Multi-function charged particle apparatus

Claim 2

An ion beam system, including an ion source, adapted to project a high current ion beam along a path from aid ion source toward a target, said ion beam system comprising: first means for focusing in a first direction the ion beam exiting said ion source; second means for focusing in a second direction the ion beam exiting said first means and for simultaneously scanning such beam across said target, said second means comprising an open-ended substantially box-shaped structure, each of the four sides of said substantially box-shaped structure formed of spaced metallic conductors, adjacent pairs of said metallic conductors connected by resistive elements, said substantially box-shaped structure terminated at the four corners by two pairs of conductors with one conductor in each corner.

Claim 3

A system according to claim 1 wherein said second means further comprises a first source of DC current connected to a first pair of conductors and a second source of DC current connected to a second pair of conductors for focusing said ion beam in said second direction by creating a DC field within said substantially box-shaped structure, said DC field dependent upon the values of said first and second DC current sources and said resistive elements.

Claim 4

A system according to claim 2 wherein said second means further comprises a first source of AC current connected to said first pair of conductors for scanning said ion beam across said target in said second direction by creating a first AC field in said second direction within said substantially box-shaped structure, said first AC field dependent upon the values of said first AC current source and said resistive elements and upon the frequency of said first AC current source.

Claim 5

A system according to claim 3 wherein said second means further comprises a second source of AC current connected to a second pair of conductors for scanning said ion beam across said target in said first direction by creating a second AC field in said first direction within said substantially box-shaped structure, said second AC field dependent upon the values of said second AC current source and said resistive elements and upon the frequency of said second AC current source, said second AC field coacting with said first AC field to create a raster field, whereby said ion beam is scanned in a raster pattern across said target.

Claim 6

An ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source toward a target, said ion beam system comprising: first means for focusing in a first direction the ion beam exiting said ion source; second means for focusing in a second direction the ion beam exiting said first means and for simultaneously positioning such beam, said second means comprising an open-ended substantially box-shaped structure, each of the four sides of said substantially box-shaped structure formed of spaced metallic conductors, adjacent pairs of said metallic conductors connected by resistive elements, said substantially box-shaped structure terminated at the four corners by two pairs of conductors with one conductor in each corner.

Claim 7

An ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source toward a target, said ion beam system comprising: first means for focusing in a first direction the ion beam exiting said ion source; second means for focusing in a second direction the ion beam exiting said first means and for simultaneously positioning such beam, said second means comprising an open-ended substantially box-shaped structure, each of the four sides of said substantially box-shaped structure formed of spaced metallic conductors, adjacent pairs of said metallic conductors connected by resistive elements, said substantially box-shaped structure terminated at the four corners by two pairs of conductors with one conductor in each corner.

Claim 8

A system according to claim 5 wherein said second means further comprises a first source of DC current connected to a first pair of conductors and a second source of DC current connected to a second pair of conductors for focusing said ion beam in said second direction by creating a first DC field in said second direction within said substantially box-shaped structure, said first DC field dependent upon the values of said first and second DC current sources and said resistive elements.

Claim 9

A system according to claim 6 wherein said second means further comprises a third source of DC current connected to said first pair of conductors for positioning said ion beam in said second direction by modifying the magnitude of said first DC field by an amount dependent upon the value of said third DC current source.

Claim 10

A system according to claim 7 wherein said second means further comprises a fourth source of DC current connected to said second pair of conductors for positioning said ion beam in said first direction by creating a second DC field superimposed on said first DC field which exerts a force on said ion beam in said first direction, said second DC field dependent upon the values of said fourth DC current source and said resistive elements.

Claim 11

In an ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source toward a target, apparatus for simultaneously positioning and scanning said ion beam comprising: an open-ended substantially box-shaped structure, each of the four sides of said substantially box-shaped structure formed of spaced metallic conductors, adjacent pairs of said metallic conductors connected by resistive elements, said substantially box-shaped structure terminated at the four corners by two pairs of conductors with one conductor in each corner; a first source of DC current connected to a first pair of conductors for positioning said ion beam in a first direction by creating a first DC field in said first direction within said substantially box-shaped structure, said first DC field dependent upon the values of said first DC current source and said resistive elements; a second source of DC current connected to a second pair of conductors for positioning said ion beam in a second direction by creating a second DC field superimposed on said first DC field which exerts a force on said ion beam in said second direction, said second DC field dependent upon the values of said second DC current source and said resistive elements; a first source of AC current connected to said first pair of conductors for scanning said ion beam across said target in said first direction by creating a first AC field in said first direction within said substantially box-shaped structure, said first AC field dependent upon the values of said first AC current source and said resistive elements and upon the frequency of said first AC current source; and a second source of AC current connected to said second pair of conductors for scanning said ion beam across said target in a second direction by creating a second AC field in said second direction within said substantially box-shaped structure, said second AC field dependent upon the values of said second AC current source and said resistive elements and upon the frequency of said second AC current source, said second AC field coacting with said first AC field to create a raster field, whereby said ion beam is scanned in a raster pattern across said target.

Claim 12

In an ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source toward a target, apparatus for simultaneously positioning and scanning said ion beam comprising: an open-ended substantially box-shaped structure, each of the four sides of said substantially box-shaped structure formed of spaced metallic conductors, adjacent pairs of said metallic conductors connected by resistive elements, said substantially box-shaped structure terminated at the four corners by two pairs of conductors with one conductor in each corner; a first source of DC current connected to a first pair of conductors for positioning said ion beam in a first direction by creating a first DC field in said first direction within said substantially box-shaped structure, said first DC field dependent upon the values of said first DC current source and said resistive elements; a second source of DC current connected to a second pair of conductors for positioning said ion beam in a second direction by creating a second DC field superimposed on said first DC field which exerts a force on said ion beam in said second direction, said second DC field dependent upon the values of said second DC current source and said resistive elements; a first source of AC current connected to said first pair of conductors for scanning said ion beam across said target in said first direction by creating a first AC field in said first direction within said substantially box-shaped structure, said first AC field dependent upon the values of said first AC current source and said resistive elements and upon the frequency of said first AC current source; and a second source of AC current connected to said second pair of conductors for scanning said ion beam across said target in a second direction by creating a second AC field in said second direction within said substantially box-shaped structure, said second AC field dependent upon the values of said second AC current source and said resistive elements and upon the frequency of said second AC current source, said second AC field coacting with said first AC field to create a raster field, whereby said ion beam is scanned in a raster pattern across said target.

Claim 13

An ion beam system, including an ion source, adapted to project a high current ion beam across a path from said ion source toward a target, said ion beam system comprising: first means for focusing in a first direction the ion beam exiting said ion source; second means for focusing in a second direction the ion beam exiting said first means and for simultaneously scanning and positioning such beam across said target, said second means comprising an open-ended substantially box-shaped structure, each of the four sides of said substantially box-shaped structure formed of spaced metallic conductors, adjacent pairs of said metallic conductors connected by resistive elements, said substantially box-shaped structures terminated at the four corners by two pairs of conductors with one conductor in each corner.

Claim 14

An ion beam system, including an ion source, adapted to project a high current ion beam across a path from said ion source toward a target, said ion beam system comprising: first means for focusing in a first direction the ion beam exiting said ion source; second means for focusing in a second direction the ion beam exiting said first means and for simultaneously scanning and positioning such beam across said target, said second means comprising an open-ended substantially box-shaped structure, each of the four sides of said substantially box-shaped structure formed of spaced metallic conductors, adjacent pairs of said metallic conductors connected by resistive elements, said substantially box-shaped structures terminated at the four corners by two pairs of conductors with one conductor in each corner.

Claim 15

A system according to claim 10 wherein said second means further comprises a first source of DC current connected to a first pair of conductors and a second source of DC current connected to a second pair of conductors for focusing said ion beam in said second direction by creating a first DC field in said second direction within said substantially box-shaped structure, said first DC field dependent upon the values of said first and second DC current source and said resistive elements.

Claim 16

A system according to claim 11, wherein said second means further comprises a third source of DC current connected to said first pair of conductors for positioning said ion beam in said second direction by modifying the magnitude of said first DC field by an amount dependent upon the value of said third DC current source.

Claim 17

A system according to claim 12, wherein said second means further comprises a fourth source of DC current connected to a second pair of conductors for positioning said ion beam in said first direction by creating a second DC field superimposed on said first DC field which exerts a force on said ion beam in said first direction, said second DC field dependent upon the values of said fourth DC current source and said resistive elements.

Claim 18

A system according to claim 13 wherein said second means further comprises a first source of AC current connected to said first pair of conductors for scanning said ion beam across said target in said first direction by creating a first AC field in said first direction, dependent upon the values of said first AC current and said resistive elements and upon the frequency of said first AC current, within said substantially box-shaped structure.

Claim 19

A system according to claim 14 wherein said second means further comprises a second source of AC current connected to said second pair of conductors for scanning said ion beam across said target in said second direction by creating a second AC field in said second direction, dependent upon the values of said second AC current source and said resistive elements and upon the frequency of said second AC current, within said substantially box-shaped structure, said second AC field coacting with said first AC field to create a raster field, whereby said ion beam is raster scanned across said target.

Claim 20

In an ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source to a target, apparatus for deflecting said ion beam comprising: a plurality of metallic conductors arranged in an open-ended substantially box-shaped configuration, said plurality of metallic conductors forming the edges of said box-shaped configuration with each of said plurality of metallic conductors electrically isolated from one another; a plurality of resistors, one of said plurality connected between each adjacent pair of metallic conductors, said plurality of resistors forming a voltage divider network with said plurality of metallic conductors; two pairs of electrical terminals, each terminal of said pair connected to one of the metallic conductors located at opposite corners of said substantially box-shaped configuration; a first source of DC current connected to a first pair of electrical terminals and a second source of DC current connected to a second pair of electrical terminals for focusing said ion beam in a first direction by creating a DC field in said first direction within said substantially box-shaped configuration, the magnitude of said DC field dependent upon the value of said first and second DC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; a first source of AC current connected to the first pair of electrical terminals for scanning said ion beam in said first direction across said target by creating a first AC field superimposed upon said DC field within said substantially box-shaped configuration, said first AC field dependent upon the magnitude and frequency of said first AC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; and a second source of AC current connected to a second pair of electrical terminals for scanning said ion beam in a second direction across said target by creating a second AC field in said direction within said substantially box-shaped configuration, said second AC field dependent upon the magnitude and frequency of said second AC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration, said second AC field coacting with said first AC field to produce a raster field, whereby said ion beam is raster scanned across said target.

Claim 21

In an ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source to a target, apparatus for deflecting said ion beam comprising: a plurality of metallic conductors arranged in an open-ended substantially box-shaped configuration, said plurality of metallic conductors forming the edges of said box-shaped configuration with each of said plurality of metallic conductors electrically isolated from one another; a plurality of resistors, one of said plurality connected between each adjacent pair of metallic conductors, said plurality of resistors forming a voltage divider network with said plurality of metallic conductors; two pairs of electrical terminals, each terminal of said pair connected to one of the metallic conductors located at opposite corners of said substantially box-shaped configuration; a first source of DC current connected to a first pair of electrical terminals and a second source of DC current connected to a second pair of electrical terminals for focusing said ion beam in a first direction by creating a DC field in said first direction within said substantially box-shaped configuration, the magnitude of said DC field dependent upon the value of said first and second DC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; a first source of AC current connected to the first pair of electrical terminals for scanning said ion beam in said first direction across said target by creating a first AC field superimposed upon said DC field within said substantially box-shaped configuration, said first AC field dependent upon the magnitude and frequency of said first AC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; and a second source of AC current connected to a second pair of electrical terminals for scanning said ion beam in a second direction across said target by creating a second AC field in said direction within said substantially box-shaped configuration, said second AC field dependent upon the magnitude and frequency of said second AC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration, said second AC field coacting with said first AC field to produce a raster field, whereby said ion beam is raster scanned across said target.

Claim 22

In an ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source to a target, apparatus for deflecting said ion beam comprising: a plurality of metallic conductors arranged in an open-ended substantially box-shaped configuration, said plurality of metallic conductors forming the edges of said box-shaped configuration with each of said plurality of metallic conductors electrically isolated from one another; a plurality of resistors, one of said plurality connected between each adjacent pair of metallic conductors, said plurality of resistors forming a voltage divider network with said plurality of metallic conductors; two pairs of electrical terminals, each terminal of said pair connected to one of the metallic conductors located at opposite corners of said substantially box-shaped configuration; a first source of DC current connected to a first pair of electrical terminals and a second source of DC current connected to a second pair of electrical terminals for focusing said ion beam in a first direction by creating a first DC field in said first direction within said substantially box-shaped configuration, the magnitude of said first DC field dependent upon the values of said first and second DC current sources and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; a third source of DC current connected to said first pair of electrical terminals for positioning said ion beam in said first direction by modifying the magnitude of said first DC field by an amount dependent upon the value of said third DC current source; and a fourth source of DC current connected to a second pair of electrical terminals for positioning said ion beam in a second direction by creating a second DC field superimposed on said first DC field which exerts a force on said ion beam in said second direction within said substantially box-shaped configuration, said second DC field dependent upon the value of said fourth DC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration.

Claim 23

In an ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source to a target, apparatus for deflecting said ion beam comprising: a plurality of metallic conductors arranged in an open-ended substantially box-shaped configuration, said plurality of metallic conductors forming the edges of said box-shaped configuration with each of said plurality of metallic conductors electrically isolated from one another; a plurality of resistors, one of said plurality connected between each adjacent pair of metallic conductors, said plurality of resistors forming a voltage divider network with said plurality of metallic conductors; two pairs of electrical terminals, each terminal of said pair connected to one of the metallic conductors located at opposite corners of said substantially box-shaped configuration; a first source of DC current connected to a first pair of electrical terminals and a second source of DC current connected to a second pair of electrical terminals for focusing said ion beam in a first direction by creating a first DC field in said first direction within said substantially box-shaped configuration, the magnitude of said first DC field dependent upon the values of said first and second DC current sources and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; a third source of DC current connected to said first pair of electrical terminals for positioning said ion beam in said first direction by modifying the magnitude of said first DC field by an amount dependent upon the value of said third DC current source; and a fourth source of DC current connected to a second pair of electrical terminals for positioning said ion beam in a second direction by creating a second DC field superimposed on said first DC field which exerts a force on said ion beam in said second direction within said substantially box-shaped configuration, said second DC field dependent upon the value of said fourth DC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration.

Claim 24

In an ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source to a target, apparatus for deflecting said ion beam comprising: a plurality of metallic conductors arranged in an open-ended substantially box-shaped configuration, said plurality of metallic conductors forming the edges of said box-shaped configuration with each of said plurality of metallic conductors electrically isolated from one another; a plurality of resistors, one of said plurality connected between each adjacent pair of metallic conductors, said plurality of resistors forming a voltage divider network with said plurality of metallic conductors; two pairs of electrical terminals, each terminal of said pair connected to one of the metallic conductors located at opposite corners of said substantially box-shaped configuration; a first source of DC current connected to a first pair of electrical terminals and a second source of DC current connected to a second pair of electrical terminals for focusing said ion beam in a first direction by creating a first DC field in said first direction within said substantially box-shaped configuration, the magnitude of said first DC field dependent upon the values of said first and second DC current sources and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; a third source of DC current connected to said first pair of electrical terminals for positioning said ion beam in said first direction by modifying the magnitude of said first DC field by an amount dependent upon the value of said third DC current source; a fourth source of DC current connected to a second pair of electrical terminals positioning said ion beam in a second direction by creating a second DC field superimposed on said first DC field which exerts a force on said ion beam in said second direction within said substantially box-shaped configuration, said second DC field dependent upon the value of said fourth DC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; a first source of AC current connected to the first pair of electrical terminals for scanning said ion beam in a first direction across said target by creating a first AC field superimposed upon said first DC field within said substantially box-shaped configuration, said first AC field dependent upon the magnitude and frequency of said first AC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; and a second source of AC current connected to said second pair of electrical terminals for scanning said ion beam in a second direction across said target by creating a second AC field within said substantially box-shaped configuration, said second AC field dependent upon the magnitude and frequency of said second AC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration, said second AC field coacting with said first AC field to produce a raster field, whereby said ion beam is raster scanned across said target.

Claim 25

In an ion beam system, including an ion source, adapted to project a high current ion beam along a path from said ion source to a target, apparatus for deflecting said ion beam comprising: a plurality of metallic conductors arranged in an open-ended substantially box-shaped configuration, said plurality of metallic conductors forming the edges of said box-shaped configuration with each of said plurality of metallic conductors electrically isolated from one another; a plurality of resistors, one of said plurality connected between each adjacent pair of metallic conductors, said plurality of resistors forming a voltage divider network with said plurality of metallic conductors; two pairs of electrical terminals, each terminal of said pair connected to one of the metallic conductors located at opposite corners of said substantially box-shaped configuration; a first source of DC current connected to a first pair of electrical terminals and a second source of DC current connected to a second pair of electrical terminals for focusing said ion beam in a first direction by creating a first DC field in said first direction within said substantially box-shaped configuration, the magnitude of said first DC field dependent upon the values of said first and second DC current sources and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; a third source of DC current connected to said first pair of electrical terminals for positioning said ion beam in said first direction by modifying the magnitude of said first DC field by an amount dependent upon the value of said third DC current source; a fourth source of DC current connected to a second pair of electrical terminals positioning said ion beam in a second direction by creating a second DC field superimposed on said first DC field which exerts a force on said ion beam in said second direction within said substantially box-shaped configuration, said second DC field dependent upon the value of said fourth DC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; a first source of AC current connected to the first pair of electrical terminals for scanning said ion beam in a first direction across said target by creating a first AC field superimposed upon said first DC field within said substantially box-shaped configuration, said first AC field dependent upon the magnitude and frequency of said first AC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration; and a second source of AC current connected to said second pair of electrical terminals for scanning said ion beam in a second direction across said target by creating a second AC field within said substantially box-shaped configuration, said second AC field dependent upon the magnitude and frequency of said second AC current source and upon voltage drops created by said voltage divider network across said substantially box-shaped configuration, said second AC field coacting with said first AC field to produce a raster field, whereby said ion beam is raster scanned across said target.