A conductive contact point pin includes a pin body, and a plurality of convex portions formed in a tip portion of the pin body, wherein the conductive contact point pin breaks, by pressing a substrate where a film to be broken is formed on a conductive film from above the film to be broken, the film to be broken in order to be electrically connected to the conductive film.

The present invention relates to a method, an apparatus and a computer program for analyzing and/or processing of a mask for lithography, in particular a mask for EUV lithography. A method for analyzing and/or processing of a mask for lithography, in particular a mask for EUV lithography, is described, which method comprises the following steps: 1a.) generating at least one particle beam vortex; and 1b.) using the particle beam vortex for analyzing and/or processing of the mask.

A digital pattern generator has a MEMS substrate with a plurality of doping layers and a plurality of insulating layers between respective doping layers. A plurality of lenslets are formed as holes through the substrate. A charge drain coating is applied to the inner surfaces of the lenslets. The charge drain coating drains electrons that come into contact with the charge drain coating so that the performance of the digital pattern generator will not be hindered by electron charge build-up. The charge drain coating includes a doping material that coalesces into clusters that are embedded within a high dielectric insulating material.

The present disclosure relates to a method for processing and/or examining a sample with a particle beam, comprising: providing the particle beam in a field of view of the particle beam for the purpose of processing and/or examining the sample; providing the particle beam in the field of view for the purpose of setting an electrostatic charge state of the sample. The present disclosure also relates to a corresponding computer program and a corresponding device.

A conductive contact point pin includes a pin body, and a plurality of convex portions formed in a tip portion of the pin body, wherein the conductive contact point pin breaks, by pressing a substrate where a film to be broken is formed on a conductive film from above the film to be broken, the film to be broken in order to be electrically connected to the conductive film.

A digital pattern generator has a MEMS substrate with a plurality of doping layers and a plurality of insulating layers between respective doping layers. A plurality of lenslets are formed as holes through the substrate. A charge drain coating is applied to the inner surfaces of the lenslets. The charge drain coating drains electrons that come into contact with the charge drain coating so that the performance of the digital pattern generator will not be hindered by electron charge build-up. The charge drain coating includes a doping material that coalesces into clusters that are embedded within a high dielectric insulating material.

The present invention pertains to methods, apparatuses and computer programs for processing an object for lithography. A method for processing an object for lithography comprises: (a) providing a first gas; (b) providing a second gas, the second gas including second molecules capable of performing an inversion oscillation; (c) providing a particle beam in a working region of the object for production of a deposition material in the working region based at least partly on the first gas and the second gas. The second gas is provided with a gas flow rate of less than 5 sccm, preferably less than 2 sccm, more preferably less than 0.5 sccm.