Transducer suspension mount apparatus

Claim 2

A magnetic head arm assembly defining a longitudinal axis comprising: a rigid arm section; a spring element joined to said arm section formed with a flanged channel and a rectangular type flexure at its free end, said flexure having two outer flexible fingers parallel to said longitudinal axis joined at their ends by a relatively wider cross leg and a third inner finger extending from said cross leg with a free end centrally located and parallel to said two outer flexible fingers; a load beam positioned within said channel; and a load protuberance on said third finger with which said load beam makes contact.

Claim 3

A magnetic head arm assembly as in claim 1, wherein said spring element is substantially symmetrical about said longitudinal axis.

Claim 4

A magnetic head arm assembly as in claim 1, including a magnetic head air bearing slider mounted to said third finger.

Claim 5

A magnetic head arm assembly as in claim 3, wherein said load protuberance is located on said longitudinal axis, and on an intersecting axis perpendicular to said longitudinal axis and bisecting said flexure, so that said flexure may pitch and roll about said axes in response to changes in the air bearing applied to said slider.

Claim 6

A magnetic head arm assembly as in claim 4, wherein said load protuberance is located at the center of gravity of said slider.

Claim 7

A magnetic head arm assembly as in claim 1, including a mount segment joined to said arm section, for attachment to a bidirectional actuator.

Claim 8

A magnetic head arm assembly as in claim 1, wherein said flanged channel is substantially triangular.

Claim 9

A magnetic head arm assembly as in claim 1, wherein said rectangular type flexure includes two crosslegs joined to said two outer flexible fingers, said crosslegs being substantially orthogonal to said longitudinal axis and said flexible fingers, said crosslegs being wider than said flexible fingers.

Claim 10

A magnetic head arm assembly as in claim 1, wherein said load beam has an offset portion for contacting said protuberance.

Claim 11

Apparatus for supporting a transducer head comprising: a substantially flat and thin resilient arm element having a rectangular flexure cut-out formed at a free end, said flexure cut-out including two outer flexible fingers extending in the plane of said element from its free end and joined at their ends by a less flexible cross leg, and including a flexible third finger in the plane of the flexure cut-out extending from said cross leg into the rectangular cut-out; a load protuberance on said third finger; and a load beam fastened to said arm and positioned into contact with said load protuberance.

Claim 12

Apparatus for supporting a transducer head comprising: a substantially flat and thin resilient arm element having a rectangular flexure cut-out formed at a free end, said flexure cut-out including two outer flexible fingers extending in the plane of said element from its free end and joined at their ends by a less flexible cross leg, and including a flexible third finger in the plane of the flexure cut-out extending from said cross leg into the rectangular cut-out; a load protuberance on said third finger; and a load beam fastened to said arm and positioned into contact with said load protuberance.

Claim 13

An apparatus as described in claim 10 further including an air bearing slider mounted to said third finger.

Claim 14

An apparatus as described in claim 11 wherein said load protuberance is located on a longitudinal axis formed by said arm element and said load beam, and on an intersecting orthogonal axis bisecting said flexure, so that said flexure may pitch and roll about said axes in response to changes in the air bearing applied to said slider.

Claim 15

An apparatus as described in claim 10 wherein said spring element is substantially triangular, with a triangular cut-out section forming channels flanged for stiffening.

Claim 16

An apparatus as described in claim 13 wherein said rectangular flexure cut-out includes cross legs substantially orthogonal to said flexible fingers and to a longitudinal axis formed by said arm element and said load beam, said cross legs being wider than said flexible fingers.

Claim 17

A cantilever support for supporting a slider structure in a floating fluid bearing environment comprising: a rigid arm section supported at one end; a resilient arm element fastened on one end to said rigid arm section, said element having a rectangular flexure cut-out formed at a free end, said flexure cut-out including two outer flexible fingers extending in the plane of said element from its free end and joined at their ends by a relatively wider cross leg, and including a flexible third finger in the plane of the flexure cut-out extending from said cross leg into the rectangular cut-out, said slider structure being mounted to said third finger; a stiffening section formed on said resilient arm element extending between said flexure cut-out approximately to said rigid arm section; a load protuberance on said third finger; and a load beam fastened to said stiffening section and positioned into contact with said load protuberance; wherein said load protuberance is located on a longitudinal axis formed by said rigid arm section, said resilient arm element, and said load beam, and on an intersecting axis perpendicular to said longitudinal axis bisecting said flexure, such that said flexure may pitch and roll about said axes in response to changes in the air bearing applied to said slider.

Claim 18

A cantilever support for supporting a slider structure in a floating fluid bearing environment comprising: a rigid arm section supported at one end; a resilient arm element fastened on one end to said rigid arm section, said element having a rectangular flexure cut-out formed at a free end, said flexure cut-out including two outer flexible fingers extending in the plane of said element from its free end and joined at their ends by a relatively wider cross leg, and including a flexible third finger in the plane of the flexure cut-out extending from said cross leg into the rectangular cut-out, said slider structure being mounted to said third finger; a stiffening section formed on said resilient arm element extending between said flexure cut-out approximately to said rigid arm section; a load protuberance on said third finger; and a load beam fastened to said stiffening section and positioned into contact with said load protuberance; wherein said load protuberance is located on a longitudinal axis formed by said rigid arm section, said resilient arm element, and said load beam, and on an intersecting axis perpendicular to said longitudinal axis bisecting said flexure, such that said flexure may pitch and roll about said axes in response to changes in the air bearing applied to said slider.