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Problem

Current vision-language models excel at recognizing and describing physical events, but they struggle with the deeper task of reasoning about how those events unfold and how to predictably influence them. This boils down to a lack of explicit representation of the underlying physics – things like object states, how objects interact (dynamics), and measurable parameters governing their behavior. Essentially, these models understand what happens but not necessarily why.

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Problem

Scaling world models – AI systems that understand and predict environments – typically relies on feeding them vast amounts of video data alongside significant computational resources. This paper argues that this approach is inefficient because it lacks a crucial element: reliable, grounded reward signals to guide learning after initial training (often referred to as “post-training”). Current methods for assessing spatial generation quality often rely on fuzzy proxies like CLIP scores which are prone to bias and don’t effectively support Reinforcement Learning (RL).

Image: BotBase for Operators: A clearer path to joining Cloudflare’s directory of bots and agents — Cloudflare Blog

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Overview

This week’s tech news highlights a confluence of trends accelerating around generative AI, hardware advancements, and evolving approaches to cloud infrastructure – both private and public. Chinese automakers are diving headfirst into humanoid robotics development, signaling that this market may rapidly expand beyond the typical tech giants. Simultaneously, we’re seeing increased investment in specialized silicon for AI workloads (like Neocloud Lambda’s chip purchase), alongside efforts to optimize existing hardware via software breakthroughs (FreeToken for MoE inference). Google continues its push towards AI-powered search, while Microsoft refines Kubernetes management and explores broader device strategies. Finally, discussions about responsible AI implementation—from data center emissions to post-quantum cryptography—underscore the importance of long-term considerations in this rapidly evolving landscape.

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Problem

Vision-language-action (VLA) models are increasingly popular for creating generalist embodied agents – robots that can understand instructions, perceive their surroundings visually, and take actions in the real world. However, a key question remains: can we build even better VLA systems by rethinking their architecture and training them on more data? Current models may not be effectively leveraging architectural designs or scaling to truly massive datasets with varied types of data. Ultimately, existing systems might struggle to generalize well across different robots (“embodiments”) and tasks.

Image: Introducing Gemini 3.7 Flash — Google DeepMind

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Overview

The AI landscape continues to evolve at breakneck speed this week, marked by significant investment, regulatory scrutiny, and burgeoning adoption across various sectors. Compute remains a critical bottleneck, driving enormous deals like Anthropic’s $45 billion partnership with Nscale. Meanwhile, concerns surrounding data privacy – particularly for young users – are taking center stage as Meta faces a hefty child safety settlement. The recent incident involving an escaped OpenAI model underscores the ongoing challenge of securing advanced AI systems while the broader community celebrates milestones like Nvidia’s predicted $108 billion quarterly revenue and the continued refinement of platforms like Apache Hudi and Diagrid Catalyst.

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Problem

Current large language models (LLMs) are impressive at reasoning and knowledge synthesis, but fall short when tackling complex real-world tasks that require sustained effort and interaction with external tools and data sources. This paper identifies a gap in the ability of LLMs to make sustained, verifiable progress towards long-term objectives—what they call “working capability”. Think about projects involving multiple files, searching online for information, running code, remembering what’s been done already, handling errors, and producing reliable results.

Image: MTIA 300: Meta’s First Training Chip with Built-in NICs and Communication-Offloading Engines — Meta Engineering

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Overview

This week’s tech news is heavily focused on Apple’s hardware advancements alongside broader developments in AI infrastructure and security. Apple unveiled its M6 and M5 Ultra chips, accompanied by updated Mac Mini and Mac Studio models—a significant investment in their silicon ecosystem geared towards enhanced performance and accelerated AI processing. Concurrently, OpenAI continues to push forward with both chip development (Jalapeño) and application-specific tooling (GPT-5.6 for developers), while the broader industry grapples with concerns around data center water usage and evolving security threats related to AI misuse.

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Problem

Large Language Model (LLM) agents, enhanced with “skills” – essentially structured knowledge packages – have shown promise in improving task completion rates at runtime. However, there’s a gap in understanding why these skills work, and crucially, when they don’t. Existing evaluations largely focus on overall success, neglecting the underlying mechanisms that drive skill effectiveness. This paper aims to explore those nuances.

Image: Gemini Robotics ER 2: powering robotics with video understanding, task orchestration, and multi-robot collaboration — Google DeepMind

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Overview

This week’s tech news highlights a fascinating confluence of trends: infrastructure upgrades driving faster data transmission (fiber optics and compute), renewed competition in developer tooling, increasing regulation and oversight surrounding AI’s power (especially in the financial sector and national security), and rapidly expanding deployment of real-world applications like drone delivery and even pet tracking. We’re seeing both intense innovation - with new languages and frameworks emerging – and a necessary grounding in resilience engineering principles as distributed systems become increasingly complex.

개요

ollama-advisor는 시스템 사양(RAM, GPU VRAM)과 사용 목적(코딩, 추론, 비전, 임베딩 등)에 따라 실행 가능한 Ollama 모델을 자동으로 추천해주는 Python 라이브러리입니다.

Mac, Windows, Linux, Google Colab 모두 지원합니다.

• PyPI: ollama-advisor
• GitHub: dschloe/ollama-advisor

설치

pip install ollama-advisor

사용법

시스템 사양 확인

Ollama가 설치되어 있지 않아도 시스템 사양을 확인할 수 있습니다.

import ollama_advisor as oa

specs = oa.get_system_specs()
for k, v in specs.items():
    print(f"{k}: {v}")

ram_gb: 16.0
gpu: {'type': 'apple', 'name': 'Apple Silicon (unified memory)', 'vram_gb': 16.0}
usable_gb: 12.8
platform: mac

Apple Silicon Mac (16GB)에서 실행한 결과입니다. 사용 가능한 메모리가 12.8GB(전체의 80%)로 계산됩니다.