surfaces vignette with this new FFOV? Where is the back nodal point relative to H*? Answer the following questions using the ray trace sheet attached: a) Where is the exit pupil located relative to the last surface and what is its diameter? b) What is the (F/#) ? c) What is the entire system scale factor to get a ( F/# ) of ( F/2 ) ? 6
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Arizona >> OPTI >> 201r (Fall, 2008)
Crib Sheet for Exams The following are some helpful items: OPTI 201R - Fall, 2008 Revised 11/10/08 h = 6.6251034 J i s = 4.1341015 eV i s e = 1.61019 Coul c = 3.0108 m /sec k = 1.381023 J / K ( + ) = + ( ) = + div(F + G) = divF + divG curl(F + ...
Arizona >> OPTI >> 520 (Spring, 2008)
Crib Sheet for Exams The following are some helpful items: OPTI 201R - Fall, 2008 Revised 11/10/08 h = 6.6251034 J i s = 4.1341015 eV i s e = 1.61019 Coul c = 3.0108 m /sec k = 1.381023 J / K ( + ) = + ( ) = + div(F + G) = divF + divG curl(F + ...
Arizona >> OPTI >> 201r (Fall, 2008)
Geometrical Optics Is it Real Or Is it Virtual Physics 232 Lecture 6 1 Spring 2008 Plane Mirrors Suppose we put an object at a distance s in front of a mirror Where does its image form? Working through the geometry and use the the law of reflection...
Arizona >> OPTI >> 520 (Spring, 2008)
Geometrical Optics Is it Real Or Is it Virtual Physics 232 Lecture 6 1 Spring 2008 Plane Mirrors Suppose we put an object at a distance s in front of a mirror Where does its image form? Working through the geometry and use the the law of reflection...
Arizona >> OPTI >> 201r (Fall, 2008)
OPTI 201R, Fall 2008 Problem Set VII Due: October 15, 2008 VII.1 VII.2 VII.3 VII.4 VII.5 VII.6 VII.7 VII.8 VII.9 7.10 7.11 7.14 7.16 7.17 7.19 7.21 7.22 7.23 VII.10 7.24 Page 1 of 1 ...
Arizona >> OPTI >> 520 (Spring, 2008)
OPTI 201R, Fall 2008 Problem Set VII Due: October 15, 2008 VII.1 VII.2 VII.3 VII.4 VII.5 VII.6 VII.7 VII.8 VII.9 7.10 7.11 7.14 7.16 7.17 7.19 7.21 7.22 7.23 VII.10 7.24 Page 1 of 1 ...
Arizona >> OPTI >> 201r (Fall, 2008)
\' (rial^n SuL M- W L lo.t+ :.\\) lrst, l, ,\\ r . I tq.= J o.c C tP o,E(g) = A + z 1\"3)j rn^ffly 4s vqlv*. ta #* to S obtnru #4 rayS yse+arnarqtnal CYte t\'atos5 $ay t,e narninal n^y $or ,\"S Vurf fve, rw*+ YoV= ! loo = o.[t+ ral dr = r...
Arizona >> OPTI >> 520 (Spring, 2008)
\' (rial^n SuL M- W L lo.t+ :.\\) lrst, l, ,\\ r . I tq.= J o.c C tP o,E(g) = A + z 1\"3)j rn^ffly 4s vqlv*. ta #* to S obtnru #4 rayS yse+arnarqtnal CYte t\'atos5 $ay t,e narninal n^y $or ,\"S Vurf fve, rw*+ YoV= ! loo = o.[t+ ral dr = r...
Arizona >> OPTI >> 201r (Fall, 2008)
OPTI 201R, Fall 2OO8 (1O minutes) QuizIV October 24,2OOg Your name: of for mirroris 50 mm. Whatrs the optical QIV.I Theradius curvature a convex power? l {rt ll\\,r\"., A concave mirror and a plano-convexthin lens (n = 1.5) have the s a m e 1 5 0...
Arizona >> OPTI >> 520 (Spring, 2008)
OPTI 201R, Fall 2OO8 (1O minutes) QuizIV October 24,2OOg Your name: of for mirroris 50 mm. Whatrs the optical QIV.I Theradius curvature a convex power? l {rt ll\\,r\"., A concave mirror and a plano-convexthin lens (n = 1.5) have the s a m e 1 5 0...
Arizona >> OPTI >> 201r (Fall, 2008)
...
Arizona >> OPTI >> 520 (Spring, 2008)
...
Arizona >> OPTI >> 201r (Fall, 2008)
TECHNICAL INFORMATION TABLE OF CONTENTS 1. DESIGNATION OF OPTICAL GLASS TYPES . 1 2. OPTICAL PROPERTIES . 1 2.1 Refractive Index ..1 2.2 Dispersion .2 2.3 Dispersion Formula . 2 2.4 Effect of Temperature on Refractive Index (dn/dt) . 3 2.5 Refractive...
Arizona >> OPTI >> 520 (Spring, 2008)
TECHNICAL INFORMATION TABLE OF CONTENTS 1. DESIGNATION OF OPTICAL GLASS TYPES . 1 2. OPTICAL PROPERTIES . 1 2.1 Refractive Index ..1 2.2 Dispersion .2 2.3 Dispersion Formula . 2 2.4 Effect of Temperature on Refractive Index (dn/dt) . 3 2.5 Refractive...
Arizona >> OPTI >> 201r (Fall, 2008)
q vt\' El ^ * ce ft e (g E i E tr.tN b; L=\' i vr i *j:trrq -\".\"_-\", _J l*:* 4, Y * u # e * /- *F1 t t\' 1 l) Fo\' t F O,O A.l rr,ro- dP zu) @ , [# J E .9 tr Frt,A ,={*-,X*;\"# u Q\'{-!)(*...
Arizona >> OPTI >> 520 (Spring, 2008)
q vt\' El ^ * ce ft e (g E i E tr.tN b; L=\' i vr i *j:trrq -\".\"_-\", _J l*:* 4, Y * u # e * /- *F1 t t\' 1 l) Fo\' t F O,O A.l rr,ro- dP zu) @ , [# J E .9 tr Frt,A ,={*-,X*;\"# u Q\'{-!)(*...
Arizona >> OPTI >> 201r (Fall, 2008)
f roblu^ 5ut, _ ui +,1) Yz g[ase fr = 25o fny 5 jn problryt+,1 t W\" lre uywJ +[ ,l,r,t \', - 5, > A - I + s r , t t L s i r t , I t c o- (c r t . ( r W \' - s i 1 ) a J s LooL fi irt, Fz fron d\"- ShtL^gtasshi7 , up Tlass \'n = l,lzo i i ...
Arizona >> OPTI >> 520 (Spring, 2008)
f roblu^ 5ut, _ ui +,1) Yz g[ase fr = 25o fny 5 jn problryt+,1 t W\" lre uywJ +[ ,l,r,t \', - 5, > A - I + s r , t t L s i r t , I t c o- (c r t . ( r W \' - s i 1 ) a J s LooL fi irt, Fz fron d\"- ShtL^gtasshi7 , up Tlass \'n = l,lzo i i ...
Arizona >> OPTI >> 201r (Fall, 2008)
*\'* Er, .F - nLrt Y - *R-*tl d !l_ c-f !_ t d - * s - +, A + T 3- #= l r *fn* \' *-.3/ = % \' II t /,lt = -a Yg fl\' t1\'o = Ve, e Y\' r +. v r \' ( ...
Arizona >> OPTI >> 520 (Spring, 2008)
*\'* Er, .F - nLrt Y - *R-*tl d !l_ c-f !_ t d - * s - +, A + T 3- #= l r *fn* \' *-.3/ = % \' II t /,lt = -a Yg fl\' t1\'o = Ve, e Y\' r +. v r \' ( ...
Arizona >> OPTI >> 201r (Fall, 2008)
OPTI 201R, Fall 2008 Problem Set IX Due: October 29, 2008 IX.1 IX.2 IX.3 IX.4 IX.5 IX.6 IX.7 IX.8 IX.9 8.27 8.28 8.29 8.30 8.31 8.32 8.33 8.34 8.3 IX.10 8.7 Page 1 of 1 ...
Arizona >> OPTI >> 520 (Spring, 2008)
OPTI 201R, Fall 2008 Problem Set IX Due: October 29, 2008 IX.1 IX.2 IX.3 IX.4 IX.5 IX.6 IX.7 IX.8 IX.9 8.27 8.28 8.29 8.30 8.31 8.32 8.33 8.34 8.3 IX.10 8.7 Page 1 of 1 ...
Arizona >> OPTI >> 202r (Spring, 2008)
Paraxial Ray Angles While they are referred to as angles, paraxial ray angles are not angles at all. They measure an angle-like quantity, but these paraxial angles are actually the slope of the ray or the ratio of a height to a distance. As a result,...
Arizona >> OPTI >> 202r (Spring, 2008)
OPTI-202R Geometrical & Instrumental Optics II Copyright 2006 John E. Greivenkamp Prism Systems Prism systems can be considered systems of plane mirrors. An excellent reference for prisms is MIL_HDBK-141 Section 13.10 If the angles of incidence all...
Arizona >> OPTI >> 340 (Spring, 2008)
...
Arizona >> OPTI >> 340 (Spring, 2008)
Recent Advances in Astronomical Optics S. C. B. Gascoigne Recent advances in astronomical optics are surveyed from an elementary standpoint, under the headings: Introduction, Two-Mirror Systems, Aspherical Plates and Their Applications, Field Correc...
Arizona >> OPTI >> 340 (Spring, 2008)
JOURNAL OF THE OPTICAL SOCIETY OF AMERICA VOLUME 36, NUMBER 5 MAY, 1946 A Classification of Photographic Lens Types R. KiNGSLAKE Eastman Kodak Company, Rochester, New York (Received March 15, 1946) ADETAILED classification of the various types ...
Arizona >> OPTI >> 340 (Spring, 2008)
OPTI 340 Spring 2008 Exam II 6:00 p.m., March 31, 2008, Room 307 Instructions: One 8 x 11 crib sheet and a calculator may be used Please use separate sheets of paper for your answers (write on only one side of the page) If you dont do the proble...
Arizona >> OPTI >> 340 (Spring, 2008)
Optical Glass Description of Properties 2007 Table of Contents Foreword . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . ...
Arizona >> OPTI >> 340 (Spring, 2008)
Opti 340 Spring 2009 Guidelines and Conventions for Homework 1) 2) Angles are reported in radians and measured positive when moving counter clockwise with reference to the horizontal line called the optical axis When drawing diagrams of optical syst...
Arizona >> OPTI >> 340 (Spring, 2008)
:li\'. c )ph\'s iu) Pl?t\'Yatnt AYYt;11 3r lton -b. 5i v\\\"^J\'I k\"/ .!:li 24 ffihe rens photographic rntroduction 24.1 in \"\'.\'ii\'.,l.qu,\"lili\'i^l; puuished conrrast, little has \"^*\"T;iogy \"or,\".r*n, in the e nineteenth -ol ^uJit\"ir.\'.,tn^opticalsy...
Arizona >> OPTI >> 340 (Spring, 2008)
OPTI 340 Spring 2008 Exam III 6:00 p.m., April 28, 2008, Room 307 Instructions: One 8 x 11 crib sheet and a calculator may be used Please use separate sheets of paper for your answers (write on only one side of the page) If you dont do the probl...
Arizona >> OPTI >> 340 (Spring, 2008)
1 Crib sheet for exams Opti 340 Spring, 2008 y p = cos x p = sin 2 = x p 2 + y p 2 R 1 2 F /# = rc NA W000 W020 W111 W200 W040 W131 W222 W220 W311 W040 = W131 = W222 = W220 = 1 4 1 8 1 2 1 2 SI SII SIII 1 4 SIV R = nf * t= V2# 1 + V1# 2 ...
Arizona >> OPTI >> 340 (Spring, 2008)
wrm!R\' fh l/ pao Il;il%lJtEomputaton bt \"1\\ ! (5 o \\o#/ g ) * Y-.9 f{ -e * fl db} f *\'-) *e- rl .*\\ : c $ tl -t-) q r t J= rl il .=[- f$ r *ffi\" B F.\' !$ t9 \" g) \"; S\'} I u\\ ,s\"$ tt t ;n-*-\'l did f -o l-J r.f\\ \"....
Arizona >> OPTI >> 340 (Spring, 2008)
t 7; {* \' ff ffis_* a- \'\\t S o\" -h- -e v * a t t l- \' /s EIII,arrirri;G:fu\".*^;r;.;:d;fu,(wr} = ^F * li ( \" o = -1\" f - , - ( t t l ! Jg#- :-^* *+ eynfru/*s* -f \' r o) i4 F {na)* t, L- L) ttt-6J :,-A-,1-V4J- mjf- f.-#J:p,-& - e. 4r 6.-\ e-....
Arizona >> OPTI >> 340 (Spring, 2008)
Exact Ray Tracing Table parameter r c t n U sinU Q sinl l sinl\' I\' U\' sinU\' Q\' Q2 object space surface 1 lens space surface 2 lens space surface 3 lens space surface 4 image space BFD= BFD = t = Q\' image space sinU\' image space EFL = 1...
Arizona >> OPTI >> 400 (Fall, 2008)
BASIC ELECTRICAL CIRCUITS AND ANALYSIS Ref: Horowitz, P, 1 coulomb = 6.24151018 electrons CURRENT - symbol I or i, unit is amp(ere) (A); flow of electr...
Arizona >> OPTI >> 500 (Fall, 2008)
BASIC ELECTRICAL CIRCUITS AND ANALYSIS Ref: Horowitz, P, 1 coulomb = 6.24151018 electrons CURRENT - symbol I or i, unit is amp(ere) (A); flow of electr...
Arizona >> OPTI >> 400 (Fall, 2008)
...
Arizona >> OPTI >> 500 (Fall, 2008)
...
Arizona >> OPTI >> 400 (Fall, 2008)
APPENDIX I THE SI SYSTEM AND SI UNITS FOR RADIOMETRY AND PHOTOMETRY SI BASE UNITS BASE QUANTITY length mass time electric current thermodynamic temperature amount of substance luminous intensity NAME meter kilogram second ampere kelvin mole candela S...
Arizona >> OPTI >> 500 (Fall, 2008)
APPENDIX I THE SI SYSTEM AND SI UNITS FOR RADIOMETRY AND PHOTOMETRY SI BASE UNITS BASE QUANTITY length mass time electric current thermodynamic temperature amount of substance luminous intensity NAME meter kilogram second ampere kelvin mole candela S...
Arizona >> OPTI >> 400 (Fall, 2008)
The F-word in Optics F-number, was first found for fixing photographic exposure. But F/number is a far more flexible phenomenon for finding facts about optics. Douglas Goodman finds fertile field for fixes for frequent confusion for F/#. The F-word o...
Arizona >> OPTI >> 500 (Fall, 2008)
The F-word in Optics F-number, was first found for fixing photographic exposure. But F/number is a far more flexible phenomenon for finding facts about optics. Douglas Goodman finds fertile field for fixes for frequent confusion for F/#. The F-word o...
Arizona >> OPTI >> 400 (Fall, 2008)
No.02 April 1982 Silicon Photodiodes Physics and Technology Silicon photodiodes are semiconductor devices used for the detection of light in ultra-violet, visible and infrared spectral regions. Because of their small size, low noise, high speed and ...
Arizona >> OPTI >> 500 (Fall, 2008)
No.02 April 1982 Silicon Photodiodes Physics and Technology Silicon photodiodes are semiconductor devices used for the detection of light in ultra-violet, visible and infrared spectral regions. Because of their small size, low noise, high speed and ...
Arizona >> OPTI >> 400 (Fall, 2008)
OPTICS 400/500 RADIOMETRY, SOURCES AND DETECTORS Fall 2005 Lectures: Lecturers: Grader: Office: Office Hours: Phone: e-mail: MWF 11:00-11:50 PM, Optical Sciences Center, Room 408 James M. Palmer, Research Professor Edward F. Zalewski, Research Profes...
Arizona >> OPTI >> 500 (Fall, 2008)
OPTICS 400/500 RADIOMETRY, SOURCES AND DETECTORS Fall 2005 Lectures: Lecturers: Grader: Office: Office Hours: Phone: e-mail: MWF 11:00-11:50 PM, Optical Sciences Center, Room 408 James M. Palmer, Research Professor Edward F. Zalewski, Research Profes...
Arizona >> OPTI >> 400 (Fall, 2008)
DETAILED SYLLABUS FOR OPTICS 400/500 RADIOMETRY, SOURCES AND DETECTORS Fall 2005 LECT 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 DATE 8/22 8/24 8/26 8/29 8/31 9/02 9/05 9...
Arizona >> OPTI >> 500 (Fall, 2008)
DETAILED SYLLABUS FOR OPTICS 400/500 RADIOMETRY, SOURCES AND DETECTORS Fall 2005 LECT 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 DATE 8/22 8/24 8/26 8/29 8/31 9/02 9/05 9...
Arizona >> OPTI >> 400 (Fall, 2008)
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Arizona >> OPTI >> 500 (Fall, 2008)
...
Arizona >> OPTI >> 400 (Fall, 2008)
Tangents The f-stops here Shedding some light on the f-number by Marcus R. Hatch and David E. Stoltzmann The f-number has peen around for nearly a century now, and it is certainly one of the fundamental parameters of most optical systems. It is use...
Arizona >> OPTI >> 500 (Fall, 2008)
Tangents The f-stops here Shedding some light on the f-number by Marcus R. Hatch and David E. Stoltzmann The f-number has peen around for nearly a century now, and it is certainly one of the fundamental parameters of most optical systems. It is use...
Arizona >> OPTI >> 421 (Fall, 2008)
Memorandum AUTHOR: Michael Beenken DATE: Nov. 19, 2007 SUBJECT: Linear Adjustment Stages Summary: This memo discusses the precision and cost aspects of a few linear design stages. The precision and cost can then be compared and contrasted over a var...
Arizona >> OPTI >> 421 (Fall, 2008)
g Optical Engineerin 42U521- Fall 2007 Midterm 2- 50 minutes,closedbook, closednotes. (Calculatorsare allowed) Novembert6, 2007 1.) (10) Draw a plot showing the relationship betweenstressand strain for 6061 aluminum. Label the axes and \' giu units. S...
Arizona >> OPTI >> 421 (Fall, 2008)
Total Points Weight Code 2112 3679 9096 4654 626 2085 702 2922 Average HW1 10 1 8.5 8.5 13.5 8 8 8.5 14.5 14.5 9 14.5 13 11 ROT1 3 1 3 1 3 3 3 3 3 3 3 3 3 3 ROT2 3 1 3 3 3 3 3 3 3 3 3 3 3 3 HW2 10 1 9.5 8.5 9 9 9.5 9 9.5 9.5 9 9 9 9 ROT3 3 1 3 3...
Arizona >> OPTI >> 421 (Fall, 2008)
Fall 2007 OPTI 421/521 Introductory Opto-Mechanical Engineering Homework 8 Problem 8.1 Vibration analysis Write solution as a technical memo Calculate the vibration of a mirror as mounted and determine if it meets requirements. If not, provide guid...
Arizona >> OPTI >> 421 (Fall, 2008)
Tim Johnson OPTI 521-Optomechanical Engineering Report 1 Synopsis of Technical Report Chapter 8.3 Semikinematic Mounting for Small Mirrors Opto-Mechanical Systems Design by P. R. Yoder, 2006 11-14-07 Abstract Chapter 8.3 Semikinematic Mounting for ...
Arizona >> OPTI >> 421 (Fall, 2008)
Line-of-sight reference frames: a unified approach to plane-mirror optical kinematics James C. DeBruin Control Systems Technology Center Texas Instruments, Inc Dallas, Texas 75266 David B. Johnson Civil and Mechanical Engineering Department Southern ...
Arizona >> OPTI >> 421 (Fall, 2008)
Kasia Sieluzycka OPTI 421 HW 10 Part 1 12/27/08 Two Part Epoxy Technical Memo Summary: Epoxy is a very strong adhesive that can be used for a huge variety of applications for bonding of metal, wood, glass, some plastics, ceramics, and stone. It is e...
Arizona >> OPTI >> 421 (Fall, 2008)
The University of ARIZONA Tucson Arizona Meinel Building TUCSON, ARIZONA 85721 November 19, 2007 MEMORANDUM To: From: Matthew Stymfal; Zachary Denny Subject: Adhesives Summary: Two-part epoxy is a adhesive where bonding takes place upon mixture o...
Arizona >> OPTI >> 421 (Fall, 2008)
Practical Plastic Optics Practical Optics Seminar September 6, 2006 Mike Schaub Raytheon Missile Systems 1151 E. Hermans Road Tucson, AZ 85706 (520) 794-8162 Michael_P_Schaub@raytheon.com 1 Overview Plastic Optics? Optical plastics Basic...
Arizona >> OPTI >> 421 (Fall, 2008)
Ian Tilford Opti421 HW10 Part1 Introduction The purpose of this memo is to describe the material properties of Elastometric adhesive. In addition to the material properties; the performance, costs, vendors, and proper use of this adhesives will be an...
Arizona >> OPTI >> 421 (Fall, 2008)
OPTI 421/521 Introduction to Optomechanical Engineering Review for Midterm 2: Midterm is 50 minutes, closed book, closed notes Review the material that was covered on the first exam. You are expected to know this. Statics: Draw free body diagrams ...
Arizona >> OPTI >> 421 (Fall, 2008)
...
Arizona >> OPTI >> 421 (Fall, 2008)
Optical Engineering 421/521 Fall 2007 Review for Final Exam The exam follows the same format as previous midterms. Some differences are: You are allowed 110 minutes. Everybody is expected to finish! This test is open book, open notes. Any resource...
Arizona >> OPTI >> 421 (Fall, 2008)
Joshua Wiersma Kyle Fuerschbach OPTI 421 HW #10.2 MEMORANDUM TO: Dr. Jim Burge FROM: Joshua Wiersma, Kyle Fuerschbach SUBJECT: Small fine motion motorized rotary stages Summary Small fine motion motorized rotary stages can be purchased from many di...
Arizona >> OPTI >> 421 (Fall, 2008)
Proc. of SPIE Vol. 0389, Optical Systems Engineering III, ed. William H. Taylor (Jan 1983) Copyright SPIE 2 3 4 5 6 7 8 9 10 11 ...
Arizona >> OPTI >> 421 (Fall, 2008)
Technical Memorandum: Properties of silicone elastomers Silicone rubber elastomers are chemically inert polymers that generally function well over temperature ranges of -80 to 204 C, though short exposures to higher temps can be tolerated. Room tempe...
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