Generation-X telescope: Measurement of On-Orbit Adjustment Data Dan Schwartz, R. J. Brissenden, M. Elvis, G. Fabbiano, T. Gaetz, D. Jerius, M. Juda, P.

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Generation-X telescope: Measurement of On-Orbit Adjustment Data Dan Schwartz, R. J. Brissenden, M. Elvis, G. Fabbiano, T. Gaetz, D. Jerius, M. Juda, P. B. Reid, S. J. Wolk, (Harvard-Smithsonian Center for Astrophysics), S. L. O’Dell, J. K. Kolodziejczak (NASA/MSFC), W. W. Zhang (NASA/GSFC), for the Gen-X Team 5 December 2008

Generation-X Science Objectives Detection of first black holes at z~10-20 Evolution of Black Holes, Galaxies, Elements, from formation to the present Behavior of matter in extreme environments of Density, Gravity, Magnetic fields, Kinetic Energy.

Key Mission Requirements: Large Area, ~50 m 2 at 1 keV Fine angular resolution, 0."1

A Gen-X Mirror Configuration 204 shells, 0.2 – 0.4 mm thick glass 16m outer diameter, (partially filled) 8.3m completely filled, 3.5m inner diameter 60m focal length 1m Shell length (each, P or S) 5' radius FOV 10mm shell clearance

Gen-X enabled by Ares V

Adjust figure via strain parallel to reflecting surface.

Actuator Configuration Concept: continuous Piezo deposition, electrically divided  Correct < /mm =40mm period  Oversample: 20mm actuators axially, 50 per plate  Circumference tolerance ~10x worse, 200 mm actuators, 5 axial strips per plate. Oversample measurements: 100 per axial strip.

Ring Images (Chandra at MSFC cal facility)

Profile across ring diagnosis axial quality

Raytrace Study Objectives: 1.Detector requirements 1.Placement 2.Resolution 2.Can we detect deviations from ideal figure? 3.Are the measurements practical?

Raytrace Study Shells 1, 2, 203, 204 Uniform incident rays, perfect reflection Perfect Wolter I Geometry Perfect kinematic mounting, alignment Trace single axial strip Perturb surface figure by low order Legendre Polynomials Introduce "toy" actuators

Measure ~50,000 axial positions (1cm 2 ), ~1000 at once. 500s exposure to Sco X-1 at s -1 gives 10 4 counts per azimuth per ring. Iterate 10 times at 50% duty cycle, factor 10 margin, 120day initial adjustment Resolve 100 bins with detector resolution 10µ. Require 8.17m forward of focus.

Spacing of the figure detector to resolve 40 shells into 100 bins

Tilt of P to H by 1µ displaces ring by ~200 µ

Ring profile for ∑P n distortions proportional to /n mm. Image size in focal plane is 0."21 rms and 0."11 half-power Ring Profile can Detect Figure Errors!

Legendre Perturbations, 10,000/n Å

Poorer quality figure spreads the ring further 19" rms 10" rms 4.8" rms 2.2" rms

Requirements on Figuring Detector X-ray range ~0.2 – 4 keV Count 2x10 4 s -1 per field Resolve events to 10µm 2-4 units, 100mm x 100mm field each Position ~1 to 10 m forward of focus –accuracy ~1cm axial, 1mm radial Radial positioning knowledge better than 10 µ

Issues to Investigate: What is the required initial quality? –Use optical Hartmann test? Algorithm Concepts : –Measure Derivatives –Simulated annealing – “forward-fit" a distorted raytrace model shell to the ring profile measurement Handling the P/H Degeneracy? –Use =983.17mm? –Fix Hyperboloid and adjust Paraboloid?

Conclusions (so far) Ring Profile, Position and Spread are extremely sensitive to figure quality On-orbit Measurements are feasible Actuator design is critical for –Sufficient correction amplitude –Avoiding transfer of low spatial frequency figure errors to higher frequencies