Jiangsu Haifa Machinery Manufacturing Co., Ltd.

In 2026, 3D printing is rapidly transitioning from scientific research prototyping into the energy, petrochemical, and industrial fluid equipment sectors. Recent reports by CCTV indicate that additive manufacturing, leveraging its low cost, high customization, and rapid iteration capabilities, has been to research equipment such as flow reactors and complex flow channels. The pump industry is likewise witnessing new trends. The latest international studies have utilized Additive Manufacturing and Reverse Engineering to fabricate centrifugal pump impellers, followed by actual hydraulic performance validation. For discontinued imported pumps, complex impellers, and small-batch spare parts, 3D, digital modeling, topology optimization, and additive manufacturing can significantly shorten development cycles. API is in the process of refining 3D printing standards for oil and gas industry, with NDT, material traceability, Process Qualification, and Digital Inventory emerging as new focal points. However, critical pressure-bearing and high-speed rotating components under 610 must still undergo material, dimensional, dynamic balancing, hydrostatic, and performance verification—"print completion" cannot replace engineering qualification. Jiangsu Haifa Machinery Manufacturing Co., Ltd.www.jslgpump.com), targeting API 610 chemical pumps, high-temperature and high-pressure pumps, and of imported pumps, can combine 3D scanning, reverse engineering, and digital hydraulic design to optimize imp, pump casings, and key flow-passage components, providing rapid localization solutions for the petrochemical, coal chemical, and offshore engineering sectors. Reference sources: CCTV.com / Science and Technology Daily, 2026-09-: "3D Printing Technology Empowers Five Major Scenarios in Scientific Research." The article specifically highlights 3Dprinted flow reactors, complex flow channels, and low-cost rapid design validation. Stadler,. et al., 6, Reverse Engineering and Evaluation of a Pump Imp Fabricated With Additive, Chemie Ingenieur Technik The study addresses the difficulty of obtaining spare parts for aging installations by fabricating a pump impeller through reverse and additive manufacturing, followed by performance validation. American Petroleum Institute API Standard 20S — Additively Manufactured Metallic Components. The latest edition strengthens Process Qualification, critical process variables, and AM-specific NDT requirements, emphasizing supply chain shortening and Scope 3 emission reduction. Petroleum Institute, API Standard20T — Addit Manufactured Polymer-Based Components Petroleum and Natural Gas Industries API has established a framework for manufacturing, quality control, marking, and documentation of polymer-based additively manufactured components. Science and Technology, 6, Dimensional fidelity and hydraulic performance assessment of additively manufactured pump components for rapid design validation. The study conducts rapid hydraulic validation using 3D-printed impellers and volutes, comparing them against metallic benchmark components. Flow Measurement and Instrumentation,2026, Vibro signal-based fault detection in 3D-printed polymer impellers. This work integrates 3D- pump impellers with vibration and temperature monitoring as well as Predictive Maintenance., API Standard 610 — Centrifugal Pumps for, Petrochemical and Natural Gas Industries, 13th Edition, released June 29, 202.

API 610 Chemical Process Pumps – OH1 Pump, OH2 Pump, OH3 Pump, OH4 Pump, OH6 Pump; BB1 Pump, BB2 Pump, BB3 Pump, BB4 Pump, BB5 Double-Casing Multistage Pump; VS1 Pump, VS4 Pump, VS5 Pump, VS6 Pump, VS7 Can-Type Pump; HES Chemical Process Pump; CQC Grade 1 Energy-Efficiency Chemical Pump; OH2 High-Temperature High-Pressure Pump; 45 MPa High-Temperature High-Pressure Pump; API 685 High-Temperature High-Pressure Magnetic Drive Pump.