WEBVTT

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Welcome to the bed. We'll go ahead and give you

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the story. This is all going to happen super

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fast. Welcome to the emergency room. Welcome

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to the Deep Dive. Today we're taking on a topic

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that is just profoundly high stakes, essential

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pediatric trauma care. And when you look at the

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data, I mean, the need for this couldn't be clearer.

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Injury is the single most common cause of death

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and disability in kids. It surpasses everything,

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all major diseases combined. Exactly. We're talking

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about more than 10 million children a year in

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the U .S. alone. needing emergency care for injuries.

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These are the critical moments. They are. And

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you know, our mission for this deep dive isn't

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to reread a textbook. It's to apply the Pareto

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Principle. The 80 -20 rule. Right. We're focusing

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on the 20 % of the information. The formulas,

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the pitfalls, the red flags that give you 80

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% of what you need for that critical life -saving

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management. It's the ultimate clinical shortcut.

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So we're really focusing on the why. why kids

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are different, the physiological traps, and those

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tiny details that you have to remember when everything's

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chaotic. And before we jump in, there's this

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one need -to -know stat that I think frames the

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whole discussion. Globally, for adolescents,

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road traffic accidents are the number one killer.

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Right, that's what we tend to think of. But for

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infants... So kids under 12 months, the story

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changes completely. For that group, child maltreatment

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accounts for the great majority of homicides.

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And that's a context you have to have in your

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mind from the second that child comes through

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the door. It sets the stage for everything. OK,

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so let's start there with that fundamental principle.

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A child is not just a small adult. Let's unpack

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the physics of that. Why is multi -system injury

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the rule? Well, it really just comes down to

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the transfer of kinetic energy. Children have

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a much smaller body mass, right? Right, so that

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means any energy from blunt trauma a car fender

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a follow It results in a much greater force being

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applied per unit of body area. It's concentrated

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and they have less padding less fat, less connective

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tissue to absorb that shock. Exactly. That lack

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of insulation means all the organs are packed

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much closer together. So if you get a significant

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impact to the torso, you're not just hitting

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one thing, you're hitting multiple things. So

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you have to assume it. Yeah. Multi -system entry

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is the rule until you prove otherwise. You absolutely

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have to. That has to be your default assumption.

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And this physics also defines some of the anatomical

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weak spots. Let's talk about those, like the

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head and the skeleton. Sure. So take the head

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first. It's proportionately much larger and heavier.

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Right, that classic toddler look. And that creates

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more momentum during any kind of deceleration.

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So you see a much higher frequency of blunt brain

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and cervical spine injuries, even in what seems

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like a minor event. OK, and the skeleton? The

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skeleton is more pliable. It's not fully calcified,

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so it acts more like a flexible shell than a

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rigid cage. So if the chest wall, for example,

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is pliable, what does that mean for the organs

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underneath? It means that the fractures we rely

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on in adults to signal a massive energy transfer,

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they're just less likely to happen in kids. A

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rib fracture is actually pretty uncommon. But

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you can still have a devastating injury underneath.

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Oh, absolutely. A massive pulmonary contusion

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can be hiding under a perfectly intact chest

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wall. So if you do see a rib fracture or a skull

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fracture, you have to assume the energy transfer

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was absolutely immense. And that combination

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of size and pliability also creates a huge problem

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with heat. A major one. The high body surface

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area to body mass ratio means they lose thermal

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energy incredibly fast. Hypothermia sets in quickly,

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and it complicates everything. Clotting, metabolism,

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everything. So fighting heat loss is just as

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important as stopping the bleeding. Yeah, yeah,

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it up there. OK, so this leads us to maybe the

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biggest prioritization shift in pediatric trauma.

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Compared to adults, things like apnea and hypoxia

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happen five times more often than hypovolemia

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with hypotension. And that just hammers home

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the point. You have to aggressively manage the

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airway and breathing first. A and B before C.

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Airway is number one. And you said positioning

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is one of the smallest details that makes the

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biggest difference here. It really is. We mentioned

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that large occiput, the back of the head. When

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a child is lying flat, it pushes the head forward,

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flexes the neck, and immediately compromises

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the airway. So how do you fix that while keeping

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the spine safe? It's so simple. To get a neutral

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position, you place a one -inch layer of padding

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under the the infant's entire torso, shoulders

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to hips. That's it. That one -inch lift compensates

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for the head and brings the whole body into alignment.

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It opens the airway. Missing that detail can

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derail your whole resuscitation. And the challenges

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don't stop there. Intubation is just... It's

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a different world. Completely. You have a relatively

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large tongue, large tonsils. The larynx itself

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is funnel -shaped, and it sits higher up and

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more anterior. It can feel like you're trying

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to intubate around a corner. But the really critical

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detail is the length of the trachea itself. Which

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is incredibly short. An infant's trachea is only

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about five centimeters long. Five. It only grows

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to seven centimeters by 18 months. Wow. So any

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little movement of the head or neck. And you

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risk dislodging the tube or, just as bad, pushing

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it into the right main stem bronchus. So getting

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that ETT placement right from the start is paramount.

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What are the rules for that, for sizing and depth?

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Well, for sizing, a good rule of thumb is to

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look at the size of the child's nostril or the

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tip of their pinky finger. Ideally, you're using

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a length -based tape, like a Braslo tape. But

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here's the critical detail for depth. The calculation.

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The optimal ETT depth in centimeters is three

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times the appropriate tube size. So a 4 .0 tube

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goes to 12 centimeters at the gum line. Exactly.

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Three times the tube size. That calculation gives

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you a reliable starting point and buys you critical

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time before you get a chest x -ray to confirm.

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That's so simple and so actionable. So once the

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tube's in and things still go wrong, what's the

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mental checklist for that? You need to know the

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DOPE mnemonic. It's your troubleshooting guide.

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D is for dislodgement, the biggest risk because

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that trachea is so short. O is for obstruction

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from secretions or a kink. P is for pneumothorax,

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especially attention pneumo. And E is for equipment

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failure. Always check your ventilator, your oxygen

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source. And you said dislodgement is the one

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that gets missed most often. In a chaotic room,

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absolutely. Before we even get to intubation

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though, there's a reflex in infants we have to

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manage. Yes, the vagal response. It's profound.

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Stimulating the larynx during intubation can

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cause a dramatic severe bradycardia. So what's

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the move? You have to consider pre -treating

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with atropine sulfate for any infant getting

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drug -assisted intubation. It counteracts that

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vagal response and prevents a dangerous drop

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in heart rate. Okay, so if we nail airway and

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breathing, we give ourselves a fighting chance.

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But now we move to circulation and this is where

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you said the biggest physiological trap is hiding.

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This is, without a doubt, the highest yield topic

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for understanding pediatric shock. It's all about

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the deceptive reserve. The deceptive reserve.

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Children have these incredible, healthy hearts

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that can maintain blood pressure by just jacking

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up the heart rate. They can look stable with

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a normal blood pressure, even when they've lost

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a huge amount of blood. How much? Up to a 30

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% decrease in their circulating blood volume.

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30%. So if you're waiting for hypotension to

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diagnose shock? You've already lost. You've missed

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the critical window. You're waiting for the crash.

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So what are the early signs then? If not blood

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pressure, what are you looking for? It's subtle.

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Tachycardia is often your only early key. That

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and poor skin perfusion. So you're looking for

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weakening peripheral pulses, cool arms and legs,

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skin modeling. Which is the infant version of

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clammy skin. Exactly. And the most measurable

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sign is the narrowing of the pulse pressure.

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If that gets to less than 20 millimeters of mercury,

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you're in trouble. So when hypotension finally

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does show up, it means decompensated shock. Massive

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blood loss. Greater than 45 % of their total

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volume. It's a crisis. And there's a formula

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for that threshold, right? The point of no return.

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Yes. And this is when you have to memorize. The

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lower limit of normal systolic blood pressure

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is 70 millimeters of mercury plus twice the child's

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age in years. So for a five -year -old, 70 plus

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10 is 80. Right. If they're below 80, they're

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in decompensated shock. And the most terrifying

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sign... If you see that heart rates suddenly

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go from tachycardia to bradycardia while they're

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hypotensive, that's impending cardiac arrest.

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So time is absolutely everything. What's the

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hierarchy for getting access? Peripheral IV is

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what you try first, but you don't waste time.

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If you can't get it after two attempts, you move

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immediately to an IO. Intraeus. Proximal Tibia.

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Proximal Tibia is the preferred site, and IO

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is a lifesaver. You can get it in under a minute,

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and it gets fluids into the system just as fast

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as a central line. And once you have that access,

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what's the initial fluid strategy? It's weight

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-based. A 20 milliland per kilogram bolus of

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warmed isotonic crystalloid. That's the standard.

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Warmed. Always warmed. Now, you know, big trauma

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centers are moving more toward damage control,

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resuscitationless, crystalloid, more blood products

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early. But that 20 per kilo bolus is still the

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standard first step everywhere else. OK. And

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what's the one clinical measure we can use to

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know if our resuscitation is actually working?

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The smallest detail, but so important, urinary

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output. For infants, the goal is high, one to

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two millimals per kilo per hour. For older kids,

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it's about 0 .5 to 1 .5. If you're not hitting

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those numbers, you're not caught up. Got it.

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Okay, let's shift to a couple of focused areas,

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head and abdominal trauma. For head trauma, there's

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a rule about hypotension that gets misunderstood.

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Yeah, and it's non -negotiable. Hypotension is

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almost never caused by a head injury alone. Unless

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the situation is catastrophic. Right, unless

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they're resting. If a child with a head injury

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is hypotensive, you have to look for another

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source of massive bleeding. Chest, abdomen, pelvis.

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The hypoxia and hypovolemia will kill the brain

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faster than the injury itself. What about imaging?

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We're always worried about radiating kids, so

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how do we decide who needs a CT? That's where

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the PCARN criteria come in. It's a validated

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screening tool that helps you identify the low

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-risk kids who do not need a CT scan. It's a

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crucial tool for balancing diagnosis against

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that long -term cancer risk from radiation. Okay,

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let's move to the abdomen. What's the one physical

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sign that should immediately make you suspect

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a major internal injury? This seatbelt sign.

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If you see bruising or abrasions from a shoulder

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or lap belt, your suspicion for an intra -abdominal

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injury has to go way, way up. Especially for

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things like bowel perforation or a lumbar fracture.

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Exactly. That sign is a major red flag. And this

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brings us to a huge paradigm shift in management,

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especially for solid organ injuries like the

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liver or spleen. It is a huge shift. The modern

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approach is selective non -operative management

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as long as the child is hemodynamically stable.

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So even if you see blood on a fast scan or the

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CT shows a high -grade spleen injury If the child

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is stable and responding to fluids, you do not

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automatically rush to the operating room. The

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presence of blood does not mandate surgery if

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the vital signs are normal. We want to save that

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spleen if we possibly can. What's the big pitfall

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with using fast scans in this situation? You

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can't rely on it to rule out an injury. It's

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great for finding free fluid, but it can't see

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injuries inside the organ itself. The ultimate

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pitfall is delaying surgery when you shouldn't.

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If that child becomes unstable despite resuscitation,

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they need to go to the OR immediately. Got it.

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Okay, finally, let's hit a few high -risk pitfalls.

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Let's say a child has an isolated closed femur

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fracture and they're hypotensive. What's that

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tell you? It tells you to look somewhere else.

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An isolated femur fracture just doesn't cause

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that much blood loss. It's not enough to cause

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decompensated shock. If they're unstable, the

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bleed is somewhere else. Probably the abdomen.

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And what about spinal injuries? Kids' spines

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are so flexible. That they can sustain a devastating

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spinal cord injury without any broken bones on

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an x -ray. It's called Cicora. Spinal cord injury

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without radiographic abnormality. Right. It's

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much more common in kids. So if the neurological

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exams suggest a cord injury, you have to assume

00:12:51.409 --> 00:12:54.070
the spine is unstable, even if the x -rays look

00:12:54.070 --> 00:12:56.129
perfect. Looking at the long term, the outcomes

00:12:56.129 --> 00:12:59.679
can be... Pretty sobering. They can be. Up to

00:12:59.679 --> 00:13:02.720
60 % of severely injured kids have residual personality

00:13:02.720 --> 00:13:05.620
changes a year later. 50 % have cognitive or

00:13:05.620 --> 00:13:08.120
physical handicaps. You're always thinking about

00:13:08.120 --> 00:13:10.440
the future growth plate injuries causing a leg

00:13:10.440 --> 00:13:13.320
length discrepancy, the lifelong risk of sepsis

00:13:13.320 --> 00:13:15.659
after a splenectomy. Which brings us back to

00:13:15.659 --> 00:13:17.720
the most critical pitfall we have to discuss.

00:13:18.779 --> 00:13:21.379
Child maltreatment. This is a vital area for

00:13:21.379 --> 00:13:23.919
every clinician. You have to know the red flags.

00:13:24.169 --> 00:13:26.649
The biggest one is a major discrepancy between

00:13:26.649 --> 00:13:29.529
the story and the injury. Like a major head injury

00:13:29.529 --> 00:13:32.049
from falling off a couch. Exactly. Or injuries

00:13:32.049 --> 00:13:34.289
that don't match the developmental stage, like

00:13:34.289 --> 00:13:36.450
leg fractures in an infant who can't walk yet.

00:13:36.649 --> 00:13:38.629
And what about the physical findings? You're

00:13:38.629 --> 00:13:40.929
looking for bruises of different colors, which

00:13:40.929 --> 00:13:43.730
suggest different stages of healing, injuries

00:13:43.730 --> 00:13:46.409
around the mouth, and skull or rib fractures

00:13:46.409 --> 00:13:49.529
in any child under two years old are huge red

00:13:49.529 --> 00:13:52.350
flags. And as a clinician, the mandate is clear.

00:13:52.429 --> 00:13:55.250
It's absolute. You are legally required in most

00:13:55.250 --> 00:13:57.649
places to report suspected maltreatment, and

00:13:57.649 --> 00:13:59.769
you have to, because a third of the kids who

00:13:59.769 --> 00:14:03.429
die from maltreatment were seen before for a

00:14:03.429 --> 00:14:06.870
prior unrecognized injury. Reporting is prevention.

00:14:07.210 --> 00:14:10.610
So to pull our 20 % guide together, airway and

00:14:10.610 --> 00:14:12.610
breathing first, using that one -inch padding

00:14:12.610 --> 00:14:16.250
under the torso, the 3X ETT depth rule and the

00:14:16.250 --> 00:14:19.690
DOPE mnemonic. For circulation, it's recognizing

00:14:19.690 --> 00:14:22.389
mass shock through tachycardia and a narrow pulse

00:14:22.389 --> 00:14:24.870
pressure, and knowing the hypotension formula,

00:14:25.190 --> 00:14:27.490
and then the red flags for things like the femur

00:14:27.490 --> 00:14:29.789
fracture rule, and most importantly, for maltreatment.

00:14:29.909 --> 00:14:32.210
That's a great summary. And despite all of that...

00:14:32.250 --> 00:14:34.409
Despite the challenges and the long -term effects,

00:14:34.549 --> 00:14:36.470
here's the final thought that I think justifies

00:14:36.470 --> 00:14:39.330
everything we do. The long -term quality of life

00:14:39.330 --> 00:14:41.970
for children who survive major trauma is surprisingly

00:14:41.970 --> 00:14:44.909
positive. Most of them report a good to excellent

00:14:44.909 --> 00:14:48.169
quality of life as adults. That incredible resiliency

00:14:48.169 --> 00:14:50.870
is why we fight so hard in those first chaotic

00:14:50.870 --> 00:14:53.629
minutes. That is a powerful final justification.

00:14:54.210 --> 00:14:56.289
And it leads us to our final provocative thought

00:14:56.289 --> 00:14:59.350
for you, the listener. The source material states

00:14:59.350 --> 00:15:02.549
that the greatest pitfall of all is our failure

00:15:02.549 --> 00:15:04.669
to prevent these injuries in the first place,

00:15:05.029 --> 00:15:07.450
noting that up to 80 % of them are preventable.

00:15:07.889 --> 00:15:10.470
And for every dollar spent on prevention, $4

00:15:10.470 --> 00:15:13.190
are saved in hospital care. So building on that,

00:15:13.470 --> 00:15:15.610
what are the most effective local coalitions

00:15:15.610 --> 00:15:18.110
needed in your community to actively turn these

00:15:18.110 --> 00:15:20.570
devastating statistics around? Something to think

00:15:20.570 --> 00:15:22.429
about. The work definitely doesn't stop when

00:15:22.429 --> 00:15:24.330
the child leaves the trauma day. Thank you for

00:15:24.330 --> 00:15:25.169
diving deep with us.
