Support me this summer in the Clarion Write-A-Thon and help raise money for the Clarion Science Fiction and Fantasy Writers' Workshop! This summer, I'm writing The Reverse-Centaur's Guide to AI, a short book for Farrar, Straus and Giroux that explains how to be an effective AI critic.
It's been a year since Project 2025 became national news. At the time, I cited the great Rick Perlstein, an expert on the history of the conservative movement, who said that the most important thing about the P2025 document wasn't its extreme plans, but rather, it's total incoherence:
You see, Project 2025 isn't just one roadmap for turning America into a doomed, corporate/christofascist hellscape: it is several such roadmaps, with many policy prescriptions that directly and violently contradict each other.
For Perlstein, this was both revealing and important. Like all successful political campaigns, Trumpism is a coalition. Coalitions form when groups of people set aside their disagreements and join together. Virtually every important political change is downstream of a coalition.
The easiest kind of coalition to form is an oppositional one, where groups agree on what they don't want, without agreeing on what they do want. Think, for example, of the Andrea Dworkin wing of the feminist movement making common cause with Jerry Falwell to oppose pornography. Obviously, these people have a completely irreconcilable goals for what they want, but when it comes to porn, it's easy for them to agree on what they don't want.
That's fine when you're waging the campaign against something, but if you happen to win that campaign, you're in trouble. That's when the fight starts over who will get their way. That's the moment when winning coalitions become bitterly divided:
Now, some of these conflicts matter more than others. The least politically connected, least sophisticated (and most numerous) members of the conservative coalition have long been mollified by performative acts of cruel racism and gender discrimination. These could be enacted without any real impact on the power-players in the coalition, since they were insulated from discriminatory lending and hiring, immune to police violence, and could skip to another state or country to get abortion care, hire sex workers, etc. No one is ever going to deny Peter Thiel a mortgage, no matter how many twinks he bangs. Ted Cruz's daughter will always be able to get an abortion, no matter what Texas or federal law states. Clarence Thomas doesn't have to worry about getting pulled over because he "fits the description." As Wilhoit's Law says:
Conservatism consists of exactly one proposition …There must be in-groups whom the law protects but does not bind, alongside out-groups whom the law binds but does not protect.
Project 2025 is an anthology, edited by the Heritage Foundation, collecting the post-victory aspirations of the most important members of the Trump coalition. As anthologists, Heritage's job was to choose which submissions to include and which ones to reject. Perlstein's key insight is that wherever Heritage included two or more directly contradictory plans in Project 2025, we can infer the groups that submitted those plans are each too powerful and important to sideline – they are equally matched combatants, and it's impossible to predict which one will get their way and which ones will eat shit in the aftermath of a victory.
There were so many contradictions in Project 2025: immigration policy, military policy, trade policy, monetary policy, tax policy, and more. As Perlstein pointed out, Project 2025 was a 900-page roadmap to the future fracture lines in the Trump coalition. These were the places where the opposition could break off parts of Trump's base, in the same way that Steve Bannon has been doing to the progressive movement (also an easily fractured coalition).
Since Trump won the presidency, House and Senate, he has done a remarkable job of keeping this brittle coalition together through a mix of flattery and bullying. But the fact remains that Trump's most important factions hate each other and are gunning for one another, and whenever Trump chooses one faction to win and another to lose, the losers are prone to turning on him:
Trump's lifelong strategy has been to race across a succession of rivers on the backs of alligators without losing a leg. He is the undisputed all-time historical champion of this bizarre sport, but no one can win that race forever, and your first loss is a career-ender.
I think a lot of people – including Trump allies – understand this, at least at a gut level. That's why the Epstein stuff is so huge now. It's impossible to overstate the extent to which the Trump base is organized around conspiratorial beliefs about elite pedophile rings:
These beliefs are a stand-in for an overall rage against elite impunity, the two-tiered system of justice that lets the powerful get away with anything. The sexual abuse of children is such a viscerally offensive crime, so the idea that rich and powerful people are getting away with it carries a lethal charge.
Conspiracy fantasies have their roots in traumatic reality. Without a long list of US military cover-ups, there'd be no room for UFO conspiracies. The credibility of antivax ("pharma companies want to kill you and regulators want to help them") is rooted FDA's failure to prevent the opioid crisis, and the million Americans who died as a result:
Conspiratorialism is a cognitive failure that occurs when you blame systemic problems on individuals. That's why they call antisemitism "the socialism of fools" – it's what you get when you blame Jewish bankers, rather than the finance sector's class warfare, for your problems:
Conspiratorialists have the right feeling, but the wrong facts. If you hate elite impunity, you should be furious about the Supreme Court ruling that presidents have "absolute immunity" from prosecution for the crimes they commit in office. But bad actors can exploit the failures of the conspiratorial mindset to make people who are legitimately enraged by elite impunity to direct that rage at imaginary "cultural Marxists" at universities.
As Naomi Klein writes in Doppelganger, the right lives in a "mirror world" where child abuse is confined to largely imaginary children in nonexistent pizza parlor basements, while actual kids in Florida concentration camps, or border detention cages, or meat-packing plant night shifts, or living in hunger and without a home, are ignored:
It's not hard to understand why Trump wants to suppress the Epstein files. He had a long friendship with Epstein, and spoke glowingly of Epstein's taste in "beautiful women…on the younger side." Trump sent Epstein lewd drawings and imaginary dialogues about Epstein's "wonderful secret":
Not only that, it's likely that many of Trump's most important supporters were directly complicit in Epstein's crimes (participating in the rape of young women and girls) and indirectly complicit (covering up these crimes and helping to launder Epstein's money).
Can Trump convince the conspiratorial wing of his coalition that Epstein is a "nothingburger" and a fabrication of Biden, Obama, the Clintons, Emmanuel Goldstein and Snowball?
It's not impossible. As The American Prospect's Ryan Cooper points out, conspiratorialists possess an incredible ability to "believe just about anything, even if it literally kills them—witness, for instance, the unvaccinated Texas GOP official who was posting anti-vaccine memes on Facebook right up until he died of COVID":
But so far, the signs are not looking good for Trump. Writing for Wired, Jake Lahut speaks to many high-ranking Trump advisors, past and present, anonymous and named, who are concerned about the mounting fury from Trump's conspiratorial base:
As Lahut writes, Trump is flubbing this badly, but there may be no way for him to resolve the Epstein affair to the satisfaction of his base. They were already primed to be suspicious of whatever story they were presented with, and this latest incident all but guarantees that they will not accept whatever material Trump is eventually arm-twisted into releasing.
And that's not even the biggest disappointment Trump's conspiratorialists will confront. Trump has no intention of changing the system to make life better for this Christmas-voting turkeys. Arresting 11 million immigrants and any number of US citizens who fit the description will not help these people with their very real, material problem. Nor will banning abortion, giving tax breaks to the ultra-rich, or defunding the police at the CFPB who were in charge of shutting down rip-off artists at payday lenders, big banks, cryptocurrency exchanges, etc. So these people can only ever get angrier.
But the conspiratorial base isn't the only Trumpland faction that is being forced to eat shit after Trump's victory. In another Wired story, David Gilbert presents a snapshot of the pieces of the Trump coalition that have broken off, or are hanging by a thread:
There's Joe Rogan, who thinks (correctly) that Trump's immigration raids are unforgivably cruel:
https://www.youtube.com/watch?v=WfmrEa0L08E
And there's Elon Musk, who is (correctly) furious that Trump wiped his ass with his promise of a balanced budget so he could hand trillions to the richest people in the history of the human race:
Each of these people is an avatar for a bloc in the Trump coalition, and they reflect the fury of the people who stand behind them. This is as Rick Perlstein prophesied a year ago: these groups hate each other and the only way for some of them to get what they want is for others to be totally betrayed.
Trump has been racing over those alligator-backs for so long now, it can sometimes feel like he'll never miss a step. But he's one snap away from losing a leg, and after that, it'll be a bloodbath.
If you'd like an essay-formatted version of this post to read or share, here's a link to it on pluralistic.net, my surveillance-free, ad-free, tracker-free blog:
laudna giving ashton the doll is one of the most beautiful moments of all 3 campaigns. like. the vulnerability. the drama. the sweet moment of imogen reaching out to comfort ashton even though she’s still mad. don’t even get me started on the journey of emotions on both matt and ashley’s faces. it’s just perfection
Grade 3 (severe) — complete tear — recovery in 6–12 weeks, may need surgery
Ankle sprains (most common sprain, period):
Grade 1–2 → can still bear weight with crutches
Grade 3 → immobilization needed
swelling peaks 24–48 hrs, bruising shows up 2–3 days later
re-injury risk lingers for 6+ months
Wrist sprains — underrated for hurt/comfort because even a mild one wrecks fine motor stuff (typing, writing, holding things) for 1–2 weeks. Immobilization matters a lot here.
Functional limitations:
ankle → walking hard for 2–4 wks, running out for 4–8 wks
Visible bruising heals in 2–4 weeks, but the deep tissue damage can outlast that. Face/head bruises look worse but heal faster than limb ones (gravity + movement slow things down).
venous bleeding (dark red, steady) = pressure usually works
letting go of pressure too soon = it starts again
Burns
1st degree — epidermis only, red + painful, no blisters, heals 3–6 days, no scarring (think sunburn). Pain peaks at 24–48 hrs.
2nd degree — hits the dermis, blistering + swelling + real pain, heals 2–3 weeks, infection risk if blisters pop, can scar if that happens.
First aid:
cool (not ice-cold) water for 10–20 min, ASAP
the first 3 minutes of cooling make the biggest difference — after that, diminishing returns
never ice directly (ice burn is a thing)
loose clean bandage, no petroleum jelly (traps heat)
Pain is worst in the first 24–48 hrs, usually peaking day 2–3.
Concussions
A concussion = mild TBI from a hit/jolt that makes the brain move around inside the skull. Most people recover in 2–4 weeks, though some symptoms drag on longer.
Grade 1: no loss of consciousness, confusion <15 min, can return to activity same day if cleared
Grade 2: no LOC, confusion 15+ min, no same-day return, needs medical eval
Grade 3: any LOC = immediate medical attention, possible hospitalization
Red flags — get emergency care: repeated vomiting, LOC over 30 sec, worsening headache, fluid/blood from nose or ears, uneven pupils, seizures, severe confusion
Recovery
First 48 hrs: physical and mental rest (yes, that means less screen time), good sleep, acetaminophen/ibuprofen for headache
Week 1–2: light activity only (stationary bike, walking), no worsening symptoms
Week 2–4: gradual return to school/work/sports
Return-to-sport is a 6-step ladder, 24 hrs per step, and you go back a step if symptoms return:
symptom-limited activity → 2. light aerobic → 3. sport-specific drills → 4. non-contact training → 5. full-contact practice → 6. back to competition
Long-term
Post-Concussion Syndrome: symptoms lasting 3+ months, affects 10–15% of patients
Second Impact Syndrome: rare but can be fatal — happens when a second concussion hits before the first has healed. Full recovery before returning to contact activity is the only real prevention.
CTE: degenerative condition from repeated head trauma — memory loss, mood changes, progressive decline. Currently only diagnosable after death.
Risk factors for a slower recovery: younger age (especially teens), history of prior concussions, migraine or psychiatric history, severe initial symptoms.
Blood loss & shock (the "how hurt is too hurt")
The ATLS classification breaks haemorrhagic shock into 4 classes based on % of blood volume lost (assuming ~5L total in an average adult):
Hemorrhagic shock classes (ATLS)
Class 1 — blood loss 0–15% — heart rate normal or slightly up — mental state alert — outlook: fine, usually no transfusion needed
Class 2 — blood loss 15–30% — heart rate 100–120 bpm — mental state mild anxiety/restlessness — outlook: needs fluids, maybe transfusion
Class 3 — blood loss 30–40% — heart rate 120+ bpm — mental state confused, altered — outlook: urgent surgery territory
Class 4 — blood loss 40%+ — heart rate 140+ bpm or undetectable — mental state unconscious — outlook: critical, immediate intervention or death
Shock progresses in 3 stages:
Compensatory — body's still coping (fast heart rate, pale/cool skin, some anxiety). Fully reversible with prompt treatment.
Progressive — compensating mechanisms start failing (confusion, severe tachycardia, dropping BP). Reversible but riskier.
Irreversible — organ failure sets in. Often fatal even with treatment. Median time from shock onset to death is about 2 hours.
Other things that make bleeding/clotting worse: hypothermia (each 1°C drop worsens clotting), acidosis, and shock itself — together these three are called the "lethal triad" in trauma medicine.
Broad mortality facts, for context: most trauma deaths happen within the first 24 hours, and a large chunk of haemorrhage deaths happen before the patient even reaches a hospital.
Environment matters more than you'd think
Cold/hypothermia — worsens clotting, raises risk of dangerous heart rhythms, makes shock worse overall
Normal body temp (36–38°C) — best case for healing and clotting function
Overheating — raises infection risk, worsens bleeding and inflammation
High altitude — less oxygen in the air makes everything about trauma recovery harder, and delays evacuating somewhere lower makes it worse
Sea level — the "default," most predictable conditions for healing
Body composition plays a role too: more muscle mass tends to mean better shock-absorption and healing (better blood supply), while fatty tissue heals slower and gets infected more easily. Younger patients generally have better physiological reserve and faster healing than older ones.
Gunshot Wounds (GSW)
Temperature has profound effects on wound healing and survival outcomes following gunshot wounds.
Hypothermia (core temperature <35°C) severely impairs the coagulation cascade, with each 1°C decrease worsening coagulopathy. It slows the metabolic rate and oxygen consumption, reducing bleeding but also impairing healing. It increases the risk of cardiac dysrhythmias and sudden death. It worsens shock progression and increases mortality 2-3 fold. Cold exposure in trauma patients is part of the "lethal triad" (hypothermia, acidosis, coagulopathy).
Normothermia (36-38°C) is optimal for wound healing and immune function. It maintains normal coagulation cascade function, supports cellular metabolism and tissue repair, and improves survival outcomes.
Hyperthermia (core temperature >38°C) increases the metabolic rate and oxygen demand, worsening shock. It increases infection risk through immune suppression, increases bleeding through coagulopathy, and worsens inflammation and tissue damage.
Environmental temperature impact: Cold environments (winter, high altitude) increase hypothermia risk. Hot environments increase dehydration and hyperthermia. Prehospital time in cold conditions significantly worsens outcomes. Rapid rewarming protocols in hospital improve survival.
Altitude and Environmental Pressure Effects
Altitude significantly affects gunshot wound outcomes through multiple mechanisms.
High altitude (>2500 meters) means reduced atmospheric oxygen pressure, which decreases oxygen availability. Hypobaric hypoxia worsens tissue oxygenation in already-hypoperfused trauma patients. Reduced air density affects projectile velocity and penetration depth. There is an increased respiratory rate and heart rate as the body compensates for hypoxia. It worsens shock progression and increases mortality. Delayed evacuation to a lower altitude increases mortality risk.
Sea level provides optimal oxygen availability for wound healing and tissue perfusion. Normal atmospheric pressure supports normal hemodynamics. Projectile velocity and penetration are predictable.
Pressure changes, such as rapid altitude changes (aviation, diving), can cause barotrauma. There is a decompression sickness risk in diving-related injuries. Cabin pressure changes during medical evacuation affect patient stability.
Clinical significance: Trauma patients at high altitude have worse outcomes than at sea level. Rapid evacuation to lower altitude improves survival. Oxygen supplementation is critical at high altitude.
Humidity and moisture levels significantly impact wound healing following gunshot wounds.
Optimal humidity (40-60%) supports normal wound healing processes. It maintains a moist wound environment without maceration. It supports epithelialization and collagen deposition. It reduces infection risk through optimal immune function.
A dry environment (<30% humidity) increases wound desiccation and tissue damage. It slows epithelialization and delays healing. It increases pain and discomfort. It increases infection risk through impaired immune function. It increases fluid loss and dehydration.
A wet environment (>70% humidity) increases maceration of wound edges. It increases bacterial growth and infection risk. It increases fungal colonization. It impairs epithelialization. It increases wound odor and complications.
Moisture management: Moist wound dressing maintains optimal healing environment. It prevents desiccation while avoiding maceration. It reduces pain and infection. It accelerates healing by 20-30%. Environmental humidity affects wound management strategies. Tropical climates require different dressing approaches than arid climates.
Bullet Types and Wounds
Full Metal Jacket (FMJ) bullets have a lead core completely enclosed in a copper or steel jacket. Characteristics include minimal deformation on impact, creating narrow wound tracks. There is a reduced temporary cavity due to limited energy transfer. They have a higher penetration depth, often creating through-and-through wounds. There is less tissue destruction than expanding bullets. They are commonly used in military and training ammunition. Forensic significance: FMJ wounds show minimal wound tract expansion. Entry and exit wounds may be similar in size. There is an increased risk of ricochet and secondary injuries. Survival rates are higher than hollow point due to less tissue damage.
Hollow Point and Expanding Bullets have a cavity in the nose that causes expansion on impact. Characteristics include rapid deformation and expansion on tissue contact. There is a large temporary cavity with significant tissue destruction. There is reduced penetration depth compared to FMJ. There is massive energy transfer to tissue. They are designed to stop threats quickly. Forensic significance: Hollow point wounds show dramatic wound tract expansion. The entry wound is typically smaller than the exit wound. There is massive tissue destruction and hemorrhage. There are much higher mortality rates than FMJ. They are often used in law enforcement ammunition.
Soft Point and Jacketed Soft Point Bullets have exposed lead at the tip with partial jacket coverage. Characteristics include moderate expansion on impact. There is an intermediate temporary cavity. There is moderate penetration depth. There is balanced energy transfer. Forensic significance: Soft point wounds show moderate expansion. There is intermediate tissue damage between FMJ and hollow point. There are moderate mortality rates. They are common in hunting ammunition.
.45 ACP (250-300 m/s) - Lower velocity but larger diameter.Handgun characteristics: Lower muzzle velocity creates smaller temporary cavities. Penetration typically 20-40 cm depending on caliber. Often single entry wound without exit. Survival rates generally higher than rifles. Forensic significance: Handgun wounds show relatively narrow wound tracks. Entry wounds typically 8-10mm diameter. Exit wounds (if present) slightly larger. Hemorrhage patterns less dramatic than rifles.
Rifles fire higher-velocity projectiles with dramatic tissue effects. Common rifle calibers:
5.56mm NATO (900-950 m/s) - Military standard, high velocity.
7.62mm NATO (800-850 m/s) - Military standard, high tissue damage.
.308 Winchester (800-850 m/s) - Hunting rifle, severe tissue damage.
.223 Remington (900-950 m/s) - Common civilian rifle.Rifle characteristics: High muzzle velocity creates massive temporary cavities. Penetration typically 40-60+ cm. Almost always creates through-and-through wounds. Severe tissue destruction along wound track. Survival rates significantly lower than handguns. Forensic significance: Rifle wounds show dramatic wound tract expansion. Entry wounds 5-10mm diameter. Exit wounds 2-5cm diameter or larger. Massive hemorrhage and tissue destruction. Extreme mortality rates.
Shotguns fire multiple projectiles (pellets) or single slugs. Shotgun ammunition: Birdshot - Multiple small pellets, limited penetration. Buckshot - Multiple larger pellets (00 buck = 9 pellets). Slugs - Single large projectile. Shotgun characteristics: Close range creates massive wound cavity. Multiple wound tracks from pellet spread. Penetration varies with ammunition type. Extreme tissue destruction at close range. Survival rates depend on range and ammunition type. Forensic significance: Shotgun wounds show multiple wound tracks. Close range (<5 meters) creates massive cavity. Intermediate range (5-15 meters) shows pellet spread. Long range (>15 meters) shows minimal damage. Entry wound size varies with ammunition type.
Distance and Muzzle Velocity
Distance from shooter affects projectile velocity and wound characteristics.
Contact wounds: Muzzle pressed against skin. Maximum velocity. Massive tissue destruction. Gas expansion in tissue creates additional injury.
Close range (<5 meters): Minimal velocity loss. Maximum tissue damage. Tight pellet spread (shotguns).
Distant range (>25 meters): Significant velocity loss. Reduced tissue damage. Wide pellet spread (shotguns). Distance is critical forensic indicator of shooting circumstances.
Entry and Exit Wounds
Entry wounds have distinctive forensic characteristics. Appearance: Typically smaller than exit wounds. Roughly circular or slightly elliptical. Abrasion collar (rim of abraded skin) around wound margin. Dirt/debris driven into wound. Wound edges typically inverted inward. Surrounding tissue shows minimal disruption. Forensic significance: Entry wounds indicate bullet direction. Abrasion collar indicates direction of travel. Entry wounds typically 5-10mm diameter (handgun). Entry wounds 5-15mm diameter (rifle). Multiple entry wounds indicate multiple shots. Entry wound size varies with bullet caliber and velocity. Atypical presentations: Tangential wounds create elongated entry wounds. Ricochet wounds may show irregular entry characteristics. Contact wounds show soot and powder residue. Close range wounds show powder stippling around entry.
Exit wounds have distinctive forensic characteristics different from entry wounds. Appearance: Typically larger than entry wounds. Irregular shape, often stellate (star-shaped). Tissue everted outward (turned out). Larger abrasion collar. Surrounding tissue shows disruption and hemorrhage. Wound edges typically turned outward. Forensic significance: Exit wounds indicate bullet exit direction. Exit wound size indicates bullet velocity and expansion. Exit wounds typically 10-20mm diameter (handgun). Exit wounds 15-40mm+ diameter (rifle). Absence of exit wound indicates bullet retained in body. Exit wound size varies with ammunition type. Atypical presentations: Tangential exit wounds create elongated exits. Ricochet exit wounds may show irregular characteristics. Multiple exit wounds indicate multiple shots or fragmentation. Exit wounds may be absent if bullet lacks energy to exit.
Distinguishing Entry from Exit Wounds: Forensic pathologists use specific criteria to distinguish entry from exit wounds. Entry wound criteria: Smaller diameter than exit. Abrasion collar present and directed inward. Tissue inverted inward. Minimal tissue disruption around wound. Dirt/debris in wound. Exit wound criteria: Larger diameter than entry. Abrasion collar present and directed outward. Tissue everted outward. Tissue disruption around wound. Hemorrhage around wound. Atypical cases: Tangential wounds may be difficult to classify. Ricochet wounds may show mixed characteristics. Contact wounds show soot and powder. Multiple wounds require careful analysis. Forensic pathologist expertise essential for accurate classification.
Wound Tract
The wound tract provides information about bullet path and tissue damage.
Permanent cavity: Direct tissue destruction along bullet path. Narrow and linear for FMJ bullets. Wider and more irregular for expanding bullets. Width depends on bullet caliber and expansion.
Temporary cavity: Transient radial tissue expansion. Larger with high-velocity projectiles. Causes secondary tissue injury beyond permanent cavity. Temporary cavity can affect distant organs.Wound tract significance: Wound tract indicates bullet path through body. Multiple wound tracts indicate multiple shots. Wound tract analysis helps determine shooting circumstances. Wound tract can indicate bullet fragmentation. Organ involvement determined by wound tract location.
Gunshot Wounds to the Head
Head GSWs have extremely poor survival rates. Mortality rates: Contact wounds - 90-95% mortality. Penetrating wounds - 80-90% mortality. Tangential wounds - 50-70% mortality. Mechanism: Massive brain tissue destruction. Increased intracranial pressure. Cerebral edema and herniation. Brainstem damage causing immediate death. Survival factors: Wound location (frontal vs temporal). Bullet velocity and caliber. Tangential vs penetrating trajectory. Access to neurosurgical care. Survival timeline: Immediate death common with brainstem involvement. Death within minutes with massive hemorrhage. Survival possible with frontal lobe tangential wounds. Severe disability common in survivors. Complications: Permanent neurological damage. Loss of consciousness. Seizures. Vegetative state. Infection and meningitis.
Temporal and Lateral Head Wounds: Lateral head wounds involving temporal region have specific characteristics. Anatomy: Temporal lobe location. Middle meningeal artery in region. Thin skull bone. Injury pattern: Often penetrating wounds. Significant hemorrhage from middle meningeal artery. Temporal lobe damage causing neurological deficits. Epidural hematoma common. Survival: Temporal wounds have slightly better survival than central. Rapid surgical intervention improves outcomes. Mortality still 70-85%. Complications: Epidural hematoma requiring emergency evacuation. Temporal lobe dysfunction. Seizures. Permanent neurological deficits.
Frontal Lobe Tangential Wounds: Frontal tangential wounds have better survival rates than penetrating. Anatomy: Frontal lobe location. Thicker skull bone. Less critical structures. Injury pattern: Tangential trajectory along skull. Scalp and superficial brain damage. Frontal lobe contusion. Survival: Tangential wounds have 30-50% survival rate. Better than penetrating head wounds. Depends on depth of penetration. Complications: Frontal lobe dysfunction. Personality changes. Executive function impairment. Seizures. Infection risk.
Brainstem and Midline Wounds: Brainstem wounds are almost universally fatal. Anatomy: Brainstem location (midbrain, pons, medulla). Critical for vital functions. Injury pattern: Penetrating wounds through midline. Massive brainstem destruction. Immediate loss of vital functions. Survival: Brainstem wounds - 95%+ mortality. Death typically immediate. Survival rare and incompatible with meaningful life. Mechanism: Loss of respiratory drive. Loss of cardiovascular control. Loss of consciousness. Immediate death.
Gunshot Wounds to the Thorax (Chest)
Thoracic GSWs involving heart and great vessels are rapidly fatal. Cardiac injuries: Mortality rate 80-90%. Death from massive hemorrhage. Cardiac tamponade (fluid around heart). Arrhythmias and cardiogenic shock. Survival timeline: Immediate death common with direct cardiac hit. Death within minutes with massive hemorrhage. Survival depends on rapid surgical intervention. Great vessel injuries: Aortic injury - 90%+ mortality. Pulmonary artery injury - 85%+ mortality. Superior/inferior vena cava injury - 70-80% mortality. Mechanism: Massive hemorrhage into pericardium or chest cavity. Shock from blood loss. Cardiac dysfunction. Survival factors: Rapid access to trauma surgery. Blood product availability. Anatomic location of injury.
Esophageal and Mediastinal Injuries: Thoracic GSWs involving esophagus and mediastinum have serious outcomes. Esophageal injuries: Difficult to diagnose initially. Mediastinitis (infection of mediastinum) develops. Mortality 20-40% even with treatment. Mediastinal injuries: Infection and sepsis common. Mediastinitis rapidly fatal if untreated. Mortality 50-80% without treatment. Survival timeline: Initial symptoms may be minimal. Mediastinitis develops over hours to days. Rapid deterioration without treatment. Death from sepsis and shock. Treatment: Early diagnosis critical. Antibiotics and surgical drainage. Esophageal repair if identified. Supportive care.
Diaphragmatic Injuries: Thoracic GSWs involving diaphragm have specific characteristics. Diaphragmatic injuries: Hole in diaphragm. Abdominal contents herniate into chest. Lung compression. Acute effects: Respiratory compromise. Reduced lung capacity. Hypoxia. Chronic effects: Bowel obstruction. Strangulation of herniated organs. Delayed complications. Survival: Acute diaphragmatic injuries - 30-40% mortality. Chronic complications - variable. Treatment: Surgical repair of diaphragm. Reduction of herniated organs. Supportive care.
Gunshot Wounds to the Abdomen
Abdominal GSWs involving solid organs (liver, spleen, kidneys) have serious outcomes. Liver injuries: Most commonly injured abdominal organ. Mortality 10-20% with treatment. Massive hemorrhage possible. Spleen injuries: Highly vascular organ. Rapid hemorrhage. Mortality 5-15% with treatment. Kidney injuries: Often managed conservatively. Mortality 2-5%. Pancreatic injuries: Difficult to diagnose. Pancreatitis and infection. Mortality 15-30%. Survival factors: Rapid access to surgery. Blood product availability. Associated injuries. Treatment: Surgical exploration and repair. Damage control surgery. Supportive care.
Hollow Viscus Injuries: Abdominal GSWs involving hollow organs (stomach, small bowel, colon) have serious outcomes. Small bowel injuries: Most common hollow viscus injury. Peritonitis from spillage. Mortality 5-15% with treatment. Colon injuries: Higher mortality than small bowel. Fecal contamination. Mortality 10-20% with treatment. Stomach injuries: Less common. Gastric acid spillage. Mortality 5-10% with treatment. Survival timeline: Initial symptoms may be minimal. Peritonitis develops over hours. Sepsis and shock develop. Death from untreated peritonitis. Treatment: Surgical exploration and repair. Antibiotics for infection prevention. Supportive care.
Vascular Injuries: Abdominal GSWs involving major blood vessels have extremely poor outcomes. Aortic injuries: Mortality 80-90%. Massive hemorrhage. Death within minutes. Iliac vessel injuries: Mortality 50-70%. Massive hemorrhage. Rapid shock. Mesenteric vessel injuries: Bowel ischemia. Mortality 30-50%. Survival timeline: Massive hemorrhage - death within minutes. Rapid surgical intervention essential. Survival depends on rapid access to surgery. Treatment: Emergency surgical exploration. Vascular repair or ligation. Massive transfusion protocol. Damage control surgery.
Multiple Organ Injuries: Abdominal GSWs often involve multiple organs with compounded effects. Polytrauma: Multiple organ involvement. Increased mortality. Increased complications. Survival: Multiple organ injuries - 30-50% mortality. Depends on organs involved. Depends on access to surgery. Complications: Increased infection risk. Increased sepsis risk. Increased organ failure risk. Treatment: Damage control surgery. Multiple surgical procedures. Intensive supportive care. Prolonged hospitalization.
Gunshot Wounds to Extremities
Extremity GSWs involving major blood vessels have serious outcomes. Femoral artery injury: Most serious extremity injury. Rapid hemorrhage. Death within 1-2 minutes without intervention. Mortality 20-30% even with treatment. Brachial artery injury: Upper extremity equivalent. Rapid hemorrhage. Mortality 10-20%. PopliteAL artery injury: Behind knee. High amputation rate. Mortality 5-10%. Survival timeline: Massive hemorrhage - death within minutes. Tourniquet application critical. Rapid surgical intervention essential. Treatment: Emergency tourniquet application. Vascular repair or ligation. Amputation if necessary. Supportive care.
Bone Fractures: Extremity GSWs often cause significant bone fractures. Fracture patterns: Comminuted fractures (multiple fragments). Segmental fractures. High-energy fractures. Complications: Non-union. Malunion. Infection. Osteomyelitis. Amputation: High-velocity injuries often require amputation. Vascular compromise. Severe soft tissue damage. Infection risk. Survival: Extremity fractures alone - <1% mortality. Combined with vascular injury - 20-30% mortality. Treatment: Fracture stabilization. Vascular repair if possible. Infection prevention. Rehabilitation.
Bowel Injuries: Pelvic GSWs often involve bowel structures. Small bowel: Peritonitis from spillage. Mortality 5-10%. Colon: Higher mortality than small bowel. Fecal contamination. Mortality 10-20%. Rectum: Difficult to repair. High infection rate. Mortality 15-25%. Survival timeline: Initial symptoms may be minimal. Peritonitis develops over hours. Sepsis and shock develop. Treatment: Surgical exploration and repair. Antibiotics. Supportive care.
Bone Fractures: Pelvic GSWs often cause significant pelvic fractures. Fracture patterns: Unstable fractures. Hemipelvic disruption. Hemorrhage: Associated with major hemorrhage. Retroperitoneal bleeding. Complications: Infection. Non-union. Malunion. Chronic pain. Survival: Pelvic fractures alone - 10-20% mortality. Combined with vascular injury - 50-70% mortality. Treatment: Pelvic stabilization. Vascular repair. Infection prevention. Rehabilitation.
Blunt Force Trauma and Fractures
Rib fractures are the most common injury sustained following blunt chest trauma, accounting for more than half of thoracic injuries from non-penetrating trauma. Simple rib fractures involve a single break in the rib. Displaced rib fractures increase the risk of injury to the lung and intercostal blood vessels. Segmental rib fractures (multiple breaks in the same rib) indicate severe trauma. The pattern of fractures can indicate the direction and force of impact. Posterior rib fractures indicate high-energy trauma and are associated with more severe injuries than anterior fractures.
Upper Rib Fractures (Ribs 1-3): Fractures of ribs 1, 2, or 3 are associated with mediastinal injury, particularly to the aorta. These fractures are associated with increased mortality in observational studies. First rib fractures specifically are associated with greater overall injury severity and life-threatening internal injuries independent of mechanism, age, or sex. These injuries include damage to the brain, spine, lungs, and pelvis. However, isolated first rib fractures from sports activities do not carry the same risk level. Upper rib fractures require careful evaluation for aortic injury and other mediastinal trauma.
Middle Rib Fractures (Ribs 4-8): Middle rib fractures are the most commonly fractured ribs. Displaced middle rib fractures significantly increase the risk of lung injury and damage to intercostal blood vessels, which is a common cause of hemothorax (blood in the pleural space). A delayed hemothorax can occur days to weeks after the rib fracture. Prospective studies have found rates of delayed hemothorax as high as 7-11% within 14 days following discharge from the emergency department. While many delayed hemothorax cases are asymptomatic and only detected on imaging, some can be life-threatening, particularly in older patients.
Lower Rib Fractures (Ribs 9-12): Ribs 9 through 12 fractures are associated with intra-abdominal injury. The posterior portion of the lower ribs is often associated with kidney injury. Lower rib fractures can indicate splenic laceration, hepatic trauma, and other abdominal organ injuries. These injuries require careful abdominal examination and imaging to rule out internal bleeding. Delayed complications including organ rupture can occur in the days following injury.
Flail Chest and Complications: Flail chest occurs when three or more adjacent ribs are each fractured in two places (segmental fractures), creating a segment of chest wall that moves independently. This condition is often associated with significant morbidity from pulmonary contusion and injuries elsewhere in the body. Flail chest can impair respiratory mechanics and increase the risk of pneumonia. The underlying pulmonary contusion is often more serious than the rib fractures themselves. Flail chest requires aggressive pain management and pulmonary hygiene to prevent respiratory complications.
Healing Timeline:
Week 1-2: Extreme pain, especially with movement.
Week 2-4: Pain gradually decreases but still significant.
Week 4-6: Pain manageable with activity restriction.
Week 6-8: Bone healing, pain mostly resolved.
Week 8-12: Full healing, gradual return to normal activity.Ribs are not immobilized (they need to move for breathing), making recovery more painful than other fractures.
Hemothorax: Bleeding into lung cavity, life-threatening.
Pneumothorax: Air in lung cavity, collapsed lung, life-threatening.
Pulmonary contusion: Bruised lung, affects oxygen exchange.Characters with broken ribs need medical monitoring for complications.
Fracture Healing
Stage 1 (Inflammatory, Days 0-7): Bleeding at fracture site, swelling, severe pain, bone fragments unstable.
Stage 2 (Reparative, Days 7-42): Callus (healing tissue) forms, swelling decreases, pain decreases, bone still fragile.
Stage 3 (Remodeling, Weeks 6-24): Callus hardens into bone, bone gradually strengthens, scar tissue remodels, pain mostly resolved.
Recovery:
Arm: 6-8 weeks in cast, 8-12 weeks full healing, 4-8 weeks physical therapy, 3-4 months return to normal.
Leg: 6-8 weeks in cast, 12-16 weeks full healing, 8-12 weeks physical therapy, 4-6 months return to normal.
Hand: 3-6 weeks in splint, 6-8 weeks full healing, 2-4 weeks physical therapy, 8-12 weeks return to normal.Functional impact: Complete inability to use limb during immobilization.
In-cast: Itching (cannot scratch), muscle atrophy (muscles weaken), stiffness (joints become stiff), frustration (inability to do normal tasks).
After-cast: Weakness (significant loss of strength), stiffness (reduced range of motion), pain with movement, swelling (may persist weeks), gradual strengthening needed. Character cannot immediately return to full activity after cast removal.
Body Composition
BMI and Injury Pattern Distribution: Higher body mass index is associated with a higher incidence of torso injury and proximal upper extremity injuries in blunt trauma. Obese trauma victims are more likely to suffer from severe thoracic injuries. Interestingly, the incidence of severe head injuries actually decreases in obese patients. This suggests that body composition affects how force is distributed and absorbed during trauma. The increased body mass and tissue density in obese individuals may provide some protection to the head while increasing vulnerability in the torso region.
Obesity and Trauma Outcomes: Obesity increases mortality and morbidity independently of injury severity in trauma patients. As BMI increases, the risk of complications increases significantly. Obese trauma patients have worse outcomes even when controlling for injury severity scores. The increased mortality and morbidity in obese patients is not simply due to more severe injuries, but rather due to physiological factors related to obesity itself. These factors include impaired immune function, altered inflammatory responses, and reduced physiological reserve.
Inflammatory Response and Healing: Obesity creates an altered inflammatory reaction following trauma. The "double hit" of obesity combined with multiple trauma increases the risk of multiple organ failure. Obese individuals have impaired immune responses that affect wound healing and infection risk. The altered inflammatory state in obesity can lead to prolonged inflammation and delayed healing. Adipose tissue produces inflammatory cytokines that contribute to systemic inflammation. This impaired inflammatory response increases susceptibility to infection and complications.
Hospital Stay and ICU Admission: As BMI increases, the length of hospital stay increases significantly. The rate and length of intensive care unit (ICU) admission increase with higher BMI. Obese trauma patients require longer periods of hospitalization for recovery. The increased length of stay is associated with higher healthcare costs and increased exposure to nosocomial infections. Complications such as pneumonia, thromboembolism, and wound infections are more common in obese trauma patients, contributing to prolonged hospitalization.
Temperature significantly affects blunt force trauma outcomes and shock progression.
Hypothermia: Impairs coagulation and increases bleeding complications. Slows metabolic rate worsening shock. Increases cardiac dysrhythmias risk. Part of lethal triad with acidosis and coagulopathy. Increases mortality 2-3 fold.
Normothermia: Optimal for coagulation and hemostasis. Maintains normal metabolic function. Supports shock compensation. Best outcomes for BFT recovery.
Hyperthermia: Increases metabolic demands worsening shock. Increases bleeding through coagulopathy. Increases inflammation and tissue damage. Worsens systemic response.
Environmental impact: Cold exposure worsens outcomes significantly. Hot environments increase dehydration. Prehospital time in extreme temperatures critical. Rapid rewarming/cooling improves survival.
Altitude and Environmental Pressure Effects: Altitude significantly affects blunt force trauma outcomes through hypoxia.
Sea level: Optimal oxygen for tissue perfusion. Normal shock compensation. Better outcomes for serious injuries.
Clinical significance: High altitude BFT has worse outcomes. Rapid evacuation to lower altitude improves survival. Oxygen supplementation critical.
Stab Wounds
Depth determines severity - shallow (1-2 inches) may miss organs, deep (3+ inches) likely hits organs. Location critical: Chest/abdomen extremely dangerous, limbs less so. Bleeding depends on vessel damage - arterial bleeding is life-threatening. Infection risk high from contaminated blade.
Severity Classification:
•Superficial: Skin and subcutaneous tissue only, moderate bleeding, moderate to severe pain, 2-4 weeks recovery.
•Deep (non-organ): Into muscle, possibly touching organs, significant bleeding, severe pain, 4-8 weeks recovery.
•Deep (organ damage): Into vital organs, severe life-threatening bleeding, severe pain, months to recovery (if survives).
Abdominal Stab Wound: Most dangerous location. Small intestine most commonly injured. Severe internal bleeding, shock develops rapidly. Organ damage likely (liver, spleen, intestines). Peritonitis (abdominal infection) develops within 24-48 hours if untreated. Requires exploratory surgery. Infection risk very high. Recovery months if survives. Permanent organ damage possible. Immediate response: Do not remove object (may increase bleeding). Control bleeding. Emergency medical care essential. Character likely dies without immediate intervention.
Chest Stab Wound: Risk to heart, lungs, major vessels. Pneumothorax (collapsed lung) if lung punctured - immediate life threat. Hemothorax (bleeding into chest) - also life-threatening. Cardiac/major vessel damage - fatal. Requires emergency surgery. High mortality without treatment. If survives, 6+ months recovery minimum. Immediate response: Do not remove object. Control bleeding. Emergency medical care essential. Character likely dies without immediate intervention.
Burns
Burn Classifications (First to Fourth Degree)
First Degree Burns: Affect epidermis only. Appearance: Red, dry, no blisters. Pain: Moderate, sensitive to touch. Timeline: 3-6 days. Treatment: Cool water, aloe vera, pain relief. Scarring: None. Example: Sunburn. Character can function but experiences pain with touch.
Second Degree Burns: Affect epidermis and upper dermis. Appearance: Red, blistered, wet, very painful. Pain: Severe, extreme sensitivity. Timeline: 2-3 weeks. Treatment: Cool water (first 20 minutes), sterile dressing, pain medication. Scarring: Possible if infection occurs. Blisters protect healing tissue and should not be popped. Character cannot use burned area for weeks.
Third Degree Burns: Full thickness. Depth: All skin layers destroyed. Appearance: White, charred, leathery. Pain: Paradoxically less (nerve endings destroyed). Healing: Months, requires skin grafts. Scarring: Severe, permanent. Complications: Life-threatening. Treatment: Fluid replacement, pain management, antibiotics, debridement, skin grafts, physical therapy. Both 3rd and 4th degree require hospitalisation and extensive treatment.
Fourth Degree Burns: Depth: Through skin into muscle/bone. Appearance: Charred, black. Pain: None (all nerves destroyed). Healing: Months to years, amputation likely. Scarring: Severe, permanent. Mortality: Very high. Functional: Severe disability or amputation. Character likely dies or faces permanent disability.
First Aid for Burns: Cool water for at least 20 minutes within 3 hours of burn significantly reduces severity. Delays cooling = worse outcome. This timing is critical - characters who don't receive immediate cooling will have worse burns. Remove tight clothing/jewelry. Cover with clean cloth. Monitor breathing (inhalation injury possible). Shock treatment may be needed.
Skin Grafting
Skin Grafting: Necessary for 3rd degree burns >10% body surface. Grafts taken from unburned skin (painful donor site). Grafts may not fully take - multiple surgeries often needed. Scarring permanent and visible. Contractures (scar tissue shrinkage) limit movement. Psychological impact severe.
Long-term Effects: Permanent scarring and disfigurement. Contractures limit movement - character may have reduced range of motion permanently. Sensitivity to temperature - burned areas cannot regulate heat. Chronic pain common. Psychological trauma significant. Recovery takes months to years.
Stage 1 (Compensatory): Heart rate increases, blood pressure normal, breathing faster, skin pale and clammy, anxiety, consciousness normal. Character feels cold. Timeline: Minutes to hours.
Stage 2 (Progressive/Decompensatory): Heart rate very fast, blood pressure drops, breathing rapid and shallow, skin very pale/cold/clammy, confusion beginning, weakness, nausea. Timeline: Hours to days.
Stage 3 (Irreversible): Heart rate very fast then slowing, blood pressure critically low, breathing very shallow, skin gray/cold/clammy, severe confusion or unconsciousness, organ failure, death likely. Timeline: Hours (death likely).
Shock Symptoms: Pale/clammy skin, rapid weak pulse, rapid shallow breathing, confusion, anxiety, weakness. Character may deny severity (shock confusion). Thirst intense. Nausea/vomiting common. Urination stops as kidneys fail. Without treatment, death likely within hours. Shock develops over minutes to hours depending on injury severity. Character may appear fine initially then deteriorate rapidly.
Treatment: Stop bleeding (tourniquet, pressure), IV fluids (blood transfusion if severe), oxygen, positioning (legs elevated), keep warm, emergency medical care. Shock is life-threatening and requires immediate intervention.
Infection Development and Sepsis
Infection Development Timeline:
Hours 0-24: Wound contamination.
Days 1-3: Bacteria multiply, local infection begins.
Days 3-7: Systemic infection (sepsis) possible.
Days 7+: Severe sepsis/septic shock possible.
Signs: Increasing pain, redness spreading, warmth around wound, pus or drainage, fever, swelling increasing. Infection is a serious risk with open wounds. Begins 24-48 hours post-injury. Progresses to sepsis (systemic infection) within 3-7 days if untreated. Sepsis causes organ failure, shock, death. Antibiotics effective early but useless once sepsis develops. Dirty/contaminated wounds have higher risk.
Bioburden and Infection Control: Bioburden refers to the level of planktonic bacteria and concentration of biofilm colonies in a wound. High bioburden can convert acute wounds into chronic wounds. Bioburden can cause stalled wounds that fail to progress through normal healing stages. Bacterial biofilms are particularly problematic as they are resistant to antibiotics and immune system responses. Managing bioburden through appropriate wound care, debridement, and infection control is essential for promoting healing. Bioburden assessment and management should be part of comprehensive wound care strategy.
Sepsis Symptoms and Progression: Fever >101.3°F (or hypothermia), rapid heart rate, rapid breathing, confusion, severe pain, weakness, possible organ failure, shock. Timeline: Infection develops 3-7 days, sepsis develops 7-14 days, septic shock 14+ days, death possible any stage. Septic shock has 40-50% mortality even with treatment. Character deteriorates rapidly once sepsis develops. Realistic to show character dying from infection. Treatment: Antibiotics (broad-spectrum initially), wound care, IV fluids, vasopressors, possible surgery, intensive care. Sepsis is life-threatening.
Chronic Pain
Begins as acute pain, persists beyond normal healing (3+ months). Becomes independent of original injury. Neuropathic pain: Nerve damage causing ongoing pain. Causes: Nerve damage, scar tissue, chronic inflammation, central sensitization (nervous system changes). Affects sleep, mood, concentration, quality of life. Character becomes dependent on pain medication. Psychological effects significant - depression, anxiety, isolation. Impacts work/relationships long-term.
Pain Management Challenges: Opioids effective for acute pain but risk addiction with long-term use. Tolerance develops - higher doses needed. Other medications (antidepressants, anticonvulsants) help but have side effects. Physical therapy painful but necessary. Psychological therapy important. Complete pain relief often impossible.
•Development: Acute stress (immediately after trauma), acute stress disorder (2 days to 1 month), PTSD (1 month or longer). Symptoms appear immediately or weeks after trauma. Triggers (sounds, smells, situations) cause panic.
PTSD Recovery: Therapy (CBT, EMDR) effective but requires 12-24+ months. Medications (SSRIs) help but don't cure. Some people recover fully, others have lifelong symptoms. Triggers remain sensitive even after recovery. Character may avoid certain situations permanently. Relationships may never fully recover.
Sources
CDC HEADS UP · Mayo Clinic · American Academy of Pediatrics · National Institutes of Health · American College of Surgeons (ATLS)
none of this is medical advice, it's a reference for writing realistic injuries — always double check specifics for your particular scenario!
"Time to catch up on rainimator!" i said with joys
i was then shot 57 times
actual live me reaction:
"who is that??"
"WHAT IS THAT??"
"Why can she do that?"
"WHO IS THAT GUY?"
"since when did the allegiance chart look like THIS?"
when someone tells you they're a fictionkin of a character and/or they've developed a subpersonality of them (especially if it's to help them cope) you are NOT supposed to immediately go on a rant about how much you hate the character and how toxic she was by the way. and you aren't supposed to expect the person to keep talking to you after either.
