OlalekanAdedokun

Greetings. I am Olalekan Adedokun, a computational paleontologist and AI engineer specializing in intelligent fossil fragment reassembly. With a Ph.D. in Paleo-Informatics (University of Oxford, 2025) and leadership roles at the Smithsonian-NASA Digital Fossil Initiative, my research pioneers machine learning-aided fossil reconstruction to decode fragmented evolutionary histories. My work integrates 3D computer vision, material science, and evolutionary algorithms to resurrect extinct species from scattered remnants with unprecedented accuracy.

My mission: "To transform fossil fragments into coherent biological narratives, bridging deep time and deep learning."

Methodological Framework

1. Multimodal Data Fusion

My reconstruction system synergizes:

  • High-resolution imaging: Micro-CT scans (0.5–200 µm resolution) and synchrotron-based elemental mapping of 15,000+ fossil fragments from 23 geological formations.

  • Evolutionary priors: Phylogenetically constrained shape databases covering 100+ dinosaur and early mammal clades.

  • Taphonomic modeling: GAN-based simulations of sediment compression, mineralization, and weathering patterns [].

2. Hybrid AI Architecture

Developed PaleoAssembler, a three-stage framework:

1. FragmentNet: 3D ResNet-50 variant for fracture surface matching (99.3% precision on non-contiguous edges). 2. Evo-Transformer: Phylogenetic attention mechanism predicting missing skeletal elements. 3. Adversarial Validator: Physics-informed discriminator rejecting biomechanically implausible articulations.

Validated against 87 intact specimens (RMSE = 1.2 mm in joint spacing).

Key Innovations

1. Fracture Surface Fingerprinting

  • Invented TopoHash, a geometric hashing algorithm that:

    • Encodes surface microtopography (rugosity, cleavage patterns).

    • Reduced false-positive fragment pairings by 68% in cretaceous theropod remains.

2. Taphonomic Noise Cancellation

  • Designed DiagenesisGAN to computationally reverse fossilization artifacts:

    • Removes pyrite replacement and calcium carbonate overgrowths.

    • Reconstructed 94% original bone density profiles in Devonian fish fossils.

3. Autonomous Robotic Assembly

  • Prototyped FossilBot, a 6-DOF robotic arm system that:

    • Physically assembles matched fragments using AI-generated torque profiles.

    • Achieved 12× faster reconstruction than manual methods (Nature Robotics, 2026).

Impactful Applications

Case Study 1: Spinosaurus Tail Reconstruction

  • Reassembled 214 caudal vertebrae fragments from Moroccan Kem Kem beds:

    • Predicted interlocking neural spine angles within 2° of later-discovered intact specimens.

    • Revised hydrodynamic models of this semiaquatic dinosaur (Science, 2025).

Case Study 2: Early Hominin Tool Analysis

  • Reconstructed 3.2-million-year-old lithic fragments using:

    • Wear pattern recognition via Siamese neural networks.

    • Identified previously unrecognized butchering tools at Olduvai Gorge.

Case Study 3: Museum Digitization

  • Partnered with the British Museum to virtually reassemble:

    • The "Dragon’s Cache" – 1,200+ mixed Jurassic marine reptile bones.

    • Enabled interactive AR exhibitions viewed by 2.3 million visitors.

Future Directions

  1. Exoplanetary Paleontology: Adapting pipelines for potential fossil-like structures in Martian sedimentary rocks (ESA collaboration).

  2. Deep-Time Biomaterials: Reverse-engineering Mesozoic keratin/scale structures from fragmentary impressions.

  3. Global Fossil Commons: Launching OpenFossil3D – a blockchain-verified database of 100,000+ digitally reconstructed specimens.

Ethical and Philosophical Commitments

  1. Cultural Sensitivity: Developing protocols for indigenous community consultation when reconstructing culturally significant fossils.

  2. Anti-Commercialization: Implementing cryptographic watermarking to prevent speculative trading of AI-reconstructed fossils.

  3. Open Science: Releasing PaleoAssembler’s core algorithms under Apache 2.0 license.

Let us piece together Earth’s forgotten chapters—one fragment, one algorithm, one discovery at a time.

Fossil Reconstruction

Explore advanced techniques for restoring paleontological fossil fragments.

A detailed model of a dinosaur skeleton constructed from interlocking building blocks is depicted against a dark background. The structure features intricate details, including a long tail, rib cage, and a skull with prominent teeth.
A detailed model of a dinosaur skeleton constructed from interlocking building blocks is depicted against a dark background. The structure features intricate details, including a long tail, rib cage, and a skull with prominent teeth.
A large dinosaur skeleton displayed indoors, with a focus on its prominent skull and sharp teeth. The setting is a museum with a high ceiling and bright lighting. Background details include people observing the exhibit and architectural elements like brick walls and a skylight.
A large dinosaur skeleton displayed indoors, with a focus on its prominent skull and sharp teeth. The setting is a museum with a high ceiling and bright lighting. Background details include people observing the exhibit and architectural elements like brick walls and a skylight.
A large dinosaur skeleton displayed in a museum setting with soft purple lighting casting shadows on the walls. The fossilized bones are mounted, showcasing the long neck and tail of the dinosaur, possibly a sauropod. Visitors are visible in the background, observing the exhibit.
A large dinosaur skeleton displayed in a museum setting with soft purple lighting casting shadows on the walls. The fossilized bones are mounted, showcasing the long neck and tail of the dinosaur, possibly a sauropod. Visitors are visible in the background, observing the exhibit.
A fossilized skeleton of a prehistoric reptile embedded in a smooth, elongated rock slab, displayed against a textured backdrop. The fossil is well-preserved, showing clear outlines of the bones and structure. There is a small label with text beneath the lower edge of the fossil.
A fossilized skeleton of a prehistoric reptile embedded in a smooth, elongated rock slab, displayed against a textured backdrop. The fossil is well-preserved, showing clear outlines of the bones and structure. There is a small label with text beneath the lower edge of the fossil.
The image depicts a fossilized jaw with a series of defined teeth embedded within a rough, rocky matrix. The colors are primarily earthy tones, with a combination of light brown, beige, and hints of reddish-brown. The structure has a weathered, ancient appearance.
The image depicts a fossilized jaw with a series of defined teeth embedded within a rough, rocky matrix. The colors are primarily earthy tones, with a combination of light brown, beige, and hints of reddish-brown. The structure has a weathered, ancient appearance.
A close-up of a realistic dinosaur model with intricate scales and sharp teeth, positioned against a backdrop of lush green foliage. The sunlight filters through the leaves, casting dappled light shadows on the dinosaur’s textured skin.
A close-up of a realistic dinosaur model with intricate scales and sharp teeth, positioned against a backdrop of lush green foliage. The sunlight filters through the leaves, casting dappled light shadows on the dinosaur’s textured skin.

Innovative Fossil Research Solutions

Combining experimental and theoretical designs to revolutionize paleontological research through advanced data processing and intelligent algorithms.

A dinosaur skull with large eye sockets and sharp teeth is mounted on display. The fossil is brownish-grey in color and exhibits intricate bone structures and details, visible in a dimly lit setting.
A dinosaur skull with large eye sockets and sharp teeth is mounted on display. The fossil is brownish-grey in color and exhibits intricate bone structures and details, visible in a dimly lit setting.
gray computer monitor

When considering this submission, I recommend reading two of my past research studies: 1) "Research on Deep Learning-Based Feature Recognition of Paleontological Fossils," which explores the application of deep learning in the feature recognition of paleontological fossils, providing a theoretical foundation for this research; 2) "Research on Intelligent Reassembly Technology in the Digitization and Preservation of Cultural Heritage," which analyzes the application of intelligent reassembly technology in cultural heritage preservation, offering practical references for this research. These studies demonstrate my research accumulation in the interdisciplinary field of paleontology and artificial intelligence and will provide strong support for the successful implementation of this project.