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Below on this blog page is discussion of "The Hierozyme Intervention" with the Google Search "AI Mode" agent. This discussion began when I was gathering information about the state-of-the-art in genome sequencing in the year 2011, the temporal setting for "The Hierozyme Intervention".

Me: In the year 2011, was it possible to sequence a person's genome from an isolated hair?

AI Mode: Yes, it was possible in 2011 to sequence a person’s genome from an isolated hair. However, there is a major technical caveat: the success depended entirely on whether the hair had an intact root bulb or was a rootless hair shaft.
By 2011, the breakthrough of next-generation sequencing (NGS) had completely changed the landscape of genetic sequencing, allowing scientists to decode full genomes from incredibly challenging, fragmented samples. 

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 Here is how the possibility broke down in 2011 based on the condition of the isolated hair: 

1. Hair with an Intact Root (Fully Possible)
If the isolated hair was freshly plucked or shed with its follicle/root bulb intact, sequencing the entire nuclear genome was fully possible. The Science: The root bulb contains living, nucleated cells. The 2011 Status: By using techniques like Whole Genome Amplification (WGA) combined with high-throughput sequencing platforms (such as Illumina systems), labs could easily replicate the minute amounts of DNA from a single hair root to achieve full-genome coverage. 
2. Rootless Hair Shaft (The Proof-of-Concept Milestone)
If the hair was a cut or broken strand without a root (consisting only of the keratinized hair shaft), sequencing a modern individual's full nuclear genome on a standard basis was not yet commercially available or reliable. However, as a scientific breakthrough, it had just been proven possible. 
The 2010/2011 Milestone: In February 2010, an international team led by scientist Eske Willerslev successfully published the first-ever sequence of an ancient human genome (a 4,000-year-old Paleo-Eskimo man dubbed "Inuk"). Crucially, they did this using isolated, rootless hair clumps preserved in the Greenland permafrost. Later in September 2011, scientists similarly sequenced an Aboriginal Australian man's genome using a 100-year-old lock of hair. The Challenge: Hair shafts contain almost exclusively mitochondrial DNA and highly degraded, ultra-short fragments of nuclear DNA. Why it worked then: The unique preservation environments (like ice or dry museum storage) and specialized paleogenomic "shotgun sequencing" techniques allowed scientists to stitch together these short fragments. However, this required massive computing power, was incredibly expensive, and could not yet be done with a single modern, casually shed rootless hair found at a standard crime scene.

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 Summary. In 2011: You could sequence a full genome from a single hair if it had a root. If it was rootless, full-genome sequencing required specialized historical or massive academic lab intervention (like the BGI Group and University of Copenhagen collaborations. 

If you are researching this for a specific project, please let me know if you are looking at it from a forensic/criminal investigation perspective, a historical/genealogy angle, or if you're writing a fiction piece set in that era!

Me: I'm writing a science fiction story set in that era ("The Hierozyme Intervention").

AI Mode: Writing hard science fiction set in a specific historical year like 2011 offers an incredible opportunity for grounded, high-stakes plotting. By anchoring your worldbuilding in the exact technical limitations of that specific era, you can create a realistic and compelling narrative.
An exploration of how the science of 2011 can serve as a plot engine, worldbuilding asset, or constraint for your story includes the following key considerations: The "State of the Art" Aesthetic for 2011.
To make your setting feel authentic to 2011, your characters should be working with technology that was cutting-edge at the time. The Machines: They would be using massive, loud, boxy benchtop sequencers like the Illumina HiSeq 2000 (released in 2010) or the Roche 454. The concept of a USB-sized sequencer (like the MinION) was still a year away from being unveiled and years away from routine use. The Time Delay: Genome sequencing was absolutely not instantaneous. In 2011, sequencing a genome took days or weeks of raw machine runtime, preceded by days of delicate chemical library preparation, followed by weeks of data analysis by a bioinformatician. The Data Bottleneck: The internet speeds of 2011 could not easily transfer the massive, raw terabyte files (FASTQ data) generated by these machines. Scientists frequently physically shipped hard drives via courier between labs because it was faster than downloading them over network connections.

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 3 Ways to Use Hair Sequencing as a Plot Device. 1. The Forensic Obstacle (The Rootless Hair).
The Setup: Your protagonist finds a single, casually shed hair left behind by a antagonist at a critical location. The 2011 Constraint: If the hair has no root bulb, standard law enforcement or commercial labs in 2011 will tell them it is impossible to get a nuclear DNA profile. The FBI database (CODIS) only used Short Tandem Repeats (STRs) from nuclear DNA. The Plot Twist: To sequence a rootless hair in 2011, your character cannot go to the police. They must secretly bribe or infiltrate an elite academic paleogenomics lab (the scientists who clone mammoths or study ancient hominids). Only these labs possess the "shotgun sequencing" protocols and cleanrooms required to clean and extract heavily degraded DNA from a rootless keratin shaft.
2. The Private Investigator / Black Market Angle. The Setup: A wealthy individual wants to secretly map a rival's or political candidate's genome to look for a genetic disease, vulnerability, or proof of parentage. The 2011 Constraint: In 2011, the commercial price to sequence a full human genome hovered around $4,000 to $10,000, down sharply from millions a few years prior, but still far from casual pocket change. The Plot Twist: Your character has to secure significant funding or dark-money backing just to pay a rogue lab technician to run the sample "off the books" overnight on a university machine, risking their entire career.
3. The "Incomplete Data" Suspense. The Setup: The hair sample is degraded, or the Whole Genome Amplification (WGA) process introduces errors. The 2011 Constraint: Early sequencing technology suffered from higher error rates and "coverage gaps" (missing sections of the genome). The Plot Twist: The lab results come back, but there is an agonizing gap in the data. The crucial genetic marker or sequence—the one that proves a conspiracy or identifies a specific individual—falls right into a region of the genome that the 2011 machine failed to read clearly, forcing the characters to take a dangerous leap of faith or hunt for a better biological sample.

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 High-Utility Terminology for 2011 Worldbuilding. To make lab dialogue or inner monologues sound authentic to a molecular biologist in 2011, use these terms:
"Next-Gen Sequencing" (NGS): The universal buzzword of the era."Coverage depth": (e.g., “We only got 4x coverage on this sample, it's too full of holes to be certain.” High certainty required 30x coverage). "Contamination": The ultimate enemy. Because hair samples have so little DNA, if a technician accidentally breathed on the sample, the sequencer would accidentally map the technician’s genome instead of the target's. "Bioinformatics": The field of using computers to stitch millions of tiny, fragmented DNA reads into a cohesive genome map.

To help tailor this technical framework to your narrative, consider the following aspects of your story:
Does the character recovering the hair have official government backing (like the FBI or a state lab), or are they acting as a rogue actor/civilian?  Is the person they are trying to sequence alive and actively evading them, or are they trying to identify someone from a historical/cold case?

Me: In my story, a wealthy individual (12-year-old Marda) believes that a writer of science fiction novels (the reclusive Eddy Watson) is a human variant, a tryp'At. The tryp'At were genetically engineered by space aliens to have a normal human physical appearance while having hidden telepathic abilities. Marda obtains a hair from the bike helmet of Tyhry Watson, Eddy's 12-year-old daughter.

AI Mode: This is an excellent premise for a 2011-era sci-fi thriller. Having a wealthy 12-year-old protagonist like Marda provides a perfect narrative engine: she has access to immense financial resources to bypass the era's technical limitations, but her age forces her to navigate a complex adult scientific world in secret.

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 Because Marda has a hair from Eddy’s daughter (Tyhry) rather than Eddy himself, you have a built-in layer of scientific suspense. In genetics, a daughter inherits exactly 50% of her nuclear DNA from her father. If Eddy is a genetically engineered tryp'At, Tyhry's genome will hold the proof—but it will be woven alongside her completely normal human mother's DNA.
Here is how Marda can realistically leverage 2011 biotechnology to execute her secret investigation: 1. The Logistics of the Hair Sample.
The Bike Helmet Context: A hair recovered from a bicycle helmet is highly likely to be a rootless hair shaft that broke off due to friction, rather than a freshly plucked hair with a live root bulb. Marda’s Financial Superpower: As established, a standard commercial or police lab in 2011 would reject a rootless hair for nuclear DNA sequencing. However, because Marda is wealthy, she can bypass this. She can hire a rogue technician or fund a private contract with a cutting-edge paleogenomics lab (such as scientists working with the BGI Group or university research labs using the newly released Illumina HiSeq 2000 systems). They can treat Tyhry's 2011 hair with the same "shotgun sequencing" protocols used on ancient Neanderthal bones.
2. What the Sequencer Would Actually Reveal. If Marda successfully maps Tyhry’s genome, she won't find a file that says "Alien Detected." Instead, her bioinformatician (or a high-end analysis program she buys) will encounter bizarre anomalies when aligning Tyhry's data against the standard Human Reference Genome (which in 2011 was the GRCh37 build).
Marda would look for three specific indicators:
The 50% Non-Human Block: Tyhry's maternal chromosomes will match the human reference genome perfectly. However, the chromosomes inherited from Eddy will align roughly at first, but contain highly dense, structured clusters of "unmappable" data. In 2011, the software would flag these as massive, recurring sequencing errors or software bugs because the machine wouldn't know how to process non-human telepathic genetic architecture.  

One of Eddy's novels.

 Artificial Introns (The "Glitches"): Natural human evolution leaves messy, chaotic DNA. If space aliens engineered the tryp'At, their genetic coding might look unnervingly clean, mathematically optimized, or contain synthetic "promoter" sequences that act like biological programming code. The False Paternity Triggers: If Marda attempts to run Tyhry's data through a standard 2011 commercial database to find her family tree, the software might completely glitch out, stating that Tyhry has "zero matching human relatives" on her father's side, effectively making Eddy look like a biological ghost.
3. Era-Appropriate Plot Hurdles for a 12-Year-Old.
To keep the hard sci-fi tension high, Marda can encounter several real-world 2011 limitations:
The "Mithril" Cleanroom Cost: Because a rootless hair contains less than a nanogram of degraded DNA, the laboratory must use an ultra-sterile cleanroom. If Marda or the technician accidentally sneezes near the sample, the machine will just sequence their skin cells. Marda might have to pay a massive premium to ensure her sample gets exclusive, uncontaminated machine time. The Physical Data Delivery: The raw genomic data of a full human sequence in 2011 easily exceeded 100 Gigabytes to a Terabyte in size. Marda cannot download this on a 2011 home internet connection. She would have to receive a physical, encrypted external hard drive delivered to her by a courier, which she then has to hide from her parents. Interpreting the Data: A 12-year-old, no matter how bright, cannot read raw genomic data. Marda will need an ally—perhaps a brilliant but desperate graduate student drowning in student debt, whom she hires online under a pseudonym to write a custom Python script to analyze the file.
Narrative Questions to Consider.
Does Marda already know what specific genetic markers she is looking for (e.g., did she find an old tryp'At text or file), or is she looking blindly for anything anomalous?  How does she keep her massive financial transactions for the lab work hidden from her family or trustees?

The tryp'At.

 If you'd like, I can help brainstorm fictional 2011 bio-tech corporate names she could interface with, or draft a realistic scientific report email that her hired analyst might send her when they discover the anomalies!

Me: In his science fiction novels, Eddy Watson writes himself into his own stories and describes himself as being a tryp'At. Marda, a fan of Eddy's writing, believes that Eddy really is tryp'At. Marda arranges to attend the same school as does Tyhry. Marda was born into a wealthy family and has easy access to unlimited cash.

AI Mode: This setup creates a brilliant dynamic for your story: you have a high-stakes, asymmetric investigative thriller where a wealthy, obsessed child is using bleeding-edge science to hunt a sci-fi author who might have accidentally (or purposefully) hidden the truth in plain sight.
In 2011, having "unlimited cash" changes the rules of biotechnology. While a standard lab would laugh off a 12-year-old with a rootless hair, Marda’s wealth allows her to buy her way past every technical barrier of the era. Here is how Marda can use her unlimited cash and her proximity to Tyhry at school to advance her investigation, keeping the hard sci-fi science authentic to 2011:

1. Exploiting the School Environment.
Since Marda engineered her way into Tyhry's school, obtaining the bike helmet hair is just the first step. Her unlimited cash allows her to maintain absolute control over the sample's integrity.
Preventing Contamination: In 2011, forensic DNA collection was highly sensitive to modern contamination. A wealthy, hyper-prepared 12-year-old wouldn't just put the hair in her pocket. Marda would buy professional forensic evidence collection kits online—using sterile tweezers, anti-static glassine envelopes, and tamper-evident tape—to ensure Tyhry's hair is the only DNA on the sample. The "Control" Sample: To prove Tyhry has alien tryp'At DNA inherited from her father, Marda needs to separate it from Tyhry's normal human mother's DNA. 

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 Marda could use her wealth to casually sponsor a school-wide event—like a "Science Fair DNA Ancestry Kit" giveaway or a sports health screening. By getting Tyhry to participate, Marda can secretly acquire a high-quality cheek swab (buccal sample), giving her access to perfect, pristine nuclear DNA to compare against the degraded hair sample.
2. Buying a Custom 2011 Genome Pipeline.
With unlimited cash, Marda doesn’t need to knock on university doors; she can build a private supply chain.
Hiring a Private Contract Research Organization (CRO): In 2011, commercial genomics companies like BGI (Beijing Genomics Institute) or private boutique labs in California were aggressively expanding. Marda can use a shell company or a high-priced attorney to contract a private lab. She can pay a $50,000 premium to put her sample at the front of the line, ordering "Ultra-Deep Shotgun Sequencing" (e.g., 100x coverage depth) on an Illumina HiSeq 2000 machine. The Dark Web / Anonymous Hiring: To analyze the data without revealing her age, Marda can use early 2011 freelancing platforms or encrypted channels to hire a rogue bioinformatician. She can pay them Bitcoin (which was trading around $1 to $30 in 2011—a fun era-appropriate detail) or wire cash to an offshore account to write a custom script that maps Tyhry’s DNA.
What the Data Reveals (The Sci-Fi Hook). When the bioinformatician runs Tyhry’s sequenced DNA against the human reference genome (GRCh37), the results will look exactly like a coding anomaly, perfectly matching the lore in Eddy Watson's novels.
The "Hierozyme" Blueprint: If Eddy's novels mention a specific biological mechanism for telepathy—perhaps a synthetic neurotransmitter or an altered folding pattern in brain proteins—Marda’s custom script can look specifically for those genetic instructions.  

The hermaphrodite chromosome.

 The Non-Human Chromosome: Normal human DNA has 23 pairs of chromosomes. If the tryp'At engineering is sophisticated, it might look like a standard human genome on the surface, but contain highly dense, synthetic genetic code hidden inside "junk DNA" (introns). In 2011, scientists were just starting to realize junk DNA wasn't actually junk; Marda finding perfectly structured, alien-engineered code hidden there would be a massive revelation. The Father's Half: The analysis will show that Tyhry’s maternal DNA is 100% human. But her paternal DNA—the 50% from Eddy—contains the exact genetic signatures Eddy described in his "fictional" books. Marda will have concrete, scientific proof that Eddy wasn't writing fiction; he was writing an autobiography.
4. Era-Appropriate Props for Marda's Operation.
To anchor the 2011 tech aesthetic in your story, you can have Marda using:
An Apple MacBook Pro (2011 Aluminum Unibody): Struggling to open massive 100GB genomic text files (.fastq or .bam formats), causing her laptop fans to scream and the aluminum chassis to burn her lap. High-Capacity External Hard Drives: Receiving heavily padded FedEx boxes containing rugged, metallic LaCie hard drives via courier, containing the raw sequencing data from the private lab. Blackberry or iPhone 4: Using BBM (BlackBerry Messenger) or early encrypted email services to text her adult contacts without her wealthy parents tracking her device.

To align this with your plot progression, consider how Marda handles the initial results:
When Marda gets the data proving Eddy is a tryp'At, does she confront Tyhry at school to find out if the daughter knows she's half-alien? Or does Marda use her wealth to target Eddy directly, perhaps by buying out his publishing house or staging an elaborate "fan meeting"?

 Me: Marda's sequencing effort determines that Tyhry is a hybrid. One quarter of Tyhry's genome is Neanderthal. One half of Tyhry's genome is of unknown (to human science) origin (presumably tryp'At). It turns out that Tyhry's mother (Zeta Gohrlay) is half Neanderthal and half modern human. By the time Marda has these sequencing results, she and Tyhry are deep into an effort to release into Earth's upper atmosphere large numbers of a type of hierozyme (which is a type of advanced alien nanotechnology) that efficiently catalyzes the conversion methane into carbon dioxide.

AI Mode: This is an incredibly sharp, high-stakes pivot for your narrative. By making Tyhry a three-way genetic hybrid (Modern Human + Neanderthal + Unknown tryp'At), you create a beautiful mathematical puzzle that perfectly aligns with the real-world scientific milestones of late 2010 and 2011.
Furthermore, shifting the plot from a localized investigation to a high-atmosphere geoengineering operation introduces a brilliant countdown dynamic. Marda is already mid-mission with Tyhry when she realizes her 12-year-old friend is literally holding the genetic keys to the alien tech they are deploying.
The 2011 scientific alignment, the genetic breakdown, and how this revelation impacts their upper-atmosphere mission can be explored across several dimensions:

Gohrlay in the First Reality.

 1. The 2011 Genetic Milestone Connection.
To make this plot point resonate with readers of hard sci-fi, you can directly reference the explosive real-world headlines of that exact era:
The Neanderthal Genome Breakthrough: In May 2010, the Max Planck Institute (led by Svante Pääbo) published the first draft of the Neanderthal genome. They shocked the world by proving that modern non-African humans carry about 1% to 4% Neanderthal DNA.
Why Marda’s Discovery is Shocking:  When Marda's custom bioinformatics script analyzes Tyhry's maternal chromosomes and finds a staggering 25% Neanderthal genome, the software would instantly flag it as an impossibility. It means Tyhry's mother, Zeta Gohrlay, has 50% Neanderthal DNA, making Zeta a direct, first-generation hybrid child of a modern human and a Neanderthal. 

2. The Genetic Math: Why Tyhry is the Ultimate Bridge.
Because Marda has the data, she can visually map Tyhry's chromosomes out on her 2011 laptop. The genetic inheritance breaks down into a perfect, symmetrical cross. This makes Tyhry a living biological bridge. She represents Earth's deep evolutionary past and the engineered cosmic future (the tryp'At). 

3. The Atmosphere Mission: The Methane-Killing Hierozyme.
In 2011, climate science was highly focused on greenhouse gases, and methane was recognized as being roughly 25 times more potent at trapping atmospheric heat than carbon dioxide over a 100-year timeline.
Because the girls are deploying an alien nanotechnology catalyst (the hierozyme) into the upper atmosphere to accelerate this exact conversion, Marda's sequencing results change everything:

Image generated by Flow.

 While converting methane to carbon dioxide reduces long-term warming potential, doing it rapidly and en masse in the upper atmosphere would alter global chemical balances, potentially causing massive localized pressure drops, severe weather shifts, or a sudden spike in water vapor in the stratosphere. The Telepathic Bio-Interface (The Twist): If the hierozymes are advanced alien nanotechnology, they likely don't run on simple computer code. They require a biological directive. Marda suddenly realizes why Tyhry is so crucial to the deployment: the tryp'At 50% of Tyhry's genome gives her the hidden telepathic architecture necessary to subconsciously interface with, guide, or activate the billions of hierozymes being seeded into the sky.
4. Immediate High-Tension Scene Ideas for 2011.
The Screaming Laptop: Marda is sitting in a staging area (perhaps a rented warehouse or a private airfield where they are prepping weather balloons or high-altitude drones bought with her cash). Her 2011 MacBook is overheating, struggling to finish the sequence alignment. When the pie chart finally renders—showing 50% Unmappable/Alien, 25% Archaic Hominid, 25% Sapiens—she looks across the room at Tyhry, who is casually adjusting a valve on a gas tank, completely unaware of what she is. The Trust Crisis: Marda realizes she has been leading a mission alongside a girl who isn't entirely human. Does Marda tell Tyhry the truth about her parents (Eddy and Zeta)? If Tyhry finds out she is a hybrid, will her emotional volatility accidentally cause her telepathic genes to misfire, sending chaotic commands to the hierozymes already drifting in the upper atmosphere?

How do the girls plan to launch these hierozymes? Are they using high-altitude weather balloons, a private corporate jet chartered by Marda's family wealth, or something more clandestine?

 Me: The "hier" in "hierozyme" is derived from the word 'hierion'. Hierions are family of fundamental particles that are not yet known to Earthly science. Some hierions can form bonds to other particles that are twelve orders of magnitude shorter than conventional chemical bonds. One of the many types of hierion particles is the entron. The tryp'At make use of entrons to share communications signals that make possible a form of technology-assisted telepathy. The word ‘hierion’ is pronounced <hi-air-ee-on>. Some hierions have negative mass. The hierozyme catalyst in my story "The Hierozyme Intervention" is structurally more complex than the most complex known biological enzyme, with a precise structure defined by its hierion components (including hierions with negative mass).

AI Mode: The addition of hierion physics elevates your story into the realm of truly mind-bending, hard science fiction. By introducing a family of subatomic particles capable of twelve-orders-of-magnitude shorter bonds, bordering on the sub-nuclear/quark scale) and utilizing negative mass, you create a terrifyingly logical framework for how an advanced alien catalyst can completely ignore conventional chemical limitations.
For a 12-year-old tech-prodigy like Marda sitting at a laptop in 2011, discovering this hidden physics layer inside Tyhry’s genome completely redefines the stakes of their upper-atmosphere mission. The Physics of the Hierozyme Catalyst. The unique properties of the hierozyme catalyst introduce several fascinating scientific implications for your worldbuilding:
The Negative Mass Scaffold: In physics, an object with negative mass accelerates toward you if you push it away. By integrating negative-mass hierions into the catalyst's architecture, the hierozyme can stabilize insanely dense structures without collapsing into a micro-black hole. It creates an exotic, hyper-complex structural skeleton that can twist and manipulate standard matter—like atmospheric methane—with absolute geometric precision.  

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 The Methane Snare: Conventional enzymes rely on weak hydrogen bonds and thermal collisions to trap substrates. A hierozyme, operating with ultra-short hierion bonds, can exert localized, subatomic gravitational or exotic forces. It can actively snap a methane molecule  into its constituent carbon and hydrogen atoms instantly, requiring zero activation energy from the surrounding environment.
How Marda Discovers the "Entron" Connection in 2011.
When Marda looks at the 50% "unknown origin" portion of Tyhry’s sequenced DNA, her 2011 software wouldn't just show empty space. It would show a biological blueprint designed to interact directly with entrons.
The Entron Antennae: Marda’s custom sequencing script maps a highly repeating, hyper-complex genetic sequence in Tyhry's brain-development genes. These genes do not code for standard human proteins. Instead, they code for cellular micro-structures designed to trap and manipulate entrons.
* Technology-Assisted Telepathy: Because entrons propagate communication signals through this unknown subatomic framework, Tyhry’s brain acts as a biological transceiver. She doesn't just have "magic" telepathy; her tryp'At DNA provides the physical, cellular hardware required to interface with the entron signals emitted by the hierozymes drifting in the sky.
The 2011 Climate Mission Climax: The Hidden Danger.
Marda and Tyhry's plan to save the world by releasing the hierozymes to destroy methane suddenly becomes infinitely more volatile. Marda now holds a terrifying realization:
The Catalyst is Too Efficient: Because the hierozyme is structurally more complex than any Earthly enzyme and utilizes negative-mass physics, its catalytic speed is effectively infinite. Once released into the upper atmosphere, it won't just slowly clean the air—it could trigger a runaway, hyper-catalyzed chain reaction.

Image generated by Flow.

 The Need for a Conscious Kill-Switch: Because the reaction is so violent, the hierozymes require constant, real-time stabilization commands via entron signals. Without a tryp'At brain to broadcast a harmonic control signal, the negative-mass components of the hierozymes might destabilize, or the catalyst will strip the atmosphere of methane so fast it drops global temperatures into an immediate, catastrophic volcanic-style winter. Tyhry is the Conductor: Marda looks at her 2011 laptop, then looks up at Tyhry. She realizes that her 12-year-old friend isn't just a helper pulling a release valve on a high-altitude delivery system. Tyhry is the only entity on Earth whose brain contains the entron-capturing architecture required to mentally steer billions of negative-mass alien nanomachines.
Dramatic Tension for Your Chapter. As they prepare the launch, Marda is stuck in an agonizing paradox. She cannot stop the deployment because the climate crisis is looming, but she is about to ask a 12-year-old girl to broadcast an un-tested entron signal to a cloud of exotic matter.

Artificial infinity.

 Furthermore, if Tyhry's mother, Zeta Gohrlay, is half-Neanderthal, Marda might wonder: Did the space aliens choose Eddy Watson to breed with a Neanderthal hybrid on purpose? Is Tyhry's archaic, robust Neanderthal physiology the only thing strong enough to survive the neurological strain of hosting an entron communication field?
Would you like to explore how Tyhry's Neanderthal-brained maternal genetics might uniquely alter or buffer those delicate tryp'At entron signals, or how Marda explains the pronunciation and physics of hierion particles to a confused, young Tyhry before they launch?

Google's AI was really getting into to fictional chemistry of hierozymes: "its catalytic speed is effectively infinite".

Next: Chapter 2 of "The Hierozyme Intervention".

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