In a dynamic storage device, a rotating disk is employed to store information in small magnetized domains strategically located on the disk surface.  The disk is attached to and rotated by a spindle motor mounted to a frame of the disk storage device.  A “head slider” (also commonly referred to simply as a “slider”) having a magnetic read/write head is positioned in close proximity to the rotating disk to enable the writing and reading of data to and from the magnetic domains on the disk.  The head slider is supported and properly oriented in relationship to the disk by a head suspension that provides forces and compliances necessary for proper slider operation.  As the disk in the storage device rotates beneath the slider and head suspension, the air above the disk similarly rotates, thus creating an air bearing which acts with an aerodynamic design of the head slider to create a lift force on the head slider.  The lift force is counteracted by the head suspension, thus positioning the slider at a height and alignment above the disk which is referred to as the “fly height.” 
Some head suspensions can include a loadbeam, a flexure, and a base plate.  The loadbeam normally includes a mounting region at a proximal end of the loadbeam for mounting the head suspension to an actuator of the disk drive, a rigid region, and a spring region between the mounting region and the rigid region for providing a spring force to counteract the aerodynamic lift force acting on the slider described above.  The base plate is mounted to the mounting region of the loadbeam to facilitate the attachment of the head suspension to the actuator.  The flexure is positioned at the distal end of the loadbeam, and typically includes a gimbal region having a slider mounting surface to which the slider is mounted and thereby supported in read/write orientation with respect to the rotating disk.  The gimbal region is resiliently moveable with respect to the remainder of the flexure in response to the aerodynamic forces generated by the air bearing. 
In one type of head suspension, the flexure is formed as a separate component and further includes a loadbeam mounting region that is rigidly mounted at the distal end of the loadbeam using conventional means, such as spot welds.  In such a flexure, the gimbal region extends distally from the loadbeam mounting region of the flexure and includes a cantilever beam to which the slider is mounted.  A generally spherical dimple that extends between the loadbeam and the slider mounting surface of the flexure is formed in either the loadbeam or the slider mounting surface of the flexure.  The dimple transfers the spring force generated by the spring region of the loadbeam to the flexure and the slider to counteract the aerodynamic force generated by the air bearing between the slider and the rotating disk.  In this manner, the dimple acts as a “load point” between the flexure/slider and the loadbeam.  The load point dimple also provides clearance between the cantilever beam of the flexure and the loadbeam, and serves as a point about which the slider can gimbal in pitch and roll directions in response to fluctuations in the aerodynamic forces generated by the air bearing. 
Electrical interconnection between the head slider and circuitry in the disk storage device is provided along the length of the head suspension.  Conventionally, conductive wires encapsulated in insulating tubes are strung along the length of the head suspension between the head slider and the storage device circuitry.  Alternatively, an integrated lead head suspension, such as that described in commonly assigned U.S. Pat.  No.  5,491,597 to Bennin et al.,  that includes one or more conductive traces bonded to the loadbeam with a dielectric adhesive can be used to provide electrical interconnection.  Such an integrated lead head suspension may include one or more bonding pads at the distal end of the traces to which the head slider is attached and that provide electrical interconnection to terminals on the head slider.  The conductive trace can also be configured to provide sufficient resiliency to allow the head slider to gimbal in response to the variations in the aerodynamic forces. 
As the number and density of magnetic domains on the rotating disk increase, it becomes increasingly important that the head slider be precisely aligned over the disk to ensure the proper writing and reading of data to and from the magnetic domains.  Moreover, misalignments between the head slider and the disk could result in the head slider “crashing” into the disk surface as the slider gimbals due to the close proximity of the head slider to the rotating disk at the slider fly height. 
The joining of the loadbeam to the actuator arm and the flexure to the loadbeam have been accomplished in various ways, including spot welding.  One problem associated with spot welding is the desire to spot weld two members composed of the same material.  For example, two members made of steel will generally be better joined together with spot welding than if one of the members were composed of aluminum and the other of steel.  The same is seen when spot welding polymeric materials.  This can create an undesirable limitation, that being, the need or motivation to use members of the same composition rather than dissimilar composition.  This is undesirable because the use of dissimilar compositions can allow for different material properties, desired interfacial relationship between dissimilar materials, and/or cost reductions. 
Another joining technique can include the use of a joining material or a joining member to join two members.  Such techniques include the use of an adhesive, a soldering material, or a mechanical fastening piece or clip.  Introduction of a joining material or member, however, can add undesired complexity to one or more aspects of inventory, assembly, use, and repair relating to the suspension member. 
Consequently, there is a need for a suspension design and/or assembly technique that addresses the above-mentioned undesirable results.  Such a design and/or assembly technique could be useful with the above-described suspension as well as unamount-type suspensions, which include discrete arms.