An AI can tell you there's a cat in the image. Pointing to the exact pixels is the hard part.
The reason it's slow: most VLMs spell out a bounding box one coordinate token at a time — some even split "1024" into single digits. But a box's corners are connected. Decode them independently and errors compound.
That's the wall the next gen of clicking, navigating AI agents has to break.
Full breakdown 👇
https://t.co/EPXm0sitxl
Weak AI vs Strong AI, in one line:
Weak AI recognizes the cat in the photo.
Strong AI debates climate change with you.
One is already transforming industries. The other could revolutionize everything we know.
Full breakdown 👇
https://t.co/Mn7AQRz2jJ
#AI#AGI#MachineLearning
Object detection is shifting from "models that recognize fixed categories" to "models that understand concepts described in language."
YOLOE delivers open-vocabulary detection at full YOLO speed — text module fused into the head, zero runtime overhead.
Full tutorial + code: https://t.co/KwnojDO6l0
This robot's only job is to pretend it's your eyeball 👁️🤖
At Display Week 2026, Dr. Satya Mallick visits Gamma Scientific — the 6-axis robot AR/VR brands use to QA every headset before launch. 18+ tests in one rig: contrast, parallax, MTF, color gamut, eye box.
The invisible layer behind every Vision Pro.
#ARVR #DisplayWeek2026 #Metrology #GammaScientific #Robotics #VisionPro
A $99 hologram. With an AI agent living inside it.
Dr. Satya Mallick meets Shawn Frayne (CEO, Looking Glass Factory) at Display Week 2026 for a hands-on with the Looking Glass Go + their new life-size Hololuminescent Display — SID 2026 Display of the Year.
The future of display isn't a headset. 🧵
Hashtags (light, in-thread):
#LookingGlass #Hologram #AI #DisplayWeek2026 #LightField #SpatialComputing #Hololuminescent
MoE Training, Part 2 — in one tweet:
You start with random weights. By chance, one expert is slightly better at legal questions. Router notices, sends more its way. It gets better. Snowballs.
Same compounding loop that turns a slightly-talented 7-year-old into an IMO medalist.
— Dr. Satya Mallick, CEO @ OpenCV
https://t.co/W8CJ2p4yjH
MoE Training, Part 1 — in one tweet:
You do NOT assign "this expert handles medicine, this one handles law."
You start with 9 random experts + a router. The router learns to pick 2–3 per question. Specialization emerges from data, not design.
That's how Mixtral and DeepSeek scale.
— Dr. Satya Mallick, CEO @ OpenCV
https://t.co/zk2zD9akSt
Detection: finds "a car."
Grounding: finds the red car in the crowd of cars.
Detection = fixed classes + bounding box (YOLO, RF-DETR).
Grounding = free-form language → localization.
The word "grounding" comes from cognitive scientist Stevan Harnad (1990) — mapping abstract symbols to physical reality. CV borrowed it in the 2010s.
Full breakdown: https://t.co/aFzDEKJwUV
Instruct vs thinking models, in one line:
System 1 vs System 2 — with a 5–20x cost-and-speed gap.
If the task doesn't need planning or multi-step reasoning, the thinking model isn't smarter. Just slower, pricier, and more likely to hallucinate.
— Dr. Satya Mallick, CEO @ OpenCV
https://t.co/EicApR9D2M
Why every frontier LLM is converging on Mixture of Experts 🧵
Trillion-parameter model. Single query. You don't need the whole thing.
A router picks a subset of "experts." Medical question → medical expert. Legal → legal. Some models keep one generalist always on.
Saves compute. Not memory.
→ https://t.co/5yViIuoLHw
#MoE #LLM #MachineLearning #Qwen3
"VLM" is doing a lot of heavy lifting as a label.
CLIP → image-text alignment, zero-shot recognition
Moondream → grounding ("find the guy in red")
Qwen3-VL → agentic + GUI + long video understanding
Same category. Wildly different tools.
Dr. Satya Mallick explains → https://t.co/slFtT6OfCf
#VLM #ComputerVision #MultimodalAI #CLIP #Qwen3VL
Pt. 2 — YOLO26-Seg is wild:
→ Distribution Focal Loss removed
→ MuSGD optimizer (hybrid borrowed from LLM training)
→ NMS baked into the model
→ Boundary-aware supervision = razor-sharp masks
→ Up to 43% faster on CPU
→ One ONNX export → Pi, drone, phone
Deep dive: https://t.co/TJUVsrQAZT
Depth Anything V2 (Part 2) — synthetic training data, sharper edges, handles glass & mirrors, deploys clean with OpenCV 5. Models from 25M params (edge) to 1.3B (max accuracy). Catch Part 1 first if you missed it. 🔗 https://t.co/XHxx7zxKiu #ComputerVision #DepthAnythingV2 #OpenCV5 #EdgeAI
YOLO26 vs. the NMS bottleneck — Part 1 🧵
8,400 noisy boxes → external NMS cleanup → latency spikes.
YOLO26 outputs 300 clean detections. NMS baked into the network. Segmentation that doesn't bleed.
True end-to-end architecture, runs on CPU. More parts coming.
Full breakdown → https://t.co/ecNSQFaoTU
#YOLO26 #ComputerVision #EdgeAI #InstanceSegmentation
What if accurate depth maps could be generated from a single RGB image — without LiDAR or stereo cameras?
That’s exactly what Depth Anything V2 achieves.
In 2024, monocular depth estimation reached a major breakthrough:
✔ Fast
✔ Lightweight
✔ Temporally stable
✔ Edge-device friendly
Instead of relying on massive diffusion pipelines, Depth Anything V2 uses a highly optimized Vision Transformer architecture trained on millions of pseudo-labeled real-world images.
The result?
Real-time, surprisingly stable depth estimation from just one camera.
This has massive implications for:
• Robotics
• AR/VR
• Autonomous systems
• Smart cameras
• 3D scene understanding
One of the most exciting things is how deployable it is compared to heavier depth models.
Technical breakdown by LearnOpenCV:
LearnOpenCV – Depth Anything Explained
Research Paper:
Depth Anything V2 Paper
#AI #ComputerVision #OpenCV #DepthAnythingV2 #MachineLearning #DeepLearning #Robotics #EdgeAI #VisionTransformer #ArtificialIntelligence
The four benefits in order of impact:
1. Prevents overfitting (the big one)
2. Adversarial robustness
3. Augments small datasets
4. Softer decision boundaries
Used by experts. Skipped by most novices. Don't be a novice.
The full formula:
x_mix = λ·x₁ + (1−λ)·x₂
y_mix = λ·y₁ + (1−λ)·y₂
where λ ~ Beta(α, α)
Same λ for pixels AND labels — that consistency is the whole trick.
Paper: https://t.co/jxQE17sc0f
Most CV novices skip this. Most experts use it on every classifier.
Mixup: blend two training images + blend their labels with the same λ.
Result: less overfitting, smoother boundaries, adversarial robustness.
Part 1 explains how it works ↓
Part 2 (PyTorch how-to) coming soon — follow for the drop.
🎥