Video storage system

Claim 2

A video storage system comprising in combination: an electron beam memory tube containing a single electron beam forming and scanning means for both storing and reading video information, signal means for modulating the electron beam in accordance with the video information, a storage target comprising a semiconductor substrate and an insulating layer formed on a surface of the semiconductor substrate so as to be structurally integral therewith, the insulating layer having an array of openings etched therethrough to form an insulating grid configuration with grid lines defining storage locations for the video information, said storage target being positioned in said memory tube to receive the modulated electron beam and to store the video information on the insulating layer in the form of an electrostatic charge pattern, means for activating the electron beam to scan the insulating layer of the target at a uniform unmodulated potential, and video output means for detecting the localized permeability of the grid of the insulating layer to the unmodulated electron beam.

Claim 3

The storage system of claim 1 in which the semiconductor substrate is silicon and the insulating layer is silicon oxide.

Claim 4

The storage system of claim 2 in which the grid lines are less than 5μ in width.

Claim 5

The storage system of claim 2 in which the grid spacing is more than 1500 lines per inch.

Claim 6

A video storage system comprising in combination: an electron beam memory tube containing a single electron beam forming and scanning means for both storing and reading video information, signal means for modulating the electron beam in accordance with the video information, p1 a storage target comprising a semiconductor substrate of a substantially uniform conductivity type and an insulating layer formed on a surface of the semiconductor substrate so as to be structurally integral therewith, the insulating layer having an array of openings etched therethrough to form an insulating grid configuration with grid lines defining storage locations for the video information, said storage target being positioned in said memory tube to receive the modulated electron beam and to store the video information on the insulating layer in the form of an electrostatic charge pattern, means for activating the electron beam to scan the insulating layer of the target at a uniform modulated potential, and video output means for detecting the localized permeability of the grid of the insulating layer to the unmodulated electron beam.

Claim 7

A video storage system comprising in combination: an electron beam memory tube containing a single electron beam forming and scanning means for both storing and reading video information, signal means for modulating the electron beam in accordance with the video information, p1 a storage target comprising a semiconductor substrate of a substantially uniform conductivity type and an insulating layer formed on a surface of the semiconductor substrate so as to be structurally integral therewith, the insulating layer having an array of openings etched therethrough to form an insulating grid configuration with grid lines defining storage locations for the video information, said storage target being positioned in said memory tube to receive the modulated electron beam and to store the video information on the insulating layer in the form of an electrostatic charge pattern, means for activating the electron beam to scan the insulating layer of the target at a uniform modulated potential, and video output means for detecting the localized permeability of the grid of the insulating layer to the unmodulated electron beam.

Claim 8

The storage system of claim 5 in which the semiconductor substrate is silicon and the insulating layer is silicon oxide.

Claim 9

The storage system of claim 6 in which the grid lines are less than 5μ in width and the grid spacing is more than 1500 lines per inch.

Claim 10

The storage system of claim 5 in which the output means detects the electron flow through the grid.

Claim 11

The storage system of claim 5 in which the output means detects the electron flow deflected by the grid.

Claim 12

The storage system of claim 9 in which the output means includes a collector mesh located adjacent to the grid of the target, said collector mesh detecting the electron flow deflected by the grid in a return beam configuration.

Claim 13

An electronic storage tube including a target which is comprised of a pattern of conducting and insulating areas, the tube comprising: means for applying a signal to the target to establish a desired stored charge distribution on the insulating areas; and means for detecting the stored charge distribution established on the target; and wherein the conducting areas are electrically connected to each other and are formed of silicon; and the insulating areas are formed of silicon dioxide.

Claim 14

An electronic storage tube including a target which is comprised of a pattern of conducting and insulating areas, the tube comprising: means for applying a signal to the target to establish a desired stored charge distribution on the insulating areas; and means for detecting the stored charge distribution established on the target; and wherein the conducting areas are electrically connected to each other and are formed of silicon; and the insulating areas are formed of silicon dioxide.

Claim 15

The invention of claim 11 including: a conducting substrate; and an insulating layer overlying the conducting substrate; the insulating layer having openings therein such that the pattern of conducting and insulating areas is formed thereby.

Claim 16

The invention of claim 11 including a conducting substrate of silicon and insulating areas overlying the conducting substrate such that the pattern of conducting and insulating areas is formed thereby.

Claim 17

The invention of claim 11 wherein the insulating area is genetically derived from the conducting area.

Claim 18

The invention of claim 14 including: a conducting substrate; and an insulating layer overlying the conducting substrate; the insulating layer having openings therein such that the pattern of conducting and insulating areas is formed thereby.

Claim 19

The invention of claim 14 including a conducting substrate of silicon and insulating areas overlying the conducting substrate such that the pattern of conducting and insulating areas is formed thereby.

Claim 20

An electronic storage tube comprising: a target having a pattern of alternating conducting areas and insulating areas; an output terminal; the conducting areas being electrically connected to the output terminal; means for applying an input signal to the target such that a signal is stored thereon in the form of a desired stored charge distribution on the insulating areas; means for scanning the target and obtaining an output signal at the output terminal which output signal is a function of the stored charge distribution on the insulating areas; and wherein the conducting areas are formed of silicon; and the insulating areas are formed of silicon dioxide.

Claim 21

An electronic storage tube comprising: a target having a pattern of alternating conducting areas and insulating areas; an output terminal; the conducting areas being electrically connected to the output terminal; means for applying an input signal to the target such that a signal is stored thereon in the form of a desired stored charge distribution on the insulating areas; means for scanning the target and obtaining an output signal at the output terminal which output signal is a function of the stored charge distribution on the insulating areas; and wherein the conducting areas are formed of silicon; and the insulating areas are formed of silicon dioxide.

Claim 22

The invention of claim 17 wherein the insulating areas are genetically derived.