new-bannner

Precision Turning Machine - Custom Solutions from a Reputable Supplier

I am your dedicated Custom precision turning machine supplier, offering tailored solutions for demanding manufacturers. I design and build high-precision turning machines that keep production tight and waste low. When you need a machine that handles diverse materials and tight tolerances, I listen to your process, sketch a solution, and tailor every spec—from spindle speeds to tool paths—to your exact needs. I provide ready configurations, quick delivery, and reliable after-sales support. I control quality from raw materials to final alignment so your first parts meet spec. With flexible customization, predictable lead times, and scalable automation options, I help you reduce setup times and boost throughput. If you’re seeking a trusted partner for Custom gear-cutting, bar turning, or complex polygon parts, I’m here to bring your ideas to life with precision turning machine know-how.

Hot Selling Product

precision turning machine Custom Solutions, Your End-to-End Solution

When precision turning meets intelligent customization, you gain more than a machine—you gain an end-to-end production partner. These platforms deliver micron-level tolerances, rigid clamping, high-speed spindles, multi-axis capability, and advanced automation such as bar feeding and unmanned loading. From concept to deployment, the solution is tailored to your part family with fixture, tooling, and process recipes designed for repeatability, fast changeovers, and optimal cycle times. Digital monitoring and data analytics enable real-time quality control and continuous optimization. Global buyers gain a complete journey: design consultation, prototype validation, pilot runs, qualification, and full production ramp-up with strict quality systems and traceability. The model aligns with supply chains—flexible capacity, predictable lead times, scalable output—and includes ongoing service and preventive maintenance. By embracing this end-to-end approach, you reduce risk, shorten lead times, and lower total cost across automotive, aerospace, medical, and industrial parts while preserving peak precision.

{ precision turning machine Custom Solutions, Your End-to-End Solution}

Model Type Max Ø (mm) Max Length (mm) Spindle Speed (RPM) Spindle Power (kW) Turret Slots Live Tooling X Travel (mm) Z Travel (mm) Rapid Traverse (m/min) Cutting Feed (mm/rev) Accuracy (µm) Repeatability (µm) Avg Cycle Time (s) Year Introduced
PTM-1010S Single-Spindle 320 250 6000 7.5 12 Yes 120 320 24 0.08-0.60 5 3 9 2019
PTM-1210P Twin-Spindle 450 400 8500 11 16 Yes 180 420 28 0.05-0.75 4 2 12 2020
PTM-1415L Single-Spindle 260 180 12000 15 10 No 100 260 20 0.04-0.70 6 4 14 2021
PTM-2010H Multi-Spindle 500 350 7000 7.5 12 Yes 150 380 25 0.06-0.72 4 2 11 2022
PTM-1610X Twin-Spindle 420 300 8000 11 16 Yes 140 320 26 0.07-0.68 3 2 10 2023
PTM-2020Z Single-Spindle 300 260 10000 11 12 No 90 260 18 0.05-0.65 7 3 13 2024

Related Products

new-bannner

precision turning machine Supplier Factory

Data Dimension: Monthly Throughput vs Defect Rate in Precision Turning

Throughput (units/day) Defect Rate (%) Months Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov Dec Throughput Defect Rate

Explanation: This chart presents a synthetic dataset representing a precision turning manufacturing line over 12 months, focusing on two key performance metrics: monthly production throughput (units per day) and defect rate (percent). Throughput shows a general upward trajectory from January to December, indicating ramp-up, capacity expansion, or improved line efficiency as the year progresses. In parallel, the defect rate demonstrates a downward trend, decreasing from about 1.8% in January to around 1.0% by December, suggesting improvements in process stability, tool wear management, and operator proficiency. The dual-axis format enables viewing both metrics on a single timeline, yet readers should be cautious about direct comparisons of scales; the left axis controls units/day while the right axis shows percent defect rate. Observed month-to-month fluctuations—such as a dip in throughput around February and again around November—could reflect planned maintenance windows, tool changes, or minor schedule adjustments. Although the patterns imply a positive relationship between higher throughput and improved quality, correlation does not imply causation; other factors like preventive maintenance, training regimes, or shifts in demand could contribute. For robust insights, this dataset would benefit from additional dimensions such as downtime, cycle time, tool life, and scrap reasons, as well as longer time horizons. Managers could use such charts to monitor performance trends, identify deviations early, and guide decisions on capacity planning, maintenance scheduling, and quality improvement initiatives. The takeaway is that sustained process control and investment in tooling and skills can support higher utilization with lower defect rates, enhancing overall equipment effectiveness and customer satisfaction.

Top Selling Products