CNCフライス盤サービス |フライス加工部品 |イートンテクノロジー

CNCフライス盤サービス

Etone Technology offers comprehensive CNC milling services for the machining of various parts. Our CNC milling centers are outfitted with the latest tooling equipment and are operated by a number of experienced machinists, allowing us to produce parts that strictly conform to customer design requirements and specifications.

We are capable of handling both short prototype runs and high volume production runs. We are an ISO 9001:2015 certified organization, committed to providing customers with a consistent quality product every time. お問い合わせ to discuss your next project today.

お客様の成長をお手伝いします

卓越したカスタマーサービス
最高品質の製品
テクニカルサポート
競争力のある価格設定
納期厳守
長年の専門知識

品質保証プロセス

CMM Inspection

厳格な品質基準とISO 9001:2015認証

ここEtone Technologyでは、私たちの仕事の質があなたの仕事の質に影響を与えることを知っています。そのため、部品要件に基づく定期的な工程内検査や初回品検査レポート(ご要望に応じて)など、厳格な品質保証プロセスを導入し、当社が製造するすべての精密機械加工部品が最高水準であり、お客様の仕様に従って製造されるように設計されています。

CNCフライス盤プロジェクトの一部

Go check out our フォトギャラリー and see what Etone Technology can do for you and your business. With any further questions, please contact us today.

CNCフライス盤の利点

CNC milling is a computer-controlled machining process that uses rotating cutting tools to selectively remove unwanted material from a workpiece until the desired shape is achieved. The cutting tools are able to move along various axes with high levels of accuracy to achieve complicated shapes and intricate geometries.

CNC milling offers numerous advantages over traditional manual milling methods, including:

迅速なターンアラウンド。CNCマシニングセンターは、CAD/CAMソフトウェアを使用して事前にプログラムされているため、最適な加工戦略とコスト削減が可能です。
優れた精度。機械の仕様精度が高いため、精度と信頼性が向上します。
可変生産サイズ。高い再現性で大規模な生産を可能にする多数のワーク保持の可能性。
素材の多様性。CNC機械加工は、高速で加工が困難な材料を含む幅広い材料に使用できます。
作業員の安全性の向上。CNC機械加工は、人間の直接的な介入が少なくて済むため、作業者が怪我をするリスクが軽減されます。
費用対効果。速度の向上と無人CNC加工により、従来の製造方法と比較して非常に手頃な価格になります。

私たちが扱う材料

POMの概要

POM offers high wear resistance, low friction, and overall durability and toughness. Its high wear resistance combined with excellent creep and warp resistance make it a good material option for mechanical components and industrial products.

ブロンズの概要

Bronze is made by mixing copper with up to approximately 35% tin and up to 8% lead. The inclusion of lead alloy, which is a soft metal, is what makes it so machinable. High strength, good wear and corrosion resistance properties make bronze a versatile metal for machined components.

銅の概要

Copper is well known for its electrical and thermal conductivity. It is very resistant to corrosion and is also inherently antimicrobial. Electrical, thermal conductivity and corrosion resistance properties make copper a versatile metal for machined components.

一目でわかる真鍮

Brass is a metal alloy with good machinability and excellent electrical conductivity. Ideal for applications that require low friction. Well rounded properties make brass a versatile metal for machined components.

合金鋼の概要

Alloy steels contain other alloying elements in addition to carbon, resulting in improved hardness, toughness, fatigue and wear resistance. Hardness, toughness and wear resistance properties make alloy steel a versatile metal for machined components.

ステンレススチールの概要

Stainless steel parts provide excellent machinability, workability, and uniformity, and are resistant to corrosion and oxidation. We mill stainless steel components using specialist CNC machining techniques to provide high resistance to corrosion and wear.

アルミニウムの概要

A commonly used metal in manufacturing across many industries, aluminium is lightweight yet strong and corrosion-resistant. We mill aluminium components using specialist CNC milling or CNC turning techniques to provide durability and performance strength.

今すぐ当社の専門家に連絡して、お探しの材料を加工するかどうかを確認してください。

表面仕上げオプション

陽極酸化

Anodizing is an electrical processes that infuses the color into the material and creates beautiful shades of color. Anodized metal parts effectively increase corrosion resistance, , and also enhancing visual qualities and keeping the surface from being scratched.

機械加工時

As machined parts—or parts that come right off the machine—have minor visible tool marks and a standard surface roughness (Ra) is 3.2 μm. Surface finish requirements can be increased to 1.6, 0.8 and 0.4 μm.

ビーズブラスト

Applicable materials: all metals.

Bead Blasting is a reliable practice to prepare a metal surface for bonding, adhesion, insert molding, painting, or other coating tasks or to achieve a specific surface texture. This process is also used to remove burrs or edge profiling on parts and components.

鍍金

Plating is the perfect way to improve the look of the products you produce, while also inhibiting corrosion, reducing friction, shielding them from interference and more.

粉体塗装

Powder coating adds a wear- and corrosion-resistant finish to the surface of the parts. It has higher impact resistance compared to anodizing, comes with a large range of colors, and can be applied to any metal.

ブラックオキサイド

Applicable on steels, black oxide is a conversion coating used to improve corrosion resistance and minimize light reflection.

研磨

Parts are manually polished in multiple directions. Surface is smooth and slightly reflective.

ブラッシング

Brushing is a surface treatment process in which abrasive belts are used to draw unidirectional traces on the surface of a material for aesthetic purposes.

電解研磨

Electropolishing creates a clean surface, best for parts that need to be smooth at a microscopic level.

スムーズな加工

Smooth machining is best for precise parts where the surface roughness needs to be fine, but is not suitable for customer-facing products.

パッシベーション

Passivation is a widely-used metal finishing process to prevent corrosion.

タンブリング

Tumbling is a finishing process that is used to clean, deburr, and slightly smooth smaller parts.

絵画

Painting involves spraying a layer of paint onto the surface of the part. Colors can be matched to a Pantone color number of the customer’s choosing, while finishes range from matte to gloss to metallic.

熱処理

Heat treating allows a metal piece to be improved in order for the material to better withstand wear and tear. Heat treatment involves heating a metal or alloy to a specific temperature and then cooling it to harden the material.