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The EX100-EARC-KIT builds from traditional HDMI twisted pair technology with features such as multiple modes of operation, both HDMI and S/PDIF connections, and embedded IR, RS232 and CEC control. Each kit also includes two power supplies and mounting hardware. The EX100-EARC-KIT is an affordable, easy-to-integrate solution for extending eARC over longer distances. Additional information on the EX100-EARC-KIT is available from FutureReadySolutions.com.

[post_title] => Integrating eARC over Extended Distances [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => integrating-earc-over-extended-distances [to_ping] => [pinged] => [post_modified] => 2025-04-18 14:59:13 [post_modified_gmt] => 2025-04-18 18:59:13 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=176075 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [1] => WP_Post Object ( [ID] => 175536 [post_author] => 1 [post_date] => 2025-04-14 07:10:47 [post_date_gmt] => 2025-04-14 11:10:47 [post_content] => What's the difference between single mode and multimode fiber? More importantly, which cable should I use in my installation? These are two of the most common questions we're asked by integrators when designing a fiber optic installation. In some cases the answer is easy: any cable installed before the modem needs to be single mode. But if you're running network, security or audio/video links the answer might be a little more complicated. This article examines the differences.

Differences in Construction

First the basics.... single mode fiber is designed to propagate a single light mode whereas multimode supports multiple simultaneous light modes. This difference impacts bandwidth, signal transmission distance and signal stability. Additionally, single mode and multimode cables are built differently. The optical core in a single mode cable is 9µm and the optical core in a modern multimode cable is 50µm, though older fiber cables (specifically OM1 rated cables) features a 62.5µm core. The smaller core size in single mode leads to lower attenuation and therefore longer transmission distances and higher bandwidths. The physics are straight forward: a smaller pipe means less signal reflection.

Differences in Bandwidth

If bandwidth is important to you -- and it should be -- single mode is the clear winner. Single mode cables support brighter, more power light sources with lower attenuation. Plus, a single light mode provides theoretically unlimited bandwidth. Multimode, on the other hand, relies on the transmission of multiple light modes with less brightness and higher attenuation. This caps the bandwidth and leads to five grades of multimode fiber each with difference bandwidth and distance capabilities. Today's modern, high-bandwidth electronics typically rely on single mode OS2, multimode OM4 or multimode OM5 cable construction. The below chart shows traditional cable colors, core sizes and compatibility by grade.

Differences in Distance

Fiber transmission distance is largely dependent on the electronics and their light output, but in practice we find single mode also outperforms multimode. Single mode fiber supports short distance transmission and long distance transmission regardless of signal bandwidth and/or resolution (such as 1080p, 4K and 8K video). Most electronics will transmit up to 10km (6.2 miles) over a standard single mode cable. Multimode, on the other hand, has a much shorter maximum transmission distance that's affected by cable grade. We typically find the max distance between 300m - 550m (1,000 - 1,800 feet).

Differences in Cost

Given the clear advantages of single mode fiber as indicated above, you'd think single mode cables would be more expensive than multimode cables. And that's surprisingly not the case. Single mode fiber is more efficient to manufacture, leading to an average of 30% savings over multimode fiber. The catch is single mode electronics tend to cost more due to stronger light sources and more intricate optical processors. The actual cost varies between device and manufacturer; however, 30% tends to be the average cost difference.

Picking a Cable

So what's better? Single mode or multimode fiber? Well, they are different.... Single mode cable is less expensive, supports higher bandwidths and longer distances; however, the cost of electronics is greater. Most electronics will support either cable type provided the proper transceiver module is used and distance limitations are respected, though it's always best to check with your intended device prior to integrating a cable. Whichever cable you choose, keep in mind that single mode and multimode cables shouldn't be passively connected. The large multimode core won't match the smaller single mode core, resulting in signal killing optical loss. The team at Future Ready Solutions will help you work through the fiber optic cable selection process. Additional information is available online.

[post_title] => Understanding Fiber Optic Cable: Single Mode vs. Multimode [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => understanding-fiber-optic-cable-single-mode-vs-multimode [to_ping] => [pinged] => [post_modified] => 2025-04-14 07:11:46 [post_modified_gmt] => 2025-04-14 11:11:46 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=175536 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [2] => WP_Post Object ( [ID] => 175477 [post_author] => 1 [post_date] => 2025-04-13 08:33:20 [post_date_gmt] => 2025-04-13 12:33:20 [post_content] => Fiber optic cabling comes in a variety of configurations and constructions: multimode, single mode, simplex, duplex, distribution, etc. You can find these variants on the Future Ready Solutions website, including articles and case studies detailing where each is used. However, another core consideration is whether to use fiber cabling built with a traditional glass construction or a Cleerline SSF™ glass-encapsulated-by-polymer construction. Both are available from Future Ready Solutions, and both have their place in fiber optic installations. This article explores the differences between the two, including the applications and use cases where each provide value. Additional information, including articles on cable jacketing, connectors, tools, testers and other design, installation and troubleshooting best practices, is available in the Future Ready Solutions News & Insights Library.

Traditional Fiber Optic Cabling

Fiber optic cabling is traditionally built with five different construction layers:

Cable jacket -- the outer covering that insulates and protects the cable
Strength member -- the aramid or Kevlar yarn that strengthens and protects the cable from breakage (especially during installation and pulling)
Coating -- the internal covering that protects the optical core
Cladding -- the internal reflective surface that encourages light propagation
Core -- the glass strand that transports optical laser and LED signals

Depending on the installation environment, armoring and waterproofing may also be used; however, the core components tend to remain the same: jacket, strength member, coating, cladding, core.

Traditional fiber optic cables employ a core built with ultra pure glass designed to balance performance and flexibility. The glass in older cables could survive bends and kinks up to 30mm (or 1.2 inches) without breaking; whereas newer "bend-insensitive" cables survive bends and kinks up to 8mm (0.3 inches) without breaking. And in the fiber world, it's all about breakage and optical integrity..... a broken, crushed or cracked core will impede signal performance rendering the cable unusable. It's imperative that traditional fiber optic cables be handled and installed properly within their stated specifications.

Cleerline SSF™ Fiber Optic Cabling

Unlike traditional fiber which is constructed of glass, Cleerline SSF™ leverages a patented glass-encapsulated-by-polymer design that significantly increases optical strand strength while eliminating contaminant access points. SSF™ delivers a stronger, more flexible cable that’s thinner and easier to terminate in the field. Simply put: cables built with SSF™ out bend, out handle and outlast traditional cable technology even in extreme applications, environments and installation paths without affecting signal performance. A common misconception around SSF™ technology is that the glass-encapsulated-by-polymer design doesn't conform to industry standards and can't be used with traditional tools, testers, connectors and connectivity equipment. This is false: all Cleerline SSF™ cable constructions comply with standards and are compatible with common tools, connectors, patch panels, couplers and other enclosure and connectivity hardware. In fact, SSF™ cables actually terminate faster and more reliably than traditional cables due more durable handling and an easier-to-prepare proprietary soft peel coating.

However, this premium performance does come at a price, and Cleerline SSF™ cables tend to be more expensive than cables built with a traditional glass construction. Additionally, installers who fusion splice cables and connectors often find the installation process longer with a Cleerline SSF™ cable due to the added steps of removing the proprietary soft peel coating and polymer. SSF™ lends itself to in-the-field mechanical connectors (which are commonly used in the audio-visual and security industries).

What's Better?

So what's better: cables built with a traditional glass construction or those build with a Cleerline SSF™ glass-encapsulated-by-polymer construction? Well, it really depends on your application and installation constraints.

Price -- traditional cable tends to be less expensive
Durability -- SSF™ outperforms with significantly better fatigue, flex, impact and operating temperature ratings
Life expectancy -- SSF™ outperforms with a significantly longer life expectancy, even with tight and problematic cable paths
Ease of installation -- SSF™ is easier to install when using in-the-field mechanical connectors, whereas traditional cable has an edge when fusion splicing
Available options -- traditional cable has a much wider array of constructions and configurations due to the adoption by virtually all manufacturers (other than Cleerline, of course)

So that said, Future Ready Solutions tends to make the following recommendations when trying to decide between traditional fiber optic cabling and Cleerline SSF™:

If you're new to fiber -- SSF™ offers an easier installation experience
If you only install fiber occasionally -- SSF™ is more forgiving with less installation steps
If you have a harsh installation -- SSF™ provides better temperature and flexibility ratings
If your installers are rough on cable -- SSF™ is more durable
If you're fusion splicing connections -- traditional cable is easier and faster to fusion splice
If you're purchasing pre-made or factory terminated cables -- traditional cable is less expensive, especially considering the termination labor was performed at the factory
If you're installing cable used for a broadband connection -- traditional fiber is required for broadband and telecommunication applications (our News & Insights Library has more on this topic)

The team at Future Ready Solutions will help you work through the fiber optic cable selection process. Additional information is available online.

[post_title] => Understanding Fiber Optic Cable: Traditional vs. SSF [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => understanding-fiber-optic-cable-traditional-vs-ssf [to_ping] => [pinged] => [post_modified] => 2025-04-13 08:33:20 [post_modified_gmt] => 2025-04-13 12:33:20 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=175477 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [3] => WP_Post Object ( [ID] => 174918 [post_author] => 1 [post_date] => 2025-04-08 07:22:36 [post_date_gmt] => 2025-04-08 11:22:36 [post_content] => The demand for outdoor networking has increased significantly as lifestyles and technologies expand beyond a home’s four walls. With property values increasingly at a premium, more people are converting outdoor spaces into functional areas, integrating outdoor entertainment, workspaces and smart infrastructure. Now with so many new devices available, including outdoor Wi-Fi, surveillance systems, security devices, IoT applications and landscape lighting, all of which require stable, high-performance connectivity, reliable outdoor-rated network cables have become a new essential. Commercial environments are also driving demand. Hospitality venues, retail spaces and corporate campuses require robust outdoor networking to support guest Wi-Fi, security systems, and business-critical IoT applications. These installations often face higher bandwidth demands and require reliable, long-term connectivity. Unlike indoor cables, outdoor-rated cables must be tough enough to withstand a wide array of harsh conditions. Exposure to moisture, UV radiation, extreme temperatures and other physical stresses can degrade performance and shorten an inadequate cable’s lifespan significantly. The right cable selection therefore becomes crucial to maximizing overall system performance and longevity and to reducing maintenance and service calls. A new article from our partners at Kordz explores the key challenges, best practices, and innovations in outdoor network cabling, helping integrators make informed choices that enhance performance, durability, and installation efficiency.

Outdoor Installation Challenges

Outdoor network installations introduce a range of challenges that can impact performance and longevity. Extreme weather conditions, moisture and physical wear are some of the biggest threats that outdoor cables face. Without the right cable selection and installation techniques, degradation and failure become unavoidable. Mother nature puts outdoor cables through their paces. For example, moisture from rain, humidity or soil contact can cause corrosion and signal loss. UV radiation from sunlight degrades cable jackets over time, leading to cracking and brittleness. Temperature fluctuations can cause materials to expand, contract and weaken. Rodents and vermin can also damage cable insulation, exposing conductors and leading to connectivity failures. Common installation mistakes can further compromise outdoor cable performance. Improper conduit use, poor terminations and failure to protect against water ingress can cause failures that require corrective maintenance. Water entering a cable through an unsealed termination or a damaged jacket can travel significant distances within the insulation. In extreme cases, the network cable can act as a pipeline, channelling water directly into connected electronics, resulting in water damage that can entail costly repairs or complete device failure. Some manufacturers compensate for outdoor environmental challenges by increasing the cable thickness; however, this approach leads to stiffer cables, which can then make installation harder. Stiff cables can be difficult to route around corners, through conduit, or in tight spaces, especially in cold conditions, which further reduces their flexibility. In contrast, slim and flexible cables improve installation efficiency while maintaining durability and therefore, they reduce stress on connection points. By adopting the suggested best practices to follow in this article, integrators can mitigate these challenges and extend the lifespan of their installations.

Choosing the Right Outdoor Network Cable

Selecting the right cable type is critical for reliable outdoor connectivity. In the AV integration space, the terminology used to describe outdoor cables varies significantly across different regions and brands, making selection difficult. Some may refer to them as ‘exterior grade,’ ‘duct grade,’ ‘weatherproof’ or ‘direct burial’, but there is no universal standard. This can make it confusing when it comes to choosing the right cables. So, firstly, it is important to understand whether your cable will be installed above or below ground, and if below ground – with or without conduit. Above Ground Installation. Kordz "outdoor" cables all feature a UV-stabilized jacket designed to resist degradation from sunlight exposure. This makes them suitable for external environments above ground, in which they may be exposed to the elements, or below ground inside conduit. Below Ground Installation. Below ground, also known as direct burial, denotes a cable that includes both a UV-stabilized jacket and gel-filling or water-blocking elements to waterproof the terminations by preventing water ingress and propagation. These cables are specifically engineered for below ground installation without the need for additional conduit. They can withstand underground moisture, shifting soil and mechanical stress, while maintaining reliable connectivity. The Kordz ONE Direct Burial Network Cable system features a true direct-burial construction for underground installation. Discreet, Tight and Hard-to-Reach Installations. It is also important to identify if a regular or slim outdoor cable must be used. For installations that require discretion to maintain an aesthetic, or routing in hard-to-reach places such as tight pathways, a slim outdoor cable will make the installation immeasurably easier. The Kordz PRO SlimCat Outdoor Network Cable system specifically addresses many of these challenges. With all the power of regular Cat6 cable in half the physical size, it is designed for easier routing in obvious, tight and hard-to-reach spaces while maintaining the durability required for long-term outdoor performance. Other Outdoor Considerations. While not always required, installations such as heavy industrial or high-traffic areas may necessitate additional outdoor cable features to ensure installation longevity in harsher environments. In these situations, ‘armored’ (which describes the inclusion of metallic armoring that prevents damage from mechanical impact or fauna interaction) or ‘ruggedized’ (denoting additional jacketing layers to increase core protection or similar qualifiers to denote the products’ additional features) may be necessary. The below chart shows popular outdoor network cables from Kordz.

Best Practices in Outdoor Connectivity

Ensuring reliable connectivity in outdoor environments requires careful planning and the right materials. Unlike indoor installations, outdoor networks must account for environmental factors that can degrade performance over time. Selecting the correct cable type, using proper installation methods, and applying protective measures will ensure reliable, long-lasting connectivity in demanding outdoor environments and reduce the risk of failures. 1. Ensure appropriate distance from high voltage cables. An important consideration is installation near high-voltage power cables, where local electrical codes and overall industry guidelines dictate minimum separation distances to prevent interference and electrical hazards. Following theses standards is essential for both safety and performance. 2. Use conduit wherever possible. Conduit, shielding and gel-filled cables all play a role in protecting outdoor network connections. Conduit provides an extra layer of mechanical protection against physical damage, UV exposure and moisture ingress. Conduit also provides an easier path for cable replacements, additions and upgrades. It should be utilized in outdoor installations wherever possible. 3. Avoid installing cable tension points. When installing cable, avoid sharp bends or tension points that may over stress the cable and cause mechanical strain. These tight paths may be future failure points. 4. Waterproof your termination. Where flowing water is a potential hazard, waterproofing terminations and the use of gel-filled cables is advised to prevent propagation of water into equipment. 5. Consider surge protection and grounding. In outdoor environments, one of the most overlooked yet critical factors is surge protection. Electrical surges caused by lightning strikes—either direct or induced through nearby strikes—can cause severe damage to network infrastructure. Overvoltage can travel along copper conductors, potentially damaging or destroying connected devices. Integrators should account for these risks by incorporating surge protection devices where outdoor cabling enters a building or connects to sensitive equipment. These devices help to dissipate excess voltage safely, preserving both equipment and cable integrity. Furthermore, grounding is essential in outdoor installations. Proper earthing of connected hardware ensures that any stray voltage is safely discharged. This not only protects connected devices but also contributes to overall system reliability. While no cable can prevent a direct lightning strike from causing damage, taking a proactive approach to surge and overvoltage protection significantly reduces the chance of failure. As outdoor networks become more critical to both residential and commercial operations, protecting them against unpredictable electrical events is an important part of a well-designed system. 6. Allow for future readiness. Planning for long-term performance is just as important as ensuring immediate reliability. Outdoor installations should support potential expansions and evolving network demands. Selecting cables that exceed current performance requirements helps integrators avoid costly upgrades and ensures the system remains capable of handling future connectivity needs, as does installing conduit as described above.

Conclusion

Outdoor network installations require careful planning and the right cable selection to ensure long-term performance and reliability. Unlike indoor environments, outdoor conditions expose cables to harsh weather, UV radiation, moisture, and mechanical stress. Without appropriate protection, network failures and costly corrective maintenance become inevitable. Choosing the right cable is the first step in creating a robust and reliable outdoor network. Outdoor-rated and direct burial cables are specifically designed to withstand environmental challenges, reducing maintenance, improving reliability and extending installation lifespan. Best practices such as using conduit, ensuring waterproof terminations, and selecting flexible yet durable cables help integrators avoid common installation pitfalls and costly failures. However, as regulations and recommended practices vary between countries, integrators should always refer to their local requirements before installation. As demand for outdoor connectivity grows, integrators who understand these challenges and solutions will be better positioned to expand their business. By selecting high-quality outdoor-rated cables and following best installation practices, they can deliver long-lasting, high-performance solutions for both residential and commercial clients. Click here to read the original article from our partners at Kordz. [post_title] => Outdoor Networking: Best Practices for Reliable Connectivity [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => outdoor-networking-best-practices-for-reliable-connectivity [to_ping] => [pinged] => [post_modified] => 2025-04-08 07:23:11 [post_modified_gmt] => 2025-04-08 11:23:11 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=174918 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [4] => WP_Post Object ( [ID] => 169507 [post_author] => 1 [post_date] => 2025-02-13 17:04:49 [post_date_gmt] => 2025-02-13 22:04:49 [post_content] => The LightSpeed Technologies FTTX-K10 all-in-one fiber demarcation kit recently took home top honors in the annual Top New Technologies (TNT) awards at ISE 2025. This year’s awards saw 13 separate categories ranging from marketing programs to products, and the FTTX-K10 won best new product in the competitive Audio, HDMI & Fiber Optic Cabling category. “ISE is the biggest custom electronics tradeshow in the world. It attracts hundreds of residential and commercial exhibitors to show their latest solutions and out of those hundreds, these winners exemplify the cross-section of forward-thinking innovations,” says CE Pro Editor-in-Chief Arlen Schweiger. Dan Ferrisi, group editor, commercial and security, Emerald, adds “There are many reasons that members of the commercial AV community go to ISE, but foremost among them is to check out new products that will help integrators deliver outstanding outcomes to their clients. The technology innovations that the TNT Awards at ISE celebrate lie at the heart of those incredible end-user experiences. Across commercial environments and technology categories, this year’s submissions are just a fantastic representation of the very best that commercial AV has to offer.” Launched in late 2024, the LightSpeed Technologies FTTX-K10 kit streamlines fiber-to-the-home and business with all-in-one fiber optic connectivity in an affordable, easy-to-install package. The kit includes everything required to route a broadband fiber connection from an outdoor service location to an indoor demarcation point, quickly providing internet service to ONTs and modems.

Unlike other demarcation wiring systems that require a confusing variety of components and interconnects, the FTTX-K10 tackles almost any project with only two components: (1) a low-profile indoor enclosure that mounts to any standard single gang box or trim ring, and (2) an innovative outdoor enclosure with 150 feet of factory-terminated built-in fiber optic cable. Integrators simply mount the outdoor enclosure, route the cable to the indoor demarcation location, connect the indoor enclosure, and plug-in the service feed and ONT equipment. To accommodate a wide variety of building constructions and cable paths, the FTTX-K10 features ultra-flexible, micro-armored, broadband-ready simplex single mode fiber that supports water exposure, UV exposure and stapling in place. An included bullet-style pulling eye and toolless snap-on SC/APC fiber connector accommodates cable paths as small as ¼” in diameter. The FTTX-K10 kit is ideal for residential and commercial installations where affordable, quick, consistent, reliable, and aesthetically pleasing fiber optic service connections are required. And its streamlined design allows anyone to deploy a broadband connection without fiber optic tools, testers, or specialized training. Additional information on LightSpeed Technologies and the FTTX-K10 is available from www.futurereadysolutions.com. [post_title] => LightSpeed Demarc Kit Wins Top New Technology Award [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => lightspeed-demarc-kit-wins-top-new-technology-award [to_ping] => [pinged] => [post_modified] => 2025-02-13 17:04:49 [post_modified_gmt] => 2025-02-13 22:04:49 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=169507 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [5] => WP_Post Object ( [ID] => 168385 [post_author] => 1 [post_date] => 2025-02-03 15:43:05 [post_date_gmt] => 2025-02-03 20:43:05 [post_content] => DPL Laboratories, Inc., the industry leader in high-speed digital testing, specializing in the performance evaluation of digital signal connectivity products such as HDMI and USB cables, proudly announces that Kordz new Pro4 48Gbps Active Optical HDMI Cable is the first production HDMI optical cable to pass DPL Labs' new 48G Enhanced Reference Standard Platform. This cutting-edge platform was designed specifically to address the demands for the latest high-performance video electronics, offering capabilities such as enhanced scaling, AI-driven motion interpolation, pixel refinements, and more. The 48G Enhanced Reference Standard Platform includes advanced features such as rigorous stress testing, low-level input signal evaluations, and comprehensive assessments of internal power management systems. These innovations ensure that products meet the stringent requirements for next-generation digital signal performance. Kordz continues to push the boundaries of optical cable technology, integrating state-of-the-art VCSEL’s, new semiconductor advancements, along with improved power management and PCB differential electrical pathways. The Kordz Pro4 48Gbps Active Optical Cables deliver exceptional performance across all lengths, maintaining low distortion, high signal-to-noise ratios, and unmatched output consistency. These breakthroughs set a new industry standard for active optical cables.

James Chen, Managing Director of Kordz, said: "We are thrilled to have been the first company to earn DPL Labs' New 48G Enhanced Reference Standard. As a leader in HDMI and given our promise of 'Connectivity Assured', we partner with DPL Labs' testing because it is the most demanding in the industry for high-speed interconnect cables. This certification provides peace of mind not only for our company but for every Kordz user. Seeing the new Kordz PRO4 48Gbps Active Optical HDMI Cable achieve a Green Pass in over 100 individual tests on our test reports made all our engineering efforts worthwhile." DPL Labs® Certification Program was created to assist cable buyers, both consumer and industry, in selecting the best performing and most reliable HDMI cables. Last year, DPL updated its testing process to consider the latest revisions for 48G and Ultra96 HDMI specifications and requirements for emission standards. Certain visionary cable brands maintaining their high-end positioning submit their cables to be put through rigorous, multi-stage testing. All testing is done by specially trained DPL engineers in our completely independent testing laboratory. Those cables that meet or exceed DPL Labs standard of excellence are cables that offer far better performance and longer-term reliability than “typical” HDMI cables. These cables, and only these cables, are awarded the prestigious DPL 48G Enhanced Reference Standard – an easily recognizable registered trademark label that instantly identifies those products that have surpassed DPL standards. Look for the DPL Labs Enhance Performance certification label. Additional information on the Kordz Pro4 48Gbps Active Optical Cable line is available online. [post_title] => Kordz Pro4 48G Active HDMI First to Pass DPL Labs' 48G Enhanced Reference Standard [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => kordz-pro4-48g-active-hdmi-first-to-pass-dpl-labs-48g-enhanced-reference-standard [to_ping] => [pinged] => [post_modified] => 2025-02-17 15:11:35 [post_modified_gmt] => 2025-02-17 20:11:35 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=168385 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [6] => WP_Post Object ( [ID] => 164762 [post_author] => 1 [post_date] => 2025-02-01 10:29:23 [post_date_gmt] => 2025-02-01 15:29:23 [post_content] => An uninterruptible power supply, or UPS, is a critical component for audio-visual, security, networking and broadband installations. UPSs provide backup power when the main power source fails, they condition incoming power from surges and voltage fluctuations, and they optimize power output signals to perform within intended specifications. In essence, UPSs ensure devices operate properly and efficiently with or without power from the main grid and they protect devices from damage and data loss. In previous articles we've discussed the ten major power problems that affect residential and commercial buildings. In this article we'll explore UPS technology, including the four major constructions -- standby, line interactive, online and isolated online -- and how they protect against different power issues. However, before we begin it's helpful to understand key design considerations when selecting a UPS system.

Key Design Considerations

Several key design considerations influence the selection of an Uninterruptible Power Supply. Before purchasing any hardware, it's important to understand the below factors. Installation environment. UPS systems rely on a stable, dry environment with temperatures typically between 68 - 77 degrees F and 60% or less humidity. An environment outside of these parameters may shorten the UPS's battery life and lead to noisy system operation (especially of the UPS features built-in fans for cooling). In addition, it's important to understand the available footprint for the UPS hardware, including whether it will be rack-mounted, wall-mounted or free-standing in a dedicated cabinet. Power environment. Within the United States, power infrastructures typically consist of alternating current (AC) in one of three configurations: single phase, dual (or split) phase and three phase. All three environments are different, as are the UPS systems required for them. Most residential systems use single or split phase, whereas larger commercial projects use three phase. Power load and runtime. Power load (the power requirement of all the devices connected to the UPS) and runtime (the desired protection time for the total load) are also important factors when choosing a UPS system. It's critical to choose a system that accounts for the total load and desired runtime, including a 20% overage to account for power spikes and future system expansion. If needed, Future Ready Solutions posted an article that walks through the calculation process. Battery technology. All UPS systems require batteries, and battery construction will influence the system's upfront and long-term cost, required maintenance and even environmental impact. Future Ready Solutions explores different battery types in an online article. Modular vs. conventional. In addition to different construction and format technology, UPSs are also available in both modular and conventional (or single fixed unit) designs. Installations with tight budgets will typically benefit from the lower cost of a conventional UPS system, whereas installations that anticipate growth and depend on reliable long-term operation will benefit from a modular UPS design. Future Ready Solutions explains more in an a separate article. Monitoring and remote management. Some UPS systems offer remote monitoring, management, diagnostics and alerts. Consider who will be managing and servicing the system over its installation life and whether remote functionality is required. Power problem coverage. Different UPS constructions also address different power problems, as addressed in the 10 Common Power Problems article. These problems include blackouts, brownouts, surges, sags, noise, power variations and power distortions that can damage electronics and affect their performance. The different UPS types -- standby, line interactive, online and isolated online -- all protect against different problems.

Good: Standby UPS Systems

Now that we understand the design considerations when choosing a UPS system, let's explore the four major constructions beginning with the most basic (and also least expensive) technology: standby UPS protection. Standby UPS systems are designed to provide short term power to localized devices. They are commonly used for single workstations and single equipment racks, and should never be used with critical devices. This is because, unlike other UPS formats, standby UPSs don't provide constant protection for connected devices and rely on an inverter switchover in the event of power failure. Devices plugged into an standby UPS receive power directly from the power grid rather than the UPS’s inverter output. The inverter, which converts the battery’s DC power to AC, is “offline.” When the power fails, the standby UPS automatically connects the device's load to the inverter’s output, which can take up to 10 milliseconds or more. Due to this construction design, standby UPSs are typically less efficient, have shorter battery life and only protect against blackouts, power sags and limited power surges. Explore standby UPS solutions

Better: Line Interactive UPS Systems

Unlike standby UPS systems, line interactive systems keep the DC-to-AC power inverter “inline” with the UPS’s output. When the power grid is functioning normally, the inverter is in AC-to-DC mode to charge the battery. When the power grid fails, the UPS’s transfer switch opens and the inverter reverses allowing the battery to power the connected devices. Because the inverter remains active, line interactive UPS systems provide expanded protection against five of the common power problems: blackouts, power sags, power surges, brownouts and overvoltage. Line interactive UPSs also offer improved battery life and are typically used for network servers, small residential and commercial systems and more critical devices. Explore line interactive UPS solutions

Best: Online (Double Conversion) UPS Systems

Also known as double conversion technology, online UPSs provide constant and enhanced power protection against normal mode noise, harmonic distortion, switching transients and frequency variations. This zero transfer time and enhanced filtering functionality is due to the online UPS's double conversion design: first a rectifier converts AC power from the power grid to DC power, which is stabilized and fed through an inverter that converts it back to AC power. When the main power source fails, the UPS automatically eliminates the rectifier to instantaneously switch to battery power. As a result, online UPSs provide long periods of battery runtime and provide maximum protection for highly sensitive electronics and connected equipment. Explore online UPS solutions

Best+: Isolated Online UPS Systems

Also known as power conditioned UPS systems or laboratory-grade UPS systems, isolated online UPSs combine power backup and enhanced conditioning into a single system. Isolated UPSs expand upon the online design by filtering power through isolation transformers to ensure clean and stable power regardless of power grid fluctuations. Devices connected to an isolated online UPS are completely disconnected from outside power, and are therefore protected against all common power problems, including common mode noise. Isolated UPSs are often used in mission-critical applications such as medical facilities, data centers, control rooms, industrial centers and any application with grounding or noise issues. Explore isolated online UPS solutions

[post_title] => Choosing a UPS: What's Best for My Application [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => choosing-a-ups-whats-best-for-my-application [to_ping] => [pinged] => [post_modified] => 2025-02-01 11:43:55 [post_modified_gmt] => 2025-02-01 16:43:55 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=164762 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [7] => WP_Post Object ( [ID] => 165570 [post_author] => 1 [post_date] => 2025-01-06 16:41:00 [post_date_gmt] => 2025-01-06 21:41:00 [post_content] => Many decisions go into choosing the proper uninterruptible power supply (UPS): power requirements, runtime, battery technology, physical size, installation location, efficiency, environmental impact, etc. We've covered many of these topics in previous power articles. However, there is one basic question that often gets overlooked: should you install a conventional UPS or a modular UPS? This article explores the differences in UPS construction, including the pros and cons of each format and the typical applications where each are installed. Additional information on actual UPS models is available on the Xtreme Power Conversion product page.

Modular vs. Conventional: What's the Difference?

A modular UPS is made up of independent power modules that can be added and removed to scale power needs and perform service, whereas a conventional UPS is a single fixed unit. Modular UPSs are typically installed in environments with growing and/or fluctuating power needs and applications where uptime performance is critical. Often, whole building and centralized UPS systems leverage modular technology. Conventional UPSs, on the other hand, are typically installed in smaller applications where scalability and mission-critical performance isn't a concern. Many point-of-service UPSs follow a conventional fixed design.

Modular vs. Conventional: Key Differences

Modular and conventional UPS constructions have several key differences, including scalability, flexibility, redundancy, serviceability and cost. Scalability. Modular UPS systems can be easily expanded by adding more modules as power requirements grow, whereas conventional UPS systems typically require replacing the entire unit to increase capacity. Flexibility. Modular UPS systems can be customized to specific power needs by combining different modules, whereas conventional UPS systems are typically fixed to a specific connection and power type. Redundancy & Reliability. Modular UPS systems can be configured with redundant battery modules to ensure continuous power even if one or more modules fail, whereas conventional UPS systems are reliant only on their main battery modules. Mission-critical systems almost always rely on modular UPS technology. Maintenance. The redundant battery modules in modular UPS systems also provide backup when the system is being repaired or upgraded, whereas conventional systems require shutting down the entire UPS for maintenance ultimately leaving the equipment downstream unprotected. Energy Efficiency. Modular UPS systems can be configured specifically for the intended application, ensuring efficient operation and optimal performance. Conventional UPS systems, on the other hand, operate at a fixed capacity regardless of application, leading to inefficient operation and potentially battery damaging discharge patterns. Cost. The upfront cost of modular UPS systems does tend to be higher than conventional UPS systems, as flexible and scalable hardware is required. However, the long-term cost of modular UPS systems can be equal to or even less than conventional systems thanks to decreased maintenance costs and, if needed, replacements and upgrades.

Modular vs. Conventional: The Right Decision

So what's the right choice: modular UPS or conventional UPS? Well, it really depends on budget and application. Fixed deployments with tight budgets will typically benefit from the lower cost of a conventional UPS system; however, systems that anticipate growth and depend on reliable long-term operation will benefit from modular systems. To simplify things, we can sum the decision as follows:

Fixed point-of-service installation: conventional
Upfront price sensitive: conventional
Whole-building centralized installation: modular
Long-term overall value: modular
Ease of system scaling and flexibility: modular
Ease of system maintenance: modular
Mission-critical system reliability: modular
Energy efficiency: modular

The good news is Future Ready Solutions offers both conventional and modular UPS systems in a variety of formats and constructions. Additional information is available on the Xtreme Power Conversion product page or by contacting us for design assistance. [post_title] => Choosing a UPS: Modular vs. Conventional [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => choosing-a-ups-modular-vs-conventional [to_ping] => [pinged] => [post_modified] => 2025-01-07 07:27:27 [post_modified_gmt] => 2025-01-07 12:27:27 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=165570 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [8] => WP_Post Object ( [ID] => 165505 [post_author] => 1 [post_date] => 2025-01-05 08:26:45 [post_date_gmt] => 2025-01-05 13:26:45 [post_content] => Choosing the proper uninterruptible power supply (UPS) system is more than just features and battery type: a critical first step is understanding the total load, or the power requirement of all the devices that will be connected to the UPS, and the desired protection time for the total load. If you choose a UPS with too low a load capacity, it may not be able to handle the power draw and could shut down prematurely during a power outage. On the other hand, if you choose a UPS with too much load capacity, you (and ultimately your client) are paying for more protection than is required. Therefore, calculating UPS load is an important part of any point-of-service or whole-building system selection -- and the good news is it's pretty easy. This article walks through the steps for calculating UPS load. Future Ready Solutions also offers a complementary downloadable worksheet for identifying the proper UPS system prior to sale -- including calculating load -- and performing UPS maintenance post sale. Many of the images within this article originate from the worksheet. Step 1: Identify the connected equipment and their power draw. The first step in calculating load is to create a list of every device that will be protected by the UPS. Include everything that will be connected to the circuit, including all electronics, appliances, motors and other powered devices. Once identified, list the amps, volts and watts for each device. This information is typically found on device and power supply labels and/or within the device's manual or technical specification sheet. Example labels are shown below.

If the watt information isn't available (and sometimes it isn't), we'll be able to calculate it from the VoltAmp information in following steps. Step 2: Calculate VoltAmps (VA). The second step is to determine the total number of VoltAmps (VA) required, as most UPS systems provide a VA or kVA (kilo-volt-amp) rating. Calculating VoltAmps is as easy as multiplying the device's volts by the device's amps. For example, if the voltage is 120 volts and the amps are 10, the VoltAmps would be 1200 (120V x 10A = 1200 VA). In a three-phase circuit this is slightly more complicated and you should multiply the total VA by 1.732 (1200 VA x 1.732 = 2078.4 VA). Step 3: Calculate watts (W). If the UPS rates power protection in total wattage, the third step is to identify the total number of watts required. If wattage is located on the device label or in the technical literature, this is easy. However, as noted above, in many cases only the voltage and amp information is available and now we'll have to do some math. If wattage isn't available, it can be calculated by multiplying the VoltAmp total by 0.9. For example, 1200 VoltAmps is equal to 1080 watts (1200 VA x 0.9 = 1080W). Why the difference? Watts measures the actual power used by a device (also known as "real power") and the heat it generates, whereas VoltAmps measures the voltage applied to the device and the current it draws (also known as "apparent power"). In AC circuits these two numbers are slightly different due to inductive resistance and the build-up and collapse of the current. And while the the difference can vary between 0 and 1 depending on the circuit, for most consumer devices the average difference factor is 0.9.

Step 4: Sum the power requirement. Once all of the devices which will be connected to the UPS are listed and their VoltAmps and watts are identified, the power requirement can be calculated by simply adding totals. For example, a system with a computer drawing 1200 VA (1080W) and an appliance drawing 690 VA (621W) has a total UPS requirement of 1890 VA (1701W). Step 5: Accommodate for initial power draw and future expansion. The final step in calculating UPS required load is accounting for real-world operation and future expansion. Yes, adding the VoltAmps and watts from all devices provides the total UPS load; however, it doesn't account for device startup, which often causes a spike in power draw, and any future devices added to the circuit. Therefore, best practice is to multiply the total VoltAmps and watts by 1.2 to account for startup spikes and device additions. For example, a system with a total draw of 1890 VA (1701W) would require a total UPS protection load of 2268.0 VA (2041.2W).

Now that you know how to calculate recommended UPS load, simply look for a model that covers your total requirements over your desired runtime. If the above steps seem complicated or if you'd like a printable field-ready guide, we recommend downloading a complementary worksheet from our Literature Library. A complete list of UPS solutions from Future Ready Solutions and Xtreme Power are available online.

[post_title] => How to Calculate UPS Load and Runtime [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => how-to-calculate-ups-load-runtime [to_ping] => [pinged] => [post_modified] => 2025-01-06 08:09:46 [post_modified_gmt] => 2025-01-06 13:09:46 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=165505 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) [9] => WP_Post Object ( [ID] => 163991 [post_author] => 1 [post_date] => 2024-12-30 11:51:32 [post_date_gmt] => 2024-12-30 16:51:32 [post_content] => Uninterruptible power supply (UPS) batteries store energy and provide backup power when the main power source fails. The technology used in UPS batteries has evolved over time and today a variety of options exist depending on budget, environment, desired lifecycle and even safety requirements. This article explores the pros and cons behind five major battery types: lead acid, lithium iron phosphate, sodium-ion, lithium-ion and nickel-cadmium. All are leveraged by modern UPS systems; however, newer technology (namely lithium iron phosphate and sodium-ion) are rapidly gaining popularity for their cost-to-performance balance, safety ratings and low environmental impact.

Lead Acid (SLA)

Lead acid batteries are one of the most commonly used constructions in UPSs. They are reliable, cost-effective, easy to manufacture and offer a relatively large storage capacity; however, they have a shorter lifespan, heavier weight and occupy a much larger footprint than other battery types. Lead acid UPSs are generally cheaper to purchase upfront, but their short life makes them a much costlier option overtime -- especially when used in larger whole-building and mission-critical systems. Another drawback with lead acid batteries is their environmental impact. Lead is a toxic material that requires specialized handling and disposal, and lead acid batteries tend to recharge inefficiently causing them to draw more power than other UPS options.

Typical Battery Life: 2 - 3 years
Upfront Cost: Low
Long-Term Cost: High
Maintenance: High
Maximum Operating Temperature: 32 - 104 degrees F
Environmental Impact: Medium

Lithium Iron Phosphate (LiFePO4)

Lithium iron phosphate batteries are rapidly gaining popularity with UPS manufacturers due to their long life, low maintenance and ecological benefits. Not to be confused with lithium-ion which we'll discuss later, lithium iron phosphate technology is also safe and stable even in warm conditions. In fact, they tend to outperform most other battery formats -- including lead acid -- in high temperature environments. Lithium iron phosphate batteries have a 3x greater average lifespan (8 - 10 years) than traditional lead acid technology with very little maintenance required. Additionally, they are non-toxic and don't contain cobalt, a metal with environmental and ethical issues. The downside to lithium iron phosphate is it's upfront cost, and UPSs built with lithium iron phosphate batteries tend to have a higher initial cost but a lower overall cost considering their long life, low maintenance need and highly efficient performance.

Typical Battery Life: 8 - 10 years
Upfront Cost: High
Long-Term Cost: Low
Maintenance: Low
Maximum Operating Temperature: 32 - 113 degrees F
Environmental Impact: Medium

Sodium-Ion (Na-Ion / SIB)

Sodium-ion battery technology has seen a resurgence in recent years due to it's low cost, wide temperature operating range, reliability and low ecological footprint. As their name implies, sodium-ion batteries use sodium ions to store and maintain an electric charge. Sodium, an abundant and low cost mineral, performs extremely well over long periods of time and in extreme conditions, and sodium-ion batteries are typically rated for 10 - 15 years in temperatures up to 140 degrees F. The downside to sodium-ion technology is its low energy density, resulting in larger and heavier UPSs.

Typical Battery Life: 10 - 15 years
Upfront Cost: Low
Long-Term Cost: Low
Maintenance: Low
Maximum Operating Temperature: -4 - 140 degrees F
Environmental Impact: Low

Lithium-Ion (Li-Ion)

Not to be confused with lithium iron phosphate which we discussed above, lithium-ion technology is being phased out of UPS use due to thermal concerns. As noted with consumer electronics, lithium-ion batteries can overheat uncontrollably, releasing gas and potentially causing a fire or explosion when damaged or operated in a hot environment. That said, lithium-ion technology is still used due to its moderate cost and longer lifespan; however, regular inspection is recommended.

Typical Battery Life: 8 - 10 years
Upfront Cost: Medium
Long-Term Cost: Medium
Maintenance: Low
Maximum Operating Temperature: 32 - 104 degrees F
Environmental Impact: Medium

Nickel-Cadmium (NiCd)

Nickel-cadmium batteries have largely been phased out of UPS use due to their high overall cost and negative environmental impact. Though they have a long lifespan (15 - 20 years), nickel-cadmium batteries tend cost more than other battery constructions due to required maintenance and difficulties with manufacturing. Additionally, nickel-cadmium batteries contain both nickel and cadmium -- two highly toxic materials -- making disposal difficult. Combine this with a large physical footprint and a tendency to loose charge even when not being cycled, and nickel-cadmium has rapidly lost favor with most UPS manufacturers.

Typical Battery Life: 15 - 20 years
Upfront Cost: Medium
Long-Term Cost: High
Maintenance: High
Maximum Operating Temperature: -4 - 104 degrees F
Environmental Impact: High

Ready to purchase? Future Ready Solutions offers whole building and point-of-service UPS systems leveraging several of the technologies detailed above. Please contact us to discuss products and applications.

[post_title] => UPS Battery Technology: What's Best and is it Safe? [post_excerpt] => [post_status] => publish [comment_status] => open [ping_status] => open [post_password] => [post_name] => ups-battery-technology-whats-best-and-is-it-safe [to_ping] => [pinged] => [post_modified] => 2025-01-03 08:07:03 [post_modified_gmt] => 2025-01-03 13:07:03 [post_content_filtered] => [post_parent] => 0 [guid] => https://staging.futurereadysolutions.com/?p=163991 [menu_order] => 0 [post_type] => post [post_mime_type] => [comment_count] => 0 [filter] => raw ) ) [post_count] => 10 [current_post] => -1 [before_loop] => 1 [in_the_loop] => [post] => WP_Post Object ( [ID] => 176075 [post_author] => 1 [post_date] => 2025-04-18 14:59:13 [post_date_gmt] => 2025-04-18 18:59:13 [post_content] => eARC, or Enhanced Audio Return Channel, is a feature within the latest HDMI 2.1b specification that allows for extremely high-quality audio to be transmitted from a TV to a remote soundbar or AV receiver through the same HDMI cable used for video. In practice, eARC simplifies the distribution of audio-visual content and allows non-TV-built-in speakers to be used for an immersive and realistic audio experience. Unlike the original Audio Return Channel (ARC) format, eARC delivers increased bandwidth and bitrate, enabling uncompressed and lossless audio formats including Dolby Atmos®, DTS-HD Master Audio™, Dolby® TrueHD and DTS:X®. eARC also includes a dedicated data channel for device discovery and lip-sync correction, ensuring pristine performance for up to 32 channels of 192 kHz, 24-bit uncompressed audio. All of these features require significant bandwidth and eARC signals can push up to 37 Mbps (unlike standard ARC which maxed out at 1 Mbps). This expanded bandwidth isn't a problem when a high-quality HDMI cable is used in a short length local setting; however, it can be problematic when distributing audio longer distances, such as to an AV receiver located in a remote rack. To solve this challenge, Future Ready Solutions introduced the LightSpeed EX100-EARC-KIT which transmits eARC audio up to 100m (330ft) over a single twisted pair cable.

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Integrating eARC over Extended Distances

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eARC, or Enhanced Audio Return Channel, is a feature within the latest HDMI 2.1b specification that allows for extremely high-quality audio to be transmitted from a TV to a remote soundbar or AV receiver through the same HDMI cable used for video. In practice, eARC simplifies the distribution of audio-visual content and allows non-TV-built-in speakers […]

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Choosing a UPS: What’s Best for My Application

By Eric Bodley in Power Feb 01, 2025 0 comment

An uninterruptible power supply, or UPS, is a critical component for audio-visual, security, networking and broadband installations. UPSs provide backup power when the main power source fails, they condition incoming power from surges and voltage fluctuations, and they optimize power output signals to perform within intended specifications. In essence, UPSs ensure devices operate properly and […]

Choosing a UPS: Modular vs. Conventional

By Eric Bodley in Power Jan 06, 2025 0 comment

Many decisions go into choosing the proper uninterruptible power supply (UPS): power requirements, runtime, battery technology, physical size, installation location, efficiency, environmental impact, etc. We’ve covered many of these topics in previous power articles. However, there is one basic question that often gets overlooked: should you install a conventional UPS or a modular UPS? This […]

How to Calculate UPS Load and Runtime

By Eric Bodley in Power Jan 05, 2025 0 comment

Choosing the proper uninterruptible power supply (UPS) system is more than just features and battery type: a critical first step is understanding the total load, or the power requirement of all the devices that will be connected to the UPS, and the desired protection time for the total load. If you choose a UPS with […]

UPS Battery Technology: What’s Best and is it Safe?

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Uninterruptible power supply (UPS) batteries store energy and provide backup power when the main power source fails. The technology used in UPS batteries has evolved over time and today a variety of options exist depending on budget, environment, desired lifecycle and even safety requirements. This article explores the pros and cons behind five major battery […]