Guide to the C.F. Quate Papers SC0347

Contract #ENG75-02028: National Science Foundation 1975-1977

ONR-632: JSEP Reports 1975-1977

Contract #N00014-75-C-0632: Office of Naval Research (JSEP) (Correspondence) 1974-1977

Contract #N00014-75-C-0359: Office of Naval Research (Correspondence, Proposal, Report) 1974-1975

Hartford - Reports (Chodorow '71- Sept. '74, Quate Oct. '74-'76) 1971-1976

Contract: Hartford Foundation, Inc. Correspondence, Proposals 1970-1981

ONR-74: Reports 1973-1974

Contract #GI 37518: National Science Foundation, NSF-RANN Power Line 1973-1975

Research Proposal to the National Science Foundation: Research Applied to National Needs (RANN) Superconducting Power Transmission Lines, Stanford University 26938

Contract #N00123-72-C-0866: Naval Undersea R and D Center, San Diego (Correspondence) 1972-1975

Contract #F33615-72-C-1490: North American Rockwell Autonetics 1972-1973

DA-93: Reports (Was DA-5 '70-'73) 1970-1977

Grant #DAHCO4-G-0093 (Was DA-5): Army Research Office, Durham, NC (Correspondence, Proposals)

Conferences 1984

Conferences 1983

Conferences 1981

Conferences 1980

Conferences 1979

Conferences 1978

Conference: Seminal "Paul Langevin" on Ultrasonics, Paris, France 1972

Conference: Popov Society Meeting, Moscow, USSR 1966

American Optical Corporation undated

Avantek undated

GTE Sylvania, Inc. undated

Hitachi, Ltd. undated

Honeywell, Inc. undated

Ernst Leitz Wetzlar GMBH (3) undated

Ernst Leitz Wetzlar GMBH (2) undated

Ernst Leitz Wetzlar GMBH (1) undated

E. Leitz, Inc. - New Jersey undated

Sunbeam Corporation undated

Unirad Corporation undated

John Wiley and Sons, Inc. undated

Carl Zeiss undated

NIH 25826 - Correspondence 1978-1983

NIH 25826 - Final Report (March '83) 1978-1983

NIH 25826 - Site Visit 29384

NIH 25826 - Site Visit 28698

NIH 25826 - Proposal (January '82) 1982-1986

NIH 25826 - Renewal (October '81) 1981-1982

NIH 25826 - Renewal (January '80) 1980-1981

NIH 25826 - Renewal (September '79) 1979-1980

NIH 25826 - Proposal (February '78) Acoustic Microscopy for Biomedical Investigations 1978

AFOSR 98: Correspondence 1978-1982

AFOSR 98: R and D Reports (April '81) 1981

AFOSR 98: Annual Report (July '81) 1980-1981

AFOSR 98: Annual Report (August '80) 1979-1980

CIS - Committee - Development and EE Executive Committee 1979-1980

AFOSR 98: R and D Reports (March '81) 1980-1981

AFOSR 98: R and D Reports (November '80) 1980

AFOSR 98: R and D Reports (September '80) 1980

AFOSR 98: R and D Reports (June '80) 1980

AFOSR 98: R and D Reports (January '80) 1979-1980

AFOSR 98: R and D Reports (November '79) 1979

AFOSR 98: R and D Reports (August '79) 1979

AFOSR 98: R and D Reports (April '79) 1979

AFOSR 98: R and D Reports (April '79) 1978-1979

AFOSR 98: Semiannual Report (March '81) 1980-1981

AFOSR 98: Semiannual Report (August '80) 1980

AFOSR 98: Semiannual Report (February '80) 1979-1980

AFOSR 98: Semiannual Report (September '79) 1979

AFOSR 98: Semiannual Report (April '79) 1978-1979

AFOSR 98: Proposal (May '78) (was AF 3455) 1978

AF 77 (new # is AF 98)

AF 3455 Proposal (April '77) Scanning Acoustic Microscope 1977

ONR 412 Correspondence 1977

ONR 412 Final Report (November '84) 1977-1984

ONR 412 Summary Report (June '82) 1977-1982

ONR 412 Annual Report (September '83) 1982-1983

ONR 412 Annual Report (August '82) 1981-1982

ONR 412 Annual Report (November '81) 1980-1981

ONR 412 Annual Report (July '80) 1979-1980

ONR 412 Annual Report (September '79) 1978-1979

ONR 412 Annual Report (September '78) 1977-1978

ONR 412 Status Report (January '83) 1982-1983

ONR 412 Status Report (January '82) 1981-1982

ONR 412 Status Report (September '81) 1981

ONR 412 Status Report (March '81) 1980-1981

ONR 412 Status Report (January '80) 1979-1980

ONR 412 Status Report (January '79) 1978-1979

ONR 412 Status Report (January '78) 1977-1978

ONR 412 Proposal (Renewal) (March '82) 1982

ONR 412 Proposal (Renewal) (May '79) 1979

ONR 412 Proposal (February '77) Acoustic Miscroscopy at Cryogenic Temperatures 1977

Stanford Energy Institute: Program on Coal Characterization with Photoacoustics, Seed Money 1980

NSF ENG-78-18585 Dilution Refrigerator - Equipment Grant 1979-1980

NBS 5-35899 Reports 1975-1979

NBS 5-35899 Correspondence and Proposals 1975-1979

NSF 07317 Reports undated

Contract #APR75-07317 National Science Foundation, Correspondence, Proposals 1975-1978

Correspondence 1983 July-December

Correspondence 1983 January-June

Correspondence 1982

Correspondence 1981

Correspondence 1980 July-December

Correspondence 1980 January-June

Correspondence 1979 July-December

Correspondence 1979 January-June

Correspondence 1978 July-December

Correspondence 1978 January-June

Correspondence 1977

AF 248 Correspondence 1981

AF 248 Final Report (October '84) 1982-1984

AF 248 Annual Report (December '83) 1982-1983

AF 248 Progress Report (November '82) 1982

AF 248 Proposal (February '83) (Continuation) 1983

AF 248 Proposal (December '81) Photoacoustic Imaging 1981

NSF 10786 Final Report (February '85) 1981-1984

NSF 10786 Correspondence 1981

NSF 10786 Progress Report (December '83) 1983

NSF 19786 Proposal (November '82) (Continuation) 1982

NSF 10786 Proposal (December '81) (Continuation) 1981

NSF 10786 Proposal (January '80) Research on Acoustic Microscopy with Superior Resolution 1980

Mechanical Engineering, C.F. Quate, 1 of 3 undated

Mechanical Engineering, C.F. Quate, 2 of 3 undated

Mechanical Engineering, C.F. Quate, 3 of 3 undated

Slides: Acoustics undated

Slides: Educational Management undated

Slides: Gene Mutations undated

Slides: IMSSS undated

Slides: Laser Eraser undated

Slides: Miscellaneous undated

Slides: Patents / Licenses undated

Slides: Primate Colony undated

Slides: Sex Differences undated

Slides: SEL Integrated Circuits Lab undated

Slides: Stratified Charge Engine undated

Slides: Superconduction Magnet, Heart Disease undated

Slides:Telecommunications undated

Slides: Water Quality undated

Applied Physics, C.F. Quate, 1 of 2 1962-1967

Applied Physics, C.F. Quate, 2 of 2 1962-1967

Klystron Royalty Funds undated

Physics, C.F. Quate, 1 of 3 undated

Physics, C.F. Quate, 2 of 3 undated

Physics, C.F. Quate, 3 of 3 undated

Harald Trap Friis Fellowship undated

National Research Council, Commission on Human Resources - Board on Fellowships and Associateships 1974-1976

CFQ: Defense Sci. Board 1975-1978

IEEE Awards Board - Correspondence 1971-1972

CFQ: Press Releases 1980-

CFQ: Press Releases 1979

CFQ: Press Releases 1975-1978

Bond, Walter L. undated

Heintz. Ralph - Equipment Donations undated

Kompfner, Rudolf undated

GL - Computer Committee undated

GL - New Building - Ginzton / Applied Physics undated

GL - Heffner Memorial Library undated

GL - Memoranda 1983-1984

GL - Memoranda 1980-1982

GL - Memoranda 1975-1979

Lecture Notes on EE 142 - '72-'73 Spring Quarter 1972-1973

Lecture Notes on EE 142 - '71-'72 Spring Quarter 1971-1972

Lecture Notes on EE 142 - '70-'71 Spring Quarter 1970-1971

Lecture Notes on EE 142 - '69-'70 Spring Quarter 1969-1970

Lecture Notes: Applied Physics 253 undated

352/353, 354/355 Lecture Notes; Winter and Spring 1962-63, Spring 1963-64 1962-1964

EE 141: Electromagnetic Fundamentals, Winter '82-'83 1982-1983

Applied Physics 352/353 Lecture Notes (Fall Quarter) 1966

Applied Physics 350/351 Lecture Notes (Winter Quarter) 1965

Courses: CFQ - Winter '78-'79 - Grades, Texts, Problem Sets and Solutions 1978-1979

Courses: CFQ - Winter '74-'75 through Spring '77-'78 - Grades, Texts, Problem Sets and Solutions, 1 of 2 1974-1978

Courses: CFQ - Winter '74-'75 through Spring '77-'78 - Grades, Texts, Problem Sets and Solutions, 2 of 2 1974-1978

Lecture Notes C.F. Quate, 1 of 2 undated

Lecture Notes C.F. Quate, 2 of 2 undated

Courses: CFQ - Fall '61 thru Spring '73-'74 - Grades, Texts, Problem Sets and Solutions, 1 of 2 1961-1974

Courses: CFQ - Fall '61 thru Spring '73-'74 - Grades, Texts, Problem Sets and Solutions, 2 of 2 1961-1974

Applied Physics 351-352-355 Lab Experiments: Electromagnetic Measurements, 1 of 2 1962-1969

Applied Physics 351-352-355 Lab Experiments: Electromagnetic Measurements, 2 of 2 1962-1969

EE 261: The Fourier Transform and its Applications, Summer '82, 1 of 2 1982

EE 261: The Fourier Transform and its Applications, Summer '82, 2 of 2 1982

EE 261 Final Exam, Summer '82 30177

EE 261 Midterm Exam, Summer '82 30147

EE 261 Problem Sets and Solutions, Summer '82 1982

EE 261 Fourier Transform and its Applications, Summer '81-'82 1981-1982

EE 366, Winter '81-'82: Introductory Notes, Calendar, Book Titles, Final Exam, Midterm, Problem Sets and Solutions 1981-1982

EE 366, Winter '81-'82: Lecture Notes, TV Notes 1981-1982

EE 366, Winter '81-'82: References 1981-1982

EE 366 Final Exam, Winter '81-'82 30028

EE 366 Midterm Exam, Winter '81-'82 29991

EE 366 Problem Sets and Solutions, Winter '81-'82 1981-1982

EE 366 Intro. to Fourier Optics, General Info, Winter '81-'82 1981-1982

EE 366 Intro. to Fourier Optics, Syllabus, Winter '81-'82 1981-1982

EE 141 Electromagnetic Fundamentals, Fall '81-'82 1981-1982

AP 020 Intro. to Physical Sciences, Fall '81-'82 1981-1982

EE 366 Introduction to Fourier Optics (J.W. Goodman), Winter '81, 1 of 2 1981

EE 366 Introduction to Fourier Optics (J.W. Goodman), Winter '81, 2 of 2 1981

EE 261 The Fourier Transform and its Applications (J.W. Goodman), Fall '81, 1 of 2 1981

EE 261 The Fourier Transform and its Applications (J.W. Goodman), Fall '81, 2 of 2 1981

EE 141 Final Exam, Winter '80-'81 29661

EE 141 Midterm Exam 29623

EE 141 Problem Sets and Solutions, Winter '80-'81 1980-1981

EE 141: Electromagnetic Fundamentals, Winter '80-'81 1980-1981

EE 141 undated

Applied Physics 010 General Correspondence, Spring '80-'81 1980-1981

Applied Physics 010 Class Notes, Spring '80-'81 1980-1981

EE 142: Electromagnetic Fundamentals, Spring '79-'80 1979-1980

EE 141: Electromagnetic Fundamentals, Winter '79-'80 1979-1980

EE 141 Final Exam, Winter '79-'80 29300

EE 141 Midterm Exam, Winter '79-'80 29262

EE 141 Problem Sets and Solutions, Winter '79-'80 1979-1980

Kino: EE 244N "Waves", Winter '74-'75 1974-1975

Siegman: EE 244N "Waves", Winter '74-'75 1974-1975

Quate: EE 244N "Waves", Winter '74-'75 1974-1975

EE 262: Two Dimensional Imaging, Complete Set of Handouts, 2 of 2 1981-1983

EE 262: Two Dimensional Imaging, Complete Set of Handouts, 2 of 2 1981-1983

EE 262: Two Dimensional Imaging, Lecture Notes #10-29, Fall '82-'83, 1 of 2 1982-1983

EE 262: Two Dimensional Imaging, Lecture Notes #10-29, Fall '82-'83, 2 of 2 1982-1983

EE 262: Two Dimensional Imaging, Fall '82-'83 Lecture Notes #1-9, 1 of 3 1982-1983

EE 262: Two Dimensional Imaging, Fall '82-'83 Lecture Notes #1-9, 2 of 3 1982-1983

EE 262: Two Dimensional Imaging, Fall '82-'83 Lecture Notes #1-9, 3 of 3 1982-1983

EE 141 Winter '83 1983

EE 262 Final Exam (Take Home), Fall '82-'83 30291

EE 262 Midterm Exam, Fall '82-'83 30260

EE 262 TV Network, Fall '82-'83 1982-1983

EE 262 Handouts, Problem Sets and Solutions, Fall '82-'83 1982-1983

EE 262 Two Dimensional Imaging, Fall '82-'83 1982-1983

The Geometry of the Acoustic Transducer and Lens as Used for the Acoustic Microscope undated

V(Z) Curves for Aluminum on Silicon">V(Z) Curves for Aluminum on Silicon undated

The Optical and Acoustic pictures of Two H-MOS Transistors undated

Calculated V(Z) Curves for Various Regions on SOS Structure undated

Dielectric caps on GaAs (B) undated

Dielectric caps on GaAs (A) undated

Micrographs of Silicon Wafer Coated with Oxide - (A) Acoustic X450; (B) Optical X300 undated

SOS Integrated Circuits (A) Optical X300; B plus 1.25 micron; (C) 0; (D) -1.25 micron undated

Normal Red Blood Cells (A) X1000 (Oil Immersion); (B) X1000 undated

V(Z) Curves for 3 Different Wafers of Silicon. (A) Silicon; (B) Silicon Coated with Aluminum; (C) Silicon with Aluminum undated

V(Z) Curves for Pure Surfaces of Sapphire, Silicon and gallium arsenide undated

Oxide Layers on Silicon as Coated with Nitride - images at 1100 MHz undated

2 micron and 4 micron Periodic Structures 1500 A of Al on glass undated

The Geometry of the Acoustic Transducer and lens as used for Reflection Mode of the Acoustic Microscope undated

The Reflectivity for Labeled Surfaces as Function of "sin -" where "-" is Angle of Incidence for Plane Waves undated

The V(z) Curves representing the Transducer Output versus the Lens-Object Spacing, z undated

The Amplitude of the Output Voltage V(z): (A) Si pure 750 MHz; (B) Si pure 1100 MHz; (C) Si with Al 1100 MHz undated

CCD Structures on Silicon, (A) X400 (B) X200 undated

CCD Structures on Silicon - X200 - contrast for different focal positions (A) (B) and (C) undated

Reflection from Single Surface of Sapphire at 750 MHz - solid curve is theory - crosses are measured undated

Metal Foils as recorded in transmission at 400 MHz. (A) Hastalloy Tape (B) Aluminum Foil undated

Acoustic Micrographs of Polymer Films 4 micron thick - (A) Mylar (B) Polyamide (Pyralin) undated

Acoustic Micrographs of Textile Fibers (A) Nylon fiber (stretched) X100, (B) Kevlar 49 fiber X400 undated

Drawn Nylon Fibers 40 micron diameter X400. (A) (B) and (C) undated

Acoustic Micrographs of a FET device on GaAs (750 MHz X200) (A) and (B) undated

Thermal Oxide on Silicon - Pad of the H.P. 22, 750 MHz X400 undated

Sharp Calculator Chip - Focus on Surface - 750 MHz X200 undated

Sharp Calculator Chip - Focus about 5 micron under surface - 750 MHz X200 undated

Sharp Calculator Chip - FOcus about 10 micron under surface - 750 MHz X200 undated

CHO Cells, (A) Amplitude X400, (B) Phase X400 undated

CHO Cells X400 Amplitude 900 MHz undated

Acoustic Image of Section of Breast Tissue, (A) X100 (B) X400 undated

Acoustic Image of Section of Rat Brain Tissue, (A) X100 (B) X400 undated

Acoustic Image of Section of Rat Brain Tissue, (A) X200 (B) X400 undated

Acoustic Micrographs of a metal grid - 50 micron periodicity 15 micron line widths 1400 MHz, (A) X200 (B) X500 undated

Human Red Blood Cell - Acoustic Image at 1400 MHz, (A) X500 (B) X800 undated

Acoustic Micrographs of Polymer (Kevlar) Fibers. Transmission at 1400MHz. (A) X500 (B) X800 undated

Optical Image of Gold Lines on GaAs, X200 undated

Acoustic Image of Gold Lines on GaAs, (A) X200 (B) A-trace of lines shown in (A) undated

Acoustic Image of Gold Lines on GaAs, (A) X400 (B) A-trace image of (A) undated

Scanning Acoustic Microscope - Mechanical components undated

Scanning Acoustic Microscope - Enlarged view of lens and sample holder undated

Scanning Acoustic Microscrope - A Complete View undated

Optical images of Bituminous Coal and Coke (Oil X400) undated

Optical Micrographs with various Coal Macerals (Oil X400) undated

Optical images (oil X44) of coal with different particles undated

Optical Micrograph (DIC) X200, Coke from bituminous coal sample 6655 1A undated

Acoustic Micrograph X250, Coke from bituminous coal sample 6655 1A undated

Optical Micrograph (DIC) X100, coal sample 7868-1A undated

Optical Micrograph (DIC) X200, coal sample 7868-1A. Bar is 50 micron undated

Acoustic Micrograph X250, coal sample 7868-1A. Bar is 50 micron undated

SOS Transistor (1974) CMOS (STDL-4), (A) and (B) undated

Strength of reflected signal vs. axial position undated

Reflected signal vs. axial position for a wafer of Silicon undated

Oxide layers on silicon, (A) and (B) undated

Reflected signal vs. axial position undated

Aluminum on Sapphire, (A) (B) and (C) undated

Reflected signal for silicon nitride capacitor undated

Capacitors on silicon, X100, (A) and (B) undated

Capacitors on silicon, X400, (A) and (B) undated

CMOS transistor profile - STDL-4 circuit undated

Reflected signal for CMOS transistor on sapphire, STDL-4 undated

Reflected signal for crossover ties undated

STDL-4 SOS circuit X225 (A) (B) (C) and (D) undated

Images of sections of integrated circuit on SOS (STDL-4), (A) (B) (C) and (D) undated

MOS transistor on Sapphire, X500, (A) (B) and (C) undated

MOS on 1974 SOS (STDL-4) X500, (A) (B) and (C) undated

STDL-4 SOS circuit X350 undated

STDL-4 SOS circuit X380 undated

Acoustic micrographs of living glial tumor cells from rat brain undated

Sketch of microscope geometry undated

Fig. 1 Experimental setup undated

Stained sections of human retina and pigment epithelium undated

Unstained sections of human retina and pigment epithelium X400 undated

Thin sections (1 micron) of human retina undated

Frozen section of human retina with thoroidal arteriole undated

Sections of iris from albino and pigmented rabbit undated

Fixed sections of tissue showing acoustic parameters of meningeoma, (A) Amplitude (B) Phase undated

Tissue of human liver invaded with hepatitis (Dr. J. Edward Berk) undated

Red blood cell (Val) - advanced iron deficiency anemia (child), (A) Intensity (B) Phase undated

Red blood cell (K) - anemia and renal failure, (A) intensity (B) phase undated

Red blood cell (Glav) - hemolytic anemia, (A) and (C) intensity, (B) and (D) phase undated

Red blood cell (Val) - advanced iron deficiency anemia (child), (A) Intensity (B) Phase undated

Acoustic micrographs of cell cultures - Chinese hamster ovary cells, (A) X400 (B) X600 undated

Rectangular grid with 25 micron periodicity, Acoustic images (A) and (B) undated

Image of 50 micron periodic mesh, in focus region undated

Acoustic and Optical images of 500 mesh nickel grid (top). Acoustic and Optical images of polystyrene particles (bottom) undated

Acoustic micrographs of integrated circuit on SOS (STDL-4), (A) and (B) undated

(A) Tinfoil (12 microns thick) X200, (B) Tinfoil (12 microns) X400 undated

(A) Nomarski X250 Co-Ti, (B) Acoustic Co-Ti undated

Optical glass fiber, 125 micron diameter aluminum coated undated

Fig. 7 Surface of single crystal of aluminum bent to induce slip line undated

Fig. 8 Epitaxial GaAs on GaAs substrate LPE with meniscus lines undated

Fig. 1 Illustration of stacking fault in (111) epitaxial silicon wafers, (A) optical photo (B) acoustic image undated

Fig. 1 Illustration of stacking fault in (111) epitaxial silicon wafers, (C) optical photo (D) acoustic image undated

Fig. 1 Illustration of stacking fault in (111) epitaxial silicon wafers, (E) montage of area of sample undated

Fig. 2 Illustration of stacking fault in epitaxial silicon (111), (A) optical photo undated

Fig. 2 Illustration of stacking fault in epitaxial silicon (111), (B) optical, (C) and (D) acoustic micrographs undated

Fig. 3 Illustration of stacking fault on (100) epitaxial silicon, (A) Nomarski photo (B) acoustic image undated

Fig. 4 Polished sapphire wafer, (A) DIC optical photo (B) acoustic micrograph (C) acoustic micrograph undated

Fig. 5 Defects in glass coated sapphire, (A) acoustic micrograph (B) the same undated

Fig. 6 Acoustic micrograph of surface of a (100) silicon wafer undated

Fig. 7 Acoustic images of a silicon wafer with single layer of photo-resist undated

Fig. 8 Acoustic image of a single metallization pattern on silicon undated

Fig. 9 Acoustic image of silicon device with a glass passivation layer over the circuits undated

Fig. 10 Integrated circuit with silicon on sapphire wafer, (A) optical photo (B) acoustic image undated

Fig. 11 Integrated circuit fabricated on SOS wafer, (A) optical micrograph (B) acoustic micrograph undated

Surface detail of a silicon wafer, (A) acoustic micrograph (B) the same (C) SEM photo undated

Surface detail of a silicon wafer (100), (A) SEM photo (B) acoustic micrograph (C) acoustic micrograph undated

Surface detail of silicon, (A) SEM photo (B) acoustic micrograph (C) acoustic micrograph undated

Illustration of time gating techniques, (A) (B) and (C) undated

Acoustic image of a silicon wafer (100), (A) and (B) undated

Acoustic image of a silicon wafer (100) undated

Acoustic image in transmission displaying change in amplitude of acoustic wave, (A) (B) and (C) undated

Acoustic micrograph in reflection of an array of CMOS devices with silicon on sapphire undated

Optical photo via interference contrast of the array on SOS undated

Detail of defect in silicon layer undated

Enlarged acoustic micrographs of the SOS array, (A) (B) and (C) undated

Normal Red Blood Cells undated

Acoustic images of an IC element on silicon, reflection type instruments with rf pulses undated

(A) Acoustic image reflection with c. w. (B) Acoustic image reflection with pulses undated

Element of IC chip, finger width 3 microns, implanted resistor with oxide overlay undated

hp22 bipolar transistor, width of fingers 2 microns, (A) (B) and (C) undated

(A) IC circuitry viewed perpendicularly to substrate, (B) IC circuit viewed with angle from normal to substrate undated

Illustration of thermal profiling with acoustic microscopy undated

Acoustic response in presence of heating undated

Spherical tool grinder for lens making undated

The Bond machine for grinding spherical tips undated

(A) Acoustic micrographs of Drosophilia melanogaster larva, first day, (B) egg casing (C) third day larva undated

Acoustic micrograph of section of human aorta exhibiting atherosclerosis undated

Low and high magnification acoustic micrographs showing strands of wheat protein undated

Panoramic acoustic micrograph of unstained section of rat vagina undated

Acoustic micrograph of unstained section of rabbit retina undated

Acoustic micrograph of section of mouse larynx undated

Dynamic range using a circulator undated

Closeup showing the three acoustic lens elements undated

Acoustic reflection images of small integrated circuit patterns undated

Acoustic reflection images of small integrated circuit patterns undated

Optical micrograph for comparison with acoustic image of liver cirrhosis undated

Acoustic micrograph of section of human liver showing cirrhosis undated

Comparison of linear and second harmonic images of a blood smear, (A) (B) and (C) undated

Comparison of second harmonic image to linear images of photo-resist pattern undated

Diagram for microscope electronics undated

1. Acoustic micrograph unstained human oviduct, 2. Acoustic micrograph human spleen undated

1. Acoustic image human lymph node, 2. Comparison of acoustic images of cancerous lypmh nodes undated

1. Acoustic/optical images onion cells, 2. Acoustic/optical images copper grid, 3. X-ray/ultrasound connective tissue undated

Schematic diagram of the acoustic microscope lens configuration undated

Acoustic micrograph of unstained human lung tissue undated

1. Acoustic image tumor of human breast, 2. Comparative optical micrograph undated

Generalized diagram of the scanning acoustic microscope undated

Comparison of acoustic and optical images of a segment of crayfish nerve undated

Temporal sequence of acoustic images of an Amoeba proteus undated

Photograph of the acoustic microscope's mechanical components undated

Optical and acoustic image of a malignant tumor of the human breast undated

Comparison of optical and acoustic reflection images of a graphite fiber-epoxy composite undated

Acoustic images of human red blood cells using a composite A-scan technique undated

Acoustic images of epithelium of small bronchiole in human lung, (A) absorption (B) 'bright' phase (C) 'dark' phase undated

1. Comparison of acoustic and optical image of human bone marrow smear, 2. Acoustic image of lung fibroblasts undated

Acoustic micrograph of section of human lymph node with Hodgkin's disease undated

Acoustic images of a living culture of human lung fibroblasts undated

Comparison of the acoustic and optical images of human red blood cells undated

Comparison of acoustic and optical images of breast tumor, III undated

Comparison of acoustic and optical image of breast tumor, II undated

Comparison of acoustic and optical images of breast tumor, I undated

Acoustic micrograph of normal human breast tissue (unstained) undated

Optical micrograph of breast tumor (stained) undated

Comparison of acoustic images (900 MHz) of a cancerous lymph node undated

Acoustic micrograph of a section of human spleen showing small artery (unstained) undated

Kidney tissue, unstained, (A) 450MHz (B) 900Mhz (C) 450 MHz undated

Acoustic micrograph of malignant tumor of human breast (unstained) undated

Acoustic images of a living culture of normal human diploid lung fibroblasts undated

Acoustic micrograph of a section of human oviduct undated

Acoustic micrograph of a section of rat kidney (unstained) undated

Acoustic reflection image (600 MHz) of a 500 mesh nickel grid undated

Comparison of acoustic and optical images of a human bone marrow smear undated

Acoustic image of section of human lung tissue (unstained) undated

Acoustic photo of the hp122 undated

Probing the interior of a silicon wafer, (A) (B) (C) and (D) undated

Comparison of acoustic and optical images of human red blood cells (unstained) undated

Comparison between image from acoustic microscope and scanning electron microscope undated

Comparison between acoustic and optical images of hp122 undated

Acoustic photo of hp22 undated

Comparison of optical and acoustic photos of series of patterns deposited on silicon substrate undated

Acoustic and optical comparison of a bipolar transistor undated

Comparison of optical and acoustic photos of integrated circuit pattersn undated

Tissue of Spleen (unstained) undated

Acoustic photo of a metal grid immersed in water undated

Illustration of interference patterns with thin metal strips, (A) and (B) optical, (C) (D) and (E) acoustic undated

Breast tissue, or mammary gland undated

Lung tissue (unstained) undated

Kidney tissue (unstained) undated

Ray tracing comparison of a single surface lens in light optical system and acoustic system undated

Acoustic micrograph of a section of the oviduct, of Fallopian tube undated

The human red blood cell, optical and acoustic photos undated

1951 USAF Resolution Test Chart undated

Schematic showing acoustic lens configuration undated

Diagrammatic scheme for the Reflection Mode undated

Blown up sketch of the Microscope Apparatus undated

Uniform acoustic illumination displayed by spheres undated

Experimental arrangement for locating the object in the extremely near field of a large area transducer undated

1000 A Cr on glass (Optical 100 microns, Acoustic Z= -1 micron, Z=0.5 micron) undated

Optical and Acoustic comparison of polished brass surface. Field of view is 55 x 90 microns undated

Silicon with multiple crystalites undated

Comparison of a Co-Ti compound (field is 60x60 microns) undated

Focusing properties of single surface lenses undated

Comparison of Snell's Law for optical and acoustic undated

Schematic of electrical circuits undated

Micrographs of Inconel Alloy, (A) Optical - After etching (B) 2.5 GHz acoustic micrographs of unetched sample at different focal positions (z=1 micron, -2 microns, -4 microns) undated

Micrographs of polished Silicon, Optical - Before and After Etching, Acoustic - at f=2.5 GHz undated

Optical Reflection/Photoacoustic image of Au on glass (acoustic f=840 MHz) undated

Comparison of optical/acoustic images of coal ("A" rank bituminous coal) undated

Glass/Cr/Glass predicted V(z) undated

Difference Frequence Image (c) of an Integrated Circuit, (A) 1700 MHz (B) 1900MHz undated

Comparison of a polymer with co-polymer spheres (0.25 cm in diameter) (Dupont) undated

Successive images of a 5 micron glass sphere undated

Living fibroblast cells from chick embryo heart, 1800 MHz, 37 degrees Celsius undated

Living fibroblast cells from chick embryo heart, time sequence undated

Acoustic/Optical views of 1000 A on glass - good and poor adhesion undated

Acoustic image of chick embryo fibroblast cell grown on collagen coated glass with methanol undated

Images of chick embryo fibroblast cell grown on collagen coated glass with methanol, Acoustic/TEM undated

Chick embryo fibroblast cell grown on collagen coated glass with methanol, acoustic/TEM undated

Chick embryo fibroblast cell grown on collagen coated glass with methanol, acoustic/TEM undated

Acoustic image of chick embryo fibroblast cell grown on collagen coated glass with methanol, 1st and 2nd focus undated

Acoustic images of chick embryo fibroblast cell grown on collagen coated glass with methanol undated

Aluminum line on Silicon with Quartz overlay, Optical/Acoustic/Opti-Oil Immersion undated

Aluminum Line on Silicon with Quartz overlay, Acoustic, 1st and 2nd focus/opt. undated

Polyethylene terephthalate with imbedded glass beads, optical X620 and acoustic (2600 MHz) undated

Comparison of acoustic/optical micrographs of a Co-Ti alloy undated

Poorly adhering Cr on glass - Optical oil immersion and acoustic undated

1000 A Cr on glass (good adhesion), Optical and acoustic at 30 microns undated

1000 A Cr on glass (poor adhesion), Optical and acoustic at 100 microns undated

Acoustic image of steel surface with a different spacing between the lens and the object undated

An integrated circuit made with silicon-on-sapphire with metal aluminum lines undated

Acoustic and optical images of TTL device on silicon made by Rick Davis undated

Acoustic and optical comparison for an enlarged region of silicon device undated

Acoustic and optical comparison of enlarged portion of silicon device undated

Acoustic images of cultured lymphoblastoid cells - LB-2, for two different focal positions undated

Acoustic images of cultured lymphoblastoid cells - LB-2 undated

Acoustic and optical images of human chromosome spreads and numbering system used in identification undated

Acoustic and optical images of chick embryo fibroblast cell grown on collagen coated glass with methanol undated

Cell from culture of chick embryo fibroblasts (second view) undated

Cell from culture of chick embryo fibroblasts (third view) undated

Acoustic and optical images of chick embryo fibroblast cells X930 undated

An enlarged view of fibroblast cell X1370 undated

Chick embryo fibroblast cell, acoustic optical and EM images X780 undated

Chick embryo fibroblast cell, acoustic optical and EM images X2200 undated

Goos-Haechen's shift in waveguides (P. K. Tien) undated

Images of dual gate FET in liquid argon at about 85 degrees Kelvin, frequency is 2000 MHz, gate width is about 1 micron undated

Images in liquid helium at 2 degrees Kelvin of an integrated circuit, wavelength is 3000 A undated

Acoustic and optical images G-banded spread metaphase human chromosomes prepared by Trypsin-Giemsa technique undated

Optical and acoustic images of chromosomes, #1 and #2 from two G-banded spreads of metaphase chromosomes undated

Acoustic and SEM images of an unstained spread of early metaphase chromosomes undated

(A) Acoustic micrograph IC digitally stored (B) 2-dimensional Fourier transforms (C) Wiener filter undated

(A) and (B) Acoustic micrographs of integrated circuit, (C) and (D) real part Fourier transform undated

Chrome on glass, 1000 A cr undated

(A) Digitally stored image and (B) restored. Fourier transform (A) shown in (C) and (B) in (D) undated

Device B - images (A) to (G) undated

Photoresist grating, 4000 A period, (A) acoustic (B) SEM (C) optical undated

Acoustic micrographs of a 75 micron thick fused quartz test sample undated

Surface of aluminum with a diamond-shaped indent undated

Schematic showing method of generation of short r.f. pulse undated

Direct analog image of SOS circuit (A) and floppy disk (B) undated

Acoustic image of a brass sample (f=2 GHz) undated

Acoustic images of brass sample with (A) raster scan and composite A-scan undated

Device A - images (A) to (G) undated

Comparison of silicon device of Rick Davis, (A) and (C) optical, (B) and (D) acoustic undated

Acoustic images of a silicon integrated circuit undated

Acoustic images of various photoresist patters on silicon undated

Optical images (X1000) of photoresist patters on silicon, Intel Corporation undated

Comparison of acoustic (A) and optical (B) image of photoresist pattern silicon undated

Photoresist on silicon, (A) acoustic and (B) optical undated

(A) Acoustic image of microwave FET undated

(B) Acoustic image of same device as above Fig. (A) undated

(C) Optical micrograph of transistor of above Fig. (A) undated

Aluminum conduction stripe from CMOS integrated circuit undated

V(x,z) response for 10 different gates undated

Optical (A) and acoustic (B) comparison of polished brass surface undated

Chick fibroblast, acoustic (A) and (B), optical (C) and (D), after and before undated

Binucleate fibroblastic cell, (A) (B) and (C) undated

Comparison of light, electron and acoustic micrographs (A) (B) (C) and (D) undated

Region of cellular interaction, (A) (B) (C) and (D) undated

Transmission of electron and acoustic images of cluster of large mitochondria undated

Thin cellular lamellipodium (A) and (B) undated

Enlarged portion of previous figure undated

Chick embryo fibroblast, two acoustic images one optical in phase undated

Another chick embryo fibroblast, optical images before and after undated

Optical and acoustic comparisons of chick embryo fibroblasts fixed with methanol undated

Human chromosome spreads optical and acoustic, in liquid argon at 85 degrees Kelvin undated

Lymphoblastoid, LB-2, at various focal positions undated

Lymphoblastoid as invaded with EBV, (A) and (B) are different cells undated

Similar to previous figure undated

Various acoustic images of human lymphocyte as prepared for rosetting undated

(B) Chick embryo fibroblast with reflection optical imaging undated

(A) Chick embryo fibroblast with reflection acoustic imaging undated

The human red blood cell with reflected acoustic imaging from different focal positions undated

Human chromosomes, (A) optical and (B) acoustic images in liquid argon undated

Silicon surface coated with photoresist SEM and acoustic micrographs undated

SOS integrated circuit, X2000, optical and acoustic images undated

Device A, (A) (B) (C) and (D) undated

Device #8, (A) (B) (C) and (D) undated

Optical and acoustic images of a copper surface undated

Acoustic micrograph of a polished coal surface (1100 MHz) undated

Recording configuation in the transmission acoustic microscope undated

The amplitude distribution at the focal plane undated

Spatial frequency transfer function amplitude and phase for various cases undated

Computer amplitude and phase images of the ideal red blood cell undated

Long exposure oscilloscope photos, YAG, YIG, A1203 undated

MOS transistors, SOS technology (RCA), Aluminum lines, polygate (5 micron) undated

Comparison of optical and acoustic micrographs of surface of low alloy steel undated

Polished surface of polycrystalline silicon (A) optical (B) acoustic undated

A surface of ceramic alumina (A) optical, (B) and (C) acoustic undated

The appearance of silicon integrated circuit for various focal positions (A) optical (B) (C) and (D) acoustic undated

The cryogenic mechanical scanner undated

Silicon-on-sapphire integrated circuit, (A) and (B) acoustic, (C) optical undated

Red blood cells (A) and (B) X2000 undated

White blood cell (A) and (B) X1300 undated

Spatial frequency distribution, on transfer function, for microscope (A) and (B) undated

Calculated one-dimensional images of step function object, (A) (B) and (C) undated

Acoustic image with a steered beam undated

Acoustic image of a portion of the fetus undated

Acoustic image of a complete fetus undated

Illustration of increased depth of focus when lens moved from confocal position (Curve II) to large spacing (Curve III) undated

Acoustic image from scanning microscope, CJM on front face and NSF on back face, (A) through (E) Curve II, (F) Curve III undated

The photoacoustic set-up. Optical pulse train is from a mode-locked Q-switched laser undated

A comparison of the optical and photoacoustic image for aluminum foil 25 microns in thickness undated

A comparison of the optical and photoacoustic image of a pattern on a cover slip, bar width is 25 microns undated

A radially symmetric pure phase object and its phase and amplitude images, (A) (B) and (C) undated

Experimentally recorded phase and amplitude images of fixed human red blood cells at 1 GHz, (A) (B) and (C) undated

The results for two orientations in silicon (100) and (111) undated

V(z) GaAs, 1100 MHz, anisotropic (100) undated

Exposed photoresist 1.5 micron thick (Shipley AZ-1350-J) undated

Acoustic micrograph - aluminum (X1500) on glass - lower - 1 micron squares, 1 micron spacing undated

V(z) for Si at 1100 MHz undated

Coal sample from US Steel (medium rank) f=1100 MHz undated

Silicon transistors with 7 micron aluminum lines undated

Silicon transistors with 7 micron aluminum lines undated

Silicon transistors with 7 micron lines undated

Silicon transistors, 2 focal positions, Aluminum lines 7 micron wide undated

Silicon transistors with 7 micron Aluminum lines (A) and (B) differ in focal position undated

Dual gate FET on GaAs (H. P. Labs) 1 micron gates undated

Dual gate FET on GaAs (H. P. Labs) 1 micron gates undated

The configuration of the scanning acoustic microscope as used in the reflection mode undated

Comparison of optical (A) and acoustic (B) images of an integrated circuit. Aluminum line width is 7 microns undated

Comparison of optical (A) and acoustic (B) images of different region of same wafer undated

Comparison of optical (A) and acoustic (B) images of a dual gate GaAs FET undated

Acoustic images of CHO cells (living) undated

Acoustic images in reflection - fixed lymphocytes mounted on silicon, (A) and (B) undated

Acoustic image of human white blood cell (lymphocyte?), 2 different focal positions undated

Acoustic images of human white blood cells (A) (B) and (C), 3 different focal positions undated

Acoustic images in reflection (1100 MHz) living macrophage cells undated

Acoustic images in reflection (1800 MHz) living macrophage cells, (A) and (B) undated

Acoustic images in reflection (1800 MHz) living macrophage cells, (A) and (B) undated

(A) Optical image of a living macrophage (mouse) , (B) acoustic image living macrophage (human) undated

SOS circuit STDL-4 (A) October 1976 acoustic (B) December 1977 acoustic (C) optical 1976-1977

Optical interference contrast by Koch (X1120) SOS chip A - STDL-4 Rockwell CMOS undated

Optical brightfield by Koch (X1120) SOS chip B - STDL-4 Rockwell CMOS undated

Optical brightfield (X345) SOS chip B - STDL-4 Rockwell CMOS undated

SOS wafer - STDL-4 (A) optical brightfield, (B) acoustic 1800 MHz undated

Steel quenched after 10 minutes at 900 degrees celsius undated

Co-Ti alloy showing 4 phases undated

Acoustic images of CHO culture cells undated

Acoustic images of CHO culture cells undated

Average acoustic phase shift CHO cells (living) undated

CHO cells, S. N. Wickramasinghe undated

Helium-4 absorption (Abraham) undated

CMOS transistor profile STDL-4 circuit (Rockwell) undated

Correspondence, 1986-90

Correspondence, 1991 Jan.-June

Correspondence, 1991 July-Dec.

Correspondence, 1992 Jan.-March

Correspondence, 1992 May-July

Correspondence, 1992 Aug.-Sept.

Correspondence, 1992 Oct.-Dec.

Correspondence, 1993 Jan.-March

Correspondence, 1993 April-July

Correspondence, 1993 Oct.-Dec.

Correspondence, 1994 Jan.-June

Correspondence, 1994 Aug.-Nov.

Correspondence, 1995 Jan.-April

Correspondence, 1995 May-Sept.

Correspondence, 1995 Oct.-Dec.

Correspondence, 1996 Jan.-June

Correspondence, 1996 July-Sept.

Correspondence, 1996 Oct.-Dec.

Correspondence, 1997

Correspondence, 1998

Correspondence, 1999

Correspondence, 2000

Correspondence, 2001

Correspondence, 2002

Correspondence, 2003

Personal correspondence, 1990-2001

Biographical, miscellaneous

Medal of Science Award, press release, 1992

Notebook, 1983 April-

Notebook, 1983 July-

Ginzton Lab Notebook, issued to C. F. Quate, Dec.21, 1992

Quate, Traveling Wave Tubes as Low Noise Amplifiers, Ph. D. dissertation, Stanford University, 1949

Certificates, etc.

The Royal Society, membership certificate, 1995

IEEE Medal of Honor certificate, 1988

National Academy of Science, membership certificate, 1975

The Rank Prize for Opto-Electronics, 1982

Joseph F. Keithley Award from the American Physical Society, 2000