How does boneadding enhance projection and size of my facial bones?

If you wish to know the science on how it works, please read through the information below. The information below tells you about: How our bone cells react to mechanical stress from our devices, How they might lead to projection depending on the users age, bone health, genetics and setup, and How our devices are safe. Please bear in mind that the following explanations provide a simplified overview of the anatomy of the skeleton, and if you wish to have a more detailed view on the subject, then have a look at the sources we have provided at the bottom.

Introduction

Facial bones, like all the bones in the body, possess the ability to adapt to mechanical stress through a process known as bone remodeling. Bone remodeling is a tightly regulated mechanism, involving the removal of old or damaged bone tissue (resorption) and the subsequent deposition of new bone material (formation). This dynamic process plays a crucial role in adjusting bone strength and structure to the mechanical stresses imposed on the skeleton. However, the degree and nature of this adaptation depend on various factors such as age, bone health, genetics, and the specific type of bone itself. This is why we've included a "Read this before buying" section to help determine if our devices would be effective for you specifically. Every bone in our body falls into its own category. For example, we have Long Bones, such as the Femur (thighbone), Humerus (upper arm bone), and Tibia (shinbone). Short Bones, including the Carpals and Tarsals, which are the small bones inside our wrists and ankles. Facial Bones comprise the mandible/chin, cheekbones, maxilla, and nasal bone. Each category of bone serves a unique purpose. Some bones aim to protect vital organs, like irregular, flat, and facial bones, while others aim to support and stabilize the body, like long and short bones. The response of each bone to external stress varies due to its unique structure. Some bones, like long and short bones, may respond by becoming denser and thicker, while others, like irregular, flat, and facial bones, might gradually project outward over time towards the source of stress. The reason for this gradual projection, rather than just thickening, is rooted in the fact that if the bone were to grow inwards as well (since growth in thickness happens both inwards and outwards), it could potentially harm the organs. Evolutionarily, we are designed to grow these bones only outward to ensure organ protection. So, how do bone cells react specifically to stress? We delve into the science behind how consistent, gentle pounding on a bone may lead to gradual projections or changes in its structure over time.

How does the bone cells react to the gentle pounding from the Boneadding Devices?

During the process of Boneadding, several bonecells are contributing to adapt from its mechanical stress. The bonecells: Osteoclasts, Osteoblasts, and Osteocytes are the primary contributors to the process of bone remodeling. Osteoclasts: Specialized cells that break down and resorb bone tissue. Osteocytes: Act as sensors that detect mechanical stress. Osteoblasts: Bone-forming cells that play a crucial role in the creation of new bone tissue. When bones experience mechanical stress, it causes a ripple effect at the cellular level. Osteocytes use special channels on their surfaces to communicate with each other and other bone cells. One important signaling pathway activated during this process is the Wnt/β-catenin pathway. Imagine this pathway as a set of instructions that get activated when our bones experience mechanical stress.

The Wnt ligands act like messengers, delivering signals to the osteocytes. This triggers a series of events that ultimately lead to the creation of new bone tissue. The activated osteocytes then send signals to bone-forming cells called osteoblasts. These osteoblasts start producing proteins that help build new bone. When we engage in activities that subject our bones to constant mechanical stress, like Boneadding, it sets off a chain reaction at the cellular level. Osteocytes, the sensing cells, play a crucial role in coordinating this response, leading to the creation of new bone tissue.

Why is "gentle pounding" more effective than hard pounding

Gentle mechanical stress which Boneadding applies might be better for bone growth than hard pounding on the bone due to the principles of optimal mechanical loading and adaptation. Bones respond to mechanical stress optimally within a certain range. Excessive stress, such as hard pounding, can lead to potential damage. Bones adapt to the mechanical demands placed upon them. Gentle mechanical stress signals to the bone cells, particularly osteocytes and osteoblasts, to initiate bone-forming processes. The goal is to not "damage" the bone, per se, but to make the bonecells send the right signals to result bone growth. That is achieved with a consistant gentle pounding, and not hard pounding. Excessive or high-impact pounding, on the other hand, may lead to increased bone resorption by osteoclasts, potentially resulting in a net loss of bone density. Gentle mechanical stress is less likely to cause injuries such as fractures or stress fractures. Hard pounding, especially in the absence of proper conditioning and gradual progression, can increase the risk of overuse injuries and negatively impact bone health. Different individuals may respond differently to mechanical stress based on factors such as age, fitness level, and overall health. Gentle stress is generally more adaptable to individuals even with differences.

How is the devices safe to use, and how can I be sure to not hurt myself?

These devices are created to apply the right amount of pressure to trigger bone growth. They tap thousands of times without causing harm, as long as they're set up correctly. When you purchase our devices, you'll get instructions on how to use them properly for safe and effective bone growth. The instructions also include a step to help you customize the device for your chin type, making it easier for you to get started.

Sources

Here are some sources and links you can have a look in to get a even deeper view of the anatomy. It is also important to note that there is no spesific scientific study on how mechanical stress applied upon facial bones results in projection just yet, but there are sources that support the claim. Since Boneadding is a new concept, I have made a discount on the Chin Adding Device and if you are not satisfied by it. You can send it back to us and you'll get your money back!

Effects of mechanical loading and the importance of the users variables:
Rubin, C. ("Bone Mechanotransduction May Require Humoral Factors and Can be Enhanced by Repeated Bouts of Loading.") 2005. Journal of Biomechanics (https://www.researchgate.net/publication/259088406_Journal_of_Biomechanics). *Downloadable PDF files are included ;)*.

Osteocytes, Osteoblasts, and Osteoclasts
Roger A. Barker. ("Bone Remodeling: Cellular Activities in Bone Resorption and Formation") 2024. Journal of Biological Chemistry (https://www.jbc.org/content/284/11/5416.long).

Flat, irregular, and facial bones protect vital organs and have a different way to adapt to mechanical stress than long, and short bones:
Susan Standring. ("Gray's Anatomy: The Anatomical Basis of Clinical Practice") 2015. Semantic Scholar (https://www.semanticscholar.org/paper/Gray's-Anatomy%3A-The-Anatomical-Basis-of-Clinical-Standring/2aac5fe3844cd46ee28cad2a4b307c7d436f18c1). *Downloadable PDF files are also included here :)*