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A method for implanting a substrate face using a plasma processing apparatus (10). The method includes providing a substrate (e.g., wafer, panel) (22) on a face of a susceptor. The substrate has an exposed face, which has a substrate diameter that extends from a first edge of the substrate to a seco

A method for implanting a substrate face using a plasma processing apparatus (10). The method includes providing a substrate (e.g., wafer, panel) (22) on a face of a susceptor. The substrate has an exposed face, which has a substrate diameter that extends from a first edge of the substrate to a second edge of the substrate across a length of the substrate. The method also includes forming a plasma sheath (26) around the face of the substrate. The plasma sheath has a dark space distance "D" that extends in a normal manner from the exposed face to an edge of the plasma sheath. The dark space distance and the substrate diameter comprise a ratio between the dark space distance and the substrate diameter. The ratio is about one half and less, which provides a substantially uniform implant.

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A method for implanting a substrate face using a plasma processing apparatus (10). The method includes providing a substrate (e.g., wafer, panel) (22) on a face of a susceptor. The substrate has an exposed face, which has a substrate diameter that extends from a first edge of the substrate to a seco

A method for implanting a substrate face using a plasma processing apparatus (10). The method includes providing a substrate (e.g., wafer, panel) (22) on a face of a susceptor. The substrate has an exposed face, which has a substrate diameter that extends from a first edge of the substrate to a second edge of the substrate across a length of the substrate. The method also includes forming a plasma sheath (26) around the face of the substrate. The plasma sheath has a dark space distance "D" that extends in a normal manner from the exposed face to an edge of the plasma sheath. The dark space distance and the substrate diameter comprise a ratio between the dark space distance and the substrate diameter. The ratio is about one half and less, which provides a substantially uniform implant. ber to mount a wafer thereon, the suscepter having a wafer chuck at its upper surface to prevent the wafer from moving horizontally; a coil antenna surrounding the upper outer wall of the vacuum chamber; an RF generator for applying an RF power to the coil antenna; and a heating unit for heating the wafer mounted on the suscepter, comprising the steps of: heating in advance the wafer on which patterns and gaps are formed by using a heating unit to have a temperature of 400-700° C.; and introducing gas into the reaction chamber and applying an RF power to the coil antenna to generate plasma, and forming an insulation film inside the tap and at the upper surface of the pattern. 10. The method of claim 9, wherein the insulation film is one of USG (undoped silicate glass) film, a PSG (phosphorous silicate glass) film, a BPSG (boron phosphorous silicate glass) film and an O3-TEOS (tetra-ethyl-ortho-silicate) film. 11. The method of claim 9, wherein the density of the plasma is preferably 1011to 1012ion/cm3. 12. The method of claim 9, wherein the gas is a mixture gas of silicon containing gas, oxygen containing gas and inert gas.