A Hartmann Test Reduction Program

D. H. Schulte

doi:10.1364/AO.7.000119

Applied Optics
Vol. 7,
Issue 1,
pp. 119-123
(1968)
•https://doi.org/10.1364/AO.7.000119

A Hartmann Test Reduction Program

D. H. Schulte

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D. H. Schulte, "A Hartmann Test Reduction Program," Appl. Opt. 7, 119-123 (1968)

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Abstract

A generalized Fortran program for the reduction of Hartmann test data has been written. A brief review of the mathematical technique is given, along with a discussion of the measuring methods and the results of some tests of the accuracy of the program.

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Focus	Primary mirror (μrad)		Secondary mirror (μrad)		V(rad)	U(μrad)	Defocus (mm)		Remarks

	α	β	α	β			Nominal	Least squares
Inside	60	80	0	0	56	75	46.90	46.90	Tilted primary only
Outside	60	80	0	0	57	76	−53.10	−53.11
Inside	−180	90	0	0	−167	84	46.90	46.89	Tilted primary only
Outside	−180	90	0	0	−171	85	−53.10	−53.11
Inside	70	40	100	80	40	57	46.90	46.90	Primary and secondary
Outside	70	40	100	80	41	58	−53.10	−53.10	tilted in skew directions

Focus	Primary mirror (μrad)	Primary mirror (μrad)	V(μrad)	U(μrad)	Defocus (mm)		Remarks

	α	β			Nominal	Least squares
Inside	60	80	48	76	46.90	46.92	Two high spots
Outside	60	80	49	77	−53.10	−53.09	(see Fig. 5)
Inside	60	80	50	80	46.90	46.91	One high, one low spot
Outside	60	80	51	81	−53.10	−53.10	(see Fig. 6)
Inside	60	80	51	84	46.90	46.90	One high, two low spots
Outside	60	80	52	85	−53.10	−53.11	(see Fig. 7)

Focus	Primary mirror (μrad)		Secondary mirror (μrad)		V(rad)	U(μrad)	Defocus (mm)		Remarks

	α	β	α	β			Nominal	Least squares
Inside	60	80	0	0	56	75	46.90	46.90	Tilted primary only
Outside	60	80	0	0	57	76	−53.10	−53.11
Inside	−180	90	0	0	−167	84	46.90	46.89	Tilted primary only
Outside	−180	90	0	0	−171	85	−53.10	−53.11
Inside	70	40	100	80	40	57	46.90	46.90	Primary and secondary
Outside	70	40	100	80	41	58	−53.10	−53.10	tilted in skew directions

Focus	Primary mirror (μrad)	Primary mirror (μrad)	V(μrad)	U(μrad)	Defocus (mm)		Remarks

	α	β			Nominal	Least squares
Inside	60	80	48	76	46.90	46.92	Two high spots
Outside	60	80	49	77	−53.10	−53.09	(see Fig. 5)
Inside	60	80	50	80	46.90	46.91	One high, one low spot
Outside	60	80	51	81	−53.10	−53.10	(see Fig. 6)
Inside	60	80	51	84	46.90	46.90	One high, two low spots
Outside	60	80	52	85	−53.10	−53.11	(see Fig. 7)

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Applied Optics