CP1500 Series: 1500W AC/DC Lithium Battery Chargers for AGV, Robotics, and Industrial OEM Systems

The CP1500 Series is a 1500W AC/DC lithium battery charger family built for industrial and medical-adjacent applications where charging reliability, predictable integration, and manageable certification risk matter more than marketing language. In practical terms, it gives OEM and MRO teams a compact charger platform with a nominal 100-240V AC input, a 90-264V AC operating range, built-in charging curves for both LiFePO4 and NCM battery packs, and voltage classes spanning 24V through 100V. That coverage makes it easier to support one charger family across mobile robots, service tools, machine batteries, and field-replacement programs.

What the CP1500 Series is and why it matters

If your team is building or sourcing equipment around rechargeable lithium packs, the charger is rarely just a charger. It affects cabinet layout, wiring complexity, thermal behavior, service workflows, battery-life assumptions, and even how quickly a program gets through compliance review. The CP1500 Series is attractive because it reduces that complexity in several ways at once. First, it starts with a universal AC input window that works across many North American and global installation environments. Second, it includes built-in charge curves for both LFP and NCM chemistries, which can shorten validation work when your application already aligns to one of the supported pack architectures. Third, it adds controls that system designers actually use: CAN communication, remote voltage sensing compensation, and remote switch control.

For panel builders and machine OEMs, that combination means you can standardize a charger strategy without needing an oversized enclosure or a patchwork of external support boards. The specification also highlights automatic battery connection detection, reverse battery connection detection, automatic stop at full charge, smart fan speed control, and a 12V/1A auxiliary output. Those are not just nice-to-have bullet points. They help remove design friction in control cabinets, service carts, and battery charging stations where clean power architecture matters. If your project also includes charger-adjacent integration such as cabinet packaging, harnessing, or full control-panel build, it pairs naturally with TPS resources on industrial control cabinets for automation, build-to-print control panels, and custom cable assemblies and wire harnesses.

Another reason the family matters is range discipline. Instead of forcing engineers to jump across unrelated charger platforms, TPS ELECTRIC LLC offers voltage classes that cover 24V, 28V, 36V, 48V, 60V, 72V, and 100V. That makes the series relevant to low-voltage robotic platforms, mid-voltage industrial packs, and higher-voltage mobile equipment that still needs an AC-fed charging solution. For example, a procurement team can start with the CP1500T24 for 24V-class packs, move to the CP1500T48 for common 48V architectures, and scale up to the CP1500T100 when the battery stack requires substantially higher charge voltage. That kind of family continuity is useful when you are trying to compress vendor count, documentation work, and spare-parts logic across multiple SKUs.

Where the CP1500 Series fits in real projects

In real purchasing and integration work, the best charger is not the one with the longest feature list. It is the one that matches the battery architecture, the operating environment, and the service model of the finished system. The CP1500 Series fits best when you need a charger that can be deployed repeatedly across industrial programs without rebuilding the electrical stack every time. One clear fit is AGV and AMR charging. These platforms often combine frequent charge cycles, space-limited electrical compartments, and a need for controller-level visibility. Because the CP1500 Series supports CAN communication and remote control features, it can sit more cleanly inside a supervised charging architecture than a basic standalone charger.

It also makes sense in collaborative robotics, service robots, and linear-motor systems where maintenance teams want predictable replacement procedures and consistent charger behavior across installed equipment. The application summary in the uploaded specification highlights industrial equipment, linear motors, and AGV charging modules as direct use cases, which aligns well with the way many OEMs structure field service. A charger with built-in chemistry curves, automatic battery detection, and full-charge stop can reduce operator dependency in those environments. That matters when the charger will be used by technicians, distributors, or customer maintenance staff rather than only by power-electronics specialists.

For procurement teams, the series is also attractive because it helps bridge product and manufacturing conversations. If your program involves not only the charger but also enclosure work, thermal control, interconnect design, or broader EMS needs, TPS publishes adjacent resources on electronic manufacturing services for power electronics, mixed-technology PCB assembly, custom sheet metal enclosures and cabinets, and liquid cold plate design. That is useful because charger sourcing often expands into a wider discussion around thermal packaging, protection, and field wiring.

There is also a practical fit for medically influenced or medical-adjacent systems such as carts, service modules, or backup battery subsystems where isolation behavior and EMC planning matter. The specification calls out medical-grade 2xMOPP isolation and EMC performance meeting IEC 60601-1-2 Edition 4, but buyers should distinguish that from a blanket claim that every project using CP1500 is automatically cleared as a medical device. The right approach is to treat the series as a technically relevant platform, then confirm the exact compliance scope of the selected model during RFQ and design review. That level of discipline is especially important when the charger will be integrated into regulated equipment or customer-specific compliance files.

Model breakdown: 24V to 100V coverage

The CP1500 family is not just one charger with a broad settings range. It is a voltage-class family designed around common lithium pack structures, and that matters because it gives engineers more predictable selection logic. Based on the current specification, the family supports both LiFePO4 and NCM battery profiles, with the available model set covering 24V, 28V, 36V, 48V, 60V, 72V, and 100V classes. Maximum charge current declines as voltage rises, which is consistent with a 1500W power envelope. In simple terms, that means low-voltage packs can charge at much higher current, while higher-voltage packs remain well served at lower current.

There are two details worth noting for serious RFQ work. First, the 36V and 48V families include alternate variants mapped to different cell counts, which is a reminder that the nominal system voltage alone is not enough to choose the right charger. You need to match battery chemistry, series cell count, full-charge voltage, and current requirement. Second, the family naming makes it easier to line up sourcing conversations internally. Engineering can define the electrical target, operations can align part numbering, and procurement can maintain a cleaner approved-vendor structure than if the project used one-off chargers from multiple brands.

That kind of alignment is especially valuable if your program includes magnetics, harnesses, or enclosure-level customization around the charger. Related TPS resources such as custom magnetics and coil winding, custom enclosures and cabinets, and wire harness assembly are relevant when the charger is one part of a broader build rather than a standalone catalog purchase.

Integration details that reduce engineering risk

The strongest RFQ-driving features of the CP1500 Series are the ones that save engineering time after the initial purchase decision. Remote voltage sensing compensation is a good example. In battery charging systems with longer cable runs, connector losses, or installation-driven voltage drop, remote sense can help the charger regulate at the battery more accurately than a simpler fixed-point design. That can improve consistency when your system is charging under real field conditions rather than under ideal bench wiring. Remote switch control is equally practical because it lets system designers coordinate charger behavior with controller logic, maintenance states, or fleet-management rules.

CAN communication is another important differentiator for industrial buyers. Even when a project does not need deep software control on day one, CAN provides a path for supervisory monitoring and broader architecture alignment later. That matters in AGV fleets, machine service ecosystems, and OEM platforms where electrical products increasingly need to fit into a controlled system rather than operate as isolated black boxes. The 12V/1A auxiliary output can also simplify support-power routing for logic, sensing, or small auxiliary devices, reducing the need for an extra supply in some control schemes.

Protection and reliability details are also solidly aligned to OEM needs. The specification lists automatic battery connection detection, reverse connection detection, automatic stop at full charge, smart fan speed control, and leakage current limits below 100 microamps for touch current and below 300 microamps for earth leakage. It also specifies 4000VAC primary-to-secondary isolation, 1500VAC from primary to earth, and 1500VAC from secondary to earth. Together, those items signal a charger platform that has been designed for real installation environments rather than only lab use. The stated MTBF of more than 500,000 hours further supports programs where service stability and spare-parts planning matter.

Mechanical design is often where charger projects get derailed, and here the CP1500 Series is refreshingly straightforward. The current specification gives a compact size of 5 x 8.5 x 1.58 inches, which is useful for cabinet-based integration and replacement planning. It also lists operation at up to 5000 meters altitude, which is relevant for equipment deployed in elevated environments or for customers who need that parameter documented in advance. If your project requires a fully integrated charger subsystem rather than a board-level or box-level component alone, TPS content on sheet metal enclosure design, powder coating for electrical enclosures, and power-electronics manufacturing stack gives a natural next step for broader sourcing conversations.

Compliance and procurement notes

From a compliance perspective, the CP1500 Series deserves a disciplined reading. The uploaded specification lists safety approvals aligned with IEC/UL 62368-1 and EN/UL 60335-1, while also stating EMC performance meeting IEC 60601-1-2 Edition 4 and highlighting medical-grade 2xMOPP isolation. For buyers, that means the platform brings relevant safety and EMC characteristics to demanding applications, but the exact compliance scope for a given end product still needs to be confirmed during project review. That is particularly important when the charger is being embedded into a formally regulated medical device, a consumer-facing appliance category, or a customer-specific certification file.

For reference-only external reading, the underlying standards bodies and official publication pages include IEC 62368-1, IEC 60335-1, UL 60335-1, and IEC 60601-1-2. Inside the TPS content ecosystem, you can also connect this product page to broader decision frameworks such as US compliance-oriented power selection, industrial power architecture planning, and high-efficiency DIN rail power-supply selection.

For commercial teams, the best summary is simple: if you need a 1500W charger family with broad lithium coverage, compact mechanics, practical controls, and strong OEM integration value, the CP1500 Series is a credible shortlist candidate. The faster your RFQ includes battery chemistry, series cell count, full-charge voltage, current target, interface expectations, and compliance requirements, the faster TPS ELECTRIC LLC can guide you to the right family member.

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