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Planning a pilot deployment for a mini UPS solution in a broadband network is a disciplined process that requires careful attention to device electrical characteristics, installation environment, and long-term backup performance goals. For telecom operators, Internet Service Providers (ISPs), fiber network operators, and system integrators, a well-structured pilot program reduces the risk of application failure and provides a data-driven foundation for scaling to mass production. Shanghai Mylion New Energy Co., Ltd., operating under the brand MYLION, has built its global B2B business around exactly this kind of structured, technically grounded approach to Mini UPS and DC backup power deployment.

Why Pilot Planning Matters in Broadband Backup Power

Network equipment such as routers, modems, and ONTs often reboot or lose service during short power outages, voltage drops, or unstable grid conditions. This is a well-documented pain point across the telecom, ISP, and broadband industry. The underlying cause is frequently improper UPS selection regarding voltage, current, peak load, or connectors, which can lead to application failure even when the backup unit itself is functioning correctly. A pilot deployment exists precisely to surface these mismatches before a project moves into large-scale rollout.

Pilot deployment, in this context, refers to a controlled, small-scale evaluation phase in which a limited number of Mini UPS units are installed alongside real subscriber-side equipment to validate compatibility, performance, and installation logistics under actual field conditions.

Step One: Requirement Analysis Based on Real Device Behavior

The first stage of any credible pilot plan is requirement analysis. Rather than selecting a UPS model based on generic assumptions, the evaluation should be grounded in the real device voltage, working current, peak or startup behavior, and installation environment of the target equipment. This is the differentiated advantage that MYLION applies across its project support model: solutions are evaluated using actual operating parameters rather than nominal specifications alone.

Matching Voltage and Current Profiles

Different customer-premises equipment draws different steady-state and peak currents. For example:

• Entry-level routers and ONTs often operate within a 12V DC system, with the MU26W supporting 12V DC input up to 3.5A and output of 2.5A continuous / 3A maximum, backed by 18.72Wh of battery energy.
• Mid-capacity deployments may look to the MU48W, which offers 29.6Wh of battery energy with the same 2.5A continuous / 3A maximum output profile through a center-positive DC5525 interface.
• Higher-capacity broadband backup needs are addressed by the MU68W, delivering 44.4Wh of battery energy and a maximum power output of 36W (12V/3A) for professional ISP projects.

Addressing High-Load and Long-Runtime Requirements

Some CPE devices, particularly high-performance WiFi equipment and storage-integrated gateways, exceed standard 2.5A thresholds. For these cases, the MU65W supports 12V DC input up to 6A and output of 4A continuous / 5A maximum (60W total), with 56.16Wh of battery energy. Where both high output current and maximum battery capacity are required simultaneously, the MU35W / MU35L series supports 60W output combined with 75.6Wh capacity, suited to professional gateways requiring high peak current and long backup time.

For deployments facing long-duration outages in residential or remote areas, the MU635W / MU635L series provides 75.6Wh of battery energy at the same 2.5A continuous / 3A maximum 12V DC output, extending service continuity without changing the core electrical profile.

Step Two: Model Matching and Connector Verification

A frequently underestimated risk in pilot deployments is connector and cable mismatch. MYLION’s service scope explicitly includes connector/cable matching as part of its technical confirmation process, alongside requirement analysis and model matching. This step verifies that interface types—such as the DC5521 input / DC5525 output configuration used in the MU26W—align correctly with the target router, modem, ONT, ONU, gateway, CPE device, or security/CCTV equipment, subject to electrical verification.

Multi-Device and Multi-Port Scenarios

Some pilot programs need to support more than one device or more than one type of load simultaneously. For small office / home office (SOHO) setups requiring both 12V and 5V devices, the MUJ46 offers 12V DC output at 1.5A continuous / 2A maximum alongside dual 5V/3A USB-A and USB-C outputs, within an 18W maximum total output limit and 37.44Wh battery energy. The MUJ435 extends this concept with 50.4Wh of battery energy while maintaining the same 18W system limit across 12V DC, 5V USB-A, and 5V USB-C ports.

For installations combining an ONT and router from a single AC wall outlet, the ML1202AC provides a 100–240V AC input with dual 12V DC output ports (2A each; 24W total system limit), built on LiFePO4 battery chemistry with 25.6Wh of battery energy—removing the need for an external DC adapter.

Step Three: Sample Testing and Documentation Coordination

Once candidate models are identified, MYLION’s pilot support process moves into sample validation. This includes sample testing support, private labeling where applicable, and documentation coordination covering lithium battery transport documentation and model-specific compliance requirements, including UN38.3 and MSDS certifications tied to the specific model under evaluation. This documentation step is essential for any project intending to move lithium battery products across borders or into regulated telecom environments.

Step Four: Managed Pilot Evaluation Toward Mass Production

MYLION positions its delivery capability around managed pilot evaluation and mass-production preparation. This means the pilot phase is not treated as an isolated test but as a structured bridge toward scaled deployment. After-sales support during this phase includes technical evaluation, model matching, and project-specific documentation coordination, allowing project teams to gather field performance data before committing to volume orders.

Looking Ahead: Emerging Backup Power Directions

For teams planning pilots around next-generation equipment, MYLION’s development pipeline includes directions under project evaluation. The MUC85, a USB-C PD Mini UPS under development, targets modern WiFi 6/7 devices requiring USB-C Power Delivery, with input up to 65W standard / 100W max, dual USB-C outputs of up to 20V/3.25A (65W) and 12V/2.5A (30W), and 92.16Wh of battery energy. The MU248 addresses higher-voltage wireless CPE and radio bridge equipment through a 24V / 48V telecom backup direction, using LiFePO4 chemistry, 48V / 60V DC input, independent 24V (3A) and 48V (1A) outputs, a 100W total power system limit, and 102.4Wh of battery energy. Both remain in the project evaluation stage and are available for pilot discussion with interested project customers.

Conclusion

Planning a Mini UPS pilot deployment for broadband networks requires a sequence of disciplined steps: grounding model selection in real device voltage and current behavior, verifying connector and cable compatibility, coordinating sample testing and compliance documentation, and structuring the pilot as a managed pathway toward mass production. With 13+ years of experience in Lithium Battery technology and 10+ years of experience in Mini UPS development, Shanghai Mylion New Energy Co., Ltd. supports telecom operators, ISPs, broadband network companies, fiber network operators, and system integrators globally through exactly this kind of technically grounded, project-based pilot planning process, helping professional customers reduce avoidable selection risks before scaling their backup power deployments.

http://www.myliontech.com
Shanghai Mylion New Energy Co.,Ltd.

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