Abstract: A method for forming a polysilicon thin film semiconductor device precursor, and the precursor, are disclosed, wherein the deposited thin film layer is scanned with a continuous wave laser in a first direction, and scanned a second time in a direction different from that of the first direction. The cross-scanning reduces the anisotropy of the thin film produced by the first scanning and apparently induces larger grain size in the recrystallized polysilicon.

Abstract: An interconnect structure for use in integrated circuits comprises a germanium-silicon binary alloy. Such an alloy is deposited on the semiconductor wafer from the co-deposition of germanium and silicon using chemical vapor deposition techniques of a type commonly used in the semiconductor industry. The resulting alloy can be oxidized, selectively removed and doped with selected impurities to provide a conductive lead pattern of a desired shape on the surface of a wafer.

Abstract: A polycrystalline silicon film is implanted with an impurity in large amounts and is heated to be annealed, whereupon it is irradiated with a laser beam to be annealed.Thus, a polycrystalline silicon film of very low resistivity consisting of a second layer whose activated impurity concentration is equal to or below a solid solubility and a first layer whose activated impurity concentration is above the solid solubility is formed.

Abstract: A composite semiconductor/glass material comprising at least one semiconductor layer permanently connected to a plate shaped glass substrate, the doping of the semiconductor layer rising from a minimum at its surface away from the glass substrate to a maximum adjacent the glass substrate.

Abstract: Thin layers of polycrystalline n-type GaAs have been deposited on a conducting substrate such as graphite. These contacted GaAs layers exhibit desirable properties for device applications, i.e., adequate cohesion between the GaAs and the substrate, good electrical contact to the conducting substrate, and good nucleation of the GaAs on the substrate yielding pinhole free or near pinhole free GaAs layers composed of large grains. These properties are obtained by first depositing a very thin coating, a coating with a nominal thickness between 1000 A and 250 A, of a Group IV element, Ge, Si, or Sn, onto the conducting substrate and then depositing the GaAs over this thin layer.

Abstract: A method of manufacturing a diode comprising a semiconductor body including at least first and second adjoining regions of the same conductivity type. The first region includes the diode junction and has a high resistivity, while the second region has a high impurity concentration that varies gradually and increases with increasing distance from the interface between the first and the second regions. The second region comprises two adjoining zones, the zone removed from the first region being more highly doped than the zone proximate said region. The second region is obtained by performing two successive diffusions of the same conductivity type as the first region to produce the two zones in said second region.