laingc
Starboard builds mission-critical intelligence platforms for the defence, national security, and maritime enforcement sectors. Our software fuses complex datasets—including satellite imagery (SAR/EO), vessel tracking (AIS), and proprietary intelligence to help our customers identify and respond to illicit and threatening activities at sea. We work on challenges like sanctions evasion, illegal fishing, and maritime security operations.
We are seeking our first Agentic AI Engineer to pioneer a new capability within the company. This is a foundational role with significant autonomy, responsible for designing and building an "AI Agent Workforce" from the ground up. Your objective will be to leverage agentic AI to enhance operational effectiveness and accelerate the intelligence cycle across our business—from engineering to analysis. This is a hands-on-keyboard role focused on deploying robust, auditable, and secure AI systems, not just theoretical research.
Example responsibilities:
- Develop agents to automate the initial analysis of raw data streams, generating draft intelligence summaries for our analyst teams.
- Build agents to assist with static code analysis, security vulnerability scanning, or triaging failures in our secure deployment pipelines.
- Create agents to perform real-time horizon scanning, monitoring multiple data feeds to flag and contextualise key maritime events.
- Establish the company-wide standards, tooling, and security frameworks for the development and deployment of all AI agents.
We're looking for someone with:
- Demonstrable, hands-on experience building functional AI agent systems. This can be from professional, academic, or personal projects.
- Proficiency in Python.
- A deep-seated curiosity for emerging AI technologies and a systematic approach to experimentation.
- An understanding of how to apply technology to solve concrete business and operational problems, with a strong sense of ownership.
IMPORTANT - SECURITY REQUIREMENTS: Due to the nature of our work with government defence and intelligence partners, this role has strict security clearance requirements. To be eligible, you MUST have been a citizen of the UK, USA, Canada, New Zealand, or Australia for at least 10 years. We regret that we cannot make exceptions to this.
If you are interested in applying your AI skills to critical national security and intelligence challenges, we would love to hear from you.
Apply here: https://www.seek.co.nz/job/85965176
There is also a very listen-able audiobook version available on Audible.
¯\_(ツ)_/¯
Example use case would be to support a web application with, say, 100k DAU.
If you can come up with a more helpful reply in as many words, then please do so.
You will be delighted to discover that they are in fact not magical or garbage.
> What object is "dx" ? is it a number ? a limit ? is it zero ? can i divide another number by it ?
dx is a differential one-form. You can think of it as a generalisation of a gradient, if you like. These are very important in Differential Geometry.
You can use differential forms to do all sorts of things, but one example you may be familiar with is to compute area or volume forms over arbitrary manifolds. It gets a bit hard to define things on HN without TeX support, but using differential one-forms and the related exterior derivative, you can define a generalised Stokes' theorem that works for any smooth, oriented manifold.
I used this in my PhD, and implemented it directly in a numerical method, so this has very practical engineering uses also.
"Elementary Differential Geometry" by Barrett O'Neill is a pretty beginner-friendly introduction to some of these topics if you're interested, though there are many other good texts also.
1. It portrays wholesome and positive family relationships, particularly between father and daughters. The girls are also good to one another, with occasional conflict kindly and realistically resolved.
2. It tells simple stories without pushing political messages. Unfortunately, children’s television at large has become another victim of the culture wars, with heavy-handed social messages infecting what should be simple cartoons. Bluey is something I can trust.
3. I don’t have to expose my kids to American accents. They’ll have more than enough of that from regular programming when they grow up.
“Alien corpses” shown to Mexican Congress
I would like to see more open source technologies taking this kind of licensing view - free for almost everyone, except the frankly parasitic hyperscalers who profit from others' largesse.
Secondly, signing every message wouldn’t be impractical at all, I don’t think. We’ve had the technology to do this for a long time and it’s very simple. What we don’t have is good key management. For average users, this would have to be something provided by their devices (phone or the Secure Enclave in your Mac or whatever) - managing keys and the web-of-trust shamozzle are the main reasons why encrypted email for everyone never took off.
"Have a family?"
"Sounds unethical..."
This is an absolutely demented perspective.
Is my viewpoint very uncommon? Are notifications generally used and loved by users? Do app developers have good stats about this?
I’m pretty interested in learning from your experience - I’ll email you at the address in your profile, if that’s ok?
Much as I love my friend, after the exposure I’ve had to modern art I have to agree that it is almost without exception meaningless trash.
Look, let’s just be real for a moment here. Take a step back and ask yourself what’s more likely: that (A) there really is something deep and mysterious about the banana-on-the-wall or (B) most actual artistry disappeared with the invention of photography and modern artists are LARPing, sustained by taxpayer handouts and the financial fumes of the money laundering and tax evasion that high end art is used for.
Modern art is a joke, and everyone including the artists know it.
However, as you note, in Applied Maths there are more unsolved problems than you could address with a million researchers.
A physicist or pure Mather social looks at Navier-Stokes and says, “Oh, we know how that works, nothing to do there I guess”, whereas the applied mathematician looks at it and goes, “holy cow, this could keep my entire department busy for the rest of our natural lives”.