How to Find 3D Scan Pregnancy Near Me: From Keepsakes to Medical Breakthroughs

Lisa Ernst · 01.04.2026 · Technology · 9 min

From the moment we see that tiny flutter on a screen, the desire to connect with our unborn child is profound. Technology now offers parents an unprecedented way to bridge that gap, transforming fleeting ultrasound images into tangible keepsakes and even paving the way for revolutionary medical interventions.

Source: Many expecting parents choose to preserve the memory of their baby’s ultrasound with a 3D print, an innovative keepsake that brings their baby to life.

Quick Summary:

• 3D Ultrasound for Keepsakes: Convert detailed 3D ultrasound images into scale-accurate, printed models of your baby.
• File Export: Most modern ultrasound machines can export files (.STL, DICOM) needed for 3D printing.
• Finding Providers: Private clinics often offer 3D ultrasounds with print-ready file exports.
• Timeline & Cost: 3D prints typically take 1–2 weeks; costs vary by volume and material (e.g., 15–75 Euros per unit).
• Beyond Keepsakes: 3D printing from ultrasound data is used for surgical planning, patient education, and medical training.
• Emerging Technologies: Direct Sound Printing (DSP) and Deep Tissue In Vivo Sound Printing (DISP) use ultrasound for advanced bioprinting and targeted drug delivery within the body.

From Ultrasound to 3D Print: Tangible Beginnings for Expecting Parents

Expectant parents can now bring their baby's first images to life through 3D printing. Detailed 3D ultrasound images transform into scale-accurate, tactile printed keepsakes, revealing features like tiny hands and facial expressions. Most modern ultrasound machines can export the necessary file types, such as .STL or DICOM, to facilitate this process.

Finding a 3D Ultrasound Provider

Private clinics are often the best option for obtaining 3D ultrasounds with file export capabilities for printing. For instance, One Like Me 3D/4D Ultrasound Studio in Clarksville, Tennessee, utilizes 3D, 4D, and HD ultrasound technology, focusing on bonding rather than diagnosis. Similarly, Moms To Be Ultrasound in Orlando, Florida, has offered 3D, 4D, and 5D/HD ultrasounds since 2008, featuring services like early pregnancy scans and gender determination. Their services page also details additional offerings such as heartbeat animals and hyperrealistic image enhancements.

Packages frequently include digital photos and videos, printed images, and free return visits if the baby is not in an optimal position. A heartbeat animal souvenir can cost an additional $50, and hyperrealistic or 8K image enhancements typically add another $50, as seen on their services page.

The 3D Printing Process and Costs

The process of creating a 3D print usually takes one to two weeks to complete. It begins with a digital post-processing phase, which involves removing any excess material not intended to appear in the final print. Providers might offer discounted rates for 3D printing services to their clients. Lithophanes, another form of 3D-printed image, become visible when held against a light source, allowing 2D ultrasound pictures to be converted into this format.

The 3D analysis and visualization of ultrasound volumes have become routine due to the widespread availability of 3D-capable ultrasound systems. While 3D printing heart models from fetal ultrasound data was developed in 2000 by Deng et al., 3D printing from volume data of commercially available ultrasound systems has only recently gained traction. Converting DICOM (Digital Imaging and Communications in Medicine) files into printable STL (Stereolithography) files traditionally required manual segmentation and rearrangement, a time-consuming process. However, newer ultrasound systems now offer automatic conversion to the STL format, accelerating the process.

Source: gehealthcare-ultrasound.com

GE Healthcare’s Voluson ultrasound systems can directly export 3D-printable files, accelerating the creation of detailed models. They also export color information, which is essential for visualizing heart defects.

GE Healthcare's Voluson ultrasound systems, for example, can directly export 3D-printable files. These systems also export color information, which is crucial for visualizing specific conditions like heart defects.

Sirbonu OÜ offers software called TOMOVISION BabySliceO to convert 3D and 4D ultrasound data into 3D-printable files. This software effectively removes unwanted tissue and can export models in formats such as OBJ and STL. Sirbonu also provides 3D printing services to ultrasound clinics, covering conversion, cleaning, and printing in plaster. The cost for conversion and cleaning typically ranges from 25 to 35 Euros per month for four to five volumes. A 3D-printed and framed ultrasound image costs between 95 and 100 Euros per model. The cost per printed unit can range from 15 to 75 Euros, depending on the volume and material used.

Embryonic and early fetal volumes are well-suited for full 3D printing. Such 3D prints serve various purposes, including parent-child bonding, clinical applications, and educational tools. They can also preserve and replicate rare or unique anatomical specimens. However, factors like shadowing from intervening objects or refractive shadows at the edges can limit the detail achievable in a 3D print.

Beyond Keepsakes: Advanced 3D Printing with Ultrasound in Medicine

The capabilities of ultrasound extend far beyond creating keepsakes for expectant parents. Medical professionals utilize 3D printing from patient data to create realistic anatomical models for surgical planning, patient education, teaching, and training. The 3D Print Lab at University Hospital Basel, for example, supports this entire process—from imaging to producing the 3D model. They can process external data in suitable formats. The printing occurs internally using various plastic 3D printers, capable of producing models up to 30 x 30 x 45 cm. For more complex models, such as those requiring multiple colors, different materials, or ceramics/metals, they partner with external specialists.

Source: orthospinenews.com

In 2023, University Hospital Basel successfully implanted a 3D-printed PEEK implant for the first time, showcasing the increasing medical applications of 3D printing from patient data.

In 2023, University Hospital Basel successfully implanted a 3D-printed PEEK implant for the first time.

Emerging Ultrasound-Based 3D Printing Technologies

A new method called Direct Sound Printing (DSP) uses sound waves to cure materials for 3D printing. DSP employs acoustic cavitation to create chemically active regions within the printing resin mixture. This method allows for the direct printing of thermosetting polymers that are challenging to print with light or heat. The chemically active 3D printing region in DSP functions similarly to a laser beam spot in other technologies. DSP can produce transparent and opaque structures, depending on the mixture ratio and power. The resolution of DSP printing correlates with the ultrasound frequency; higher frequencies lead to smaller features.

DSP also enables printing objects through opaque materials and tissues, a technique known as Remote Distance Printing (RDP). RDP holds potential applications in medicine, such as non-invasive bioprinting inside the body. In-vitro and ex-vivo experiments have demonstrated printing structures through tissue phantoms and real pig tissue. This technique could facilitate minimally invasive surgical procedures.

A study funded by the NIH details a method for printing biocompatible structures through thick, multi-layered tissues. This approach combines focused ultrasound with a novel ultrasound-sensitive ink. Unlike light, which struggles to penetrate tissue, ultrasound waves travel much deeper through it. The ink consists of four components: an ultrasound-absorbing agent, microparticles for viscosity control, a polymer for structure, and a salt to induce solidification. This technique leverages the sono-thermal effect, where the absorption of ultrasound waves increases temperature, allowing for precise control over the ink's solidification.

Source: pinterest.com

Researchers have successfully printed various structures through pig tissue, demonstrating the potential of a new technique that combines focused ultrasound with novel, ultrasound-sensitive ink.

Researchers successfully printed various structures through pig tissue up to 17 mm thick and a pig tissue phantom. A simulated surgical procedure on an ex-vivo goat heart demonstrated the printing of a left atrial appendage closure. A confocal high-intensity ultrasound printer with two ultrasound transducers further enhances resolution and speed while reducing energy requirements. This technique remains a prototype, requiring further optimization before human application.

Caltech scientists have also developed a method for 3D printing polymers at specific locations deep within living animals. This technique, known as Deep Tissue In Vivo Sound Printing (DISP), uses ultrasound for localization and low-temperature-sensitive liposomes. Liposomes containing a cross-linking agent are embedded in a polymer solution. Focused ultrasound raises the temperature in a small target area by about five degrees Celsius, causing the liposomes to release their contents. Gas vesicles from bacteria act as imaging contrast agents, indicating when polymerization has occurred.

DISP has been used to print doxorubicin-loaded hydrogels near bladder tumors in mice, leading to significantly higher tumor cell mortality. This technology could deliver cells for tissue repair or seal internal wounds. Future applications may involve bioelectric hydrogels for internal monitoring of physiological vital signs. The ultimate goal is to evaluate this technique in larger animal models and eventually in humans. Artificial intelligence could enhance the precision of the DISP system, especially with moving organs like the beating heart.

Conclusion

From fostering early parent-child bonds with a physical rendition of an unborn baby to groundbreaking methods for internal bioprinting, the integration of ultrasound technology and 3D printing is continuously expanding its impact. These innovations are reshaping the way we interact with medical imaging, providing both emotional comfort and opening doors to advanced medical procedures.