Corning Optical Communications LLC

Corning Incorporated

Corning Cable Systems

Gerald Bernhart Schmidt

Michael Sauer

Igor Berlin

Dragan Pikula

William Patrick Cune

Jeffery Alan DeMeritt

Jason Elliott Greene

Paul Anthony Jakobson

Robert J Walker

Jason Elliot Greene

Components, systems, and methods for determining propagation delay of communications in distributed antenna systems are disclosed. The propagation delay of communications signals distributed in the distributed antenna systems is determined. If desired, the propagation delay(s) can be determined on a per remote antenna unit basis for the distributed antenna systems. The propagation delay(s) can provided by the distributed antenna systems to a network or other system to be taken into consideration for communications services or operations that are based on communications signal delay. As another non-limiting example, propagation delay can be determined and controlled for each remote antenna unit to uniquely distinguish the remote antenna units. In this manner, the location of a client device communicating with a remote antenna unit can be determined within the communication range of the remote antenna unit.

Determining propagation delay of communications in distributed antenna systems, and related components, systems, and methods

Distributed communication systems provide location information to mobile terminals that may not be able to receive otherwise global positioning system (GPS) information from GPS satellites. Providing location information to clients inside a building or other location may make location based services, such as emergency (E911) services, possible based on the location information. The distributed communications system may be provided location information about its components through a number of techniques. Once the distributed communications system has the location information, such location information may be passed to clients.

Location based services in a distributed communication system, and related components and methods

Components, systems, and methods for determining propagation delay of communications in distributed antenna systems are disclosed. The propagation delay of communications signals distributed in the distributed antenna systems is determined. If desired, the propagation delay(s) can be determined on a per remote antenna unit basis for the distributed antenna systems. The propagation delay(s) can provided by the distributed antenna systems to a network or other system to be taken into consideration for communications services or operations that are based on communications signal delay. As another non-limiting example, propagation delay can be determined and controlled for each remote antenna unit to be uniquely distinguish the remote antenna units. In this manner, the location of a client device communicating with a remote antenna unit can be determined within the communication range of the remote antenna unit.

Distributed communications systems employing one or more free-space-optics (FSO) links, and related components and methods are disclosed. In one embodiment, a distributed communications system is provided in which one or more links of a communications path located between a central unit and a remote unit include FSO provided by one or more FSO components. The FSO component(s) can replace optical fiber (or copper) cable assembly and the associated electrical/optical and optical/electrical converter circuitry. Note that FSO and fiber cable links may be used in a mixed fashion depending on the particular requirements of a given installation project for a distributed communications system. Use of such FSO components may allow temporary installations to be effectuated with greater ease and more economically since physical cable is not required for the FSO portion of the communications path. Likewise, installation obstacles associated with physical cable may be eliminated for portion of the communications paths that employ FSO.

Distributed communications system employing free-space-optical link(S), and related components and methods

Distributed antenna systems in which the distributed antenna systems can be sectorized. Radio bands distributed by the distributed antenna systems are allocated to one or more sectors. The antenna units in the distributed antenna systems are also allocated to one or more sectors. In this manner, only radio frequency (RF) communications signals in the radio band(s) allocated to given sector(s) are distributed the antenna unit allocated to the same sector(s). The bandwidth capacity of the antenna unit is split among the radio band(s) allocated to sector(s) allocated to the antenna unit. The sectorization of the radio band(s) and the antenna units can be configured and/or altered based on capacity needs for given radio bands in antenna coverage areas provide by the antenna units.

Sectorization in distributed antenna systems, and related components and methods

Embodiments disclosed provide sectorization in distributed antenna systems, and related components and methods. The antenna units in the distributed antenna systems can be sectorized. In this regard, one or more radio bands distributed by the distributed antenna systems can be allocated to one or more sectors. The antenna units in the distributed antenna systems are also allocated to one or more sectors. In this manner, only radio frequency (RF) communications signals in the radio band(s) allocated to given sector(s) are distributed the antenna unit allocated to the same sector(s). The bandwidth capacity of the antenna unit is split among the radio band(s) allocated to sector(s) allocated to the antenna unit. The sectorization of the radio band(s) and the antenna units can be configured and/or altered based on capacity needs for given radio bands in antenna coverage areas provide by the antenna units.

Apparatus for packaging a fiber optic device along with electronic and opto-electronic components upon a printed circuit board. Bend members having arcuate shaped guide surfaces for directing fibers between various components are strategically mounted upon the top surface of the board. Passive fiber optic components are also mounted upon support means between bend members so that the fibers entering and exiting the passive component run tangent to the bend radius of the bend members. The radius of curvature of the bend members is within the bend tolerance of the fibers used in the device. The bend members and support members are formed of a material having a thermal coefficient of expansion that is about equal to that of the board material whereby thermally induced stresses on the board mounted components are minimized.

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Painted Post, NY, United States of America

Gerald Bernhart Schmidt