Coating Fabry-Perot interferometer plates with broadband multilayer dielectric mirrors

R. P. Netterfield; R. C. Schaeffer; W. G. Sainty

doi:10.1364/AO.19.003010

Applied Optics
Vol. 19,
Issue 17,
pp. 3010-3017
(1980)
•https://doi.org/10.1364/AO.19.003010

Coating Fabry-Perot interferometer plates with broadband multilayer dielectric mirrors

R. P. Netterfield, R. C. Schaeffer, and W. G. Sainty

Not Accessible

Your library or personal account may give you access

Get PDF
Email
Share
Get Citation
Copy Citation Text
R. P. Netterfield, R. C. Schaeffer, and W. G. Sainty, "Coating Fabry-Perot interferometer plates with broadband multilayer dielectric mirrors," Appl. Opt. 19, 3010-3017 (1980)

Export Citation
- BibTex
- Endnote (RIS)
- HTML
- Plain Text
Citation alert
Save article

Abstract

A number of broadband multilayer dielectric coatings with reflectances of ~0.9 are described. Techniques used to produce highly uniform coatings for airspaced Fabry-Perot interferometers are given in detail, with emphasis on a method of optically monitoring the layer thicknesses. The method results in reasonable agreement over the whole spectrum between the design specifications and those of the finished coating as well as in good reproducibility.

Full Article | PDF Article

More Like This

Broadband dielectric mirror coatings for Fabry-Perot spectroscopy

J. T. Trauger
Appl. Opt. 15(12) 2998-3005 (1976)

Selection of Multilayer Dielectric Coatings for Fabry-Perot Interferometry

Sumner P. Davis
Appl. Opt. 2(7) 727-733 (1963)

Design of a multiple-zone aperture and application to a Fabry-Perot interferometer

S. Okano, J. S. Kim, and T. Ichikawa
Appl. Opt. 19(10) 1622-1629 (1980)

Previous Article Next Article

Cited By

You do not have subscription access to this journal. Cited by links are available to subscribers only. You may subscribe either as an Optica member, or as an authorized user of your institution.

Contact your librarian or system administrator
or
Login to access Optica Member Subscription

Figures (11)

You do not have subscription access to this journal. Figure files are available to subscribers only. You may subscribe either as an Optica member, or as an authorized user of your institution.

Contact your librarian or system administrator
or
Login to access Optica Member Subscription

Tables (3)

You do not have subscription access to this journal. Article tables are available to subscribers only. You may subscribe either as an Optica member, or as an authorized user of your institution.

Contact your librarian or system administrator
or
Login to access Optica Member Subscription

Equations (4)

You do not have subscription access to this journal. Equations are available to subscribers only. You may subscribe either as an Optica member, or as an authorized user of your institution.

Contact your librarian or system administrator
or
Login to access Optica Member Subscription

Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s(%)	T_s for		ϕ (multiples of π)
Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s(%)	0.98d	1.02d	ϕ (multiples of π)
1	ZnS	77.1	480	77.1	75.4	78.8	0.86
2	Cryolite	127.0	480	82.4	83.1	81.7	1.32
3	ZnS	67.2	480	72.7	70.3	75.2	0.74
4	Cryolite	110.6	480	76.5	77.2	75.8	1.36
5	ZnS	64.8	480	62.0	59.7	64.5	0.74
6	Cryolite	79.4	480	77.6	78.0	77.2	−0.26
7	ZnS	61.2	480	26.7	26.0	27.5	0.87
8	Cryolite	69.5	520	11.21	11.09	11.33	0.34
9	ZnS	51.8	580	2.71	2.81	2.62	1.23
10	Cryolite	48.7	480	10.54	10.44	10.63	0.58
11	ZnS	35.2	480	7.83	8.14	7.54	1.31

Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s(%)	T_s for		ϕ (multiples of π)
Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s(%)	0.98d	1.02d	ϕ (multiples of π)
1	ZnS	159.1	690	94.7	95.5	93.5	1.11
2	Cryolite	273.0	690	94.6	94.9	94.3	1.11
3	ZnS	132.7	690	94.0	92.9	94.8	0.88
4	Cryolite	176.7	690	95.5	95.8	95.2	1.19
5	ZnS	88.5	690	66.0	65.2	66.8	0.91
6	Cryolite	165.2	690	79.8	80.6	79.0	−0.46
7	ZnS	108.6	690	58.4	55.6	61.3	0.68
8	Cryolite	169.7	690	56.2	56.9	55.6	1.25
9	ZnS	90.5	690	67.5	65.0	70.1	0.66

Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s (%)	T_s for		ϕ (multiples of π)
Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s (%)	0.98d	1.02d	ϕ (multiples of π)
1	ZnS	105.8	550	91.6	90.0	93.0	0.84
2	Cryolite	156.0	550	91.5	91.8	91.2	1.14
3	ZnS	84.0	550	82.9	81.4	84.3	0.85
4	Cryolite	143.0	550	87.3	88.0	86.7	1.30
5	ZnS	75.0	550	69.4	67.6	71.3	0.80
6	Cryolite	143.0	550	72.8	73.6	72.1	1.30
7	ZnS	63.6	550	55.0	53.7	56.4	0.83
8	Cryolite	119.0	550	68.2	68.9	67.4	−0.44
9	ZnS	62.7	550	26.0	25.6	26.6	0.91
10	Cryolite	106.0	550	40.7	40.9	40.4	−0.16
11	ZnS	45.4	600	3.88	3.96	3.81	1.15
12	Cryolite	92.0	600	5.11	5.03	5.18	0.51
13	ZnS	41.0	600	3.54	3.67	3.42	1.35

Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s(%)	T_s for		ϕ (multiples of π)
Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s(%)	0.98d	1.02d	ϕ (multiples of π)
1	ZnS	77.1	480	77.1	75.4	78.8	0.86
2	Cryolite	127.0	480	82.4	83.1	81.7	1.32
3	ZnS	67.2	480	72.7	70.3	75.2	0.74
4	Cryolite	110.6	480	76.5	77.2	75.8	1.36
5	ZnS	64.8	480	62.0	59.7	64.5	0.74
6	Cryolite	79.4	480	77.6	78.0	77.2	−0.26
7	ZnS	61.2	480	26.7	26.0	27.5	0.87
8	Cryolite	69.5	520	11.21	11.09	11.33	0.34
9	ZnS	51.8	580	2.71	2.81	2.62	1.23
10	Cryolite	48.7	480	10.54	10.44	10.63	0.58
11	ZnS	35.2	480	7.83	8.14	7.54	1.31

Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s(%)	T_s for		ϕ (multiples of π)
Layer	Material	Thickness d (nm)	Monitoring wavelength (nm)	Terminating T_s(%)	0.98d	1.02d	ϕ (multiples of π)
1	ZnS	159.1	690	94.7	95.5	93.5	1.11
2	Cryolite	273.0	690	94.6	94.9	94.3	1.11
3	ZnS	132.7	690	94.0	92.9	94.8	0.88
4	Cryolite	176.7	690	95.5	95.8	95.2	1.19
5	ZnS	88.5	690	66.0	65.2	66.8	0.91
6	Cryolite	165.2	690	79.8	80.6	79.0	−0.46
7	ZnS	108.6	690	58.4	55.6	61.3	0.68
8	Cryolite	169.7	690	56.2	56.9	55.6	1.25
9	ZnS	90.5	690	67.5	65.0	70.1	0.66

Abstract

Cited By

Figures (11)

Tables (3)

Equations (4)

Applied Optics