MIL vs MOA | 9-Hole Reviews

This video from SIG SAUER Academy introduces their Precision Scoped Rifle (PSR) course series. It emphasizes not just hitting targets, but understanding how to use your rifle and scope's capabilities to engage any target accurately. The courses cover fundamental setup, scope adjustments, and advanced ballistic calculations for effective long-range shooting.

This guide details establishing a stable sniper firing position. It contrasts the traditional 'one knee up' method with the modern flat prone position, emphasizing the importance of a straight spine and flat heels to prevent movement. The instruction highlights how foot instability can translate to crosshair deviation, stressing the need for a solid foundation.

This video provides a practical tip for engaging close-up moving targets at distances of 100-200 meters. The instructor, drawing from experience in Najaf, advises moving the bipod closer to the magwell. This adjustment allows for greater cant when tracking targets by rocking elbows, effectively widening the 'hunting field'. For longer distances, the bipod should be moved further forward for optimal accuracy, as this configuration minimizes human error and fine movements.

This video explains the fundamental differences between Minute of Angle (MOA) and Milliradian (MIL) as units of angular measurement used in rifle scopes. It clarifies that MOA is 1/60th of a degree, equating to approximately 1 inch at 100 yards, while MIL is 1/6400th of a circle, equating to 10 cm at 100 meters. The instructor notes that most precision scopes use quarter MOA adjustments, allowing for fine-tuning.

This video appears to demonstrate or discuss using a truck as a stable platform for sniping. While the specific firearm and caliber are not detailed in the provided information, the title suggests a focus on shooting techniques or tactical applications related to utilizing a vehicle for marksmanship. The content likely explores positioning, stability, and potentially field shooting scenarios.

This episode of Wind Call Wednesday focuses on estimating wind speed by observing the 'waves' in the mirage. The instructor explains that tighter waves indicate faster wind, while gradual waves suggest slower wind. Two tailwind scenarios are presented: a very slow 1 mph tailwind with gradual mirage waves, and a faster tailwind with tight mirage waves. Both are deemed negligible for shooting adjustments, except for potential spin drift at extreme distances.

This guide details a high-speed Cowboy Action Shooting stage, demonstrating expert transitions between a lever-action rifle, dual single-action revolvers, and a side-by-side shotgun. It highlights efficient manual shotgun reloading techniques from a belt carrier, showcasing advanced proficiency in competitive shooting disciplines. The video emphasizes speed and accuracy across multiple firearm types.

This video provides an expert-level demonstration of the Mosin-Nagant M91/30 PU Sniper rifle. It covers visual inspection, the proper loading procedure for 7.62x54R ammunition, and live fire at an outdoor range, showcasing bolt manipulation and recoil control. The demonstration is presented in a silent, ASMR-style format by an authoritative demonstrator.

This guide details the complex process of reboring a Winchester 1885 Low Wall rifle from .32 Rimfire to .357 Magnum, addressing a pitted bore. Expert gunsmith Larry Potterfield demonstrates disassembly, barrel removal, specialized reboring at Delta Gun Shop, chambering, crowning, action conversion, and final marking/finishing. The process highlights advanced machining techniques and specialized tools required for such a conversion.

This guide details the cycle of operation for the Winchester Model 12 shotgun, as explained by Larry Potterfield of MidwayUSA using a cutaway model. It covers loading, safety engagement, firing, extraction, and chambering. The explanation highlights the hammerless pump-action design and internal component interactions, offering valuable insights for gunsmithing and understanding firearm mechanics.