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AI Recreates Ancient Artifact 🟢
From powering the Pentagon's new Bullfrog weapons system to reconstructing ancient artifacts, machine vision is taking on real-world challenges.
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Diaflow.io lets anyone create AI apps without the need for coding
Microsoft, The Vatican partner on AI-powered digital replica of St. Peter’s Basilica
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Bagel Explores: training-time and inference-time techniques to advance AI reasoning (Sponsored)
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AI video models try their best — but still struggle — to replicate real world physics
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Machine vision systems take on real-world challenges
The theoretical debates about AI are giving way to practical applications. The latest wave of machine vision systems is tackling tangible problems - from preserving ancient artifacts to identifying security threats.
Beyond simple recognition
At Ritsumeikan University, researchers have cracked a persistent challenge in computer vision: creating detailed 3D models from single 2D photographs. Their neural network reconstructed an ancient stone relief from Indonesia's Borobudur Temple using a 134-year-old photograph. The breakthrough lies in "soft-edge detection" - allowing AI to interpret subtle variations in texture and shadow that traditional systems miss.
The applications stretch beyond archaeology. Architects could analyze historical buildings, disaster response teams could assess structural damage, and engineers might gain new ways to inspect infrastructure without physical access.
Real-world tests
The Pentagon's new Bullfrog system demonstrates how machine vision pairs with physical systems for autonomous defense. This AI-enabled platform identifies and tracks small drones - a task that has long challenged human operators.
In Texas, Wytec International is putting similar principles to work in schools. Their integrated network of sensors and cameras has shown 90% accuracy in laboratory testing for threat detection. The system combines visual detection, acoustic analysis, and pattern recognition - showing how multiple AI models can work in concert.
The reality check
Laboratory success doesn't always translate smoothly to real-world deployment. Recent studies of AI vision and language models in healthcare reveal how minor variations in input can significantly impact accuracy. Physical-world AI faces similar challenges - varying lighting conditions, weather, and unexpected obstacles all pose potential complications.
What's next
The coming year will likely reveal which approaches to physical-world AI prove most effective. Early signs suggest success lies not in complete automation, but in systems that enhance human capabilities while maintaining clear boundaries. The organizations showing the most promise are those taking measured steps rather than rushing to automate everything at once.
The real test for machine vision won't just be technical performance - it will be finding the right balance between capability and reliability in real-world conditions. The technology is ready for deployment; the question now is where it makes the most sense to use it.
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The Bagel team just published new research on two complementary methods for advancing AI reasoning: training-time and inference-time techniques.
Training-Time Enhancements involve refining model structures. Methods like Parameters Efficient Fine-Tuning (PEFT) optimize learning efficiency by targeting specific neural pathways within fixed frameworks, while approaches like WizardMath’s 3-step reasoning improve structured reasoning.
Inference-Time Enhancements focus on on-the-fly thinking, using Chain of Thought prompting to activate logical processing without extra training. Techniques like Self-Consistency for validation and Program of Thought for coding tasks enable precise, stepwise reasoning.
The findings suggest combining both approaches: training-time builds foundational reasoning, while inference-time optimizes its application. Bagel Network supports this advancement through open-source infrastructure, empowering a community-driven AI evolution though monetizable open source AI.
About Bagel: Bagel is an AI & cryptography research lab, building the world's first monetization layer for open-source AI.
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In this episode, the hosts Anthony Batt and Shane Robinson with guest Joe Veroneau from Conveyor discuss outsmarting paperwork. Conveyor is a company that helps automate security reviews and document sharing between companies. They use AI technology, specifically language models, to automate the process of filling out security questionnaires. This saves customers a significant amount of time and improves the quality of their responses.
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