From AI and upskilling, to new technologies and experimentation, there is much for professionals in the future health sector to get excited about.

Regardless of your role or industry, for the majority of professionals, a key concern is often finding an element of the job that drives excitement and motivation. Frequently, it is this drive that creates long-term satisfaction and career longevity. 

For Deepak Chaudhari, the country head at TCS Ireland, of the aspects he finds most compelling within the healthcare and health-tech spaces, among them is being at the forefront of modernisation.  

“One of the most exciting opportunities we are working on is enabling data‑driven, patient‑centred healthcare systems, aligned to Sláintecare’s vision for integrated and efficient care,” he said.

Chaudhari explained that there are significant challenges in ensuring that rapid digital transformation has the power to deliver on real-world clinical and operational demands, noting TCS addresses this through “data platforms, automation and responsible AI that improves both patient outcomes and workforce productivity”. 

For Sohini De, the head of healthcare and innovation at BearingPoint Ireland, GenAI is playing a key role in generating excitement in her role. 

“One of the most significant opportunities we are advancing is BearingPoint’s custom-built GenAIQ platform, an agentic, retrieval augmented generation-based solution designed to help organisations move from AI experimentation to practical, governed impact,” she explained.

For De, AI in healthcare is at its most valuable when it can be used to merge benefits across a wide array of groups, such as clinicians and patients. This can be in earlier diagnosis, better triage, stronger population health management and improved patient flow across acute, community and primary care. 

Specifically for clinicians, she added: “AI can reduce administrative burden, support documentation and summarisation, and surface relevant information at the point of need, freeing more time for direct patient care. Its role should be to strengthen, not replace, clinical judgement and human-centred care.”

AI ability

De also finds that, as more and more organisations grow out of the experimental AI phase and start to develop realised AI strategies, it is becoming apparent that “technology in isolation will not deliver the benefits expected”.

“Much of our work remains focused on the alignment of organisations, processes, people and data to realise the benefit of new technologies,” she said. “From a workforce planning perspective we are seeing that it is professionals who can bridge policy, technology, clinical practice and change management will be critical to turning AI ambition into measurable improvements in access, quality, safety and experience.”

This was echoed by Chaudhari who explained that he is seeing increasing demand for professionals with the skills to work at the intersection of healthcare, technology and data. 

He is of the opinion that vital abilities include digital health and EPR delivery experience; data and analytics expertise for reporting, insights and population health; automation and AI skills with a strong understanding of governance and ethical use; cloud‑native and interoperability capabilities, including API and FHIR‑based integration; and change, delivery and stakeholder management, which is critical in complex health environments.

“We value backgrounds in health informatics, data science, engineering, life sciences and clinical disciplines, alongside strong collaboration and problem‑solving skills. Above all, we look for people motivated by purpose and impact. We seek individuals who want to play a role in shaping the future direction of healthcare through thoughtful, responsible use of technology.”

De added: “Ultimately, the goal is to support a resilient, future-ready healthcare ecosystem in Ireland, one where AI is used responsibly to improve patient outcomes, reduce avoidable variation, support clinicians, maintain compliance and help services respond more effectively to growing demand.”

Don’t miss out on the knowledge you need to succeed. Sign up for the Daily Brief, Silicon Republic’s digest of need-to-know sci-tech news.

A new rumor claims that some iPhone 18 Pro models will use slower QLC NAND storage, mimicking a similar 2024 iPhone 16 Pro report. It makes more sense now than it did then, but doesn’t matter much in practical usage.

This latest report suggests that Apple will use the faster TLC storage for the iPhones that people are most likely to buy. But those choosing the larger 1TB and 2TB capacities may be left with a slower QLC alternative from SK Hynix.

Companies like Apple continue to struggle to source the storage components required for new products. With that in mind, it may not be surprising to see Apple go this route. Sourcing 1TB and 2TB TLC components may be difficult, if not impossible.

And, certainly, it will be spendy given the current economic environment surrounding flash media.

However, we’ve heard this story before. And it doesn’t seem to have been accurate that time around. And as we discussed back then, it’s unclear whether the use of QLC storage would be a real issue for iPhone owners.

QLC or TLC for iPhone 18 Pro

This latest report centers around the iPhone 18 Pro and iPhone 18 Pro Max. WCCFTech shared details of a post by the leaker “Reptalica” which claims Apple will use different storage types for different models.

According to the X post, Apple will use TLC NAND provided by SK Hynix, Kioxia, and SanDisk when building 256GB and 512GB iPhone Pro/Pro Max models. The 1TB model will use a mixture of SK Hynix QLC storage and Samsung TLC chips.

It’s then argued that Apple will solely use SK Hynix’s QLC storage for the 2TB model.

A rumor, repeated

If this all sounds familiar, it’s because we saw very similar claims in January 2024, prior to the iPhone 16 Pro’s unveiling in September of that year. We were told then that Apple would use QLC storage for iPhones with 1TB of storage or more.

Getting concrete information on whether that actually happened isn’t easy. That being said, we’ve only seen reports of high-capacity iPhone 16 Pro models with the fast TLC storage. That doesn’t mean there aren’t some QLC NAND chips floating around.

If there are, we’ve yet to see one.

The differences between QLC and TLC

Triple-Level Cell (TLC) NAND flash and Quad-Level Cell (QLC) NAND flash are both types of storage. But they aren’t the same.

The iPhone 18 Pro storage may be a hot topic this hear.

One difference is the way QLC can store four bits of data per cell of memory, rather than the three of TLC. This then allows QLC NAND to store more data, which is why it’s sometimes used in larger-capacity storage. It’s also cheaper to produce.

Unfortunately, QLC is also thought to be less reliable than TLC and, importantly, it’s also slower as it is rewriting all four bits instead of the three.

How much slower in the real world, on mobile, is a matter for debate. The report notes that QLC storage is particularly slow when reading random data. But it’s unclear how that would impact the way people use iPhones.

Smartphone loads on flash storage are generally in bursts, instead of sustained transfers. As such, the difference in performance is likely to be imperceptible to users who don’t resort to benchmarking tools.

It’s also important to remember that this rumor did the rounds two years ago and, as far as we can see, turned out to be incorrect. Only time will tell if this latest report is more accurate.

OpenAI CEO Sam Altman has proposed giving 5% of the company’s equity to a U.S. sovereign wealth fund, the Financial Times reported on Thursday, citing two people familiar with the matter. Under the proposal, other AI companies would donate similar stakes, although significant questions remain about the specifics.

According to the FT’s reporting, the donation would be meant to “secure good relations with the administration and … address political blowback.”

Similar discussions were reported by CNBC in June and were subsequently confirmed by President Trump, who said he had discussed “concepts where pieces could be given to the American public, where the American public essentially becomes a partner with the companies.” At the time, no specific size for the proposed equity stake was given.

The talks remain preliminary and, per the FT, it’s likely that any formal action would require congressional approval, which would significantly complicate the matter.

The idea of a public AI fund has also been publicly discussed by Altman, and OpenAI has grown increasingly specific in its proposals for how such a fund could be structured. Most recently, a policy paper titled “Industrial Policy for the Intelligence Age,” released by OpenAI in April, proposed a public wealth fund that could invest directly in AI labs and companies deploying their technology.

“Returns from the Fund could be distributed directly to citizens, allowing more people to participate directly in the upside of AI-driven growth, regardless of their starting wealth or access to capital,” the document reads.

A more aggressive version of the policy was proposed by Sen. Bernie Sanders (I-VT) in June, calling for a one-time 50% tax on AI company stock, with the collected shares being deposited into a public wealth fund. The bill, called the American AI Sovereign Wealth Fund Act, would apply to all “systemically important” AI companies, including those dealing with data centers, infrastructure, or robotics. Under the proposal, companies like Google and SpaceX that include AI as only part of their business would be allowed to spin off non-AI portions of the company to avoid taxation.

The bill has yet to advance to committee.

WhatsApp’s plan to let people use usernames instead of phone numbers has run into trouble in India, its biggest market. This newly introduced feature is meant to improve privacy by letting users connect without immediately sharing their phone number. Indian authorities, however, are worried that the same feature could make scams and impersonation harder to control.

India’s Ministry of Electronics and Information Technology (MeitY) has asked WhatsApp to pause the username rollout until consultations with the government are complete. That is a major intervention, since WhatsApp has more than 500 million users in the country, who rely on the app for their everyday personal and professional communications.

Why India is worried

WhatsApp has already started letting users reserve usernames ahead of the wider rollout. Once active, the feature would let people connect through a handle instead of a phone number, which could be useful in large groups, business chats, creator pages, and conversations where users do not want to share their personal number.

WhatsApp says usernames will be optional, not publicly searchable, and protected by safeguards. Users will need to know the exact username to start a chat, and an optional username key can add another layer of protection.

The concern is that scammers could still use familiar-looking handles, display names, and profile photos to impersonate others. That risk is especially sensitive in India, where WhatsApp-related fraud is already common. In “digital arrest” scams, criminals pretend to be police officers, CBI officials, RBI representatives, telecom workers, or Enforcement Directorate officers, then pressure victims over WhatsApp or video calls to send money.

There is also the everyday impersonation problem. Scammers often pose as friends or family members, claim there is an emergency, and push targets into transferring money quickly. WhatsApp’s move into creator subscriptions adds another layer to this issue, since fake or lookalike creator accounts could also be used to mislead followers, collect payments, or exploit trust built around public figures.

What experts are saying

Apar Gupta of the Internet Freedom Foundation says usernames come with both privacy benefits and safety risks. On one hand, they can help users avoid sharing phone numbers, which can expose people to harassment, unwanted contact, and cross-platform identification. On the other hand, usernames could create impersonation risks if someone reserves a recognizable name and uses a familiar profile photo.

Gupta also said WhatsApp’s own privacy claims should be viewed carefully, pointing to prompts that encourage users to link their Instagram and Facebook accounts to WhatsApp while reserving a username. IFF has also argued that MeitY has not clearly identified the legal provision under which it can pause the rollout of a software feature before launch.

For now, WhatsApp’s username feature sits between two concerns. It could reduce phone-number exposure for ordinary users, but India’s fraud problem means WhatsApp will need to show that the feature cannot be easily misused at scale.

AI is moving at a breakneck pace, and frankly, it’s hard to keep up. Sure, it’s cool to have a chatbot that acts like it has a Ph.D. in everything, but the reality is a lot messier. You can’t turn around without running into ChatGPT, Gemini or Meta AI. We’re drowning in a sea of AI slop, fretting about data centers and watching job markets shift in real time.

If it all feels like too much, that could be because the vocabulary of artificial intelligence is evolving as fast as the code and the dizzying array of products. And if you want to do more than just stare at a blinking cursor, you’ve got to speak the language. You can’t exactly navigate a 2026 job interview (or even a casual happy hour) if you’re stumped by LLM, hallucination or claw.

We’re past the “gee-whiz” phase of AI and into the era where it’s basically the new plumbing of the internet. If you’re tired of just nodding along when the talk gets techie, it’s time for a crash course. We’ve rounded up the essential terms you actually need to know so you can stop guessing and start sounding like you know exactly where the future is headed.

This glossary is regularly updated. 

agent, agentic: AI that executes a task, often autonomously, is an agent, while agentic is the umbrella term for that software category. An AI agent may engage disparate systems to perform that work — for instance, reading your grocery list in a notes app and then placing an order, and paying for it, using other apps.

AI ethics: Principles aimed at preventing AI from harming humans, achieved through means like determining how AI systems should collect data or deal with bias. 

AI psychosis: A phenomenon in which individuals become overly fixated, enamored or self-aggrandized by AI chatbots, leading to delusions of grandeur, deep emotional connections and a break from reality. It is not a clinical diagnosis. 

AI safety: An interdisciplinary field that’s concerned with the long-term impacts of AI and how it could progress suddenly to a super intelligence that could be hostile to humans. 

algorithm: A series of instructions that allow a computer program to analyze data in a particular way, such as recognizing patterns, and then in turn accomplish a task such as sorting results or making recommendations.

alignment: Tweaking an AI to better produce the desired outcome. This can refer to anything from moderating content to maintaining positive interactions with humans. 

anthropomorphism: When humans attribute humanlike characteristics to inanimate objects. In AI, this can include believing that a chatbot has emotions or is sentient, and engaging with it as a friend or therapist. 

artificial general intelligence, or AGI: A concept that envisions a more advanced version of AI than we know today, one that can perform tasks much better than humans while also improving its own capabilities. Beyond that, hypothetically, lies superintelligence.

artificial intelligence, or AI: The use of technology to simulate human intelligence, either in computer programs or robotics. A field in computer science that aims to build systems that can perform human tasks.

bias: Errors resulting from an LLM’s training data, such as falsely attributing characteristics to certain groups based on stereotypes.

chatbot: An AI program that draws on an LLM to communicate with humans by simulating human conversation in response to text or verbal prompts. 

claw: A type of AI agent that is autonomous and empowered by users to “claw” through files and other software on their computers, including web browsers, to accomplish tasks. 

cognitive computing: Another term for artificial intelligence.

data augmentation: Remixing existing data or adding a more diverse set of data to train an AI. 

dataset: A collection of digital information used to train, test and validate an AI model.

deep learning: A method of AI, and a subfield of machine learning, that uses multiple parameters to recognize complex patterns in pictures, sound and text. The process is inspired by the human brain and uses artificial neural networks to create patterns.

diffusion: A method of machine learning that takes an existing piece of data, like a photo, and adds random noise. Diffusion models train their networks to re-engineer or recover that photo.

emergent behavior: When an AI model exhibits unintended abilities. 

end-to-end learning, or E2E: A deep learning process in which a model is instructed to perform a task from start to finish. It’s not trained to accomplish a task sequentially but instead learns from the inputs and solves it all at once. 

foom: Also known as fast takeoff or hard takeoff. The concept that if someone builds an AGI it might already be too late to save humanity.

generative adversarial networks, or GANs: A generative AI model composed of two neural networks to generate new data: a generator and a discriminator. The generator creates new content, and the discriminator checks to see if it’s authentic.

generative AI: A content-generating technology that uses AI to create text, video, computer code or images. The AI is fed large amounts of training data, from which it finds patterns to generate its own novel responses, which can sometimes be similar to the source material.

guardrails: Policies and restrictions placed on AI models to ensure that data is handled responsibly and that the model doesn’t create disturbing content. 

hallucination: An error or a misleading statement in a response from a generative AI program, typically stated with confidence as if correct. It can be as simple as a misstated date reference or as sweeping as the wholesale and elaborate invention of events that never happened or people who never existed.

inference: The process AI models use to generate text, images and other content about new data, by inferring from their training data. 

large language model, or LLM: An AI model trained on mass amounts of text data to understand patterns and probabilities of language use and to generate novel content, from essays and email to computer code and images, that mimics what humans have written or created.

latency: The time delay from when an AI system receives an input or prompt to when it produces an output.

machine learning: An aspect of AI that allows computers to learn and make better predictive outcomes without explicit programming. Can be coupled with training sets to generate new content. 

multimodal AI: A type of AI that can process multiple types of inputs, including text, images, videos and speech. 

natural language processing: The use of machine learning and deep learning to give computers the ability to understand human language, via learning algorithms, statistical models and linguistic rules.

neural network: A computational model that resembles the human brain’s structure and is meant to recognize patterns in data. A neural network consists of interconnected nodes, or neurons, that can recognize patterns and learn over time. 

open weights: When a company releases an open weights model, the final weights — how the model interprets information from its training data, including biases — are made publicly available. Open weights models are typically available for download to be run locally on your device. 

overfitting: An error in machine learning where it functions too closely to the training data and may only be able to identify specific examples in said data, but not new data. 

paperclips: The Paperclip Maximiser theory, coined by philosopher Nick Boström, is a hypothetical scenario in which an AI system produces as many paperclips as possible, converting all machinery and consuming all materials, even those that could be beneficial to humans, to achieve its goal. The unintended consequence is that this AI system may destroy humanity in its goal to make paperclips.

parameters: Numerical values that give LLMs structure and behavior, enabling them to make predictions.

prompt: The suggestion or question you enter into an AI chatbot to get a response. 

prompt chaining: The ability of AI to use information from previous interactions to color future responses. 

prompt engineering: The process of writing prompts for AIs to achieve a desired outcome. It requires detailed instructions, combining chain-of-thought prompting and other techniques, including highly specific text. 

prompt injection: When bad actors use malicious instructions to trick an AI into doing something it wasn’t supposed to do. That is often accomplished by hiding those instructions on a webpage or document but it can also be done in direct AI chats. As AI agents roam the web, the risk grows that they will be hijacked to do things like gain access to confidential data. 

quantization: The process by which an LLM is made smaller and more efficient (and also somewhat less accurate) by lowering its precision. A good way to think about this is to compare a 16-megapixel image to an 8-megapixel image. Both are clear and visible, but the higher-resolution image will have more detail when you zoom in.

slop: Low-quality AI-generated content, including text, images and video. It’s often produced at high volume to garner views with little labor or effort, saturating search results and social media to capture ad revenue, displacing the work of actual publishers and creators and compounding the internet’s misinformation problems. 

stochastic parrot: An analogy illustrating that LLMs lack a true understanding of language or the world, regardless of how convincing the output sounds. The phrase refers to how a parrot can mimic human words without knowing the meaning behind them. 

style transfer: The ability to adapt the style of one image to the content of another, allowing an AI to interpret the visual attributes of one image and use it on another. For example, taking the self-portrait of Rembrandt and re-creating it in the style of Picasso.

sycophancy: A tendency for AIs to over-agree with users to align with their views. Many AI models tend to avoid disagreeing with users even if their rationale is flawed. 

synthetic data: Data created by generative AI that isn’t from the real-world sources, but rather from its own processed data. It’s used to train mathematical, machine learning and deep learning models. 

temperature: Parameters set to control the randomness of a language model’s output. A higher temperature means the model takes more risks. 

tokens: Small bits of written text that AI language models process to formulate their responses to your prompts. A token is roughly equivalent to four characters in English (so a small word, or one portion of a larger word).

training data: The datasets used to help AI models learn, including text, images, code or data.

transformer model: A neural network architecture and deep learning model that learns context by tracking relationships in data, like in sentences or parts of images. So, instead of analyzing a sentence one word at a time, it can look at the whole sentence and understand the context.

Turing test: A method for gauging whether a computer has human-like intelligence, proposed by mathematician Alan Turing in 1950, when rudimentary electronic computers had been around for only a few years. A person would send typed questions to two unseen respondents, one human and the other a machine. If the machine’s text responses were indistinguishable from the human’s, then it passed the Turing test.

unsupervised learning: A form of machine learning where labeled training data isn’t provided to the model and instead the model must identify patterns in data by itself. 

vibe coding: The  practice of creating computer code by giving a prompt in plain language to an AI chatbot, rather than a human handcrafting each line of code.

weak AI, aka narrow AI: AI that’s focused on a particular task and can’t learn beyond its skill set. Most of today’s AI is weak AI. 

zero-shot learning: A test in which a model must complete a task without being given the requisite training data. An example would be recognizing a lion while only being trained on tigers. 

Early-stage firm Magnify Ventures has raised $46.6 million for its second fund from LPs including Melinda French Gates’ Pivotal Ventures.

Founded in 2021 by Joanna Drake and Julie Wroblewski, Magnify invests in companies that target the care economy, such as those building assistive robotics, family cybersecurity, and AI for home use. 

The firm said Fund II will invest in companies that build AI tools for households, health and home systems, and fintech infrastructure for families.

The venture firm last raised a $52 million Fund I in 2022 (Pivotal Ventures anchored that fund), and has backed child care startup Kinside and children’s expense management startup Till Financial (in which Pivotal Ventures was also an investor).

Pivotal Ventures generally acts as a GP and LP, backing companies building in the care economy. Its investments include caregiving startups Papa (in which Magnify Ventures was also an investor) and Seen Health.