ABIS Mold Celebrates 30th Anniversary with Precision Injection Molds

SHENZHEN, GUANG-DONG, GHANA, October 23, 2026 /CourierPR/ -- ABIS Mold, a custom plastic injection mold manufacturer based in Shenzhen, China, is celebrating its 30th anniversary in 2026 by highlighting the role of tooling, injection molding, and assembly in automotive, electric vehicle (EV), robotics, drone, and outdoor product development. Founded in 1996, the company brings together research and development, mold making, production, and assembly services for manufacturers sourcing custom tools or finished plastic components.

ABIS Mold operates a 12,000-square-meter factory equipped with advanced injection molding machines, including those from Germany, Switzerland, and Japan. The company's injection molding machines have clamping forces ranging from 40 to 650 tons, and its annual production capacity exceeds 300 molds. Approximately 70% of these molds are exported to Europe and North America.

The company's integrated service model allows a project to cover a mold for the customer's own facility, molded-part production at ABIS, or a broader scope that includes secondary operations and assembly. Establishing the scope early gives engineering and purchasing teams a common basis for discussing the design, evaluating a quotation, and agreeing what constitutes an acceptable delivery.

Tooling for Automotive and Electric Vehicle Components

ABIS Mold's tooling for automotive and electric vehicle (EV) components supports applications ranging from charging connector shells and charging-port housings to small battery-related plastic components and automotive trim. Relevant details include locating features, joining interfaces, and the appearance of visible surfaces within the larger assembly. For example, an EV charging connector mold may require a review of mating dimensions, terminal-retention features, latch movement, and assembly sequence. A charging-port housing introduces a different combination of mounting points, cover interfaces, and, where specified, sealing features. Identifying these functional surfaces helps the tooling team consider where parting lines, gates, and ejection features can be placed.

Small automotive plastic parts also include clips, brackets, spacers, door-handle components, mirror housings, and interior trim details. A visible trim component requires agreement on color, texture, and permitted surface marks. A retaining clip needs a clear description of its movement and engagement. The importance of each feature should be reflected in the drawing and acceptance criteria. Material selection follows the component's intended use, considering electrical insulation, temperature exposure, contact with chemicals, and any specified flame requirements. Product teams and suppliers also need to agree which properties will be checked on samples or completed assemblies. The purchasing brief can then distinguish the tool itself from the evidence required to approve the part for its intended application.

Plastic Components for Robotics

Robot Parts Injection Molding involves components such as outer housings, joint covers, sensor mounts, control enclosures, and internal routing parts. These components connect the robot's external form with its electronics and mechanical systems. Their tooling requirements depend on what each part protects, supports, or locates, and on how it is assembled and serviced. For a robot housing injection mold, a useful engineering review includes the adjoining panels, mounting arrangement, and space needed for cables and fasteners. A shell that matches its overall dimensions can still present assembly difficulties if access to a screw is restricted or an opening is poorly aligned. Reviewing those relationships early makes the relevant inspection points easier to define.

Service access adds another consideration. A cover intended for repeated removal may need different fastening details from a permanently joined enclosure. Where metal inserts are specified, the insert dimensions, installation method, and retention requirements should be included in the project brief. Decorative surfaces and functional attachment features also need to be considered together when the mold layout is developed. Robotics projects can involve several related plastic parts with different functions. A protective shell, a sensor bracket, and a cable guide may require different material properties or acceptance checks even when they belong to the same product. ABIS's combination of mold making, injection molding, and assembly services provides a framework for discussing those parts as an assembly while retaining an individual specification for each component.

Injection Molded Components for UAV Projects

Drone Injection Molds cover applications such as unmanned aerial vehicle (UAV) housings, controller shells, battery compartments, and selected frame components. These parts bring weight, packaging space, assembly fit, and operating conditions into the tooling discussion. The requirements depend on the role of the component and the design of the complete aircraft or controller. A drone housing injection mold must account for the joint between shell sections, fastening locations, and clearances around electronics. Camera or sensor openings require defined positions relative to the enclosed hardware. Identifying the surfaces that control those relationships allows the sample review to address both individual dimensions and the fit of the assembled housing.

Weight targets need to be considered alongside strength and manufacturability. Reducing wall thickness changes how a part fills, cools, and supports its fastening features. Ribs, bosses, and local transitions should therefore be reviewed together. The objective is a geometry that can be manufactured and evaluated against the agreed design, with the expected loads and operating conditions clearly identified. For drone frame plastic parts, material discussions may include reinforcement, stiffness, and dimensional stability. Glass-fiber-reinforced polyamides, for example, can show different shrinkage along and across the flow direction, while moisture affects their properties. The exact grade and evaluation conditions therefore matter. A material data sheet supports an engineering assessment, while tests on the actual component address its geometry and use. Any flight-related performance or service-life requirements should be addressed in the product-validation plan agreed for the specific project.

Molds and Plastic Parts for Outdoor Products

Outdoor Plastic Parts & Molds serve equipment housings, handles, connectors, protective covers, and accessories for outdoor recreation and camping equipment. The operating environment is central to these projects.