The Moose 3D scanner uses a non-contact scanning method that minimizes damage while creating accurate digital replicas of artifacts, enhancing the preservation of cultural heritage.
Moose Series' Advantages
a) High Accuracy
The Moose 3D Scanner, with its remarkable accuracy of 0.03 mm and resolution of 0.07 mm, is an invaluable tool for delicate heritage conservation in archaeology. Its non-contact scanning method is particularly well-suited for capturing the intricate details of ancient artifacts and structures, which are often vulnerable to damage during traditional contactable measurement and recording methods.
b) AI Visual Tracking
Equipped with a Blue LED light source and an AI visual tracking mode, the Moose effectively mitigates issues related to hand tremors and slight misalignments. This technology ensures that even the most delicate scans remain stable and reliable, allowing archaeologists to focus on their work without the anxiety of introducing errors during the scanning process.
c) 24-Bit Color Imaging
The Moose's scanning range, which spans from 15 to 1500 mm, enables it to capture both small artifacts and larger architectural features with ease. Its ability to produce 24-bit color textures allows for the faithful recovery of the original appearance of ancient objects, providing researchers with rich visual data that enhances both analysis and documentation.
d) Lightweight and Portable
Weighing just 280g and measuring 115x70x35 mm, the Moose 3D Scanner is highly portable, making it easy for archaeologists to take it to remote excavation sites or museums. This convenience ensures that critical documentation can occur on-site, preserving the contextual integrity of archaeological finds.
Applications in Archaeology
1) Heritage Preservation
The Moose 3D Scanner excels in meticulously documenting fragile artifacts, ensuring that their intricate features are preserved digitally. This capability significantly reduces the need for physical handling, thereby minimizing the risk of damage to these invaluable items. By creating precise digital replicas, archaeologists can monitor the condition of artifacts over time and implement conservation strategies that are informed by accurate data.
2) Restoration Projects
Detailed scans serve as a crucial reference for restoration efforts. Conservators can rely on accurate representations of original materials and forms, which facilitates thoughtful and informed decision-making in the preservation process. This capability ensures that restoration work honors the artifact's original integrity while also addressing any deterioration or damage it may have suffered.
3) Virtual Exhibitions
With its ability to produce stunning 24-bit color textures, the Moose Scanner enables the creation of vibrant virtual models. These digital representations can be utilized in virtual exhibitions, broadening access to cultural heritage and enhancing public engagement through immersive experiences. Such exhibitions allow audiences to explore artifacts and sites from anywhere in the world, fostering a greater appreciation for archaeology and the stories behind historical findings.
4) Educational Purposes
The high-quality scans generated by the Moose can be incorporated into educational programs, providing students and the public with interactive learning opportunities. These resources help foster a greater appreciation for archaeology and historical preservation by allowing users to engage with artifacts in a meaningful way. By integrating technology into the learning process, educators can inspire a new generation of archaeologists and historians, highlighting the importance of preserving our cultural heritage for future study and enjoyment.
Moose Scanning Examples
Moose Scans Kettle
The Kettle is very easy to scan for its color. However, it may be difficult to scan the chinaware which may cause reflective or dark color objects, like red or deep brown, or black porcelain. It's important to note that the kettle we selected has an iron interior, which means we may not be able to capture the bottom accurately. Fortunately, we can use Geomagic Wrap for 3DMakerpro software to address this issue.
To scan the kettle effectively, we can collaborate with an automatic turntable. Hold the Moose scanner vertically and move it up and down to capture the overall characteristics of the item. Typically, rotating the kettle twice is sufficient for a complete scan. If you notice any misalignment, don't worry—the Moose scanner features an AI tracking mode that can automatically resolve these issues.
During the first scan, the data will be relatively complete, but there will be a gap at the bottom of the handle. We will perform a second scan and then auto-align the two sets of scanning data. An important tip: before aligning, ensure to remove any unnecessary parts to maintain a clear final image.
Since the Moose scanner operates in 24-bit color texture mode, we can select options such as "Statistical Noise Removal," "Fusion," "Remove Floating Parts," and "Texture Mapping." Then, choose "Generic" and "Moderate" Refinement. This process will yield a beautiful kettle, albeit without a bottom. Avoid selecting "Repair Gaps," as this will automatically fill not just the bottom but also the top sections, sealing all openings. Instead, use Geomagic Wrap for 3DMakerpro software to add a suitable base.
3D scanning uses non-contact methods to capture these porcelain artifacts, helping to protect them and prevent damage after they are unearthed.
Moose Scans Skeleton
Scanning the skeleton is straightforward due to its white color, but its length requires attention to scanning distance. Typically, we can use an automatic turntable to free up one of our hands. When scanning the head or tail, ensure the scanner is kept at a distance; when the body bones come into view, you can move closer. Monitoring the distance scale is crucial for successful scanning. Continue scanning until you feel that all positions have been captured. One scan is usually sufficient. Afterward, you can clear any noise.
Next, select the following processing options: “Statistical Noise Removal,” “Fusion”, “Remove Floating Parts”, and “Texture Mapping”. Then, choose “Generic” and “Moderate” Refinement. This will result in a perfect virtual model of the animal bones, which archaeologists can document and study in detail. The general public can also engage with and learn from this model.
Conclusion
The Moose 3D scanner will transform the storage and display of cultural relics, enabling not only heritage conservationists but also the general public to participate in their protection. This initiative fosters a greater respect for cultural heritage worldwide and encourages the transmission of cultural values across generations.
