There are only 24 hours left to join the biotech startup named by The Economist as one of the "Emerging Technologies to Watch in 2022.”

According to the FDA, the Covid-19 pandemic has only emphasized the need for 3D printing in healthcare. A.D.A.M. has developed a robust implant-care system that is set to revolutionize the market with 3D printed biotech, offering a new era in orthopaedic healthcare. 

With the orthopaedic implants market expected to reach $79.5 billion in 2030, don’t miss this opportunity to invest in and own part of A.D.A.M. now. 

A.D.A.M. has been marking numerous milestones and highlights, including;

• We recently announced our partnership with the Mount Sinai Innovation Partners incubator program, providing a clear path for commercialization of our technology in the US

• We passed pre-clinical trials in accordance with ISO standards, with results submitted to the FDA 

• This resulted in the FDA confirming in August 2020 the 510(k) eligibility for A.D.A.M. biopolymer and bioceramic bone implants

• A.D.A.M. has developed proprietary printing materials, holding several patents for materials and printers, including two published PCT patents for materials (US), and two provisional patents for printers (US)

• We have passed several mechanical tests with Yale Medicine and the University of Connecticut

• We’ve been featured in numerous publications, articles, broadcast features, interviews, panels, and innovation shortlists 

With the orthopaedics market predicted to grow exponentially, now is the time to join one of the premiere biotech companies in this space.

Haven't invested yet? This is your last chance before the StartEngine campaign closes tomorrow. Join us now as we are poised for continued growth and success!

We are very excited to announce that within the span of just a few months, A.D.A.M. has gained over 150 investors. 

Our crowdfunding campaign is ending in just three days, so act now to invest and own a part of one of the “emerging technologies to watch in 2022” (The Economist). 

Need a refresher about what we’re building?

Founded in 2018, A.D.A.M. (Advanced Development of Additive Manufacturing) has created proprietary 3D printing technology and material composites to print personalized bone implants. Our approach to implant manufacturing – using 3D printing – offers a cost-effective production process whilst maintaining implant integrity and quality. 

An alternative to the titanium counterparts prevailing in the market today (e.g. titanium hip implants), A.D.A.M.'s biodegradable and bioresorbable implants are not only easier and more affordable to produce, they also support the progressive development of tissue engineering for improved surgical results. 

Made with material composites including modified bio-polymers, the implants stimulate osteogenesis, meaning they are fully replaced by the bone tissue over time. Therefore, there is no need for reoperation to extract metal fixation elements (comparatively, titanium implants need to be surgically replaced every ten to twenty years).

"With A.D.A.M.’s innovative approach, bones are just the beginning," shares CEO Denys Gurak. "A.D.A.M. has plans to expand into production of other tissues, and thus establish a movement to overcome body limits and open new horizons for healthcare”. 

"The standardization of technology and the practical implementation of artificial tissue production will open the way to the future of regenerative medicine as an industry.” 

With our equity crowdfunding campaign ending this Saturday 30th April, join now to be a part of the future of medicine. 

All photos taken in the A.D.A.M. Research & Development lab 

As medical implant technology has continued to grow and Orthopedics has become more specialized, the cost of medical implants has also increased. This is particularly apparent in the Orthopedic implant market. Expenses for Orthopedic implants have risen faster than almost any other type of implant. While this price rise may initially seem concerning, it is essential to understand why these costs are increasing and how they affect both patients and the medical industry. In this blog post, we will explore the reasons for rising implant prices and examine how they impact both patients and doctors.

Orthopedic implants are growing more expensive, but they are also becoming more specialized. In the past, Orthopedic implants were primarily used to replace joints or bones damaged by trauma. However, Orthopedics has since become a highly specialized field, and Orthopedic implants are now used to treat various conditions, from congenital deformities to degenerative diseases. As Orthopedics has become more specialized, the cost of Orthopedic implants has increased.

One reason for the increasing cost of Orthopedic implants is the development of new technology. To treat more complex conditions, Orthopedic surgeons require ever-more sophisticated implants. The development of new Orthopedic technologies is a costly process, and these costs are passed on to patients in the form of higher prices. In addition, Orthopedic implants are often made from expensive materials, such as titanium or stainless steel. These materials must be carefully machined to meet the precise specifications required for Orthopedic surgery.

The Big Struggle In The Implant Industry

The health care system spends a lot of money on implants, but the prices are still too high. There's no way for hospitals or other suppliers to track their inventory correctly, so they often lose products and have patients pay more than necessary because those losses add up fast. Implementing effective supply management practices such as proper tracking techniques can solve this problem without requiring costly last-minute transportation solutions, which everyone involved - manufacturers/suppliers and healthcare providers- would benefit from.

The current struggles faced by hospitals when trying to control costs associated with surgery only makes these problems worse: there have been numerous instances where usable implant inventories were poorly tracked, resulting in higher rates of surgical site infections, unplanned readmissions, and other postoperative complications. To solve this problem, Orthopedic surgeons require ever-more sophisticated implants. The development of new Orthopedic technologies is a costly process, and these costs are passed on to patients in the form of higher prices.

A.D.A.M Changes The Playing Field in Implant Technology

A.D.A.M. (Advanced Development of Additive Manufacturing) is an innovative 3D implant manufacturing biotech recently named one of the "emerging technologies to watch in 2022" by the Economist. A.D.A.M's technology will allow for the customization of implants, which is a huge shift in the Orthopedic industry as it has long relied on "one size fits all" solutions.

The ability to produce implants specific to each patient will have several benefits. First, it will allow Orthopedic surgeons to treat patients with conditions previously considered untreatable. Second, it will reduce the risk of complications associated with Orthopedic surgery. Third, it will lower the cost of Orthopedic implants. A.D.A.M's technology is still in its early stages, but it has the potential to revolutionize Orthopedics and make Orthopedic surgery more accessible and less expensive for everyone.

Denys Gurak founded A.D.A.M. as an innovative solution to traditional titanium bone implants that are costlier, time-consuming, and invasive. The 3D-printed bone implants by A.D.A.M are made using biopolymer, making them highly personalized for patients and eliminating the need to have revision surgery for extraction, resulting in reduced cost and hospital stay.

Dear investors and followers, 

Today I have a bittersweet update. 

In exceptional news, A.D.A.M. has an exciting development to share  -  we were accepted to the Mount Sinai Innovation Partners incubator program, Elementa Labs in New York City, USA.

Why is this bittersweet? Because this means that we are less reliant on our fundraising efforts through StartEngine.  So, if you have been considering investing in A.D.A.M. and our technology, now is the time to do so. 

Mount Sinai Innovation Partners program means we will be exploring ways to advance and commercialize our core technology platform with the Mount Sinai, a top-rated health system in the US and worldwide. 

Mount Sinai leadership team was particularly supportive when the war in Ukraine started, offering the R&D Department to relocate to NYC from Odesa, Ukraine, and we are considering this one of the options. 

Our StartEngine campaign will be closing on April 30th, so you only have two weeks to join as an investor. 

To invest now, or find out more, simply check out our StartEngine page. I look forward to welcoming you on board. 

Best, 

Denys Gurak

Thank you for your investment and for joining us on our journey. Our campaign will be ending early with a new closing date of 4/30/22. We will continue to accept commitments until then and investors who have made commitments will have up to 48 hours before the new deadline to cancel their commitments.

Curious to learn about the business model behind point of care 3D printing?

Our CEO Denys Gurak was recently a guest speaker at the 2022 3D Bioprinting Conference, hosted in the Netherlands and online https://www.3dbioprintingconference.com/

Denys spoke in depth about the new business models in healthcare; you can watch Denys' presentation here https://youtu.be/8XFPBnbSq8o

Medical device manufacturing is a booming industry. Companies invest billions of dollars in research and development to create cutting-edge medical devices with multiple applications. Orthopedics, implants, bone graft substitutes, tissue engineering, and regenerative medicine are just some segments that are seeing significant growth. This article will look at some of the strategies that companies are using to succeed in this competitive market.

Some of the Different Strategies

One strategy that companies are using is securing FDA approvals. This gives them a competitive edge, as it assures customers that the products are safe and effective. Another strategy is acquisitions/partnership agreements. These can take many different forms, such as joint ventures, collaborations, or expansions into new markets. By doing this, companies can expand globally while also securing intellectual property rights that will protect their investments long term.

Finally, companies invest in research and development to create new and innovative products. This is essential for staying ahead of the competition and keeping up with the latest trends in the industry. Implants and bone graft substitutes have seen a boom in recent years as there's been a heavy focus on new materials. One reason for this is that orthopedic devices are becoming increasingly sophisticated. They can now perform multiple functions, such as restoring joint function and repairing bone defects.

The Growing Use of Biocomposite Materials in Medical Devices

One of the materials that are seeing a lot of growth in the medical device industry is biocomposite materials. These are made from natural fibers and resins, which gives them many advantages over traditional plastics. They are biocompatible, meaning that they are safe for use in the body. They are also environmentally friendly, as they can be recycled and are not harmful to the environment.

Finally, they have excellent mechanical properties. This makes them ideal for use in medical devices, as they can withstand the stresses and strains that are placed on them. Biocomposite materials are already being used in several medical devices, including orthopedic implants and bone graft substitutes. As the industry grows, we can expect to see them being used in even more devices.

Biocomposite materials could be a combination of biphasic calcium phosphate and PLDLA, for one example. Biomaterials are materials that have been designed to substitute for human tissue and provide a function where it is not normally found in the body or has been damaged. Orthopedic biomaterials can be used as components of devices used in joint replacement surgeries, bone repair systems or even guided surgical procedures when necessary.

A.D.A.M, The Next Generation in Medical Devices

The A.D.A.M team has been at the forefront of new technology in bringing patients back into their full range of motion with 3D printing and material composites, which allows them to produce customized implants without sacrificing quality or cost-effectiveness. The orthopedic devices market is growing and changing rapidly, with an increasing demand for implants that can be customized to individual patients.

A.D.A.M has responded to this demand by developing a new generation of medical devices made from advanced composites using additive manufacturing technology (AM). This allows them to produce customized implants without sacrificing quality or cost-effectiveness. They can also produce them much more quickly, which is essential in a constantly changing market.

The A.D.A.M bone implants are a safe and natural way to stimulate osteogenesis. Over time, these bio-based products will be fully replaced by your tissue, meaning there's no need for additional procedures, extraction, or replacement of individual pieces (which could cause pain).

Orthopedic implants are devices that are used to replace or support injured or diseased bone. Orthopedic implants can be made from a variety of materials, including metals, plastics, and ceramics. They are used to treat a wide variety of conditions, including fractures, arthritis, and spinal deformities. In this blog post, we will give a brief overview of the different types of orthopedic implants and their uses.

There are three main types of orthopedic implants:

- Joint replacements. Joint replacements are used to replace a damaged joint, such as a hip or knee joint.

- Spinal implants. Spinal implants are used to support the spine and treat conditions such as spinal deformities and fractures.

- Orthopedic trauma devices. Orthopedic trauma devices are used to treat fractures and other injuries.

Other orthopedic implants include devices for tissue fixation to bone such as suture anchors and screws for ligament reattachment and are made from a variety of materials, including metals, plastics, ceramics, and more recently biological materials that can assist in bone growth. The type of material used depends on the specific injury or condition being treated. For example, metal implants are often used for joint replacements because they are strong and durable. However, plastic or ceramic implants may be used for some spinal conditions because they provide better stability and support.

Orthopedic implants can be placed surgically or nonsurgically. Surgical placement is usually necessary for joint replacements, sports-related injuries, trauma injuries, and some spinal conditions. Orthopedic implants can be permanent or removable depending on many factors. Orthopedic implants are an important part of treating many injuries and conditions. They can help improve function and quality of life.

New Materials and Advancements

Orthopedic implants are made from highly developed materials that require extensive testing before they can be used in an orthokinetic implant. The most common types have had great success in clinical trials and proven successful outcomes. Orthopedic implants are also available in different sizes, shapes, and colors to better match the surrounding tissue. In some cases, the implant may be made from a patient's own cells or tissues to reduce the risk of rejection.

Advancements in surgical techniques have also helped improve outcomes for patients who receive orthopedic implants. For example, minimally invasive surgery can help reduce recovery time and scarring. Orthopedic surgeons are constantly working to develop new materials and surgical techniques to improve the safety and effectiveness of orthopedic implants. Orthopedic implants are an important part of treating many injuries and conditions. They can help improve function and quality of life. New materials and advancements continue to make orthopedic implants more effective.

A.D.A.M Ushers in A New Era

A.D.A.M, which uses proprietary 3D printing technology and material composites to manufacture implants, is at the forefront of new technology in the mission to restore the range of motion for patients seeking treatment.  A.D.A.M. 's exclusive approach to implant manufacturing – using 3D printing – lets enhanced production of personalized implants that are cost-effective and quickly delivered without compromising on the quality.

Amid the COVID-19 pandemic and the need to restructure processes, basic needs for materials (such as human tissue, organs, and titanium implants that dominate the market) are not being met. A.D.A.M. 3D-printed implants are not only more convenient to produce locally, but they also facilitate progress in tissue engineering, so multiple surgeries and implant replacements are not needed.

Its product is unique to the industry and is unlike anything else currently offered, especially at its on-site level. With a burgeoning pipeline, A.D.A.M is looking at additional medical devices such as blood vessel implants, heart valves, and bronchial implants.