Chirped multilayer mirror

1. A method of producing a multilayer mirror comprising the steps of:

providing an optically polished carrier substrate;

applying a plurality of individual layers having different optical constants and different thicknesses to the carrier substrate,

the individual layers adjoining each other via parallel, plane surfaces;

wherein the carrier substrate is thick as compared to the individual layers;

fastening a wedge-shaped glass platelet to the outermost individual layer facing away from the carrier substrate by optical contact; and

polishing the glass-platelet to reduce the thickness thereof and to provide a wedge shape therefor.

2. A method according to claim 1 , wherein said glass platelet has a thickness such that a surface evenness of between μ/4 and μ/10 can be obtained thereon.

3. A method according to claim 1 , further including the step of applying a thermal treatment to improve the longtime stability of the mirror.

4. A dispersive multilayer mirror, said mirror having an optical axis corresponding to a direction of light beam impingement, said mirror comprising:

several individual layers applied to a carrier substrate and adjoining each other via parallel, plane surfaces which are oriented at right angles with respect to the optical axis,

said individual layers having different optical constants and different thicknesses; and

a wedge-shaped glass platelet on the outermost individual layer facing away from the carrier substrate,

an outer surface of said platelet being oriented such that light impinges thereon at an angle differing from a right angle,

wherein said wedge-shaped glass platelet is fastened by optical contacting to the outermost individual layer.

5. A multilayer mirror according to claim 4 , further including an anti-reflection coating applied on the wedge-shaped glass platelet.