Muzzle Brake Radial Venting Gas Redirection
Solution Overview
Problem
Existing muzzle devices fail to effectively reduce recoil, muzzle flash, and side concussion simultaneously, as they lack methods to expand, cool, and disrupt shock wave formation of propellant gases.
Innovation Solution
A muzzle device with a cylindrical body featuring a coaxial passageway, radial vent holes, and diverging slots or conical nozzles that redirect, expand, and cool propellant gases, disrupting shock wave formation to reduce recoil and muzzle flash, while minimizing side concussion.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Force
If conventional muzzle brakes and compensators are used, then some recoil reduction is achieved, but muzzle flash and side concussion are not effectively suppressed
Solution Approach 1:
The muzzle device segments the propellant gas flow into multiple paths through radial vent holes distributed around the cylindrical body, directing gases at different angles to simultaneously achieve recoil reduction, flash suppression, and side concussion minimization
Solution Approach 2:
The invention adds a radial dimension to gas redirection by incorporating radial vent holes that extend outward from the central axis, creating three-dimensional gas distribution patterns that conventional two-dimensional compensators cannot achieve
2Object-generated harmful factors
If small expansion chambers and vent holes are used, then slight flash suppression is achieved, but effective cooling and shock wave disruption are not realized
Solution Approach 1:
The invention changes the physical parameters of propellant gases by providing sufficient expansion volume and cooling surface area through the cylindrical body design, allowing gases to cool below ignition temperature before atmospheric release
Solution Approach 2:
The cylindrical body acts as an intermediary cooling chamber between the combustion chamber and atmosphere, providing thermal energy transfer surface area that mediates the temperature reduction of propellant gases
3Force
If radial vent holes are added to redirect gases, then recoil is reduced, but side concussion increases without slot communication
Solution Approach 1:
The slots provide localized communication pathways at specific angular positions around the cylindrical body, allowing controlled gas release in directions that minimize side concussion while maintaining recoil reduction benefits
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 device achieves significant reduction in recoil, muzzle flash, and side concussion, improving muzzle control and situational awareness by effectively redirecting and cooling propellant gases, outperforming conventional muzzle brakes and compensators.
Implementation Method 1
redirect, expand, cool, and disrupt shock wave formation of the exhausting propellant gases to achieve a reduction as well as a redirection of recoil
Implementation Method 2
redirect, expand, cool, and disrupt shock wave formation of the exhausting propellant gases
Implementation Method 3
redirect, expand, cool, and disrupt shock wave formation of the exhausting propellant gases
Data Source
AI summary
A muzzle device that may be attached to the barrel of a firearm that includes structures which influence the flow characteristics of exhausting propellant gases for suppressing muzzle flash, counter acting the rearward and upward motion of the muzzle during firing, and reducing the concussion directed towards the shooter as well as personnel to the sides of the shooter.