2015-2020 Subaru WRX Front Brakes Pads & Rotors | How to change

This video provides a detailed, step-by-step guide on how to replace the rear brake pads and rotors on a 2015-2020 Subaru WRX. It includes links to recommended tools such as jack stands, a jack, a tire iron, and impact/electric ratchets, as well as the brake components themselves. The content is geared towards DIY auto enthusiasts looking to perform maintenance on their vehicles.

This video provides a do-it-yourself guide for changing the oil on a 2015-2019 (and potentially 2020) Subaru WRX. It aims to assist owners in performing this common maintenance task themselves, likely covering the necessary tools, parts, and step-by-step instructions for a successful oil change.

This YouTube video provides a how-to guide for replacing or installing fog lights on a 2015-2020 Subaru WRX. The description also includes affiliate links to various tools that might be used in the process, such as jack stands, a jack, a tire iron, and an impact gun. While the video focuses on automotive maintenance, it does not contain any firearm-related content.

This video provides a do-it-yourself guide for changing the spark plugs on a 2015-2019 Subaru WRX. It includes a direct link to purchase the necessary spark plugs via an Amazon affiliate link, indicating potential revenue generation from the video.

This video provides a step-by-step guide for replacing rear brake pads and rotors on 2015-2023 Dodge Challengers. It specifically addresses V6 non-AWD models with single-piston calipers and also mentions fitment for V6 dual-piston calipers, AWD, and some V8/R/T models, with links provided for specific parts. The description also includes affiliate links for essential tools like jack stands, a jack, tire iron, impact gun, and electric ratchet, as well as recommendations for cameras and accessories used in the video production. A link to a separate video covering front brake replacement is also included.

This YouTube video features an "Aeroflow Dynamics Axel Back Exhaust" installation and review on a Subaru WRX. The video title and description indicate a focus on automotive modifications, specifically an exhaust system for a performance vehicle. While the title mentions "cars" and "exhaust," there are no references to firearms, ammunition, manufacturers, or any related topics. The content is entirely focused on automotive aftermarket parts.

This video compares the terminal performance of five common pistol calibers (.22LR, .380 ACP, 9mm, .40 S&W, .45 ACP) by shooting watermelons. The test demonstrates a significant increase in destructive power from .22LR up to .45 ACP, with the larger calibers causing more explosive expansion and fragmentation. Specific hollow-point ammunition from Speer, Aguila, and Underwood was used, highlighting the importance of bullet construction for terminal ballistics.

Buckeye Ballistics conducted a comparative test of common pistol calibers (.22LR, .380 ACP, 9mm, .40 S&W, .45 ACP) against concrete blocks. The host, demonstrating significant firearm and ballistics knowledge, emphasized extreme safety precautions due to ricochet risks. The test revealed that while larger calibers showed more damage, none could fully penetrate the concrete block's second wall, suggesting limitations for self-defense scenarios against hardened barriers.

This Taurus TX22 review details its performance with various .22 LR ammunition. While initially reliable with CCI Mini-Mags and cycling standard velocity rounds well, it encountered malfunctions with sub-sonic and high-velocity loads. A catastrophic failure occurred due to a squib load followed by a second shot, resulting in a bulged barrel and damaged magazine.

This video compares the terminal ballistics of .22LR, .22WMR, and .17HMR rimfire cartridges using cantaloupes as targets. The .22LR showed a clean pass-through with minor damage, the .22WMR caused an explosive front-face disintegration, and the .17HMR, despite its speed, disintegrated internally with no exit. The test highlights how different rimfire rounds perform on soft tissue simulants.