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You have an enterprise business and are now considering automating the whole system. So, you stare at a spreadsheet regarding CBRS vs. private 5G – which one of these two will save more money or keep the factory robots active? Well, this scenario is common worldwide and not a negligible fact, especially for warehouses or smart cities.
CBRS (Citizens Broadband Radio Service) and Private 5G or P5G offer dedicated spectrum access but cater to distinct use cases. For instance, CBRS leverages the 3.5 GHz band for cost-effective, mid-range coverage 1.
Private 5G delivers ultra-low latency and high throughput for mission-critical applications 2. Stats show that the global P5G market is projected to reach $16.86 billion by 2030 – driven by industries like manufacturing, healthcare, and logistics 3.
However, the debate on choosing between CBRS and private 5G networks goes on if you study them and obviously their use cases. In today’s blog, I will explain how to make your industry productive and effective.
Table of Contents
ToggleWe can notice a surge in hybrid network setups combining CBRS and P5G. It is because enterprises want to balance cost efficiency and performance. Such a trend reflects the growing demand for dynamic spectrum sharing (DSS) solutions that allow simultaneous use of LTE and 5G NR on CBRS bands. It enables flexible coverage for diverse workloads 4 5.
Enterprises are increasingly adopting CBRS for rural broadband expansion as it offers mid-range coverage at a lower cost than traditional fiber or satellite solutions. The U.S. CBRS market, for instance, is projected to grow by over 280% from 2023 to 2028, fueled by adoption in energy, mining, and manufacturing sectors 6.
At the same time, private 5G NR (New Radio) is becoming popular in industries needing ultra-low latency for real-time automation. You can think about automotive robotics and smart factories.
Like CBRS, this market is also expanding rapidly. In the USA, this market is alone expected to surpass $3 billion by this year, driven by a 30% year-over-year growth rate, as Samsung says 7. Another study I have found says that the global private 5G as a service (5GaaS) market will gain a 37.9% CAGR in 2025-2032 8.
Integrating AI-driven network optimization tools has already become a key trend in telecommunication networks. It enables predictive maintenance and automated interference management (like Nybsys Private 5G Express) to ensure reliable performance.
CBRS is a shared spectrum framework in the 3.5 GHz band (3550-3700 MHz). It offers flexible, cost-effective wireless connectivity. The Federal Communications Commission’s updated Part 96 rules (2023) prioritize dynamic spectrum sharing 9. It enables enterprises to deploy private networks without exclusive licensing.
The spectrum is divided into three tiers: Incumbent Access, Priority Access License (PAL), and General Authorized Access (GAA).
CBRS offers several key benefits, including improved network performance, enhanced security, and greater control over network resources. It is particularly well-suited for applications such as industrial IoT, fixed wireless access, and smart city initiatives.
Key features of private 5G include enhanced security, ultra-reliable low-latency communication (URLLC), and massive machine-type communication (mMTC). You may read more about these on our blog entitled “5G IoT: The Transformative Impact of 5G on IoT.”
Private 5G networks can operate in various spectrum bands, including licensed, unlicensed, and shared. This flexibility enables enterprises to choose the best option based on their requirements and regulatory environment.
In the U.S., the FCC’s C-band (3.7–4.2 GHz) auctions have expanded Private 5G adoption, while Asia-Pacific markets like Japan leverage mmWave (28 GHz) for high-density environments 11 12.
The 5G Advanced era, driven by 3GPP Release 18/19, introduces RedCap (Reduced Capability) devices for cost-efficient IoT and AI/ML integration for predictive network management 13. For example, NTT Docomo’s 2024 trial demonstrated AI-driven traffic optimization in smart factories 14.
Let’s start with the heart of the matter: spectrum. CBRS and Private 5G operate under entirely different rules regarding who controls the airwaves.
CBRS lives in the 3.5 GHz band, a shared space managed by a Spectrum Access System (SAS). In everyday words, it is like a neighborhood pool where everyone agrees on the rules. CBRS uses a three-tiered access model that includes Incumbent Access, Priority Access License (PAL), and General Authorized Access (GAA).
Incumbent users (like the Navy) get first dibs, priority users pay to lock in slots, and anyone can jump in during off-peak times. This shared model keeps costs low but means you’re not the only one using the pool—other businesses might be splashing around, too.
Similarly, owning a private beach can be considered a Private 5G. You can buy or lease spectrum in licensed bands (like 28 GHz or millimeter wave) that no one else can touch. This exclusivity comes at a price: you’ll need deep pockets for spectrum licenses and infrastructure. But it’s worth it if your operation can’t afford dropped signals—like a hospital or an autonomous vehicle plant.
Speed and latency matter most when we discuss CBRS vs. Private 5G. After all, a robotic surgery cannot be done over a choppy Wi-Fi connection – it’s a disaster waiting to happen. Well, I have given this as an example.
On average, CBRS delivers speeds of 100-200 Mbps and latency of around 20-30 ms. It is definitely great for most factories or campuses; however, it may feel like a dial-up connection compared to P5G.
If you want a better experience, you may deploy private 5G networks in your place. It wins over CBRS with speeds up to 1 Gbps+ and latency as low as 1-10 ms. This isn’t just “faster”—it’s the difference between a flickering LED and a laser beam. This is non-negotiable if your business relies on real-time data (like a smart grid or a drone swarm).
CBRS and private 5G networks differ significantly in coverage and range, driven by their spectrum bands and design goals.
CBRS offers wider coverage than Private 5G. Its 3.5 GHz frequency travels farther, quickly covering up to 1-2 miles in open areas. So, it is more suitable for mid-sized facilities like warehouses or campuses. This shared spectrum allows for longer reach than many Wi-Fi systems.
However, CBRS shares bandwidth with other users, potentially affecting reliability in crowded environments. For example, outdoor CBRS access points (APs) with high-gain antennas can extend coverage up to several miles, though this depends on terrain and interference.
Then, what about P5G?
Wait, its superpowers come with a trade-off: higher frequencies (like 28 GHz) have a shorter range. A single cell tower might only cover a city block. But you can pack them densely in places like stadiums or high-rise offices. It’s like trading a megaphone for a laser pointer—you can’t shout as far, but you can aim it precisely where it matters.
Let me add more to these things.
CBRS eliminates the need for costly dedicated spectrum licenses. Instead, the shared spectrum access and the rise of open RAN or O-RAN benefit CBRS. So businesses can easily access it with budget constraints. However, they may need to bear ongoing expenses like SAS fees and equipment maintenance.
Its hardware and deployment costs are lower, typically $50K to $100K for small-to-medium deployments. A typical CBRS small cell deployment sometimes costs $10K to $30K per site, including hardware and licensing.
Private 5G demands high upfront investments for spectrum licensing (e.g., bidding in FCC auctions) and specialized infrastructure like small cells, base stations, and core network hardware. Costs can be way higher than CBRS for enterprise-scale deployments, with additional expenses for integrating existing IT systems.
As I said, the auction-winning prices for Private 5G spectrum can be significantly higher than those for CBRS. For instance, the 3.7 GHz C-Band auction for the Private 5G spectrum in the U.S. resulted in net proceeds of $81.1 billion in 2020, with an average price per MHz/POP of $1.10 13.
In contrast, the CBRS Priority Access License (PAL) auction generated $4.54 billion, with an average price per MHz/POP of $0.22 14. This substantial difference in spectrum costs reflects the higher value and performance capabilities of Private 5G.
Despite the costs for P5G, initiatives like Nybsys-Wind River-Advantech aim to reduce risks and simplify vendor comparisons for enterprises. The collaboration of these three technology leaders offers affordable Private 5G solutions like never before.
Compared to Private 5G, CBRS is simpler to deploy for its shared spectrum model and reliance on the SAS for frequency coordination. Businesses can set up networks using off-the-shelf equipment and minimal IT expertise, reducing deployment time to 2–4 months.
In the case of P5G, advanced planning and technical skills are required. Deployments involve spectrum acquisition, network design, and integration with legacy systems—all of which demand specialized knowledge in cellular protocols and software-defined networking. The complexity of managing the licensed spectrum and ensuring compliance with regulatory standards further raises the barrier to entry.
CBRS is increasingly used to create neutral host networks in public venues to improve coverage and user capacity, such as stadiums, airports, and shopping malls. Notable deployments include the Cowtown Coliseum in Fort Worth and Newark Liberty International Airport.
For CBRS, it’s essential to consider spectrum availability, network architecture, and coverage requirements. You can start by obtaining licenses such as PAL if exclusive spectrum use is needed.
Then, a site survey will be conducted to assess the environment and identify potential interference sources. Use tools like heatmaps to forecast coverage and optimize the placement of small cells. Additionally, ensure that your existing IT infrastructure can support the new network and plan for integration with other systems, such as Wi-Fi and wired networks.
For Private 5G networks, planning involves selecting the appropriate spectrum band, designing the network architecture, and ensuring regulatory compliance.
The planning starts with identifying your enterprise’s specific use cases and performance requirements. Next, choose the spectrum band that best meets these needs. In this case, you may consider coverage, speed, and penetration capabilities.
You can design the network architecture to include small cells, core network components, and backhaul connections. Use advanced planning tools to model coverage and capacity. Also, address potential challenges such as interference and integration with existing infrastructure.
Coordinate with existing LTE or Wi-Fi networks to ensure CBRS compatibility and avoid interference. Use network management tools to monitor performance and optimize resource allocation.
For Private 5G, 5G, integration may require connecting the new network to existing IT systems, such as enterprise resource planning (ERP) and customer relationship management (CRM) platforms. Hence, be sure that your network supports the required applications and devices. Besides, security measures should be implemented to protect data and maintain compliance with regulations.
CBRS operates on a shared spectrum (3.5 GHz) with cost-efficient, moderate performance. Alternatively, Private 5G uses dedicated/leased spectrum (e.g., C-band, mmWave) for ultra-reliable, low-latency applications.
Well, the topic CBRS vs. Private 5G ends here! Do you like it? Then, which one do you think can be better for your business? For sure, the decision between CBRS and Private 5G hinges on your organization’s specific needs.
CBRS provides cost-effective, secure, and scalable coverage for industrial IoT, rural broadband, and municipal networks. It leverages shared spectrum to reduce upfront costs. Again, its ability to integrate with legacy systems and guarantee service-level agreements (SLAs) makes it ideal for manufacturing and utilities.
Private 5G delivers ultra-low latency, higher bandwidth, and greater control. It supports data-intensive applications like real-time robotics, AR/VR, and edge computing. It is better suited for environments requiring mission-critical reliability, such as airports, healthcare, and smart factories.
While Private 5G involves higher costs (e.g., licensed spectrum), its advanced encryption and network slicing capabilities ensure superior security and customization.
CBRS can complement Private 5G by handling broader coverage needs for hybrid strategies, while Private 5G manages high-performance workloads. To align with long-term goals, assess your priorities—cost efficiency and scalability (CBRS) versus cutting-edge performance and control (P5G).
Note that you can deploy an affordable Private 5G network within minutes using our Nybsys P5G Express.