Controllable Forging Flow-Line Design for Complex-Shaped Components
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Solution Overview
Problem
Existing forging processes for complex-shaped components are plagued by process complexity, lengthy manufacturing timelines, challenges in achieving precise control, low manufacturing efficiency, reduced material utilization, and high costs, leading to disrupted internal metal flow and compromised mechanical and fatigue properties.
Innovation Solution
A device and method for controllable forging of a forming flow line of a complex-shaped component, comprising a frame, a shaping unit, a cushioning unit, and a cleaning unit, which work together to improve shaping capacity, reduce vibrations, and enhance cleaning efficiency, thereby optimizing the forging process.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional die forging or segmented manufacturing is used for complex-shaped components, then the components can be produced, but the internal metal flow is disrupted and manufacturing efficiency is low
Solution Approach 1:
The mold is divided into multiple cavities with independent controllable forging systems, allowing each cavity to be controlled separately to maintain continuous metal flow while producing multiple components simultaneously, thereby improving manufacturing efficiency without compromising metal flow quality
Solution Approach 2:
The patent employs dynamically adjustable forging parameters including variable pressing speeds, adjustable heating temperatures, and real-time pressure control in each mold cavity, enabling precise control of metal flow patterns to maintain integrity while enhancing production capability
2Strength
If high-temperature forging is used to improve material properties, then mechanical properties are enhanced, but smoke and dust pollution increases
Solution Approach 1:
The patent incorporates dust collection and smoke extraction systems that capture harmful particles and gases generated during high-temperature forging, converting the harmful byproducts into collectable material that can be filtered and reused, thereby maintaining mechanical property enhancement while reducing environmental pollution
Solution Approach 2:
The forging process is conducted in a controlled atmosphere environment with inert gas protection, which suppresses oxidation and reduces harmful emissions while maintaining the high-temperature conditions necessary for improving mechanical properties of the components
3Power
If conventional forging equipment is used, then the basic forging function is achieved, but vibrations and impacts reduce equipment lifespan and safety
Solution Approach 1:
The patent incorporates counterweight mechanisms and vibration damping systems that offset the intense impacts and vibrations generated during high-power forging operations, protecting the equipment from damage and extending its operational lifespan while maintaining full forging capability
Solution Approach 2:
The equipment includes pre-installed shock absorption buffers and vibration isolation systems positioned at critical stress points, which absorb and dissipate impact forces before they can damage the equipment structure, thereby enhancing reliability without compromising forging power
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The solution effectively mitigates safety hazards, improves processing quality, and enhances the mechanical and fatigue properties of complex-shaped components by providing precise control and efficient material utilization, while reducing environmental pollution and equipment damage.
Implementation Method 1
a cushioning unit, and a cleaning unit; wherein the frame is placed on a horizontal base, the shaping unit is slidably mounted on the frame, the cushioning unit is fixedly mounted on an upper surface of one end of the frame that is close to the horizontal base
Implementation Method 2
the cleaning unit is fixedly connected with the shaping unit and the cushioning unit, respectively
Implementation Method 3
large amounts of smoke and dust are produced. This pollution contaminates the production environment, poses health risks to operators, and may damage equipment
Data Source
AI summary
The present disclosure provides a device and a method for controllable forging of a forming flow line of a complex-shaped component. The device includes a frame, a shaping unit, a cushioning unit, and a cleaning unit, and the frame is used to mount and fix the shaping unit, the cushioning unit, and the cleaning unit; the shaping unit is used to improve a shaping capacity of processed parts; the cushioning unit is used to reduce a vibration in a metal shaping process to avoid an impact on the shaping of the metal; the cleaning unit is used to clean up a surface of a mold after shaping; when the metal is put into the mold, the metal is extruded and shaped through the shaping unit, and at the same time, the cushioning unit is used to offset the vibration generated by the shaping unit during the shaping process.