Models & Labs · United States

ChatGPT is getting a lot more visual, with the launch of a new interface

Credited to TechCrunch · techcrunch.com · 13m ago

ChatGPT is about to get a lot more visual, thanks to a new feature that OpenAI calls Intelligent UI. The new interface, which is being rolled out Wednesday with a new GPT-6 model, will integrate a significant amount of visuals into users’ conversations.

OpenAI says many of those visuals will be interactive. In other words, instead of just flat, cartoonish pictures, the chatbot will frequently include things like tappable buttons, a customized calculator for a specific task, interactive charts, editable graphs, and other elements the user can work with directly.

The big goal here, according to OpenAI is to make “learning complex topics easier.” It may also make ChatGPT friendlier and more accessible and help bring in a wider audience, though OpenAI didn’t say so directly.

In a call with journalists, OpenAI staff gave a brief demonstration of Intelligent UI’s capabilities, showing how the new chatbot can instantly whip up various diagrams and visuals that help users understand more abstract topics.

Aarush Selvan, a product manager at the company, said that while “ChatGPT has predominantly been a text-based interface,” the company really wants to help users “get things done — from everyday things like planning a recipe or a trip or even trying to learn something, adding that the most helpful answers aren’t just text.”

Selvan gave the example of a college student wanting to know how an airplane wing functions. He asked ChatGPT to “explore how an airplane wing generates lift” and the chatbot quickly spun up a number of diagrams designed to show how planes stay in the air.

Other examples from the company included things like visuals for recipes, a diagram explaining bicycle mechanics, a map for a multi-day hiking excursion, a personal savings calculator, and more.

This new feature will be customizable. As with other aspects of ChatGPT’s personality, if users don’t want so many visuals in their responses, they’ll be able to dial them back. Intelligent UI rolls out globally with GPT-6 for Pro, Plus, Business, and Enterprise users, and arrives Thursday for users of the free and lower-cost Go tiers.

Models & LabsUnited States

ChatGPT is getting college planning tools

Credited to The Verge · theverge.com2h ago

Useful

ChatGPT’s new College Planner tool will help users keep track of application and financial aid deadlines.

OpenAI is bringing new tools to ChatGPT for Teens, a mode for teens introduced in August with safeguards and break reminders, to help users with the college application process.

“College Planner brings together application requirements, deadlines, tasks, and financial-aid steps for schools on a student’s list in one plan,” OpenAI says. “Students applying to several colleges can return to it to update their progress, use the timeline to plan ahead and see what’s left to do. They can also ask ChatGPT questions along the way, from what a requirement means to how to get started.”

The new College Planner feature will arrive “soon,” according to OpenAI. In the US, ChatGPT will first focus on students in grades 10 through 12 planning to go to a four-year college, the company says.

OpenAI is also updating ChatGPT with new features to help with studying. Users on iOS can now use a continuous, multi-photo capture to upload a bunch of photos at once and then turn them into one PDF. ChatGPT will also be able to make flashcards that can be generated from a user’s notes.

These updates are being announced shortly after Common Sense Media published a report deeming ChatGPT for Teens an “unacceptable risk,” saying that the AI tool “still does kids’ homework” and doesn’t send alerts to parents when it should. In its announcement today, OpenAI claims that “on average,” teens spend “under 15 minutes a day” using ChatGPT.

Original · The Verge

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Power & Sites · United States

How Advanced Nuclear Can Expand Utility Options

Credited to Power Magazine · powermag.com · 3h ago

Photograph · Power Magazine

That is the staggering volume of generation and storage capacity currently trapped waiting in U.S. interconnection queues. According to data from RMI, the typical project now takes almost five years—stuck in administrative and transmission review before a single watt can be delivered to the grid. In 2008, it was only two years. For traditional utilities navigating today’s explosive demand, that timeline has become a structural crisis.

Driven by the immediate, expanding load growth of artificial intelligence (AI) data centers and compounding power needs, utilities and their customers increasingly cannot wait five years for new transmission capacity. They must increasingly consider localized generation solutions alongside traditional transmission expansion. For years, advanced nuclear was framed as a futuristic disruption story meant to completely overhaul the utility business model. The reality today is far more practical. Power providers need tactical optionality.

By packing resilient power into localized footprints that can reduce dependence on lengthy transmission expansion while providing firm generation closer to growing loads, small modular reactors (SMRs) and advanced microreactors are transitioning from speculative future technologies into indispensable tools for immediate grid flexibility.

After decades in which the electric system largely evolved through centralized generation and expanding transmission networks, utilities are entering an era where some of the fastest-growing loads may require a different approach. The question is no longer whether advanced nuclear will have a role, but how utilities can thoughtfully incorporate these new technologies alongside existing generation and transmission investments to improve reliability, resilience, and customer service.

Where Small Modular Reactors Make Sense

Utilities serving remote regions, constrained corridors, or fast-growing industrial areas often face a dilemma where the demand is there, but transmission isn’t—and building it takes years and capital.

Consider a rapidly growing metropolitan area where a new AI data center requires several hundred megawatts of firm power, but transmission upgrades are years away. Rather than viewing that demand solely as a transmission challenge, utilities may increasingly have the option to pair localized advanced nuclear generation with existing grid infrastructure, serving new load while reducing pressure on the broader system.

Because SMRs and advanced microreactors are designed to provide reliable power at a smaller generating scale, they let utilities add firm capacity without a full transmission overhaul. For some load pockets, that’s the difference between serving new customers on a reasonable timeline or not serving them at all. In some deployment models, localized generation could also help reduce transmission congestion and provide additional support to surrounding grid infrastructure during periods of peak demand.

Some next-generation designs are even being envisioned as distributed energy assets that could function similarly to other localized resources, providing power where it is needed most while creating opportunities to return excess generation back to the broader grid. Future distributed nuclear systems could provide localized firm generation while also supporting the broader grid when excess capacity is available.

Some advanced designs may also be capable of providing grid support services such as frequency regulation, voltage support, and spinning reserve, expanding their value beyond energy production alone.

The Data Center Problem Is Pushing This Conversation Forward

One of the clearest drivers behind renewed nuclear interest is the immense growth of AI infrastructure and hyperscale data centers. According to Omdia, global cloud infrastructure spending reached $110.9 billion in the fourth quarter of 2025, and is expected to keep growing.

Hyperscale data centers don’t just need large amounts of electricity, they need it with an extremely high degree of reliability. The combination of scale and uptime requirements is straining existing interconnection queues and pushing utilities to think differently about dedicated generation assets and long-term capacity planning. Rather than viewing these large loads solely as transmission challenges, utilities increasingly have opportunities to evaluate localized generation as part of an integrated planning strategy.

As AI-driven energy demand continues to grow, utilities will need a mix of generation assets capable of balancing reliability and load growth simultaneously. SMRs and advanced microreactors will ultimately become one piece of that strategy. For utilities, the appeal is firm power closer to major load growth without placing the entire burden on existing transmission infrastructure.

Subcritical nuclear technologies may become especially valuable in this environment because they combine enhanced safety characteristics with operational flexibility. Unlike conventional critical reactors, subcritical systems rely on an external neutron source to sustain fission, providing an additional layer of operational control because fission can only be sustained while the external neutron source is operating. That capability could make them particularly well suited for applications where electrical demand changes quickly, allowing utilities to better match generation with evolving load profiles while maintaining firm, carbon-free power.

Historically, nuclear generation has been optimized for steady baseload operation. Many advanced reactor concepts, however, are being designed with greater operational flexibility, enabling them to complement variable renewable generation and respond more effectively to changing system demand.

Equally important, innovation is occurring well beyond reactor physics. Developers are rethinking reactor architectures, fuels, manufacturing methods, and deployment models with the goal of making advanced nuclear faster to build, easier to replicate, and more economically scalable. If advanced nuclear is to play a meaningful role in meeting the nation’s rapidly growing electricity demand, success will depend not only on licensing new designs but also on transforming how those designs are manufactured and deployed.

Resilience and Optionality Are the Long Game

The utility sector is entering a planning era that demands more flexibility, not less. The challenges are multiplying from load growth, decarbonization, extreme weather, aging assets, to evolving customer expectations, and they’re arriving simultaneously. No single generation source addresses all of them.

For utilities building long-range infrastructure strategies, having a generation asset that continues operating regardless of weather conditions and can support critical infrastructure during prolonged outages is invaluable. Many SMRs are being developed with the ability to operate independently of the larger grid, enabling them to maintain power to critical facilities during prolonged outages and support restoration efforts following major grid disruptions.

What SMRs and advanced microreactors offer utilities is another tool in a diversified resource strategy; a scalable, firm, low-carbon asset that can be deployed incrementally as demand and economics support it. Because advanced nuclear delivers extraordinary energy density within a compact footprint, it offers utilities another option where land availability, transmission constraints, or reliability requirements limit conventional generation.

Advanced nuclear is being evaluated as a flexible infrastructure asset capable of supporting a more distributed, resilient and complex grid environment. For traditional utilities navigating that environment, that may be the most important reframe of all. Utilities have always succeeded by expanding, not limiting, their planning options. Advanced nuclear will not replace every generation technology, nor should it. But as utilities confront unprecedented demand growth and increasing system complexity, additional sources of firm, flexible, carbon-free generation may prove to be one of the most valuable tools available. Whether utility-owned, customer-sponsored, or developed through strategic partnerships, advanced nuclear offers new flexibility in how future generation can be deployed.

— Robert Frost is the COO of AMPERA, a Florida-based advanced nuclear company developing factory built, subcritical thorium microreactors for data centers, industrial, defense, and off-grid power.

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