Overview of XMM-Newton XMM-Newton carries three, co-aligned, densely-nested, grazing incidence telescopes, collectively providing unparalleled effective.

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Presentation transcript:

Overview of XMM-Newton XMM-Newton carries three, co-aligned, densely-nested, grazing incidence telescopes, collectively providing unparalleled effective area for imaging and spectroscopic observations of cosmic sources. Launch is was launched on 10 December There are three scientific experiments: –The European Photon Imaging Camera –The Reflection Grating Spectrometer –The Optical Monitor

Overview of the RGS Experiment The XMM-Newton RGS Consortium * RGS incorporates an array of reflection gratings (RGA), which “picks off” ~ 40% of the light exiting the telescope and disperses it to a dedicated focal plane camera (RFC), consisting of 9 rectangular, back-illuminated CCDs arranged in a strip. * There are two identical such units, RGS1 and RGS2, mounted behind the MM2 and MM3 telescopes, respectively. The remaining light from each of these two telescopes passes, undeflected through the RGAs to the EPIC-MOS cameras. * RGS provides high sensitivity, high resolution, X-ray spectroscopy in the wavelength range Angstroms, or E = keV. This is a line-rich region of the spectrum, which contains the prominent K-shell transitions of low-Z abundant elements (C, N, O, Ne, Si) and the diagnostically-important L-shell transitions of Fe. * The RGS operates simultaneously with EPIC. RGS spectra of sources in the field of view are obtained for every XMM observation.

Layout of the RGS on the XMM-Newton Spacecraft The XMM-Newton RGS Consortium

The Optical Design of RGS The XMM-Newton RGS Consortium * The RGS uses an “inverted Rowland circle” design. The gratings are mounted on a circle, which also includes the telescope focus and the RFC CCD strip. * The gratings are all identical, and they are mounted at the same graze angle with respect to the incident ray passing through grating center. * This configuration produces nearly stigmatic and aberration-free focussing at all wavelengths in the spectrum. * The line spacing on the individual gratings is varied to correct for aberrations due to the converging bream.

The RGS Reflection Grating Array The XMM-Newton RGS Consortium

RGS Observation of Capella The XMM-Newton RGS Consortium

RGS Observation of Capella - Fe L Complexes The XMM-Newton RGS Consortium

1E The XMM-Newton RGS Consortium

1E The XMM-Newton RGS Consortium