Abstract: A magnetic shielding film includes opposing first and second major surfaces and a plurality of particles dispersed therebetween, each particle having a magnetic permeability, a thickness H along a thickness direction of the particle, and a longest dimension L along a length direction of the particle orthogonal to the thickness direction, L/H greater than or equal to 2, the particles defining a plurality of voids therebetween, the length directions of at least 60% of the particles oriented within 5.5 degrees of a same orientation direction.

Abstract: An implantable medical device (IMD) comprises a plurality of deep tines configured to be advanced into a septum of a heart of a patient in different directions that are not parallel to a longitudinal axis of the implantable medical device, wherein each deep tine of the plurality of deep tines is configured to deliver cardiac pacing to cardiac tissue distal to a chamber of the heart in which the IMD is implanted, and one or more shallow electrodes engageable with the septum, wherein the one or more shallow electrodes are configured to deliver cardiac pacing to the chamber of the heart in which the IMD is implanted.

Abstract: A magnetic shielding film includes opposing first and second major surfaces and a plurality of particles dispersed therebetween, each particle having a magnetic permeability, a thickness H along a thickness direction of the particle, and a longest dimension L along a length direction of the particle orthogonal to the thickness direction, L/H greater than or equal to 2, the particles defining a plurality of voids therebetween, the length directions of at least 60% of the particles oriented within 5.5 degrees of a same orientation direction.

Abstract: An optical fiber having at least two polymer coatings, the optical fiber comprising: an optical fiber comprising a glass optical core and a glass cladding; a first polymer coating comprising a silicone polymer covering the optical fiber; and a second polymer coating covering the first polymer coating is provided.

Abstract: Embodiments are directed to a method and device for coupling an optical fiber sensing element to an apparatus under test. A channel is affixed to the apparatus under test. The channel is partially filled with a coupling material. The fiber optic sensing element is placed on the coupling material. Coupling material is placed in the channel to uniformly surround the fiber optic sensing element and tightly couple the fiber optic sensing element to the apparatus under test.

Abstract: Embodiments are directed to a method and device for coupling an optical fiber sensing element to an apparatus under test. A channel is affixed to the apparatus under test. The channel is partially filled with a coupling material. The fiber optic sensing element is placed on the coupling material. Coupling material is placed in the channel to uniformly surround the fiber optic sensing element and tightly couple the fiber optic sensing element to the apparatus under test.

Abstract: An optical fiber having at least two polymer coatings, the optical fiber comprising: an optical fiber comprising a glass optical core and a glass cladding; a first polymer coating comprising a silicone polymer covering the optical fiber; and a second polymer coating covering the first polymer coating is provided.

Abstract: In an optical fiber turnaround, first and second optical fiber cores are configured to transmit light bidirectionally along a transmission axis between proximal and distal ends of the first and second optical fiber cores. A reflector component is positioned at the distal ends of the first and second optical fiber cores. The first core, second core, and reflector component are configured to provide a bidirectional routing path, wherein light energy travels from the proximal end of one of the first and second cores towards the reflector component, and travels back from the reflector component along the other of the first and second cores.

Abstract: A cable conduit system for a building frame structure having a bottom plate associated with each floor and a top plate associated with each ceiling. The system comprises a conduit stud and first and second header plates. The conduit stud has at least one cavity extending longitudinally from a first end to a second end. The first header plate is adapted to be fixedly mounted to an upper surface of the frame structure bottom plate and the second plate is adapted to be fixedly mounted to a lower surface of the frame structure top plate, respectively. The first end portion of the conduit stud is locked to the first header plate and the second end portion of the conduit stud is locked to the second header plate.

Abstract: A cable conduit system for a building frame structure having a bottom plate associated with each floor and a top plate associated with each ceiling. The system comprises a conduit stud and first and second header plates. The conduit stud has at least one cavity extending longitudinally from a first end to a second end. The first header plate is adapted to be fixedly mounted to an upper surface of the frame structure bottom plate and the second plate is adapted to be fixedly mounted to a lower surface of the frame structure top plate, respectively. The first end portion of the conduit stud is locked to the first header plate and the second end portion of the conduit stud is locked to the second header plate.

Abstract: An optical fiber management module assembly for mounting in a patch panel aperture and includes an adapter having a housing portion at its proximal end providing a cavity dimensioned and configured to seat the proximal end of a jack therein and having a channel portion at the other end providing a channel leading into the cavity. The housing portion has arms which engage the patch panel. Engaged with the distal end of the adapter is a projecting arm of a fiber management clip having an engagement portion at its proximal end with side walls defining a recess for the distal end of the jack. The clip also has a guidance portion at its other end thereon with channels extending longitudinally thereof in which optical fibers may be seated, and a latch extending over the channels and engaged with the guidance portion to retain the fibers in the channels.

Abstract: The present invention teaches a cable management system for supporting and routing cables. The cable management system includes one or more cable supports attached to a support structure such as a wall or electronics cabinet. Each cable support includes one or more cable spools detachably mounted to a spool guide. The spool guide includes a channel extending along its length and in-turned flanges that extend partially across the opening of the channel. Each cable spool includes a spool body and a coupler. The coupler has a retractable brace that can be inserted into the channel, rotated and retracted toward the spool body for clamping the in-turned flanges between the brace and the spool body.