Bifurcated air bearing actuator assembly for a disk drive system

Claim 2

An actuator system comprising: a stator having a gas bearing outer surface, a first end of the stator for positioning proximate a data storage disk, the first end having a slotted section; a slider sized to fit around the outer surface of the stator for linear movement along said gas bearing outer surface; and a transducer arm assembly attached to said slider and sized to fit within the slotted section such that the transducer arm assembly is positioned within the slotted section when the slider is fully retracted.

Claim 3

The system of claim 1, wherein the stator has a plurality of orifices on said gas bearing outer surface for delivering gas to said gas bearing outer surface, and the slider has a chamber corresponding to each of said orifices, such that said gas from said orifices fills said chambers for any position of the slider and the slider is supported by the gas in the chambers.

Claim 4

The system of claim 2, wherein the gas is air and pressure in the chambers is approximately 2 psi.

Claim 5

The system of claim 1, further comprising a stator frame having attachment means for mounting the stator without interfering with the movement of the slider.

Claim 6

The system of claim 4, wherein the attachment means allows the frame and stator to rotate relative to one another.

Claim 7

The system of claim 4, wherein the attachment means allows the frame and stator to move axially relative to one another.

Claim 8

The system of claim 4, wherein the attachment means allows the frame and stator to move laterally relative to one another.

Claim 9

The system of claim 1, wherein the slider is made of glass in a vacuum shrinking process.

Claim 10

A data storage disk drive system comprising: a data storage disk containing at least one surface for storing information; an actuator assembly for positioning a transducer arm assembly relative to the disk, said actuator assembly comprising a stator having a gas bearing outer surface, a first end of the stator for positioning proximate the data storage disk, the first end having a slotted section, a slider sized to fit around the outer surface of the stator for linear movement along said gas bearing outer surface, and a transducer arm assembly attached to said slider and sized to fit within the slotted section such that the transducer arm assembly is positioned within the slotted section when the slider is fully retracted.

Claim 11

A data storage disk drive system comprising: a data storage disk containing at least one surface for storing information; an actuator assembly for positioning a transducer arm assembly relative to the disk, said actuator assembly comprising a stator having a gas bearing outer surface, a first end of the stator for positioning proximate the data storage disk, the first end having a slotted section, a slider sized to fit around the outer surface of the stator for linear movement along said gas bearing outer surface, and a transducer arm assembly attached to said slider and sized to fit within the slotted section such that the transducer arm assembly is positioned within the slotted section when the slider is fully retracted.

Claim 12

The system of claim 9, wherein the stator has a plurality of orifices on said gas bearing outer surface for delivering gas to said gas bearing outer surface, and the slider has a chamber corresponding to each of said orifices, such that said gas from said orifices fills said chambers for any position of the slider and the slider is supported by the gas in the chambers.

Claim 13

The system of claim 10, wherein the gas is air and pressure in the chambers is approximately 2 psi.

Claim 14

The system of claim 9, further comprising a stator frame having attachment means for mounting the stator without interfering with the movement of the slider.

Claim 15

The system of claim 12, wherein the attachment means allows the frame and the stator to rotate axially relative to one another.

Claim 16

The system of claim 12, wherein the attachment means allows the frame and stator to move axially relative to one another.

Claim 17

The system of claim 12, wherein the attachment means allows the frame and stator to move laterally relative to one another.

Claim 18

The system of claim 9, wherein the slider is made of glass in a vacuum shrinking process.

Claim 19

An actuator system comprising: a stator having a gas bearing outer surface and having a predetermined cross-section, a first end of the stator for positioning proximate a data storage disk, the first end having a slotted section; a slider sized to fit around the outer surface of the stator for linear movement along the gas bearing outer surface, the slider having a shape complimentary to the predetermined cross-section such that a small predetermined spacing is produced between the slider and the gas bearing outer surface of the stator; and a transducer arm assembly attached to said slider and sized to fit within the slotted section such that the transducer arm assembly is positioned within the slotted section when the slider is fully retracted.

Claim 20

An actuator system comprising: a stator having a gas bearing outer surface and having a predetermined cross-section, a first end of the stator for positioning proximate a data storage disk, the first end having a slotted section; a slider sized to fit around the outer surface of the stator for linear movement along the gas bearing outer surface, the slider having a shape complimentary to the predetermined cross-section such that a small predetermined spacing is produced between the slider and the gas bearing outer surface of the stator; and a transducer arm assembly attached to said slider and sized to fit within the slotted section such that the transducer arm assembly is positioned within the slotted section when the slider is fully retracted.

Claim 21

The system of claim 17, wherein the predetermined cross-section is rectangular in shape.

Claim 22

The system of claim 17, wherein the predetermined cross-section is hexagonal in shape.

Claim 23

The system of claim 17, wherein the predetermined cross-section is a parallelogram in shape.

Claim 24

The system of claim 17, wherein the predetermined cross-section is a square in shape.

Claim 25

The system of claim 17, wherein the stator has a plurality of orifices on said gas bearing outer surface for delivering gas to said gas bearing outer surface, the slider has a chamber corresponding to each of said orifices, such that said gas from said orifices fills said chambers for any position of the slider and the slider is supported by the gas in the chambers.

Claim 26

The system of claim 22, wherein the gas is air and pressure in the chambers is approximately 2 psi.

Claim 27

The system of claim 22, wherein the gas bearing outer surface further includes exhaust slots for discharging gas from the gas bearing outer surface such that there is a uniform pressure drop along edges of the chambers.

Claim 28

The system of claim 22, further comprising a stator frame having attachment means for mounting the stator at the first end and a second end without interfering with the movement of the slider.

Claim 29

The system of claim 25, wherein the slotted section separates first and second arm sections of the stator and the attachment means comprises a first flexible strap connecting the first arm section to the frame and a second flexible strap connecting the second arm section to the frame.

Claim 30

The system of claim 25, wherein the slotted section separates first and second arm sections of the stator and the attachment means comprises a first flexible strap bent along two edges and connecting the first arm section to the frame, and a second flexible strap connected to the frame and having a ball member for reception in an aperture in the second arm section, and a pin member extending from the frame for reception in an aperture in the second end of the stator.