一种差速进刀式管道切割机结构和差速进刀式切管机

By using a differential feed structure and mechanical connection method, the problems of complex structure and poor cutting accuracy of existing pipe cutting machines have been solved, achieving efficient and stable cutting results and low failure rate, thus extending the equipment's lifespan.

CN224508602UActive Publication Date: 2026-07-17NINGBO TEDER ELECTROMECHANICAL CO LTD

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
NINGBO TEDER ELECTROMECHANICAL CO LTD
Filing Date
2025-07-04
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Existing pipe cutting machines have complex structures, occupy a large space, have poor cutting accuracy, low operational reliability, and are difficult to fully automate.

Method used

It adopts a differential feed structure. Through the cooperation of the differential generation module and the control unit, the differential rotation of the first differential component and the second differential component is realized, which drives the linkage feed component to perform differential feed or retraction. Combined with the clamping module and mechanical connection method, the mechanical connection method is used to replace the signal or electronic connection.

Benefits of technology

It achieves higher cutting precision and stability, reduces failure rate, simplifies equipment structure, extends service life and reduces maintenance costs.

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Abstract

本实用新型提供了一种差速进刀式管道切割机结构和差速进刀式切管机,差速进刀式管道切割机结构包括:差速进刀式模块、差速生成模块和夹持模块,差速进刀式模块包括:主体;第一差速组件转动设于主体;第二差速组件设于第一差速组件;联动进刀组件连接第一差速组件和第二差速组件,联动进刀组件上设有切割件;差速生成模块驱动连接第一差速组件和第二差速组件,且差速生成模块包括控制部,控制部连接第一差速组件和第二差速组件中的任一者;通过差速生成模块和控制部的配合,使得第一差速组件和第二差速组件差速转动,实现差速进刀动作或退刀动作。本实用新型使得设备更加紧凑,能够实现全自动精确切割,且采简单机械结构使得设备有极高运行可靠性。
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Claims

1. A differential infeed pipe cutting machine structure, characterized by, The differential feed pipe cutting machine structure includes: a differential feed module, a differential generation module (150), and a clamping module (120). The differential feed module includes: Main body (110); A first differential assembly (130) is rotatably mounted on the main body (110); The second differential assembly (140) is rotatably disposed on the side of the first differential assembly (130) away from the main body (110); A linkage feed assembly (160) is provided, which is connected to the first differential assembly (130) and the second differential assembly (140), and a cutting element (170) is provided on the linkage feed assembly (160). The differential generation module (150) includes: the differential generation module (150) drives and connects the first differential component (130) and the second differential component (140), and the differential generation module (150) includes a control unit (151), the control unit (151) drives and connects to either the first differential component (130) or the second differential component (140); The differential speed generation module (150) and the control unit (151) work together to make the first differential speed component (130) and the second differential speed component (140) rotate at different speeds, thereby driving the linkage feed component (160) to perform differential feed or retraction actions.

2. The differential feed pipe cutting machine structure according to claim 1, characterized in that, The rotational speed of the first differential component (130) is defined as V1, and the rotational direction is defined as the first direction; the rotational speed of the second differential component (140) is defined as V2, and the rotational direction is defined as the second direction. Wherein, V1 is greater than V2, and when the first direction and the second direction are the same, the linked feed assembly (160) drives the cutting piece (170) to achieve rapid feed or feed; and / or V1 is smaller than V2. When the first direction and the second direction are the same, the linkage feed assembly (160) drives the cutting piece (170) to achieve rapid retraction or retraction. The differential speed between V1 and V2 is achieved through the cooperation of the control unit (151) and the differential speed generation module (150).

3. The differential infeed pipe cutting machine structure according to claim 1, characterized in that, The differential speed generation module (150) also includes: Input section; A first output unit (152) is connected to the input unit, and the first output unit (152) drives the first differential assembly (130). The second output unit (153) is connected to the input unit and drives the second differential assembly (140). The control unit (151) drives either the first output unit (152) or the second output unit (153).

4. The differential infeed pipe cutting machine structure according to claim 3, characterized in that, The linked feed assembly (160) includes: The first linkage (161) is connected to the first differential assembly (130). When the first differential assembly (130) rotates, it drives the first linkage (161) to move. The second linkage (162) connects the first linkage (161) and the second differential assembly (140), and the second linkage (162) is provided with the cutting element (170).

5. The differential infeed pipe cutting machine structure according to claim 4, characterized in that, The first differential assembly (130) further includes: The first rotating member (131) is rotatably disposed on the main body (110) and is connected to the first output unit (152); At least one first mating member (132) is provided on the first rotating member (131), and the at least one first mating member (132) is used to cooperate with the first linkage member (161) so that the first rotating member (131) drives the first linkage member (161) to move when it rotates.

6. The differential infeed pipe cutting machine structure according to claim 5, characterized in that, The second differential assembly (140) also includes: The second rotating member (141) is rotatably disposed on the side of the main body (110) close to the first rotating member (131), and the second rotating member (141) is connected to the second output part (153); At least one second mating member (142) is provided on the second rotating member (141). The at least one second mating member (142) is used to connect the second linkage member (162) so that when the second rotating member (141) rotates, it drives the second linkage member (162) to move, thereby driving the cutting member (170) to move.

7. The differential feed pipe cutting machine structure according to claim 1, characterized in that, The clamping module (120) also includes: A first fixing part (121) is connected to the main body (110); Multiple rotating cam portions (122) are circumferentially disposed on the first fixing portion (121); A rotating wheel (123) is provided with a plurality of sliding grooves (124), the plurality of sliding grooves (124) are provided corresponding to the plurality of rotating cam portions (122), and the plurality of rotating cam portions (122) at least partially pass through the plurality of sliding grooves (124); The plurality of rotating cams (122) are driven by the rotating wheel (123) to move toward the center of the first fixing part (121) to fix the workpiece to be processed.

8. The differential feed pipe cutting machine structure according to claim 7, characterized in that, The clamping module (120) is detachably disposed on the main body (110).

9. A differential infeed pipe cutting machine characterized by, The differential feed pipe cutter includes the differential feed pipe cutter structure as described in any one of claims 1-8.