Pick-and-Place Robot Financing

Cycle time is the whole game in pick-and-place automation. A delta robot executing 150 cycles per minute on a packaging line is not doing something a person could do faster, it is doing something a person cannot do at all on a sustained basis. At that speed, the throughput math closes against any reasonable labor cost within months, not years. The financing decision is really a question of whether you want to carry the capital as a fixed payment below the labor it replaces, or continue paying for the labor itself.

We finance pick-and-place robots across all architectures: delta robots for high-speed food, pharma, and electronics handling; SCARA robots for precise, fast assembly insertion; Cartesian gantry systems for bulk transfer; and six-axis robots in applications where the orientation change between pick and place requires a full rotation. The cell scope typically includes the robot, vision system for product identification and orientation detection, infeed and outfeed conveyor, and enclosure or safety guarding. Delta robot financing and SCARA robot financing are available as standalone pages if your application fits one of those architectures specifically, and we finance both under the same program terms.

Minimum transaction: $50,000. Pick-and-place cells commonly run $80,000 to $300,000 depending on robot type, vision complexity, and line integration scope. Application-only approval up to roughly $400,000. Funding in one to two weeks.

Pick-and-Place Robot Architectures and Their Applications

No single robot architecture serves all pick-and-place applications equally well. The choice between delta, SCARA, Cartesian, and six-axis for a pick-and-place application comes down to cycle rate, product weight, required precision, and whether the place step requires complex orientation changes. We finance all of them.

Delta robots are the speed leaders. Three-arm parallel kinematic designs from ABB (FlexPicker), FANUC (M-1iA, M-3iA), and Adept/Omron can sustain 100 to 150 picks per minute in production environments with lightweight products. They are the standard choice for chocolate, biscuit, confectionery, and blister-pack pharmaceutical pick-and-place lines.

SCARA robots bring high speed and high repeatability (often below 0.01 mm) to horizontal pick-and-place and press-fit insertion. Electronics component placement, syringe assembly, and connector insertion are typical applications. Epson, Denso, Mitsubishi, and FANUC SCARA families dominate this segment.

Cartesian and gantry systems trade speed for flexibility of travel distance. Long-axis gantries can cover three to five meters of pick zone, making them useful for pallet-level pick-and-place and large product formats that delta or SCARA systems cannot handle.

• Delta robots: up to 150 picks per minute; payload typically 1 to 8 kg
• SCARA: up to 120 picks per minute; payload typically 1 to 20 kg
• Six-axis: 30 to 80 picks per minute; payload 5 to 250 kg; full orientation control

Food and beverage producers and electronics manufacturers are the two heaviest buyers in pick-and-place robot financing.

Industries and Operations That Use Pick-and-Place Robots

Pick-and-place automation crosses more industries than almost any other robot application because every manufacturing and packaging operation involves moving objects from one location to another with some level of precision. The economics differ by industry, but the payback logic is consistent.

Pharmaceutical and medical device manufacturers use pick-and-place robots for blister-pack loading, vial handling, syringe assembly, and sterile filling line support. Regulatory requirements in these environments add integration complexity, but the robot eliminates human contamination risk and delivers validated, documented process consistency.

Consumer goods manufacturers, contract packagers, and co-manufacturers use pick-and-place for primary and secondary packaging operations. A contract packer adding a pick-and-place system to a packaging line can increase the line speed it can quote to customers, directly expanding the contracts it can win. Packaging and co-packing automation financing covers this buyer segment in detail.

Electronics manufacturers use SCARA pick-and-place for board loading, connector insertion, and test socket loading. The precision requirements in electronics assembly favor SCARA and specialized Cartesian systems over delta robots in most cases.

If your application involves irregular products that need vision to locate and orient before pick, our robotic bin-picking system financing addresses that specific capability. Vision-guided random-bin picking is technically more complex than structured pick-and-place but is financeable as part of the complete cell.

Financing Terms and Structure

Pick-and-place robots at the lower end of the size range (delta and SCARA systems) often come with shorter useful life expectations than heavy industrial six-axis arms, which affects term. We typically structure delta and SCARA pick-and-place financing at 36 to 60 months rather than the 60 to 72 months available for larger six-axis systems. This reflects the higher technology turnover in high-speed packaging and electronics applications, where new generations of vision and control hardware arrive more frequently.

FMV lease structures make particular sense for pick-and-place robots in rapidly evolving application environments. If the robot technology advances significantly in three to four years, an FMV lease with a purchase option at residual (or a return and replacement with new equipment) keeps your automation current without carrying a depreciating asset to its end of useful life. Comparing FMV and dollar-buyout lease structures is worth doing before you commit, and we show both payment scenarios side by side.

Application-only approval handles the majority of pick-and-place transactions. Vision-guided cells for food or pharma applications sometimes push past the $400,000 application-only threshold when full line integration is included, in which case we move to a fast full underwrite.