Abstract: Flexible substrate inductive apparatus and methods for manufacturing, and utilizing, the same. In one embodiment, the flexible substrate inductive device is formed from a planar surface and has a plurality of conductive traces printed thereon. These conductive traces can be used as, for example, an inductor or when formed using multiple windings such as a primary and a secondary winding, as a transformer. The use of the flexible substrate as an inductive device is accomplished via the incorporation of slots within the substrate which allows the conductive traces to be formed and routed around, for example, a magnetically permeable core. Methods of using and manufacturing the aforementioned flexible substrate inductive devices are also disclosed.

Abstract: A chip choke assembly which reduces the loss of magnetic flux from the underlying core portions. In one embodiment, this reduction is achieved by producing a chip choke assembly comprised of two or more chip choke portions that collectively form a closed magnetic path. Additionally, the chip choke assembly disclosed herein also allows for adequate clearance between adjacent pads so as to avoid arcing during high potential voltage conditions. Methods for manufacturing and using the aforementioned chip choke assembly are also disclosed.

Abstract: High electrical isolation connector apparatus and methods. In one embodiment, an integrated connector module (ICM) is disclosed. The ICM includes a number of adjacent electronic subassemblies that are shielded through the use of an insert body shield. The insert body shield beneficially increases electrical isolation between adjacent subassemblies thereby further mitigating possible electrical noise. The insert body shield is configured to be received within a slot formed within the connector housing. An internal shield is also included that is received in a slot of an insert body of the electronic sub-assemblies, thereby effectively shielding adjacent component receiving cavities from one another. Methods and apparatus are also disclosed which make use and take advantage of these shielded ICMs. For example, telecommunications/networking equipment that incorporates these ICMs are also disclosed.

Abstract: Improved form-less electronic apparatus and methods for manufacturing the same. In one exemplary embodiment, the apparatus comprises a shape-core inductive device having a bonded-wire coil which is formed and maintained within the device without resort to a bobbin or other form(er). The absence of the bobbin simplifies the manufacture of the device, reduces its cost, and allows it to be made more compact (or alternatively additional functionality to be disposed therein). One variant utilizes a termination header for mating to a PCB or other assembly, while another totally avoids the use of the header by directly mating to the PCB. Multi-core variants and methods of manufacturing are also disclosed.

Abstract: Improved inductive electronic apparatus and methods for manufacturing the same. In one exemplary embodiment, the apparatus comprises an inductive device module comprising N inductors and N+1 core elements. The core elements comprise ferrite core pieces that are optionally identical to one another. These core elements are stacked (e.g., in a longitudinal coaxial arrangement) such that the back of one core element associated with a first inductor provides a magnetic flux path for a second inductor. Form-less (bonded) windings are also optionally used to simplify the manufacture of the device, reduce its cost, and allow it to be made more compact (or alternatively additional functionality to be disposed therein). One variant utilizes a termination header for mating to a PCB or other assembly, while another totally avoids the use of the header by directly mating to the PCB.