Firearm Suppressor with Cooling Channels for Heat Dissipation
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Solution Overview
Problem
Conventional firearm suppressors fail to effectively manage heat generated during use, leading to safety risks and potential damage due to high temperatures.
Innovation Solution
A unitary suppressor design featuring a body with multiple baffles and cooling channels, combined with a cone-shaped nozzle and a flash hider, which utilizes additive manufacturing for enhanced structural rigidity and incorporates heat-dissipating materials like titanium and nickel alloys.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Object-affected harmful factors
If conventional suppressor design is used, then sound and flash are reduced, but heat accumulates to dangerous levels causing safety risks and potential damage
Solution Approach 1:
The suppressor body is segmented into multiple cooling channels that divide the heat dissipation function across several pathways. These channels segment the internal volume to allow controlled flow of cooling介质 through specific regions, preventing heat accumulation in any single area while maintaining overall structural integrity
Solution Approach 2:
A cooling介质 (such as liquid or gas) is introduced as an intermediary substance that absorbs heat from the suppressor body through the cooling channels. This intermediary transfers thermal energy from the high-temperature suppressor components to a cooler fluid, which then carries the heat away from the system
2Productivity
If multiple rounds are fired in short time period, then firepower is increased, but suppressor temperature reaches 1000°F or greater causing damage
Solution Approach 1:
The cooling channels are designed to maintain continuous cooling action throughout the suppressor body during sustained firing. The cooling介质 flows continuously through all channels, ensuring that heat removal is an ongoing process rather than intermittent, which prevents temperature from reaching damaging levels even during high-rate fire
Solution Approach 2:
The cooling channels extend into the third dimension throughout the suppressor body volume, creating a three-dimensional heat dissipation network. This volumetric cooling approach distributes heat removal across multiple spatial dimensions rather than relying on surface cooling alone, enabling effective heat management during high-rate fire
3Ease of operation
If suppressor operates without hearing protection, then user convenience is improved, but heat burns become a safety risk
Solution Approach 1:
The suppressor is designed with self-cooling capabilities through integrated cooling channels that actively manage its own temperature. The system serves itself by automatically circulating cooling介质 through the channels to dissipate heat, reducing reliance on external cooling systems or user intervention while preventing burn hazards
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 suppressor effectively reduces sound, flash, and heat signatures, allowing for safe handling within 30 minutes after sustained firing, while maintaining structural integrity and reducing operational temperatures.
Implementation Method 1
a body having an interior volume and a cone shaped nozzle disposed at one end of the body. The body has a breech end opposite a faceplate and contains a plurality of cooling channels spanning a length of the body
Implementation Method 2
The plurality of cooling channels terminates at the faceplate of the body. Each of the cooling channels has a first opening at the breech end and a second opening at the faceplate
Implementation Method 3
a unitary structure containing a body having a plurality of baffles surrounding a central bore
Implementation Method 4
a unitary structure containing a body having a plurality of baffles surrounding a central bore
Implementation Method 5
The unitary structure further contains a flash hider extending from the faceplate into a muzzle chamber within the cone shaped nozzle
Implementation Method 6
The flash hider has from 2prongs to 8prongs extending into the muzzle chamber and the central bore passes between theprongs
Data Source
AI summary
Embodiments described herein relate to suppressors for reducing or eliminating sound, flash, and/or heat generated by firearms while discharging projectiles. The suppressor includes a unitary structure containing a cone shaped nozzle disposed at one end of a body. The body has a plurality of baffles surrounding a central bore, a breech end opposite a faceplate, and a plurality of cooling channels spanning a length of the body. Each cooling channel has a first opening at the breech end and a second opening at the faceplate. The unitary structure further contains an outer ring spanning from the breech end to at least the faceplate, a longitudinal wall spanning from the breech end to the faceplate, and a plurality of radially oriented walls extending between the longitudinal wall and the outer ring. The plurality of cooling channels is disposed between the longitudinal wall, the outer ring, and the radially oriented walls.