Abstract: One embodiment described herein includes a method of determining the location of a wireless device. The method includes capturing wired information about wired components in a network. Capturing wired information includes one or more of: reading information from a storage device associated with a connector of a wired communication media, or communicating a signal over an out-of-band conductor included in a cable in addition to the in-band conductors. The method also includes capturing wireless information about a wireless device communicatively coupled to the network, and integrating at least some of the wired information and the wireless information. The integrated wired information and wireless information is used to locate the wireless device.

Abstract: Embodiments described herein are directed to a cable assembly including at least a first optical fiber extending from a first end to a second end and an active optical module (AOM) attached to the first end of the first optical fiber and including a first storage device that is electrically connected to the electrical connector. The cable assembly also includes a passive optical connector terminating the second end of the first optical fiber and including a second storage device. The first storage device includes an AOM identifier stored therein identifying the active optical module and the second storage device includes first information stored therein indicating that the first end of the first optical fiber is associated with the AOM identifier.

Abstract: One embodiment described herein includes a method of determining the location of a wireless device. The method includes capturing wired information about wired components in a network. Capturing wired information includes one or more of: reading information from a storage device associated with a connector of a wired communication media, or communicating a signal over an out-of-band conductor included in a cable in addition to the in-band conductors. The method also includes capturing wireless information about a wireless device communicatively coupled to the network, and integrating at least some of the wired information and the wireless information. The integrated wired information and wireless information is used to locate the wireless device.

Abstract: One embodiment described herein includes a method of determining the location of a wireless device. The method includes capturing wired information about wired components in a network. Capturing wired information includes one or more of: reading information from a storage device associated with a connector of a wired communication media, or communicating a signal over an out-of-band conductor included in a cable in addition to the in-band conductors. The method also includes capturing wireless information about a wireless device communicatively coupled to the network, and integrating at least some of the wired information and the wireless information. The integrated wired information and wireless information is used to locate the wireless device.

Abstract: Embodiments described herein are directed to a cable assembly including at least a first optical fiber extending from a first end to a second end and an active optical module (AOM) attached to the first end of the first optical fiber and including a first storage device that is electrically connected to the electrical connector. The cable assembly also includes a passive optical connector terminating the second end of the first optical fiber and including a second storage device. The first storage device includes an AOM identifier stored therein identifying the active optical module and the second storage device includes first information stored therein indicating that the first end of the first optical fiber is associated with the AOM identifier.

Abstract: Embodiments described herein are directed to a cable assembly including at least a first optical fiber extending from a first end to a second end and an active optical module (AOM) attached to the first end of the first optical fiber and including a first storage device that is electrically connected to the electrical connector. The cable assembly also includes a passive optical connector terminating the second end of the first optical fiber and including a second storage device. The first storage device includes an AOM identifier stored therein identifying the active optical module and the second storage device includes first information stored therein indicating that the first end of the first optical fiber is associated with the AOM identifier.

Abstract: One embodiment described herein includes a method of determining the location of a wireless device. The method includes capturing wired information about wired components in a network. Capturing wired information includes one or more of: reading information from a storage device associated with a connector of a wired communication media, or communicating a signal over an out-of-band conductor included in a cable in addition to the in-band conductors. The method also includes capturing wireless information about a wireless device communicatively coupled to the network, and integrating at least some of the wired information and the wireless information. The integrated wired information and wireless information is used to locate the wireless device.

Abstract: Embodiments described herein are directed to a cable assembly including at least a first optical fiber extending from a first end to a second end and an active optical module (AOM) attached to the first end of the first optical fiber and including a first storage device that is electrically connected to the electrical connector. The cable assembly also includes a passive optical connector terminating the second end of the first optical fiber and including a second storage device. The first storage device includes an AOM identifier stored therein identifying the active optical module and the second storage device includes first information stored therein indicating that the first end of the first optical fiber is associated with the AOM identifier.

Abstract: A substrate, preferably silicon, or other suitable material has a layer of glass material disposed thereon. The glass material of the present disclosure has a substantially increased uniformity due to the reduction in bubbles as well as a relatively smooth top surface. By virtue of the reduction in the number and size of the bubbles in the glass the dielectric properties of the glass are more uniform. Additionally, the fact that the surface of the glass is much more smooth reduces the potential of prior structures to have an unacceptably thin glass layer due to the need to grind the surface smooth.

Abstract: A method of forming a glass layer on a substrate of material, for example, silicon, with the glass layer having a coefficient of thermal expansion which substantially matches the substrate. A slurry comprising glass powder and a solvent is applied to the substrate, as for example, by pouring, and a multi-step heating process is carried out with over-pressures of a highly diffusive gas such as hydrogen first, followed by a non-diffusive gas such as nitrogen to thereby create a glass layer having reduced bubbles and fewer bubbles than has heretofore been achieved.