The GainMaker® Node is designed to serve as the cornerstone of today’s emerging fiber deeper network architectures.  The GainMaker Node combines the superior proven technologies of both the GainMaker RF Amplifier and Prisma® Optical components.  Available with two or three high level RF output ports, it is the ideal platform for delivering video (digital and analog) as well as high-speed data services over advanced hybrid fiber/coax (HFC) networks.  With its modular design of fiber receiver, reverse fiber transmitter and RF amplifier electronics, the GainMaker Node station can provide the full complement of functions required by advanced networks.

The GainMaker Node accommodates a second forward receiver with an RF switch to accommodate forward path optical redundancy.  Reverse traffic can be combined and routed to FP, DFB, or CWDM reverse transmitters.  The High Gain Dual launch amplifier module provides two high-level outputs (with the ability to split one internally to feed a third port).   Additionally, the GainMaker Node is available with an optional custom status monitoring transponder for use with Scientific-Atlanta’s ROSA / TNCS status monitoring and control element manager.  On-board temperature, automatic gain control (AGC) levels, RF switch position, power supply condition, as well as other features/parameters can be monitored through this transponder.

Installation of the GainMaker Node is quick and easy.  The GainMaker Node can be ordered as a complete node or as an upgrade kit for existing GainMaker System amplifiers.  The fiber receiver is delivered with preconnectorized fiber terminations.  The optional preconnectorized cable stub is the ideal method for connecting the GainMaker Node to the fiber network (see cable stubs data sheet).  External termination connectors are also available for central strength member and LXE style fiber optic cables.  The GainMaker Node includes a 4-fiber handling tray for these cables.

System reliability and upgrade flexibility are integral to the construction of the GainMaker Node.  Key features include a chromate plated housing to withstand harsher operating environments, local status monitoring of each module, and a 1 GHz housing for future higher bandwidth applications.

The Model GS7000 4-Port Node is Scientific-Atlanta’s latest generation 1.2 GHz optical node platform and utilizes a  completely new housing designed for optimal heat dissipation.  This platform allows independent segmentation and redundancy for both the forward and reverse paths in a reliable, cost-effective package.

The forward path of the Model GS7000 Node can be deployed with a single broadcast 1310/1550 nm optical receiver distributing common services to either four output ports (all high level) or six output ports (two high level and four lower level).  The forward path can also be segmented by using two independent optical receivers that each feed half of the node’s output ports (left/right segmentation).  Forward path optical redundancy is supported via the use of optional redundant optical receivers.   The type of forward path segmentation and/or redundancy is determined by the type of Forward Configuration Module installed in the node.

The Model GS7000 Node’s reverse path is equally flexible.  Reverse traffic can be segmented or combined and routed to a maximum of 4 FP, DFB, or CWDM reverse optical transmitters, or to advanced Baseband Digital Reverse optical transmitters as part of Scientific-Atlanta’s bdrâ„¢ system.  Reverse path optical redundancy is supported via the use of optional redundant optical transmitters.  The type of reverse path segmentation and/or redundancy is determined by the type of Reverse Configuration Module installed in the node.  A Reverse Input Port is also provided for high frequency (5 - 210 MHz) reverse signal injection.

All optical transmitters and optical receivers used in the GS7000 have new high profile module covers that include both a self-contained fiber pigtail storage area and an integrated pull ring for easier module installation and removal.  Additionally, the GS7000 optical receiver is a new low-current design that dissipates less power and incorporates a two state interstage RF attenuator switch for performance optimization.

The Model 6940 Collector/Terminator Node is a three port unbalanced node of the Prisma Model 6940 Node family, specially designed for the collector / terminator architecture.
In the forward path, the high gain optical receiver in both the collector node and the terminator node accepts 1310 and 1550 nm wavelength optical inputs and provides forward RF output to the launch amplifier module.  The launch amplifier has three unbalanced forward RF outputs, one of which has a 5 dB higher level than the other two.
In the reverse path, the launch amplifier in both the collector node and the terminator node has three reverse RF inputs fed from the HFC plant.  The three RF inputs to the terminator node are combined and amplified in the launch amplifier and routed to an RF output port.  The RF output is routed to the collector node through an operator-installed, hard-line coaxial cable.  The collector node combines this RF signal with its three reverse input signals.  The combined reverse signals from both the terminator and collector node are amplified and routed to the collector node’s reverse transmitter for optical transmission to the headend or hubsite.
The Model 6940 Collector/Terminator Node utilizes a standard Model 6940 Node housing.  The housing incorporates many features that enhance ease of use and reliability, such as a separate AC powering port, optional redundant power supply, and extended ports to allow for easy heat shrink weather protection.
The Model 6940 Collector/Terminator Node can also be configured with a Scientific-Atlanta status monitoring transponder.  The transponder, in conjunction with Transmission Network Control System (TNCS), or other compatible element management system, enables remote monitoring of critical node related parameters, and remote control of each optional reverse path switch for ingress troubleshooting.

The ARRIS Opti Maxâ„¢ OM2741 provides cable operators with a compact, fiber deep solution to manage network growth. The node features integrated segmentation switches that allow future segmentation without any additional parts or expense. The technician can enable new segments by simply adding a transmitter or receiver as required, then flipping a switch to activate the new configuration. By reducing the requirement for additional configuration boards and minimizing maintenance time, the OM2741 provides a lower total cost of ownership for the MSO.

With its premium high-gain receiver and advanced, next-generation GaN hybrid technology, the OM2741 is appropriate for a variety of architectures. The node accepts modules and accessories common with the 4x4 fully segmentable OM4100, easing sparing requirements, reducing inventory, and simplifying deployment training.

The ARRIS Opti Maxâ„¢ OM3100 1 GHz 2x2 segmentable node enables cable operators to increase forward capacity for HDTV, Video on Demand (VOD), VoIP, Internet, and other service offerings. 2x2 segmentation in both the forward and return path provides the ability to reduce a service group size by 50% for increased capacity and more targeted services when needed, without having to run new trunk fiber or install additional nodes. Thoughtfully designed drop in lid upgrades* enable service group segmentation by converting amplifiers or older nodes to 1 GHz nodes. The OM3100 accepts legacy PADs and Equalizers to minimize stocking requirements. Optional Digital Return transmitters utilizes pluggable SFPs in 1310, 1550, CWDM and DWDM wavelengths to provide easier truck stocking.

Cable operators are looking for new subscriber revenue and higher average revenue per subscriber without major CAPEX. ARRIS offers a suite of products and solutions that help operators seamlessly and easily stay in line with future goals, add new services, and strongly position against the competition.

Cable operators need optimal performance in their network architectures to support expanded service offerings such as HDTV, Video on Demand (VOD), VoIP, and high speed data/internet. The ARRIS Opti Maxâ„¢ OM4100, a 4 output segmentable node, uses industry leading technology and design to facilitate full 4x4 segmentation in a modular, pay-as-you grow platform for optical to RF (RF to optical in the upstream) signal conversion.

Full 4x4 segmentation capability in the downstream and upstream path provides the ability to reduce service group sizes by up to 75% for increased capacity and more targeted services, without having to run new trunk fiber or install additional nodes. The OM4100’s optional premium high gain receiver with on-board automatic gain control (AGC), coupled with GaN technology, operates at a lower optical input level, allowing operators to place nodes deeper into the network for expanded footprint.

The BTN-2 Broadband Telecommunications Node addresses the growing demand for a cost-effective solution for fiber rich architectures. The BTN-2 Broadband Telecommunications Node is designed to support advanced two-way services such as telephony, cable modems, and video on demand. Fully configured to meet your specific system requirements, the BTN-2 Broadband Telecommunications Node demonstrates Motorola's commitment to providing innovative products with advanced capability to act as a bridge to the future of the HFC broadband industry.

The BTN-2 Broadband Telecommunications Node performs lightwave to RF and RF to lightwave conversion in an optical transmission link supporting a variety of advanced hybrid fiber/coaxial network architectures. The BTN-2 Broadband Telecommunications Node supports an 870 MHz passband, provides for improved distortion performance and extended transmission distances, increased system reliability and reduced system maintenance.
With the BTN-2 Broadband Telecommunications Node you have a scalable solution for deployment in broadband systems. It can be configured for two-way operation as required. The BTN-2 Broadband Telecommunications Node optimizes your station space by allowing up to four optical modules: two optical receivers and two optical transmitters. This design gives you maximum flexibility to support your changing needs,making it ideal for telephony and other advanced applications where redundancy capability and field upgradeability/configurability are paramount concerns. The return path can be configured with a single optical transmitter or a RF amplifier output. Return path transmitter options include a 0.4 mw isolated Fabry-Perot transmitter (IFPT), a 0.4 mw non- isolated Fabry-Perot transmitter (FPT), a 1.0 mw or 2.0 mw isolated distributed feedback transmitter (DFBT). In addition, optional ingress switching capability via Headend control software allows the operator to identify and isolate ingress problems and mitigate the effects.

The Motorola 1 GHz Starline® BT® series optical node, model BTN100, leads the industry in features and performance and is designed to meet the needs of today's expanding broadband communication networks. This optical node provides the perfect solution for system operators who need to deploy fiber deeper into their architecture with the flexibility to expand later.

The BTN100 node can be deployed as a low-cost, four-output, stand-alone fiber deep node or to convert an existing BT amplifier into an optical node. The bases of the BTN100 node and the BT100 amplifier are the same, allowing operators to leave the hard-line coax cable installed when segmenting at an amplifier location.

The ARRIS OM1111 Opti Maxâ„¢ provides cable operators with a compact, single high output node to service small subscriber groups, small/medium business customers and MDUs.

The OM1111’s 1 GHz bandwidth enables cable operators to increase downstream capacity for HDTV, Video on Demand, VoIP, high speed data/internet, and other value-added services. Return bandwidth options extend to 85 MHz to support additional revenue generating service offerings. CWDM transmitters allow multiple nodes to be combined onto a single fiber with ruggedized optical passives, maximizing the optical spectrum that is available in fiber-scarce architectures.