A beautifully set dinning table under low light
A beautifully set dinning table under low light
#quantumdinner

Epilogue: Quantum Computing and the Future of Everything (Including My Dinner)

By
Paul Kiernan
(5.14.2025)

We are, however, in the middle of something truly exciting—a technological revolution that’s going to reshape how we interact with data, how we secure information, and how we approach problems we thought were unsolvable.

Well, well, well, dear reader, we’ve made it to the end of this wild ride through the world of quantum computing. It’s been quite a journey, hasn’t it? From the terrifying possibility of quantum computers breaking encryption and undermining our entire digital existence, to the slightly less terrifying (but still weird) concept of quantum computers predicting what’s for dinner (spoiler alert: it’s always peanut butter ramen).

And what a strange journey it’s been. At the beginning, I admitted that I had absolutely no clue about quantum computing—no clue, zero, nada. I wasn’t about to start playing with qubits in my kitchen (though if someone figures out how to put a quantum computer in a fridge, I might reconsider). But as I’ve learned, we don’t need to become experts in quantum mechanics to see how this technology is going to shape our lives. What we need is an understanding of its potential, its applications, and—let’s face it—its weirdness.

I started off with the thought that quantum computing was probably going to take over everything and that robots were coming for our jobs. I mean, who wouldn’t think that when you’re told that a quantum computer can solve problems in minutes, that would take a classical computer thousands of years? If that doesn’t sound like the end of humanity as we know it, I don’t know what does. But now, after a few blogs, a lot of caffeine, and some help from AI, I can tell you with some confidence we’re not doomed yet.

We are, however, in the middle of something truly exciting—a technological revolution that’s going to reshape how we interact with data, how we secure information, and how we approach problems we thought were unsolvable. So, let’s wrap it up with a little bit of humor, a dash of real talk, and some thoughts about where we go from here.

Scrabble tiles on a reddish table spelling out HOW TO

What We’ve Learned So Far

Let’s break it down. I’ve spent five blogs (plus a few connecting ones) telling you about the potential impact of quantum computing on everything from web security to user experience. We’ve laughed, we’ve pondered, we’ve asked ourselves why on earth anyone would ever quantum encrypt their dinner recipe, but hey, it's been fun!

But really, what have we learned? Let’s recap:

  1. Quantum computing is not just for scientists—it’s something that’s going to affect everyone. Whether you’re in tech, finance, healthcare, or even working in a café, quantum computing is coming for you. The first takeaway? Don’t run screaming for the hills just yet. While quantum computing is going to change the world, it’s not going to happen overnight, and it’s not going to replace everyone’s jobs either. It will enhance jobs and create new opportunities for those willing to adapt.
  2. Quantum computing might help predict your dinner—okay, maybe not literally (yet). But imagine a world where AI and quantum computing can work together to help you solve all the tough decisions, from what to make for dinner to more serious problems like optimizing supply chains and improving healthcare. Quantum computing will likely give us more tools to analyze data in ways that will accelerate advancements across industries. So, if you’re a data scientist, an AI developer, or even someone who’s just into weird food combinations, this could be your future.
  3. Quantum computing isn’t here to replace jobs—but it’s going to evolve them. A lot of folks seem to think that as technology advances, it’s just going to wipe out jobs left and right. But as we’ve seen throughout this series, quantum computing is more likely to change jobs, not eliminate them. We’ll still need human expertise, but now, we’ll have to embrace the technology and learn how to interact with it. From quantum software developers to quantum cybersecurity experts, there are plenty of exciting roles for those who adapt.
  4. Not everyone needs to be a quantum physicist to benefit from it. As we discussed, you don’t have to spend the next 10 years getting a PhD in quantum mechanics to take advantage of this technology. You just need to understand it. There are plenty of tools and frameworks out there that make it easier for anyone, from software developers to data scientists, to start dabbling in quantum computing and applying it to their work.
Graffiti on the side of a yellow newspaper box reading Dream Until Its Your Reality

Quantum Computing in the Real World: What’s Next?

Now, I know we’ve been having a lot of fun with this whole "quantum computing predicting my dinner" concept. But let’s take a moment to zoom out and think about what quantum computing actually means for the real world—and by real world, I mean not just the nerdy, quantum-nerd world where people in lab coats discuss Schrödinger’s cat and quantum entanglement over coffee.

Quantum computing is a technological marvel that promises to reshape industries, solve problems previously thought unsolvable, and accelerate innovation in ways we can’t even fully predict yet. Sure, we're still in the early days, and it’s still a bit like trying to drive a car that’s only partially assembled, but the possibilities are so vast that it's hard to ignore the excitement building up in tech circles, finance, healthcare, and beyond.

So, let’s talk about some real-world scenarios that could be impacted by quantum computing. And no, I’m not talking about using it to decide if you should make chicken soup or macaroni and cheese for dinner (though, come on, quantum-powered dinner decisions would be amazing). I’m talking about game-changing applications that are going to revolutionize how we solve problems.

1. Quantum Computing and Artificial Intelligence (AI)

Let’s start with something that’s already very real—AI. Now, AI is already pretty incredible, but it’s still limited by the speed and processing power of today’s classical computers. Machine learning models can only analyze so much data, make predictions at a certain pace, and execute tasks within the constraints of our current tech.

Enter quantum computing, which has the potential to supercharge AI. By processing multiple possibilities simultaneously, quantum computers can help AI systems analyze massive datasets much faster and more accurately. This means that AI could evolve into something more intelligent, more adaptive, and, ultimately, more helpful.

For example, quantum AI could revolutionize the medical field by analyzing patient data faster to suggest the most effective treatments or predict health issues before they even happen. It could speed up drug discovery, helping scientists find cures for diseases in a fraction of the time it takes today.

In other industries, quantum computing-powered AI could be used to optimize logistics, predict consumer behavior, and help businesses make smarter decisions in real-time. The possibilities? Endless.

2. Cybersecurity: The Quantum Arms Race

We’ve all heard the phrase “data is the new oil,” and it’s not just a catchy slogan—data security is huge right now. With the rise of cloud storage, online banking, and the sheer amount of data being generated every second, the need for strong encryption is more critical than ever. And guess what? Quantum computing is about to shake up the encryption game—both for the better and worse.

Here’s why: Quantum computers are incredibly powerful and can crack encryption methods that are currently considered impenetrable. For example, RSA encryption, which is widely used to secure data, could be cracked in seconds by a quantum computer. This could be a nightmare for cybersecurity professionals who rely on traditional encryption techniques to protect sensitive data.

But hold on—this doesn’t mean all is lost! Enter quantum-resistant encryption, also known as post-quantum cryptography. Researchers are already working to develop new encryption methods that will be safe from quantum computing attacks. In fact, companies like Google and IBM are already experimenting with quantum-safe algorithms to ensure that their systems will remain secure when quantum computers become mainstream.

So, in the real world, cybersecurity is evolving. It’s a race between those who want to protect sensitive data from quantum-powered attacks and those who want to use quantum computing to break into secure systems. The good news is that quantum encryption could actually make the internet safer in the long run—when quantum-safe encryption becomes the standard, it’ll be much harder for cybercriminals to access data, even with quantum technology.

Six syringes with varying colored liquids stuck in a red apple

3. Quantum Computing in Medicine

Here’s where things get really cool. The medical field is on the verge of a quantum revolution. Think about it—right now, the process of discovering new drugs and treatments is a long, tedious, and often random affair. Researchers rely on classical computers to simulate the behavior of molecules, but even with the most advanced supercomputers, the process can take years, if not decades.

With quantum computing, we’re talking about simulating the behavior of molecules at a much faster and more accurate pace. In theory, quantum computers could simulate molecular interactions in real-time, meaning that researchers could find new drugs and treatments much faster. But that's just the beginning. Quantum computing could revolutionize how we approach disease prevention, personalized medicine, and genetic research. This shift could speed up clinical trials, make drug discovery more cost-effective, and accelerate the approval process for life-saving treatments.

But hold on—there’s more! Quantum computing could also help diagnose diseases faster and more accurately. The key here is in the data—particularly the genomic data we currently analyze in the medical field. Quantum systems have the ability to uncover hidden patterns within massive amounts of data—patterns that may not even be visible to traditional computing methods.

For instance, researchers might find a quantum algorithm that accelerates the identification of biomarkers for diseases like cancer or Alzheimer’s. That means doctors could diagnose illnesses earlier, when treatments are more effective, and survival rates are higher. And because quantum computing can model genetic data so efficiently, it could pave the way for breakthroughs in personalized medicine, where treatments are tailored specifically to a patient’s genetic makeup. This could transform healthcare, moving away from the one-size-fits-all approach to something more targeted and effective.

The implications here are staggering. Quantum-powered medicine could help us not only cure diseases but also prevent them in the first place. For example, we might have the ability to predict the likelihood of diseases like cancer, heart disease, or even mental health conditions—long before symptoms even appear. This shift from reactive to preventive healthcare could save countless lives.

From innovative cancer treatments to mental health therapies designed around genetic predispositions, quantum computing in medicine could be a game-changer in the coming decades. Imagine a world where predictive analytics, powered by quantum computers, help us understand the most effective ways to prevent and treat a wide range of health issues—quickly, effectively, and affordably.

This is more than just science fiction. It’s becoming an inevitable future, and with each advancement in quantum computing, we edge closer to transforming healthcare as we know it.

4. The Quantum Future of Energy and Climate Change

Another fascinating area where quantum computing could make a huge impact is in the field of energy and climate change. The world is facing a climate crisis, and we need innovative solutions to address the complex challenges of reducing carbon emissions, optimizing energy production, and making clean energy more efficient.

Quantum computing can help with all of that by improving the efficiency of energy systems and helping us find new ways to generate clean energy. For example, quantum algorithms could optimize the supply chains for renewable energy, helping us better manage the generation and distribution of solar or wind power.

Additionally, quantum simulations could help us design new materials for batteries and solar panels, increasing their efficiency and making them more affordable. And by simulating complex systems, quantum computers could help us better understand climate models and predict climate change with greater accuracy, giving us a better chance of mitigating its effects before it’s too late.

5. Quantum Computing and the Future of Computing

Lastly, we can’t talk about quantum computing without mentioning its ultimate potential to change the very fabric of computing. We’re not just talking about faster computers—quantum computing has the ability to redefine the limits of what computers can do.

Quantum computers are already outpacing classical computers in tasks that involve massive data sets, complex simulations, and optimization problems. In the future, this technology could revolutionize everything from artificial intelligence to space exploration. Think about self-driving cars that are faster, smarter, and can make real-time decisions more efficiently. Or imagine space missions that rely on quantum computers to analyze cosmic data and predict the trajectory of asteroids or interplanetary travel.

As quantum computing becomes more accessible, the internet, our personal devices, and the way we interact with technology will evolve in ways that are hard to predict. Quantum computing is the gateway to a future where the impossible becomes possible, and we can achieve breakthroughs that we’re still only beginning to understand.

A rickety wooden doc stretching into a city's harbor at sunset

Summing Up: Quantum Computing and the Future—It’s All Weird and Wonderful

As we’ve seen, quantum computing is already influencing industries, and the potential for future advancements is absolutely mind-boggling. From cybersecurity to medicine, AI, energy, and even the basic fabric of computing, quantum technology will touch nearly every aspect of our lives. The journey has only just begun, and while it may seem like we’re still at the beginning, the ripple effects will soon be felt everywhere.

And let’s be real for a moment—there’s still a long road ahead before quantum computers are solving world problems and predicting what’s for dinner with flawless accuracy. But here’s what we can count on: The quantum revolution is coming. And whether we’re ready or not, it’s going to shake things up in ways we can’t even begin to imagine yet.

So, the next time you hear about a new quantum breakthrough or you hear the phrase “quantum computer,” don’t panic. Instead, let’s take a deep breath, laugh about the absurdity of predicting dinner with a quantum computer, and embrace this weird and wonderful future together. Because if quantum computing can’t fix dinner, well, maybe it’ll help us make the world a little bit better. And at the end of the day, isn’t that what we all want?

And here we are, at the end of this quirky quantum adventure. If you’ve learned anything from this series (aside from the fact that I have no idea what I’m talking about), I hope it’s that quantum computing isn’t something to be afraid of—it’s something to get excited about. Sure, it’s weird. Yes, it’s confusing. And yes, it might make you feel like you’re losing your grip on reality when you first start to think about it. But it’s also amazing, and it’s going to open up possibilities we can’t even imagine yet.

So, whether you’re using quantum computers to secure data, optimize supply chains, or even just predict what’s for dinner, the future is going to be wild, weird, and, ultimately, wonderful. We’re not quite there yet, but the journey is just beginning. And I, for one, am excited to see where we go next.

Thanks for joining me on this weird, fun, and quantum-filled journey. Stay tuned for what comes next—because when quantum computing is involved, the possibilities are endless, and we’re all in this together.