Abstract: A field assembly kit for use in assembling an optical connector may include a first component that includes a first plurality of pairs of opposing tabs configured to frictionally maintain a first subassembly component at a first fixed position relative to the first component. The kit may include a second component that includes a second plurality of pairs of opposing tabs configured to maintain a second subassembly component at a second fixed position relative to the first component. The first subassembly component may be configured to couple to the second subassembly component to maintain an optical fiber in a fixed rotational position relative to the first subassembly component and the second subassembly component.

Abstract: A field assembly kit for use in assembling an optical connector may include a first component that includes a first plurality of pairs of opposing tabs configured to frictionally maintain a first subassembly component at a first fixed position relative to the first component. The kit may include a second component that includes a second plurality of pairs of opposing tabs configured to maintain a second subassembly component at a second fixed position relative to the first component. The first subassembly component may be configured to couple to the second subassembly component to maintain an optical fiber in a fixed rotational position relative to the first subassembly component and the second subassembly component.

Abstract: A phasemeter for estimating the phase of a signal. For multi-tone signals, multiple phase estimates may be provided. An embodiment includes components operating in the digital domain, where a sampled input signal is multiplied by cosine and sine terms to provide estimates of the inphase and quadrature components. The quadrature component provides an error signal that is provided to a feedback loop, the feedback loop providing a model phase that tends to track the phase of a tone in the input signal. The cosine and sine terms are generated from the model phase. The inphase and quadrature components are used to form a residual phase, which is added to the model phase to provide an estimate of the phase of the input signal. Other embodiments are described and claimed.

Abstract: A phasemeter for estimating the phase of a signal. For multi-tone signals, multiple phase estimates may be provided. An embodiment includes components operating in the digital domain, where a sampled input signal is multiplied by cosine and sine terms to provide estimates of the inphase and quadrature components. The quadrature component provides an error signal that is provided to a feedback loop, the feedback loop providing a model phase that tends to track the phase of a tone in the input signal. The cosine and sine terms are generated from the model phase. The inphase and quadrature components are used to form a residual phase, which is added to the model phase to provide an estimate of the phase of the input signal. Other embodiments are described and claimed.

Abstract: An illustrative optical connector is disclosed having a first component having a first channel therein; a second component having a second channel therein, wherein the second component is configured to physically mate with the first component such that the first and second channels merge to form a single continuous first channel extending completely through the mated first and second components; a third component having a second channel configured to as to receive the mated first and second components; and an optical fiber partially disposed within the second channel. Also disclosed is an illustrative kit having connector components and an illustrative method for combining connector components.

Abstract: An illustrative optical connector is disclosed having a first component having a first channel therein and a first screw thread; a second component having a second channel therein and a second screw thread complementary to and engaged with the first screw thread, wherein the first component is at least partially disposed within the second channel; and an optical fiber partially disposed within the first and second channels. Also disclosed is an illustrative kit having connector components and an illustrative method for combining connector components.

Abstract: An optical fiber network may be provided in a building or set of buildings that can be used with any type of services, regardless of whether those services are provided as electrical signals or as optical signals. To accomplish this, a service aggregation gateway may be provided that receives electrical and/or optical service signals and converts the incoming electrical signals to optical signals. Also, a way for conventional electronic devices in the building to communicate with the optical fiber network is provided. In addition, units for allowing such communication between electronic devices and the optical network may be modularized such that they are interchangeable. In addition, keyed optical fiber ferrule/connector pairs are described.

Abstract: An optical fiber network may be provided in a building or set of buildings that can be used with any type of services, regardless of whether those services are provided as electrical signals or as optical signals. To accomplish this, a service aggregation gateway may be provided that receives electrical and/or optical service signals and converts the incoming electrical signals to optical signals. Also, a way for conventional electronic devices in the building to communicate with the optical fiber network is provided. In addition, units for allowing such communication between electronic devices and the optical network may be modularized such that they are interchangeable. In addition, keyed optical fiber ferrule/connector pairs are described.

Abstract: An optical fiber network may be provided in a building or set of buildings that can be used with any type of services, regardless of whether those services are provided as electrical signals or as optical signals. To accomplish this, a service aggregation gateway may be provided that receives electrical and/or optical service signals and converts the incoming electrical signals to optical signals. Also, a way for conventional electronic devices in the building to communicate with the optical fiber network is provided. In addition, units for allowing such communication between electronic devices and the optical network may be modularized such that they are interchangeable. In addition, keyed optical fiber ferrule/connector pairs are described.

Abstract: A system and method for blowing an optical fiber to a destination are provided. A fiber blowing device may include an air inlet for receiving and conveying pressurized air from an air source through a bore of the blowing device. An optical fiber may be inserted into the device through a fiber inlet. A conduit may further be connected to the fiber blowing device, the conduit connecting the source location with the destination location. The optical fiber may be blown through the blowing device and the conduit using a drag force. The fiber blowing device may further include an acoustic measurement device for measuring distance and a display screen for displaying a variety of information.

Abstract: A method and system for installing fiber optic cable in a building is provided. The fiber optic cable includes a pre-installed ferrule configured to connect to an outlet frame at a destination location. Each fiber optic cable may further be stored in a fiber dispensing reel. A conduit may be installed between a source and destination location and used to direct a cable and attached ferrule to the destination location. A fiber blowing device may use pressurized air to convey the ferrule and cable through the conduit. The conduit may be attached to an optical distribution frame configured to store and organize the fiber optic cables and/or reels. A conduit may extend into and/or through the frame using a grommeted opening in the walls of the frame. The source end of a fiber optic cable may be attached to a service connection through a connection panel of the frame.

Abstract: An irrigation controller with an embedded web server activates irrigation devices in accordance with an event schedule. The event schedule maybe accessed and modified via a browser-equipped client. In certain embodiments, watering rates and schedules are adjusted in response to sensor inputs. The controller may query specialized network servers such as time servers or weather servers to update the controller clock and/or modify the event schedule. The controller may support multiple protocols such as email, FTP, UDP, HTTP and the like. The controller may be configured as a master or slave controller such that multiple slave controllers may coordinate with a master controller and modify their event schedules in accordance with the master event schedule. The result is an irrigation controller that is easily configured, locally or remotely accessible, responsive to varying weather conditions, and suitable for complex multi zone, multi-system configurations.

Abstract: An irrigation controller with an embedded web server activates irrigation devices in accordance with an event schedule. The event schedule maybe accessed and modified via a browser-equipped client. In certain embodiments, watering rates and schedules are adjusted in response to sensor inputs. The controller may query specialized network servers such as time servers or weather servers to update the controller clock and/or modify the event schedule. The controller may support multiple protocols such as email, FTP, UDP, HTTP and the like. The controller may be configured as a master or slave controller such that multiple slave controllers may coordinate with a master controller and modify their event schedules in accordance with the master event schedule. The result is an irrigation controller that is easily configured, locally or remotely accessible, responsive to varying weather conditions, and suitable for complex multi zone, multi-system configurations.