--- title: "UTP vs STP Cabling: When Shielded Cable Is Actually Necessary" description: Learn when UTP cabling is enough, when STP cabling is necessary, and how shielding affects network reliability in real environments. image: https://www.usorion.com/hubfs/AI-Generated%20Media/Images/Blue%20Utp%20And%20Shielded%20Stp%20Cables%20In%20Industrial%20Setting.png --- - About - [About](https://www.usorion.com/about-us) - Services - [Wireless Surveys (Ekahau)](https://www.usorion.com/wireless-site-surveys) - [Structured Cabling Services](https://www.usorion.com/structured-cabling-solutions) - [Fiber Consultancy & Installations](https://www.usorion.com/fiber-consultancy-installations) - [Colocation Deployment & Migration](https://www.usorion.com/colocation-deployment-migration-infrastructure-services) - Talent Acquisition Services - [Talent Acquisition](https://www.usorion.com/talent-acquisition) - [Job Vacancies](https://jobs.crelate.com/portal/usorion/) - [Coverage](https://www.usorion.com/coverage) - Resources - [Newsletter](https://www.usorion.com/orion-us-newsletter-connect) - [Data Dictionary](https://www.usorion.com/data-dictionary) - [Blog](https://www.usorion.com/blog) [![logo](https://www.usorion.com/hs-fs/hubfs/USOrionLogoNew.png?width=654&height=260&name=USOrionLogoNew.png "logo")](https://www.usorion.com/) [+1 (803) 724 1204](tel:+1%20(803)%20724%201204) [sales@usorion.com](mailto:sales@usorion.com) [contact us](https://23748016.hs-sites.com/contact-us-orion-us) Do You Need Shielded Ethernet Cable? # UTP vs STP Cabling      Learn when UTP cabling is enough, when STP cabling is necessary, and how shielding affects network reliability in real environments.      # **UTP vs STP Cabling: When Shielded Cable Is Actually Necessary** Most Ethernet cabling installed in offices, schools, retail spaces, and commercial buildings is unshielded twisted pair, commonly called UTP. And in many environments, UTP is exactly what the network needs. It is cost-effective, widely supported, easier to install than many shielded systems, and reliable when properly designed, routed, terminated, and tested. But not every building is a clean office environment. Some networks operate near heavy machinery, motors, production equipment, power infrastructure, industrial controls, medical equipment, dense cable pathways, or other sources of electrical noise. In those environments, the question changes. The question is no longer only: “Should we use Cat6 or Cat6A?” The better question becomes: “Is unshielded cabling enough for this environment, or does the installation need shielded cabling?”   ![art3img1labeled](https://www.usorion.com/hs-fs/hubfs/art3img1labeled.png?width=1536&height=1024&name=art3img1labeled.png) This article explains the difference between UTP and STP, what shielding actually protects against, when unshielded cabling is usually enough, when shielded cabling may be necessary, and why grounding and installation quality matter just as much as the cable itself. ## Quick Comparison: UTP vs STP at a Glance | **Cabling Type** | **Meaning** | **Common Use** | **Main Advantage** | **Main Caution** | | --- | --- | --- | --- | --- | | UTP | Unshielded twisted pair | Offices, schools, typical commercial spaces, standard endpoint cabling | Practical, cost-effective, easier to install | Less protection in high-interference environments | | STP | Shielded twisted pair, used here as a general term for shielded copper cabling | Industrial spaces, warehouses, manufacturing, EMI-sensitive areas | Better protection against certain interference conditions | Must be properly grounded, bonded, terminated, and tested | | F/UTP | Foiled overall shield around unshielded pairs | Common shielded commercial option | Helps reduce external interference | Requires shielded components and proper bonding | | U/FTP | Individual foil shields around each pair | Higher-performance shielded designs | Helps reduce pair-to-pair interference | More installation-sensitive | | S/FTP | Braided overall shield plus individually shielded pairs | High-interference or specialized environments | Strong shielding performance | Higher cost and installation complexity | In everyday conversation, many people use “STP” to refer broadly to shielded Ethernet cabling. Technically, there are multiple shielded cable constructions. The important point is that shielding is not a single product feature. It is part of a complete cabling system. That system includes cable, connectors, patch panels, grounding, bonding, installation practices, and testing. ## What Is UTP? UTP stands for unshielded twisted pair. It is the most common type of copper Ethernet cabling used in commercial networks. Cat5e, Cat6, and Cat6A can all be installed as UTP cabling, depending on the product and design. UTP cable contains pairs of copper conductors twisted together. The twists help reduce noise and crosstalk by maintaining balanced transmission between the conductors. In plain language: UTP does not rely on a metallic shield around the cable. It relies on twisted-pair design, proper installation, standards-compliant components, and good pathway planning. UTP is commonly used for: - Office workstations - VoIP phones - Wireless access points - Printers - IP cameras in typical commercial spaces - Conference rooms - Schools - Retail areas - General commercial network drops ![art3img2labeled](https://www.usorion.com/hs-fs/hubfs/art3img2labeled.png?width=1536&height=1024&name=art3img2labeled.png) UTP is popular because it is practical. It is easier to handle than many shielded cables, usually less expensive, and supported by common patch panels, jacks, switches, and patch cords. For many buildings, UTP is not a compromise. It is the correct choice. The key is knowing when the environment is ordinary enough for UTP — and when it is not. ## What Is STP? STP stands for shielded twisted pair. In this article, STP is used as a general term for shielded copper Ethernet cabling. In actual product specifications, you may see more specific terms such as F/UTP, U/FTP, S/FTP, or other shielding constructions. The main difference is that shielded cable includes a metallic shield. That shield may surround the entire cable, individual pairs, or both, depending on the cable type. The purpose of the shield is to help reduce the effect of external electromagnetic interference and, in some constructions, improve protection against crosstalk between pairs or neighboring cables. STP or shielded cabling may be considered in environments such as: - Manufacturing plants - Warehouses with heavy equipment - Industrial facilities - Utility areas - Medical equipment areas - Spaces near motors, drives, generators, or large electrical systems - Dense cable pathways - High-performance Cat6A deployments where alien crosstalk risk is a concern ![art3img3labeled](https://www.usorion.com/hs-fs/hubfs/art3img3labeled.png?width=1536&height=1024&name=art3img3labeled.png) Shielding can be useful, but it is not magic. A shielded cable must be part of a shielded system. That means shielded jacks, shielded patch panels, proper bonding, appropriate grounding, compatible patch cords, and correct installation practices. If those pieces are ignored, shielded cabling can become expensive without delivering the intended benefit. ## What Shielding Actually Protects Against Shielding is mainly used to reduce the impact of unwanted electrical noise. That noise is often called electromagnetic interference, or EMI. EMI can come from many sources, including: - Motors - Variable frequency drives - Generators - Transformers - Fluorescent lighting systems - Industrial machinery - High-voltage electrical equipment - Elevator equipment - Large power feeders - Poorly separated cable pathways - Dense bundles of high-performance copper cabling - Certain medical or laboratory equipment When unwanted electrical noise couples into a copper data cable, it can affect signal quality. That can contribute to errors, retransmissions, intermittent connectivity, reduced performance, or difficult troubleshooting. In real buildings, these problems may not look obvious at first. The network may work most of the time. Then a machine starts, a motor cycles, a piece of equipment turns on, or a production area becomes active, and intermittent problems appear. That is what makes environmental issues frustrating. They are not always constant. They can be conditional. Shielding can help reduce the impact of EMI, but it is only one part of the solution. Pathway separation, cable routing, grounding, bonding, equipment placement, and testing all matter. Sometimes the right answer is shielded copper. Sometimes the right answer is fiber. Sometimes the right answer is simply better pathway planning. A good design does not choose shielding because it sounds safer. It chooses shielding because the environment justifies it. ## UTP Is Usually Enough in Many Environments Most commercial buildings do not require shielded Ethernet cabling everywhere. UTP is usually enough in environments such as: - Standard offices - Administrative areas - Classrooms - Retail spaces - Typical commercial tenant spaces - Low-interference healthcare office areas - General work areas - Conference rooms - Light commercial environments In these spaces, the cabling usually runs through predictable pathways and serves common endpoint devices such as workstations, printers, phones, wireless access points, and cameras. If pathways are properly designed and the cabling is not routed too close to problematic power sources or electrical equipment, UTP can perform very well. This is especially true when the installation follows good practices: - Maintain proper separation from power cabling - Avoid unnecessary cable stress - Respect bend radius - Avoid over-tight cable ties - Use proper support systems - Terminate correctly - Test and certify the cabling - Label and document the system In many office environments, choosing shielded cable by default may add cost and complexity without improving real network performance. ## When STP May Be Necessary Shielded cabling becomes more relevant when the environment creates a higher risk of interference or noise. STP may be worth considering in: - Manufacturing facilities - Industrial plants - Warehouses with heavy machinery - Areas near motors or variable frequency drives - Utility and mechanical spaces - Production floors - Medical imaging or specialized equipment areas - Dense cable pathways - Certain high-performance Cat6A designs - Environments with repeated unexplained network issues linked to electrical noise The key phrase is “worth considering.” Not every warehouse needs shielded cable everywhere. Not every manufacturing area automatically requires STP. Not every Cat6A installation has to be shielded. A warehouse office may be fine with UTP. A warehouse ceiling pathway running near electrical systems or industrial equipment may require a different approach. A manufacturing control area may justify shielded copper or even fiber, depending on the equipment and distance involved. ![art3img4labeled](https://www.usorion.com/hs-fs/hubfs/art3img4labeled.png?width=1536&height=1024&name=art3img4labeled.png) This is why site conditions matter more than generic rules. The right decision depends on: - Where the cable will be routed - What electrical systems are nearby - How sensitive the connected devices are - Whether the link supports critical operations - Whether the pathway is shared or congested - Whether the run is long or exposed - Whether previous performance issues exist - Whether fiber would be a cleaner solution Shielding is a design response to risk. It should be specified based on the actual environment. ## Shielding vs Cable Category: Do Not Confuse the Two A common mistake is mixing up cable category and shielding. Cat6A does not automatically mean shielded. Cat6 does not automatically mean unshielded. Cat5e, Cat6, and Cat6A describe performance categories. UTP and STP describe shielding characteristics. That means you can have: - Cat6 UTP - Cat6 shielded - Cat6A UTP - Cat6A shielded These are different design choices. In Article 2, we discussed Cat5e, Cat6, and Cat6A as copper performance categories. This article adds another layer: environmental suitability. The right copper cabling decision may require both questions: 1. What performance category is appropriate? 2. Does the environment require shielding? For example, a standard office may use Cat6 UTP or Cat6A UTP depending on performance goals. A manufacturing area may use Cat6A shielded cabling if high bandwidth and EMI protection are both needed. A long backbone run through a challenging environment may skip copper entirely and use fiber instead. That is why cable selection should not be reduced to one label. ## The Grounding Problem Shielded cabling only works as intended when it is installed correctly. This is one of the most important points in the entire article. A shield is not just a layer of metal inside the cable. It is part of an electrical system. That system must be properly bonded and grounded according to applicable standards, codes, manufacturer requirements, and project design. If shielded cabling is installed without the correct grounding and bonding strategy, it may fail to provide the expected protection. In some cases, poor bonding or inconsistent shield continuity can contribute to noise problems rather than solving them. A proper shielded cabling system may require: - Shielded cable - Shielded connectors - Shielded patch panels - Shielded patch cords - Proper bonding of racks and pathways - Correct grounding infrastructure - Compatible equipment - Proper testing and documentation This is why shielded cable should not be casually substituted into a project without planning. The installer cannot simply pull shielded cable and treat the rest of the system like a normal UTP installation. The channel must be designed as a shielded channel. If the patch panel is unshielded, the jacks are unshielded, patch cords are mismatched, or racks are not properly bonded, the system may not perform as expected. In short: Shielded cable is not only a product choice. It is an installation discipline. ## Is Shielded Cable Always Better? **No.** Shielded cable is better only when the environment and design justify it. In a standard office, UTP may be the smarter choice because it is simpler, cost-effective, easier to install, and reliable when properly routed and tested. Shielded cabling may add: - Higher material cost - More expensive components - More installation complexity - More grounding and bonding requirements - More testing considerations - More opportunities for installation mistakes If there is no meaningful EMI risk, no dense high-performance pathway concern, and no environmental reason for shielding, STP may not provide enough benefit to justify the added complexity. This is one of the biggest differences between good design and overbuilding. Good design does not install shielded cable everywhere “just in case.” Good design identifies where shielding is actually needed. ## When Fiber May Be Better Than Shielded Copper Sometimes the best answer is not UTP or STP. Sometimes the best answer is fiber. Fiber does not transmit data using electrical signals, so it is not affected by EMI in the same way copper is. That can make fiber a better option for certain backbone links, long-distance runs, building-to-building connections, or high-interference environments. Fiber may be worth considering when: - The cable route passes through high-interference areas - The run is long - The link connects MDFs, IDFs, buildings, or major network zones - The connection carries aggregated traffic - Future bandwidth growth is important - Electrical isolation is desirable - Copper shielding would add complexity without solving the bigger design issue This connects back to Article 1: fiber and copper often work together. Copper is usually practical for endpoint devices, especially when PoE is required. Fiber is often stronger for backbone, distance, and high-interference pathways. A network design may use fiber to reach an IDF near an industrial area, then use shielded or unshielded copper from that IDF to nearby devices depending on local conditions. ## Real-World Examples ### Standard Office A typical office with desks, phones, printers, conference rooms, and ceiling-mounted wireless access points usually does not need shielded cable everywhere. Cat6 UTP or Cat6A UTP may be appropriate depending on performance goals and long-term planning. The more important concerns are usually proper routing, clean terminations, testing, labeling, and avoiding careless proximity to electrical pathways. ### School or Campus Building Many classroom, office, and administrative areas can use UTP successfully. However, spaces such as labs, equipment rooms, auditoriums, security systems, or areas with specialized equipment may require additional evaluation. A campus may also use fiber between buildings or IDFs, then copper to endpoint devices. ### Warehouse A warehouse is more variable. The office area may be fine with UTP. But pathways near conveyors, motors, high-bay equipment, electrical rooms, or industrial systems may need shielded copper, fiber, or better route planning. Distance also becomes important in warehouses. A remote IDF connected by fiber may be a better solution than trying to stretch copper too far across the building. ### Manufacturing Facility Manufacturing spaces deserve careful review. Heavy machinery, variable frequency drives, production equipment, control systems, and power infrastructure can create challenging electrical environments. Shielded copper may be appropriate in some locations. Fiber may be better for backbone or longer runs. UTP may still be fine in administrative areas. The design should follow the building, not a generic assumption. ### Healthcare Environment Healthcare buildings often include a mix of standard offices, patient care areas, imaging rooms, labs, security systems, and specialized equipment. Some areas may use standard UTP. Others may justify shielded cabling or fiber depending on equipment, interference risk, uptime requirements, and facility standards. ## Cost vs Reliability The cost of shielded cabling should not be compared only against unshielded cable material. A real cost comparison should include: - Cable cost - Shielded jacks - Shielded patch panels - Shielded patch cords - Installation labor - Grounding and bonding requirements - Testing requirements - Troubleshooting complexity - Risk of downtime - Cost of future rework UTP is often more economical and practical where shielding is not needed. STP may cost more upfront but can be justified where interference risk could lead to performance issues, downtime, or repeated troubleshooting. The hidden cost is choosing incorrectly. Installing shielded cabling where it is not needed can waste budget and create unnecessary complexity. Installing unshielded cabling where shielding or fiber is required can lead to intermittent issues, failed performance expectations, and expensive corrective work later. The right decision balances first cost with operational risk. ## Testing and Documentation Matter Whether the project uses UTP or STP, the cabling should be tested and documented. For UTP, testing helps confirm the installed channel performs as expected. For shielded systems, testing and inspection are even more important because the system depends on more than basic conductor continuity. Shield continuity, proper termination, bonding, component compatibility, and channel performance all matter. A good installation should include: - Proper cable labeling - Patch panel labeling - Test results - As-built documentation - Clear pathway records - Identification of shielded vs unshielded links - Notes on critical areas or special environmental conditions This matters because cabling problems often appear months or years later, when someone is troubleshooting a device, upgrading equipment, adding a camera, or expanding wireless coverage. Good documentation reduces future confusion. ## Practical Decision Framework Use these questions before choosing UTP or STP. ### 1. What environment will the cable pass through? A normal office ceiling is different from an industrial production floor. Cable route matters more than building name. ### 2. What electrical systems are nearby? Motors, drives, transformers, power feeders, generators, and electrical panels may change the design. ### 3. Is the link serving a critical device or area? A workstation drop and a production control link do not carry the same operational risk. ### 4. Is PoE involved? PoE devices are usually served by copper, but cable category, bundle size, heat, power level, and pathway planning should be considered. ### 5. Would fiber be a cleaner solution? For long runs, backbone links, and high-interference routes, fiber may be better than trying to solve everything with shielded copper. ### 6. Can the shielded system be installed correctly? If the project cannot support proper grounding, bonding, shielded components, and testing, specifying shielded cable may not solve the problem. ### 7. What does future troubleshooting look like? A slightly better design upfront may prevent years of intermittent performance complaints. ![art3img5labeled](https://www.usorion.com/hs-fs/hubfs/art3img5labeled.png?width=1731&height=908&name=art3img5labeled.png) ## Common Mistakes When Choosing UTP or STP ### Mistake 1: Assuming Shielded Cable Is Always Better Shielded cable is not automatically better. It is better when the environment justifies it and the system is installed correctly. ### Mistake 2: Ignoring Grounding and Bonding Shielded cabling requires proper grounding and bonding. Without that, the shield may not perform as intended. ### Mistake 3: Mixing Shielded and Unshielded Components Carelessly A shielded cable connected to unshielded components may not create a true shielded channel. ### Mistake 4: Confusing Category With Shielding Cat6A does not automatically mean shielded. Cat6 does not automatically mean unshielded. Performance category and shielding type are separate design decisions. ### Mistake 5: Using STP to Fix Bad Pathway Design Shielding should not be used as an excuse for poor routing. Good pathway planning still matters. ### Mistake 6: Forgetting About Fiber In some high-interference or long-distance scenarios, fiber may be the better answer. ### Mistake 7: Skipping Testing Without testing, the project has no proof that the installed cabling performs as intended. ## So, Do You Need UTP or STP? For many offices, schools, retail spaces, and typical commercial environments, UTP is usually enough. It is practical, cost-effective, widely supported, and reliable when installed properly. STP or shielded cabling becomes more relevant when the environment creates real interference risk, when high-performance copper links are installed in dense or electrically noisy pathways, or when the connected systems are sensitive enough to justify the added cost and installation discipline. A simple way to think about it: Use UTP when the environment is clean, predictable, and low risk. Consider STP when the environment is electrically noisy, industrial, dense, or operationally sensitive. Consider fiber when distance, backbone capacity, EMI exposure, or long-term scalability makes copper the wrong tool. The right cabling choice depends not only on speed, but also on where the cable is installed. ## What We Covered UTP is unshielded twisted pair cabling. It is the most common copper cabling choice for standard commercial environments. STP is a general term for shielded twisted-pair cabling. It can help reduce certain interference risks, but it must be installed as a complete shielded system. Shielding may be useful in warehouses, manufacturing facilities, industrial sites, medical equipment areas, dense pathways, and other high-interference environments. But shielded cable is not automatically better. It adds cost, complexity, and grounding requirements. The main lesson is simple: Cable choice depends on the environment, not just the category printed on the jacket.  **[OrionUS](https://www.usorion.com/)** can assess building conditions, cable pathways, equipment environments, electrical exposure, and performance requirements before recommending shielded or unshielded cabling. The goal is not to overbuild every cable run. The goal is to identify where UTP is sufficient, where STP is justified, and where fiber may be the better long-term solution. ## Continue Reading in This Series Next article: **How Cable Distance Impacts Network Speed, Reliability, and Design** Even the right cable type can fail if distance is ignored. The next article explains how cable length affects copper performance, when fiber becomes necessary, and how MDF/IDF placement shapes structured cabling design.   Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Quis ipsum suspendisse ultrices gravida. Risus commodo viverra maecenas accumsan lacus vel facilisis. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Quis ipsum suspendisse ultrices gravida. Risus commodo viverra maecenas accumsan lacus vel facilisis. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. ## Discover more. Let’s chat. We would love to hear from you... ## Industry News [Visit Blog ![Slider arrow right - Usorion](https://www.usorion.com/hubfs/Icons/white-arrow.webp)](https://www.usorion.com/blog) [![dB v dBi v dBi: Understanding RF Power Before Designing Wi-Fi](https://www.usorion.com/hubfs/db%20v%20dbm%20v%20dbi%20banner.png)](https://www.usorion.com/blog/db-vs.-dbm-vs.-dbi-understanding-rf-power-before-designing-wi-fi) ### [dB vs. dBm vs. dBi: Understanding RF Power Before Designing Wi-Fi](https://www.usorion.com/blog/db-vs.-dbm-vs.-dbi-understanding-rf-power-before-designing-wi-fi) Wi-Fi is often discussed in terms of coverage: how far an access point reaches, whether a signal is strong enough, or whether another access point is needed. But before coverage... [Read More](https://www.usorion.com/blog/db-vs.-dbm-vs.-dbi-understanding-rf-power-before-designing-wi-fi) [![RF Fundamentals: Why Wi-Fi Behaves Differently in the Real World](https://www.usorion.com/hubfs/rf-banner.png)](https://www.usorion.com/blog/rf-fundamentals-why-wi-fi-behaves-differently-in-the-real-world) ### [RF Fundamentals: Why Wi-Fi Behaves Differently in the Real World](https://www.usorion.com/blog/rf-fundamentals-why-wi-fi-behaves-differently-in-the-real-world) Wi-Fi feels simple because most of its complexity is invisible. An access point is installed, a laptop, phone, scanner, or handheld connects, and data starts moving. But between... [Read More](https://www.usorion.com/blog/rf-fundamentals-why-wi-fi-behaves-differently-in-the-real-world) [![From Floorplan to Deployment: What Happens Before the First Access Point Is Installed?](https://www.usorion.com/hubfs/before-your-first-ap-header-banner.png)](https://www.usorion.com/blog/from-floorplan-to-deployment-what-happens-before-the-first-access-point-is-installed) ### [From Floorplan to Deployment: What Happens Before the First Access Point Is Installed?](https://www.usorion.com/blog/from-floorplan-to-deployment-what-happens-before-the-first-access-point-is-installed) Most people only see the final result of a wireless deployment: access points mounted on ceilings, devices connected to Wi-Fi, and users moving throughout a facility with reliable... [Read More](https://www.usorion.com/blog/from-floorplan-to-deployment-what-happens-before-the-first-access-point-is-installed) [![Why Network Documentation Is Critical for Maintenance, Upgrades, and Future Growth](https://www.usorion.com/hubfs/doc-1.png)](https://www.usorion.com/blog/why-network-documentation-is-critical-for-maintenance-upgrades-and-future-growth) ### [Why Network Documentation Is Critical for Maintenance, Upgrades, and Future Growth](https://www.usorion.com/blog/why-network-documentation-is-critical-for-maintenance-upgrades-and-future-growth) Modern networks are built on a combination of structured cabling, fiber optics, wireless infrastructure, security systems, and connected technologies that support daily business... [Read More](https://www.usorion.com/blog/why-network-documentation-is-critical-for-maintenance-upgrades-and-future-growth) [![How Ekahau Heatmaps Help Eliminate Wi-Fi Dead Zones Before Deployment](https://www.usorion.com/hubfs/wifi%20heatmap.png)](https://www.usorion.com/blog/how-ekahau-heatmaps-help-eliminate-wi-fi-dead-zones-before-deployment) ### [How Ekahau Heatmaps Help Eliminate Wi-Fi Dead Zones Before Deployment](https://www.usorion.com/blog/how-ekahau-heatmaps-help-eliminate-wi-fi-dead-zones-before-deployment) Wi-Fi performance issues rarely originate after deployment. In most cases, they are introduced much earlier during the planning and design phase. Dead zones, weak signal areas,... [Read More](https://www.usorion.com/blog/how-ekahau-heatmaps-help-eliminate-wi-fi-dead-zones-before-deployment) [![Predictive vs On-Site Wireless Surveys: Which One Does Your Business Really Need?](https://www.usorion.com/hubfs/b5ec74ea-5212-43a1-9282-48865a969f48.png)](https://www.usorion.com/blog/predictive-vs-on-site-wireless-surveys-which-one-does-your-business-really-need) ### [Predictive vs On-Site Wireless Surveys: Which One Does Your Business Really Need?](https://www.usorion.com/blog/predictive-vs-on-site-wireless-surveys-which-one-does-your-business-really-need) When planning a wireless network, many organizations start with a predictive survey. This approach uses digital floor plans and wireless design software to simulate how Wi-Fi... [Read More](https://www.usorion.com/blog/predictive-vs-on-site-wireless-surveys-which-one-does-your-business-really-need) ![Previous blog](https://www.usorion.com/hubfs/Icons/slider-arrow-left.webp) ![Next blog](https://www.usorion.com/hubfs/Icons/slider-arrow-right.webp) ### Need more information? Talk to us today. - [+1 (803) 724 1204](tel:+1%20(803)%20724%201204) - [sales@usorion.com](mailto:sales@usorion.com) - [Wireless Surveys (Ekahau)](https://www.usorion.com/wireless-site-surveys) - [Cabling](https://www.usorion.com/structured-cabling-solutions) - [Talent Acquisition](https://www.usorion.com/talent-acquisition) - [About Us](https://www.usorion.com/about-us) - [Coverage](https://www.usorion.com/coverage) Copyright 2023 Orion Global Managed Services US, Inc. All rights Reserved. Designed and Developed by [JDR Group](https://www.jdrgroup.co.uk/). [Follow us on LinkedIn](https://www.linkedin.com/company/usorion/) [Follow us on Twitter](https://twitter.com/UsOrion_) [Like us on Facebook](https://www.facebook.com/profile.php?id=61572939841282) [Follow us on Instagram](https://www.instagram.com/orionusinc/) - [Terms and Conditions](https://www.usorion.com/terms-conditions) - [Privacy](https://www.usorion.com/privacy-policy) - [Cookie](https://www.usorion.com/cookie-policy)