Applied nonlinear optics:
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| Main Authors: | , |
|---|---|
| Format: | Book |
| Language: | English |
| Published: |
Mineola, NY
Dover
2006
|
| Edition: | unabridged republ. of the work originally publ. by John Wiley and Sons, New York, in 1973 |
| Subjects: | |
| Online Access: | Publisher description Inhaltsverzeichnis |
| Physical Description: | IX, 197 S. Ill., graph. Darst. |
| ISBN: | 9780486453606 |
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| 100 | 1 | |a Zernike, Frits |e Verfasser |4 aut | |
| 245 | 1 | 0 | |a Applied nonlinear optics |c Frits Zernike and John E. Midwinter |
| 250 | |a unabridged republ. of the work originally publ. by John Wiley and Sons, New York, in 1973 | ||
| 264 | 1 | |a Mineola, NY |b Dover |c 2006 | |
| 300 | |a IX, 197 S. |b Ill., graph. Darst. | ||
| 336 | |b txt |2 rdacontent | ||
| 337 | |b n |2 rdamedia | ||
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| 700 | 1 | |a Midwinter, John E. |e Verfasser |4 aut | |
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| adam_text | Contents
Chapter
1
Linear Optics: Wave Propagation
in Anisotropie Materials 1
1.1
Lorentz Model
—
harmonic
oscillator model
of the refractive
index;
dispersion and absorption
1
1.2
AnisQtropy
—
tensor form of the dielectric constant; rotation
to the principal dielectric axes
6
1.3
Wave Propagation in an
Anisotropie
Crystal
—
the two
allowed polarizations
8
1.4
The Index Ellipsoid
—
method to find the polarization di¬
rections;
uniaxial
and biaxial crystals; the extraordinary
index at an angle
θ
to the optic axis
10
1.5
Refraction at the Surface of an
Anisotropie
Crystal
—
the
к
vector construction
13
1.6
Applications of Birefringence
—
compensation of the dis¬
persion of a material; quarter-wave plates and half-wave
plates
15
1.7
Orientation of the Crystal
16
1.8
Biaxial Crystals
—
the two-sheeted
к
vector surface; the
polarization on these surfaces
17
1.9
Optical Activity
20
1.10
Induced Anisotropy
21
1.11
Electrooptic Effect
—
the contracted notation for the
18
independent elements; electrooptic modulation; the half-
wave voltage
21
Chapter
2
Nonlinear Optics
25
2.1
Introduction
—
the nonlinearity of the polarization and the
generation of sidebands
25
2.2
Nonlinearities of the Polarization
—
generation of second-
harmonic, dc, sum and difference frequencies
26
2.3
The
Anharmoniç
Oscillator
29
2.4
Definition of the Electric Field
—
the definition of the electric
field with many frequency components
;
definition of positive
and negative frequencies
29
2.5
The Nonlinear Polarization
—
solution of the anharmonic
oscillator equation; expression for the first- and second-
order polarization
30
2.6
Extension to Three Dimensions in Three Mutually Interacting
Fields
—
permutation of the frequencies and the indices
32
2.7
Miller s Rule
—
relation between the second-order suscepti¬
bility and the linear susceptibilities
33
2.8
The Coefficients Used Experimentally
—
relation between
d
and
χ.
34
2.9
Contraction of the Indices
—
definition of a column vector F,
contraction of the indices; an example
34
2.10
Crystal Symmetry
—
derivation of the matrix elements of a
representative class; Kleinman s symmetry condition; the
nonlinear susceptibility matrix and the piezoelectric matrix
35
2.11
Definition of rfetf 37
2.12
An Example*;,.
39
2.13
The Coupled Amplitude Equations
—
derivation of the three
coupled amplitude equations that govern a general three-
frequency interaction; expressions for output power in the
small-signal approximation
41
2.14
The Manley-Rowe Relations
—
gain in difference frequency
generation; the parametric oscillator
44
2.15
Second-Harmonic Generation
—
the output power per unit
area for the small-signal approximation; exact solution of
the coupled amplitude equations in the phase-matched case
46
2.16
Output Angle
48
2.17
The Electrooptic Coefficient
—
relation between the classical
electrooptical coefficient and the nonlinear optical co¬
efficient
51
2.18
Nonlinear Interactions in Reflection
52
2.19
Dimensions
—
relation between
MKS
units and c.g.s. units
52
Chapter
3
Phase Matching
54
3.1
Introduction
—
the importance of phase matching to non¬
linear interactions
54
3.2
Power Flow in the Non-Phase-Matched Case
—
coupling of
the power back and forth between input and harmonics
54
3.3
Quasi-Phase-Matching Methods
—
methods to adjust the
phase difference periodically
58
3.4
Angle Phase Matching
—
phase-matching using the bire¬
fringence of a crystal. Type I and Type II phase matching
—
diagrams showing possible interactions for a given phase-
matching angle
59
3.5
The Expression for dett for the Different Crystal Classes
—
equations and tables giving the polarization of the output
as a function of the polarizations and the direction of
transmission of the input
61
3.6
Disadvantages of Angle Phase Matching
—
the effects of
walk-off between the extraordinary and the ordinary rays;
divergence of a focused beam
67
3.7
Temperature-Dependent Phase Matching
—
noncritical phase
matching in the x-y plane by temperature tuning of the
indices
68
3.8
Phase Matching in Biaxial Crystals
69
3.9
Other Phase-Matching Methods
—
phase matching in optically
active media; phase matching using Faraday rotation;
interactions between noncollinear beams
70
3.10
Competing Interactions
—
simultaneous phase matching be¬
tween several interactions; absorbtion of the pump
radiation
71
Chapter
4
Nonlinear Materials
73-
4.1
Historical Introduction
—
brief history of the development of
nonlinear materials, their use, measurement, and character¬
ization
73
4.2
Quality Assessment of Nonlinear Materials
—
linear and non¬
linear SHG characteristics; effective crystal length
77
4.3
The Accurate Measurement of Optical Nonlinearity
—
absolute measurements; Maker fringe technique; sign of
nonlinearity; pulsed-laser techniques
81
4.4
Kurtz Powder Assessment of Nonlinear Materials
84
4.5
Lithium
Niobáte
—
general properties
;
growth
;
poling
;
assess¬
ment; refractive indices; effects of composition; damage
problems; hot LiNbO3
86
4.6
Barium Sodium
Niobáte
—
general properties; growth; poling;
detwinning; refractive indices
92
4.7
ADP and KDP—General properties
;
refractive indices
94
4.8 Lithium
Iodate
—
general
properties; refractive indices
98
4.9
Proustite
—
general properties; refractive indices
99
Chapter
5
Second-Harmonic Generation
102
5.1
Introduction
102
5.2
Plane Wave Interactions
—
low-conversion efficiency solutions
;
high conversion
102
5.3
Finite Beam Size
—
small beam area: limitations of focusing;
optimum focusing for TEM00 mode; phase-matching
limitations for multimode beams; effects of source linewidth
105
5.4
Effects of Mode Structure on SHG—SHG from randomly
phased modes
108
5.5
SHG from Mode-Locked Lasers
111
5.6
Intracavity SHG
—
Three- and four-level laser rate equations
with SHG
;
optimum coupling
112
5.7
Picosecond Time Domain Measurements by SHG
120
Chapter
6
Parametric Up-Conversion
6.1
Introduction
—
sum frequency generation; limitation to up-
conversion; introductory theory; infrared detection;
single- and multiple-mode approaches
6.2
General Points
—
Manley-Rowe relations; quantum-conver¬
sion efficiency for multimode converter
6.3
Focused Beams
—
Small area A; single-mode operations;
optimum focusing
6.4
Effects of Phase Matching
Tuning
—
tunable infrared frequency; tuning ranges
Frequency Bandwidth
—
narrow- and broad-band operation
Solid Acceptance Angle for Infrared Radiation
—
critical,
noncritical, and noncollinear phase matching
6.5
Comparison of the Single-Mode and Multimode Up-Con-
verters
—
blackbody
modes and number of quanta per
mode; relative sensitivity of multimode and single-mode
up-converters in various situations; optimization
6.6
Noise Properties
—
comparison of up-converter and photocon-
ductive detectors; characteristics of the up-converter as
infrared detector; parametrically generated noise in the up-
converter
6.7
Parametric
Image Converters
Principles
—
simple theory of image transfer
146
Mode Analysis
—
use of analysis of Section
6.5
for evaluation
of image converter; sensitivity to
blackbody
sources
149
6.8
Experimental Status of Up-Conversion
152
Chapter
7
Optical Parametric Amplification and Oscillation
7.1
Introduction
—
the Manley-Rowe relations; gain in difference
frequency generation; comparison with microwave para¬
metric oscillators
7.2
Amplifier and Oscillator Gain Coefficients
—
solution of the
coupled equations; gain coefficient for the amplifier and for
the oscillator
7.3
Effects of Phase Mismatch
7.4
Parametric Oscillation
—
the first oscillator of Giordmaine and
Miller; the continuous-wave oscillator of Smith
7.5
Mode Hopping and the Cluster Effect
—
frequency and ampli¬
tude instabilities of the doubly resonant oscillator
7.6
Power Limiting and Gain Saturation
—
Siegman s power
limiter;
saturation of the gain; coupling between the os¬
cillator and the pump; the ring resonant oscillator
7.7
More Stable Configurations
—
servo control of the doubly
resonant oscillator; the backward wave oscillator; the
singly resonant parametric oscillator
7.8
Noise in the Optical Parametric Amplifier
7.9
Requirements for the Laser Pump—the
multimoďe pump
of
Harris; pump requirements for the singly resonant oscil¬
lator
Appendix
1
Tensors
Appendix
2
Nonlinear Optical Susceptibilities
References
Index
|
| adam_txt |
Contents
Chapter
1
Linear Optics: Wave Propagation
in Anisotropie Materials 1
1.1
Lorentz Model
—
harmonic
oscillator model
of the refractive
index;
dispersion and absorption
1
1.2
AnisQtropy
—
tensor form of the dielectric constant; rotation
to the principal dielectric axes
6
1.3
Wave Propagation in an
Anisotropie
Crystal
—
the two
allowed polarizations
8
1.4
The Index Ellipsoid
—
method to find the polarization di¬
rections;
uniaxial
and biaxial crystals; the extraordinary
index at an angle
θ
to the optic axis
10
1.5
Refraction at the Surface of an
Anisotropie
Crystal
—
the
к
vector construction
13
1.6
Applications of Birefringence
—
compensation of the dis¬
persion of a material; quarter-wave plates and half-wave
plates
15
1.7
Orientation of the Crystal
16
1.8
Biaxial Crystals
—
the two-sheeted
к
vector surface; the
polarization on these surfaces
17
1.9
Optical Activity
20
1.10
Induced Anisotropy
21
1.11
Electrooptic Effect
—
the contracted notation for the
18
independent elements; electrooptic modulation; the half-
wave voltage
21
Chapter
2
Nonlinear Optics
25
2.1
Introduction
—
the nonlinearity of the polarization and the
generation of sidebands
25
2.2
Nonlinearities of the Polarization
—
generation of second-
harmonic, dc, sum and difference frequencies
26
2.3
The
Anharmoniç
Oscillator
29
2.4
Definition of the Electric Field
—
the definition of the electric
field with many frequency components
;
definition of positive
and negative frequencies
29
2.5
The Nonlinear Polarization
—
solution of the anharmonic
oscillator equation; expression for the first- and second-
order polarization
30
2.6
Extension to Three Dimensions in Three Mutually Interacting
Fields
—
permutation of the frequencies and the indices
32
2.7
Miller's Rule
—
relation between the second-order suscepti¬
bility and the linear susceptibilities
33
2.8
The Coefficients Used Experimentally
—
relation between
d
and
χ.
' 34
2.9
Contraction of the Indices
—
definition of a column vector F,
contraction of the indices; an example
34
2.10
Crystal Symmetry
—
derivation of the matrix elements of a
representative class; Kleinman's symmetry condition; the
nonlinear susceptibility matrix and the piezoelectric matrix
35
2.11
Definition of rfetf 37
2.12
An Example*;,.
39
2.13
The Coupled Amplitude Equations
—
derivation of the three
coupled amplitude equations that govern a general three-
frequency interaction; expressions for output power in the
small-signal approximation
41
2.14
The Manley-Rowe Relations
—
gain in difference frequency
generation; the parametric oscillator
44
2.15
Second-Harmonic Generation
—
the output power per unit
area for the small-signal approximation; exact solution of
the coupled amplitude equations in the phase-matched case
46
2.16
Output Angle
48
2.17
The Electrooptic Coefficient
—
relation between the classical
electrooptical coefficient and the nonlinear optical co¬
efficient
51
2.18
Nonlinear Interactions in Reflection
52
2.19
Dimensions
—
relation between
MKS
units and c.g.s. units
52
Chapter
3
Phase Matching
54
3.1
Introduction
—
the importance of phase matching to non¬
linear interactions
54
3.2
Power Flow in the Non-Phase-Matched Case
—
coupling of
the power back and forth between input and harmonics
54
3.3
Quasi-Phase-Matching Methods
—
methods to adjust the
phase difference periodically
58
3.4
Angle Phase Matching
—
phase-matching using the bire¬
fringence of a crystal. Type I and Type II phase matching
—
diagrams showing possible interactions for a given phase-
matching angle
59
3.5
The Expression for dett for the Different Crystal Classes
—
equations and tables giving the polarization of the output
as a function of the polarizations and the direction of
transmission of the input
61
3.6
Disadvantages of Angle Phase Matching
—
the effects of
walk-off between the extraordinary and the ordinary rays;
divergence of a focused beam
67
3.7
Temperature-Dependent Phase Matching
—
noncritical phase
matching in the x-y plane by temperature tuning of the
indices
68
3.8
Phase Matching in Biaxial Crystals
69
3.9
Other Phase-Matching Methods
—
phase matching in optically
active media; phase matching using Faraday rotation;
interactions between noncollinear beams
70
3.10
Competing Interactions
—
simultaneous phase matching be¬
tween several interactions; absorbtion of the pump
radiation
71
Chapter
4
Nonlinear Materials
73-
4.1
Historical Introduction
—
brief history of the development of
nonlinear materials, their use, measurement, and character¬
ization
73
4.2
Quality Assessment of Nonlinear Materials
—
linear and non¬
linear SHG characteristics; effective crystal length
77
4.3
The Accurate Measurement of Optical Nonlinearity
—
absolute measurements; Maker fringe technique; sign of
nonlinearity; pulsed-laser techniques
81
4.4
Kurtz Powder Assessment of Nonlinear Materials
84
4.5
Lithium
Niobáte
—
general properties
;
growth
;
poling
;
assess¬
ment; refractive indices; effects of composition; damage
problems; "hot" LiNbO3
86
4.6
Barium Sodium
Niobáte
—
general properties; growth; poling;
detwinning; refractive indices
92
4.7
ADP and KDP—General properties
;
refractive indices
94
4.8 Lithium
Iodate
—
general
properties; refractive indices
98
4.9
Proustite
—
general properties; refractive indices
99
Chapter
5
Second-Harmonic Generation
102
5.1
Introduction
102
5.2
Plane Wave Interactions
—
low-conversion efficiency solutions
;
high conversion
102
5.3
Finite Beam Size
—
small beam area: limitations of focusing;
optimum focusing for TEM00 mode; phase-matching
limitations for multimode beams; effects of source linewidth
105
5.4
Effects of Mode Structure on SHG—SHG from randomly
phased modes
108
5.5
SHG from Mode-Locked Lasers
111
5.6
Intracavity SHG
—
Three- and four-level laser rate equations
with SHG
;
optimum coupling
112
5.7
Picosecond Time Domain Measurements by SHG
120
Chapter
6
Parametric Up-Conversion
6.1
Introduction
—
sum frequency generation; limitation to up-
conversion; introductory theory; infrared detection;
single- and multiple-mode approaches
6.2
General Points
—
Manley-Rowe relations; quantum-conver¬
sion efficiency for multimode converter
6.3
Focused Beams
—
Small area A; single-mode operations;
optimum focusing
6.4
Effects of Phase Matching
Tuning
—
tunable infrared frequency; tuning ranges
Frequency Bandwidth
—
narrow- and broad-band operation
Solid Acceptance Angle for Infrared Radiation
—
critical,
noncritical, and noncollinear phase matching
6.5
Comparison of the Single-Mode and Multimode Up-Con-
verters
—
blackbody
modes and number of quanta per
mode; relative sensitivity of multimode and single-mode
up-converters in various situations; optimization
6.6
Noise Properties
—
comparison of up-converter and photocon-
ductive detectors; characteristics of the up-converter as
infrared detector; parametrically generated noise in the up-
converter
6.7
Parametric
Image Converters
Principles
—
simple theory of image transfer
146
Mode Analysis
—
use of analysis of Section
6.5
for evaluation
of image converter; sensitivity to
blackbody
sources
149
6.8
Experimental Status of Up-Conversion
152
Chapter
7
Optical Parametric Amplification and Oscillation
7.1
Introduction
—
the Manley-Rowe relations; gain in difference
frequency generation; comparison with microwave para¬
metric oscillators
7.2
Amplifier and Oscillator Gain Coefficients
—
solution of the
coupled equations; gain coefficient for the amplifier and for
the oscillator
7.3
Effects of Phase Mismatch
7.4
Parametric Oscillation
—
the first oscillator of Giordmaine and
Miller; the continuous-wave oscillator of Smith
7.5
Mode Hopping and the Cluster Effect
—
frequency and ampli¬
tude instabilities of the doubly resonant oscillator
7.6
Power Limiting and Gain Saturation
—
Siegman's power
limiter;
saturation of the gain; coupling between the os¬
cillator and the pump; the ring resonant oscillator
7.7
More Stable Configurations
—
servo control of the doubly
resonant oscillator; the backward wave oscillator; the
singly resonant parametric oscillator
7.8
Noise in the Optical Parametric Amplifier
7.9
Requirements for the Laser Pump—the
multimoďe pump
of
Harris; pump requirements for the singly resonant oscil¬
lator
Appendix
1
Tensors
Appendix
2
Nonlinear Optical Susceptibilities
References
Index |
| any_adam_object | 1 |
| any_adam_object_boolean | 1 |
| author | Zernike, Frits Midwinter, John E. |
| author_facet | Zernike, Frits Midwinter, John E. |
| author_role | aut aut |
| author_sort | Zernike, Frits |
| author_variant | f z fz j e m je jem |
| building | Verbundindex |
| bvnumber | BV022576953 |
| callnumber-first | Q - Science |
| callnumber-label | QC446 |
| callnumber-raw | QC446.2 |
| callnumber-search | QC446.2 |
| callnumber-sort | QC 3446.2 |
| callnumber-subject | QC - Physics |
| classification_rvk | UH 5690 |
| classification_tum | PHY 380f |
| ctrlnum | (OCoLC)76809317 (DE-599)DNB 2007271554 |
| dewey-full | 535 621.36/94 |
| dewey-hundreds | 500 - Natural sciences and mathematics 600 - Technology (Applied sciences) |
| dewey-ones | 535 - Light and related radiation 621 - Applied physics |
| dewey-raw | 535 621.36/94 |
| dewey-search | 535 621.36/94 |
| dewey-sort | 3535 |
| dewey-tens | 530 - Physics 620 - Engineering and allied operations |
| discipline | Physik Elektrotechnik / Elektronik / Nachrichtentechnik |
| discipline_str_mv | Physik Elektrotechnik / Elektronik / Nachrichtentechnik |
| edition | unabridged republ. of the work originally publ. by John Wiley and Sons, New York, in 1973 |
| format | Book |
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| id | DE-604.BV022576953 |
| illustrated | Illustrated |
| index_date | 2024-07-02T18:15:21Z |
| indexdate | 2024-07-09T21:00:46Z |
| institution | BVB |
| isbn | 9780486453606 |
| language | English |
| lccn | 2007271554 |
| oai_aleph_id | oai:aleph.bib-bvb.de:BVB01-015783198 |
| oclc_num | 76809317 |
| open_access_boolean | |
| owner | DE-703 DE-91G DE-BY-TUM DE-739 |
| owner_facet | DE-703 DE-91G DE-BY-TUM DE-739 |
| physical | IX, 197 S. Ill., graph. Darst. |
| publishDate | 2006 |
| publishDateSearch | 2006 |
| publishDateSort | 2006 |
| publisher | Dover |
| record_format | marc |
| spelling | Zernike, Frits Verfasser aut Applied nonlinear optics Frits Zernike and John E. Midwinter unabridged republ. of the work originally publ. by John Wiley and Sons, New York, in 1973 Mineola, NY Dover 2006 IX, 197 S. Ill., graph. Darst. txt rdacontent n rdamedia nc rdacarrier Nonlinear optics Nichtlineare Optik (DE-588)4042096-6 gnd rswk-swf Nichtlineare Optik (DE-588)4042096-6 s DE-604 Midwinter, John E. Verfasser aut http://www.loc.gov/catdir/enhancements/fy0709/2007271554-d.html Publisher description Digitalisierung UB Passau application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=015783198&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis |
| spellingShingle | Zernike, Frits Midwinter, John E. Applied nonlinear optics Nonlinear optics Nichtlineare Optik (DE-588)4042096-6 gnd |
| subject_GND | (DE-588)4042096-6 |
| title | Applied nonlinear optics |
| title_auth | Applied nonlinear optics |
| title_exact_search | Applied nonlinear optics |
| title_exact_search_txtP | Applied nonlinear optics |
| title_full | Applied nonlinear optics Frits Zernike and John E. Midwinter |
| title_fullStr | Applied nonlinear optics Frits Zernike and John E. Midwinter |
| title_full_unstemmed | Applied nonlinear optics Frits Zernike and John E. Midwinter |
| title_short | Applied nonlinear optics |
| title_sort | applied nonlinear optics |
| topic | Nonlinear optics Nichtlineare Optik (DE-588)4042096-6 gnd |
| topic_facet | Nonlinear optics Nichtlineare Optik |
| url | http://www.loc.gov/catdir/enhancements/fy0709/2007271554-d.html http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=015783198&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
| work_keys_str_mv | AT zernikefrits appliednonlinearoptics AT midwinterjohne appliednonlinearoptics |