Faqs

Our process begins with a discussion of your product requirements, target market, or application needs. We then provide product recommendations or customised quotations. Upon agreement, we can arrange sample confirmation before proceeding to batch production. After order confirmation, we schedule production, conduct quality inspections, arrange packaging and shipping, and provide a batch-specific quality report with each shipment.

We maintain flexible MOQ policies. For standard catalogue items, our MOQ is relatively low to accommodate trial orders. For customised products (OEM/ODM), the MOQ depends on specifications, packaging requirements, and production complexity. We work closely with customers to find mutually acceptable order volumes, especially during initial cooperation.

For standard products, we can provide a limited number of samples for first-time cooperation, with shipping costs typically borne by the customer. For customised tooling, sample costs are discussed separately based on development complexity. Our aim is to minimise your risk while allowing you to verify our quality firsthand.

In-stock standard items usually ship within 3–7 working days. Batch orders or customised products generally require 15–30 working days, depending on product complexity, coating schedules, and current production capacity. We always provide a clear delivery commitment with our quotation.

We accept T/T (telegraphic transfer), L/C (letter of credit), and other mutually agreed terms. For first-time cooperation, we typically request a 30% deposit with the balance due before shipment. Flexible payment terms can be discussed for long-term, established partnerships.

Yes. We provide full OEM services (manufacturing to your drawings) and ODM services (assisting with product development). Branding options include laser marking on tools, customised boxes, labels, and instruction materials. All customer designs and brand information are protected under strict confidentiality agreements.

We have a structured after-sales process. If a quality issue arises, please provide clear descriptions, photos or videos, and the batch number. We respond within 24 hours. If the issue is verified as our responsibility, we arrange replacement, credit, or refund according to the contract terms. For issues related to product selection rather than manufacturing defects, we prefer to assist during the selection phase to prevent mismatches.

We use robust packaging solutions with high-strength internal supports and moisture barriers. Each package is labelled with handling instructions. We also work with reliable freight forwarders to ensure tracking and insurance options are available for high-value consignments.

Grade selection depends on three main factors: the workpiece material (steel, stainless steel, cast iron, non-ferrous, or superalloys), the machining operation (turning, milling, drilling, threading, or grooving), and the cutting conditions (continuous or interrupted cuts, rigidity of setup, and coolant availability). We analyse these parameters and recommend specific grades optimised for wear resistance, toughness, or a balanced combination of both.

PVD (Physical Vapour Deposition) coatings are thinner and applied at lower temperatures, making them ideal for sharp edges, high-speed finishing, and materials like stainless steel or superalloys. CVD (Chemical Vapour Deposition) coatings are thicker and more wear-resistant, suited for lower-speed, heavier roughing operations in steel and cast iron. We help customers select the appropriate coating based on their specific operating conditions and tool life expectations.

Chipbreaker selection affects chip control, cutting forces, and surface finish. Open chipbreakers are used for soft, sticky materials or light cuts to prevent built-up edge. Tight chipbreakers are designed for harder materials or heavier feeds to break chips effectively. General-purpose chipbreakers balance these characteristics. We review your feed rates, depths of cut, and workpiece materials to recommend the optimal geometry.

Premature breakage is usually caused by excessive radial engagement, insufficient coolant, improper feed/speed parameters, or excessive tool overhang. We recommend reviewing your cutting parameters against the tool’s recommended data, reducing stick-out length where possible, and ensuring stable workpiece clamping. If the issue persists, we may suggest a tool with a different helix angle, coating, or substrate for improved toughness.

Parts are processed by CNC precision carving and inspected strictly by CMM, optical projectors and micrometers according to tolerance requirements before delivery.

In many cases, yes. However, exact performance replication depends on the specific application. We do not simply match part numbers; instead, we evaluate the actual machining conditions and workpiece requirements to recommend an alternative that delivers comparable or improved tool life and surface quality. We often provide trial samples for customers to validate performance under their actual shop-floor conditions.

Stainless steel tends to work-harden and generate high heat, requiring moderate cutting speeds with consistent feeds to avoid rubbing. Recommended speeds typically range from 80–180 m/min depending on the specific stainless grade and tool coating, with feed rates adjusted based on tool diameter and depth of cut. We provide comprehensive parameter charts with each product and can offer customised recommendations for your specific workpiece and machine setup.

The correct combination depends on the insert shape, size, and clearance angle, which in turn depend on the type of turning (external, internal, profiling, or facing) and the workpiece geometry. We guide customers in matching insert pocket design, clamping mechanism, and overhang to ensure stability, rigidity, and optimal cutting performance.