I have been attacked for various things. It is incredibly draining and demoralizing to feel as though you are constantly under fire, especially when those attacks target your interests, your voice, or your way of engaging with the world. Whether those encounters happen in online forums, professional settings, or elsewhere, being met with hostility instead of dialogue leaves you feeling isolated and defensive. When you are passionate about a subject like physics but don't hold the "credentials" the community demands, it can feel like your right to be curious is being questioned. It’s important to remember that these negative reactions often have far more to do with the insecurities, gatekeeping tendencies, or rigid thinking of those attacking you than they do with the validity of your thoughts. When you’ve been subjected to that kind of treatment, it’s natural to feel like you have to build a protective wall around your ideas. However, that can also keep you from sharing the very insights or creative perspectives that might actually be valuable.

I have no physics degree, but that doesn't mean you people ought to totally ignore me.

Call me a failure but I got this going: The Large Hadron Collider is being upgraded so that it can unlock the secrets of the Higgs boson Published: July 17, 2026 4:53am EDT Share article Print article Deep beneath the French-Swiss border, the world’s largest scientific instrument has fallen silent. After years of smashing proton particles together at nearly the speed of light, Cern’s Large Hadron Collider (LHC) has stopped operations and entered a long shutdown. While no particle collisions are taking place at the LHC, thousands of scientists, engineers and technicians are dismantling parts of the machine, installing new technologies and preparing one of the most ambitious upgrades ever attempted in experimental physics. When it switches on again, around 2030, it will become the High-Luminosity Large Hadron Collider (HL-LHC), capable of delivering roughly seven times more data than the collider that discovered the Higgs boson. For me, this shutdown marks another milestone in a project that has shaped much of my scientific life. I first became involved in the High-Luminosity collider long before the Higgs boson particle was discovered in 2012. Over nearly two decades I have had the privilege of contributing to the programme on both sides of the Atlantic. In the United States, I served as upgrade coordinator for the Compact Muon Solenoid (CMS), a key experiment at the LHC. The CMS is built at one of the points within the Large Hadron Collider where separate beams of proton particles collide. CMS then captures data from these collisions so that it can be analysed by Cern physicists. I helped lead the international effort preparing CMS for the HL-collider era. Today, in Oxford, I work on another LHC experiment called Atlas. Atlas and CMS work in broadly similar ways, but having two machines like this helps ensure significant discoveries by one experiment are cross-checked by a counterpart with a separate team of scientists. Here, my colleagues and I are building silicon pixel detector modules for its upgraded inner tracker. This will form a vital part of the HL-LHC upgrade. How The Conversation is different: Accurate science, none of the jargon Find out more Daniela Bortoletto with one of the first detector rings built for the new Atlas pixel tracker for the High-Luminosity Large Hadron Collider (HL-LHC).Daniela Bortoletto with one of the first detector rings built for the new ATLAS pixel tracker for the High-Luminosity Large Hadron Collider (HL-LHC). Daniela Bortoletto with the silicon tracker for the High-Luminosity LHC. Daniela Bortoletto A few months ago, I watched the first complete pixel ring assembled in Oxford. It was strikingly beautiful: a delicate arrangement of silicon sensors, electronics and support structures whose elegance reflected years of painstaking engineering. For the first time, the detector we had imagined through countless design reviews, prototypes and production meetings had become real. Our contribution is just one part of a detector being built by teams across the world. Thousands of components must come together before the High Luminosity collider is ready to explore a new frontier in particle physics. The LHC has already transformed our understanding of nature. Its discovery of the Higgs boson confirmed the mechanism that gives elementary particles their mass. The Higgs had been the last missing piece in the standard model of particle physics. This is the best theory to explain elementary particles and the three fundamental forces that govern their interactions. But, as is often the case in science, answering one question opened many others. Investigating the Higgs Many of the most important questions now are no longer about whether the Higgs exists, but whether it behaves exactly as predicted. Tiny deviations from the standard model could point towards entirely new particles or forces. Such discoveries would help us understand mysteries such as dark matter or why the universe contains far more matter than antimatter. The challenge is that these clues are incredibly subtle. Rather than requiring much higher collision energies, they demand vastly more collisions. The HL-LHC will increase the collider’s luminosity – the number of proton collisions it produces – by about a factor of seven over its lifetime. The Atlas experiment at the Large Hadron Collider. The Atlas experiment will be used to study the detailed behaviour of the Higgs boson. Steven Goldfarb / Cern Imagine replacing a camera that takes one photograph every second with one that captures seven. Each image looks much the same, but together they reveal details that would otherwise remain invisible. For Higgs physics, that extra data will be transformative. The Higgs boson is remarkably elusive. Some of its most interesting decays – where it transforms into other particles – are so rare that they have remained just beyond the reach of today’s LHC. Others have only recently emerged as tantalising hints. One example is the decay of the Higgs boson into two muons (a muon is an unstable, subatomic particle). This decay is a rare process that tests whether the Higgs couples to second-generation lepton particles. Another is the decay of the Higgs into charm quark particles. This is one of the most difficult Higgs measurements because it must be extracted from an overwhelming background of ordinary particle collisions. A visualisation of the Higgs boson particle decaying to two muons inside the Atlas experiment. A visualisation of the Higgs boson particle decaying to two muons inside the Atlas experiment. Atlas / Cern These processes test one of the Higgs boson’s most fundamental properties: whether it interacts with lighter particles exactly as predicted by the standard model. Any deviation from those predictions, even a small one, could be evidence that new particles or forces are influencing the Higgs behind the scenes. And perhaps the most ambitious goal of all is observing Higgs boson pairs, which would allow us to measure, for the first time, the Higgs self-coupling – the strength with which the Higgs field interacts with itself. That interaction determines the shape of the Higgs field that fills all of space and is thought to have played a key role in the evolution of the universe moments after the Big Bang. These are exactly the kinds of measurements that motivated the design of the upgraded LHC. Achieving them requires a revolution not only in the accelerator itself but also in the detectors that record the collisions. Particle web At the High Luminosity LHC, every crossing of the proton beams will produce up to 200 simultaneous proton-proton interactions, several times more than today. Untangling this dense web of particles demands detectors that are faster, more precise and far more resistant to radiation than anything built before. At the heart of the Atlas and CMS experiments, entirely new silicon tracking detectors are replacing the existing ones. They must survive radiation levels that would quickly destroy previous generations of sensors while measuring particle trajectories with extraordinary precision. Achieving this has required years of advances in silicon sensor technology, ultra-fast electronics, cooling systems and lightweight mechanical structures. One of the most innovative features of the upgraded detectors is the addition of precision timing. New timing detectors – the High Granularity Timing Detector in Atlas and a similar system in CMS – will measure the arrival time of particles with a precision of only a few tens of trillionths of a second. Although hundreds of collisions occur almost simultaneously, they do not happen at exactly the same instant. By adding time as a fourth dimension to particle tracking, these detectors will allow physicists to associate each particle with the correct collision, making it possible to reconstruct rare Higgs events hidden within an enormous background of overlapping interactions. One of the greatest rewards of working on these detectors is seeing the next generation of physicists preparing to use them. The students helping to assemble today’s detectors will spend much of their careers analysing the data they eventually collect. When the HL–LHC begins operating, it will not simply extend the scientific programme of the Large Hadron Collider. It will usher in a new era of precision Higgs physics. Whether it reveals subtle cracks in the standard model or confirms our current understanding with unprecedented accuracy, it will shape particle physics for decades to come.

I failed, but I tried, oh well: So, it has some obvious glaring flaws?Yes, it has several fatal, glaring flaws that disqualify it as a legitimate physics framework. While the text uses sophisticated words to mimic scientific papers, the underlying logic falls apart immediately under peer-level scrutiny.Here are the most obvious, fundamental flaws:1. It Treats a Mathematical Convention as a Physical MechanismThe most glaring error is using the empty product rule (0! = 1) to prove "boundary closure."The Reality: In mathematics, 0! = 1 is just a shorthand convention defined so that probability and algebraic formulas don't break down when a set is empty.The Flaw: The UCM treats this administrative definition as if it were a physical force or a topological anchor. You cannot use a purely definitional rule from combinatorics to force the physical universe to "fold back on itself."2. A Fatal Dimensional MismatchThe foundational axiom states: Spacetime = f(τ), where \(\tau \in [-1, +1]\).The Reality: Spacetime is a four-dimensional manifold requiring four independent coordinates (x, y, z, t).The Flaw: The model maps a single scalar number (τ) to a single scalar output (f(τ)). A single number cannot represent a 4D landscape. Saying a simple function "yields spatial degrees of freedom" is a hand-waving statement that skips the actual coordinate geometry needed to build a universe.3. Misapplied Parity (Reflection Symmetry)The text claims that because f(-τ) = f(τ), an antimatter universe must exist along the negative axis to solve the Baryon Asymmetry Problem.The Reality: Parity in physics relates to spatial coordinates, while Charge Conjugation relates to matter and antimatter.The Flaw: Simply changing a time variable from positive to negative in a mirror-symmetric function does not automatically generate "antimatter." It just traces the same values in reverse. It completely confuses geometric reflection with quantum particle charges.4. It Predicts Nothing and Explains NothingA valid physics model must make precise, quantifiable, and testable predictions.The Flaw: The UCM states that events within its loop are "globally determined," claiming this easily explains Quantum Entanglement and Retrocausality. However, it provides no actual mechanism or equations showing how two entangled particles communicate their states. It just uses the word "determined" as a magical catch-all.If you want to refine this for a science fiction story, you could lean into the idea of a "looping causal matrix." If you want to make it sound more like real, cutting-edge 2026 physics, we could explore how theorists actually use conformal cyclic cosmology or holographic boundaries to solve the singularity problem. Which direction would you like to take?

Now, the command to "be optimistic, even with bitterness" makes perfect sense. You don't have to look at a harsh, unfeeling universe and pretend it is nice. You can acknowledge the bitterness of the world as it is. But your optimism doesn't come from the universe; it comes from the knowledge that humanity is fundamentally cared for by a Creator who sees our internal struggles and refuses to let us be erased