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Six Flags Over Georgia Goliath Incident (12-Oct-2026)

Thanks to @Nicky Borrill for blacking out the rider in the photo. I've also added a spoiler tag (available under More Options in the post interface) to provide an additional layer of sensitivity.

This is obviously an unusual and powerful image, and I appreciate everyone being thoughtful about both its impact and the role it plays in informing the many unanswered questions surrounding how this incident could have occurred. While the photo may offer useful context for discussion, it's worth remembering that we're still looking at a single moment in time, and the full picture will ultimately come from the investigation. 🙏

To tie together a few observations about how the restraint system works, and to explore whether a mechanical failure is even a plausible explanation, it's helpful to start with the rack-and-pinion system: a simple but remarkably versatile mechanism used in everything from industrial equipment to automobiles.

At its core, a rack-and-pinion consists of two meshing gears: a circular gear called the pinion and a straight, toothed gear called the rack. As the pinion rotates, it converts rotational motion into linear movement along the rack, allowing forces to be transferred in a precise and controlled manner.

This design is widely used because it's reliable, compact, and capable of handling significant loads while maintaining accurate positioning. Most people have interacted with a rack-and-pinion system without realizing it. One of the most common examples is an automobile's steering system, where the rotation of the steering wheel turns a pinion gear that moves a rack side-to-side, ultimately directing the vehicle's wheels.

The examples below illustrate the same fundamental concept at work. While the application may differ, the underlying principle is identical: controlled movement through the engagement of interlocking teeth, transferring force from one component to another with a high degree of precision.

Think of it as the mechanical equivalent of translating one form of motion into another, exactly the type of task rack-and-pinion systems excel at. Auto examples:

giphy.webp
giphy.gif
giphy.gif

Rack-and-pinion systems are well-suited for ride restraints because they allow smooth movement, precise adjustment for riders of different sizes, continuous gear engagement that minimizes the possibility of slippage, and the ability to withstand significant forces within a relatively compact mechanism.

That said, the rack and pinion itself isn't what makes the restraint safe. Most coaster restraint systems incorporate one or more positive-locking mechanisms in addition to the primary restraint structure. This takes the form of a spring-loaded ratcheting mechanism that maintains constant pressure against the pinion and physically blocks unwanted movement, or hydraulic locks for more modern, pneumatic systems (think Intamin, Zamperla, etc.)

The "clicks" riders hear when a lap bar is lowered are the sound of that ratcheting system engaging, much like the clicking noise you hear when extending an automotive seatbelt. Each click represents another point of positive engagement, and safer distance from disengaged.

The diagram below shows a simplified example of a ratcheting roller coaster restraint system. Conveniently, it depicts a B&M inverted coaster-style restraint, which operates on principles similar to those used in B&M Hyper coaster restraints. In this design, two independent rack-and-pinion ratcheting assemblies are used, incorporating multiple locking components and redundant safety features.

1791916072223.png
The image on the right provides a clear view of how the rack-and-pinion mechanism engages. The rack is the straight, toothed bar, while the pinion is the smaller gear that meshes with those teeth.

When people refer to a restraint needing "three clicks," what they're really describing is more than simple engagement. The restraint must not only lock into place, but engage deeply enough to meet a specified safety threshold. That additional engagement creates a substantial safety margin and greatly reduces the already remote possibility of the gear skipping a tooth or disengaging. As @CanobieFan noted, there are also visual and electronic safeguards in place, including a painted red threshold marker on the lap bar and a detection system that provides a green/red status indication confirming proper restraint engagement.

While I encourage everyone to treat speculation as exactly that, speculation, and wait for investigators to determine what actually occurred, it's important not to get swept up in the more extreme theories circulating on social media. From a purely mechanical perspective, modern restraint systems are designed with multiple layers of redundancy, which is one reason investigators typically examine operational procedures, rider fit, maintenance history, and restraint performance together rather than assuming any single cause. Even theories involving worn components or poor manufacturing run into the reality that these systems are intentionally designed with multiple layers of redundancy.

Looking more broadly at fatal amusement ride accidents, human error has historically been a significant contributing factor and is often one of the first areas investigators examine. CF maintains a useful archive of ride incidents and investigations (https://coasterforce.com/category/accidents/). Some notable examples where operational or restraint-related factors played a role include:
  • 2011 – Superman: Ride of Steel (Darien Lake): A rider with amputated legs was ejected from the train. Investigators concluded the restraint system was not designed for a rider with that physical condition, contributing to the accident.
  • 2013 – New Texas Giant (Six Flags Over Texas): An overweight rider was ejected after the restraint system failed to properly secure her within manufacturer operating parameters.
  • 2015 – The Smiler (Alton Towers): Multiple riders suffered severe injuries when one train collided with another after operators manually overrode established safety protocols.
  • 2021 – Mine Drop (Glenwood Caverns): Investigators found that ride operators bypassed restraint-related warning indications, resulting in a fatal rider ejection.
Again, none of this should be interpreted as a conclusion about the current incident. Investigators need to follow the evidence wherever it leads. However, given the layers of mechanical redundancy built into modern restraint systems, history suggests that operational factors, restraint fit, or procedural failures are often examined just as closely, if not more closely, than the possibility of a purely mechanical failure.
 
Thanks to @Nicky Borrill for blacking out the rider in the photo. I've also added a spoiler tag (available under More Options in the post interface) to provide an additional layer of sensitivity.

This is obviously an unusual and powerful image, and I appreciate everyone being thoughtful about both its impact and the role it plays in informing the many unanswered questions surrounding how this incident could have occurred. While the photo may offer useful context for discussion, it's worth remembering that we're still looking at a single moment in time, and the full picture will ultimately come from the investigation. 🙏

To tie together a few observations about how the restraint system works, and to explore whether a mechanical failure is even a plausible explanation, it's helpful to start with the rack-and-pinion system: a simple but remarkably versatile mechanism used in everything from industrial equipment to automobiles.

At its core, a rack-and-pinion consists of two meshing gears: a circular gear called the pinion and a straight, toothed gear called the rack. As the pinion rotates, it converts rotational motion into linear movement along the rack, allowing forces to be transferred in a precise and controlled manner.

This design is widely used because it's reliable, compact, and capable of handling significant loads while maintaining accurate positioning. Most people have interacted with a rack-and-pinion system without realizing it. One of the most common examples is an automobile's steering system, where the rotation of the steering wheel turns a pinion gear that moves a rack side-to-side, ultimately directing the vehicle's wheels.

The examples below illustrate the same fundamental concept at work. While the application may differ, the underlying principle is identical: controlled movement through the engagement of interlocking teeth, transferring force from one component to another with a high degree of precision.

Think of it as the mechanical equivalent of translating one form of motion into another, exactly the type of task rack-and-pinion systems excel at. Auto examples:

giphy.webp
giphy.gif
giphy.gif

Rack-and-pinion systems are well-suited for ride restraints because they allow smooth movement, precise adjustment for riders of different sizes, continuous gear engagement that minimizes the possibility of slippage, and the ability to withstand significant forces within a relatively compact mechanism.

That said, the rack and pinion itself isn't what makes the restraint safe. Most coaster restraint systems incorporate one or more positive-locking mechanisms in addition to the primary restraint structure. This takes the form of a spring-loaded ratcheting mechanism that maintains constant pressure against the pinion and physically blocks unwanted movement, or hydraulic locks for more modern, pneumatic systems (think Intamin, Zamperla, etc.)

The "clicks" riders hear when a lap bar is lowered are the sound of that ratcheting system engaging, much like the clicking noise you hear when extending an automotive seatbelt. Each click represents another point of positive engagement, and safer distance from disengaged.

The diagram below shows a simplified example of a ratcheting roller coaster restraint system. Conveniently, it depicts a B&M inverted coaster-style restraint, which operates on principles similar to those used in B&M Hyper coaster restraints. In this design, two independent rack-and-pinion ratcheting assemblies are used, incorporating multiple locking components and redundant safety features.

View attachment 43491
The image on the right provides a clear view of how the rack-and-pinion mechanism engages. The rack is the straight, toothed bar, while the pinion is the smaller gear that meshes with those teeth.

When people refer to a restraint needing "three clicks," what they're really describing is more than simple engagement. The restraint must not only lock into place, but engage deeply enough to meet a specified safety threshold. That additional engagement creates a substantial safety margin and greatly reduces the already remote possibility of the gear skipping a tooth or disengaging. As @CanobieFan noted, there are also visual and electronic safeguards in place, including a painted red threshold marker on the lap bar and a detection system that provides a green/red status indication confirming proper restraint engagement.

While I encourage everyone to treat speculation as exactly that, speculation, and wait for investigators to determine what actually occurred, it's important not to get swept up in the more extreme theories circulating on social media. From a purely mechanical perspective, modern restraint systems are designed with multiple layers of redundancy, which is one reason investigators typically examine operational procedures, rider fit, maintenance history, and restraint performance together rather than assuming any single cause. Even theories involving worn components or poor manufacturing run into the reality that these systems are intentionally designed with multiple layers of redundancy.

Looking more broadly at fatal amusement ride accidents, human error has historically been a significant contributing factor and is often one of the first areas investigators examine. CF maintains a useful archive of ride incidents and investigations (https://coasterforce.com/category/accidents/). Some notable examples where operational or restraint-related factors played a role include:
  • 2011 – Superman: Ride of Steel (Darien Lake): A rider with amputated legs was ejected from the train. Investigators concluded the restraint system was not designed for a rider with that physical condition, contributing to the accident.
  • 2013 – New Texas Giant (Six Flags Over Texas): An overweight rider was ejected after the restraint system failed to properly secure her within manufacturer operating parameters.
  • 2015 – The Smiler (Alton Towers): Multiple riders suffered severe injuries when one train collided with another after operators manually overrode established safety protocols.
  • 2021 – Mine Drop (Glenwood Caverns): Investigators found that ride operators bypassed restraint-related warning indications, resulting in a fatal rider ejection.
Again, none of this should be interpreted as a conclusion about the current incident. Investigators need to follow the evidence wherever it leads. However, given the layers of mechanical redundancy built into modern restraint systems, history suggests that operational factors, restraint fit, or procedural failures are often examined just as closely, if not more closely, than the possibility of a purely mechanical failure.


Isn't it a ratchet and pawl system that actually locks the restraint on clamshells, rather than a rack and pawl like on the inverts?

Trinquete_no_watermark.png

I'm led to believe that the B&M clamshell restraints contain 4 independent pawls in total, and each should be capable of keeping the restraint locked, even if the other 3 fail... That's some serious redundancy if true.

Great post btw, and thanks for sharing so much info... Thanks also for the spoiler edit, wish I'd thought of that.
 
Isn't it a ratchet and pawl system that actually locks the restraint on clamshells, rather than a rack and pawl like on the inverts?

View attachment 43492

I'm led to believe that the B&M clamshell restraints contain 4 independent pawls in total, and each should be capable of keeping the restraint locked, even if the other 3 fail... That's some serious redundancy if true.

Great post btw, and thanks for sharing so much info... Thanks also for the spoiler edit, wish I'd thought of that.
Yup exactly right on the ratchet and pawl! I had a previous life working in high ropes and outdoor adventure - a lot of these safety mechanisms for ziplines, high ropes climbing, etc. share the same mechanics as coaster restraint systems. :)
 
I’ve read through the entire thread, and the amount of fatphobia and victim-blaming is genuinely concerning and, frankly, disgusting.

There is no evidence that the victim was obese or too overweight to ride, nor has this been mentioned anywhere as a confirmed fact. The fact that so many members have jumped to this conclusion without knowing anything about the victim or having any reliable information speaks volumes about the parasocial attitudes and bizarre mentality within parts of the coasterfan community. People seem far too eager to dehumanize a victim just to defend a manufacturer or a theme park, while being equally quick to shift the blame onto the victim or the ride operators without knowing the facts.

Here is the victim :

23068433-6flagsteacher-thumb.jpg


The amount of misinformation being spread about a deceased person is deeply disturbing. What shocks me even more is that the moderators have seemingly allowed this thread to remain full of such comments without taking action to clean it up. A person has died, and the least they deserve is basic respect rather than baseless speculation, hateful comments, and attempts to shift the blame onto them.
Reddit locked the thread because many people were spreading false rumors about the victim, particularly claiming that they were obese, which is clearly false, as you can see in the picture.

Furthermore, according to witnesses who were present at the station, the clamshell did indeed arrive open. But apparently, some people refuse to even consider that possibility. Instead, they insist that it must have been the fault of an obese rider or incompetent ride operators. All of this is being claimed without any actual evidence.

 
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I’ve read through the entire thread, and the amount of fatphobia and victim-blaming is genuinely concerning and, frankly, disgusting.
I think you might be confusing what you have read here with what you have read on other social media channels, it's relatively respectful here. Speculation is inevitable in the wake of any disaster, people want to know the cause and share any and all ideas about all possibilities. I suggest you use the "report" button for any posts you consider offensive, rather than posting like this to criticise the forum members and moderators as a whole.

It's a terrible tragedy, RIP to a fellow enthusiast, I hope the cause gets fully understood so this can never happen again.
 
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and victim-blaming

Has anybody here blamed the victim? If anybody's brought up the possibility of the rider's weight, it's been pointed out as error on the ride operators fault as it has been in so many cases before where somebody was allowed to ride who shouldn't have been riding leading to incident. If someone says something along the lines of "he shouldn't have been riding" doesn't mean he himself should've known, it means he shouldn't have been allowed on, if it was indeed the case that he wasn't a compatible rider.
 
I’ve read through the entire thread, and the amount of fatphobia and victim-blaming is genuinely concerning and, frankly, disgusting.

There is no evidence that the victim was obese or too overweight to ride, nor has this been mentioned anywhere as a confirmed fact. The fact that so many members have jumped to this conclusion without knowing anything about the victim or having any reliable information speaks volumes about the parasocial attitudes and bizarre mentality within parts of the coasterfan community. People seem far too eager to dehumanize a victim just to defend a manufacturer or a theme park, while being equally quick to shift the blame onto the victim or the ride operators without knowing the facts.

Here is the victim :

View attachment 43496

The amount of misinformation being spread about a deceased person is deeply disturbing. What shocks me even more is that the moderators have seemingly allowed this thread to remain full of such comments without taking action to clean it up. A person has died, and the least they deserve is basic respect rather than baseless speculation, hateful comments, and attempts to shift the blame onto them.
Reddit locked the thread because many people were spreading false rumors about the victim, particularly claiming that they were obese, which is clearly false, as you can see in the picture.

Furthermore, according to witnesses who were present at the station, the clamshell did indeed arrive open. But apparently, some people refuse to even consider that possibility. Instead, they insist that it must have been the fault of an obese rider or incompetent ride operators. All of this is being claimed without any actual evidence.



I saw a mainstream news report from one of the big US channels, they had an expert on who immediately suggested that the victim may have been a thoosie who left himself too much of a 'gap' for extra airtime.... I have also seen many people on other platforms suggesting his size may have played a part... There has not been anything so insensitive here from what I've read...

I pointed out that the second restraint in the image was also a larger man, to show that even for a larger man, the restraint was much lower. I see that as defending him rather than blaming him... I did also reference Tyre, but that was a similar incident in which a person came free from a restraint that was not in a fully safe position, and I was referencing the fact that it turned out to be human error / interference, nothing else... But is one of these comments maybe what has upset you? If it is I apologize, and would like to reiterate that my only observation was that the restraint is absolutely not in a locked position in the ORP... The reasons why are not, and cannot be clear at this stage.
 
@Nicky Borrill I don't think that post was about you but rather a few 'he must've been too fat' posts like the one quoted below on the first page of this thread.
Unconfirmed but sounds like this gentleman was denied access on every other ride except this one, and should not have been on the ride. This is a New Texas Giant/Intamin Superman hyper situation all over again.

To all of that, @Pierre had already put it best:
Sorry but what is all this rubbish about 'two clicks, three clicks' are ride operators supposed to manually watch every guest push their restraint down and count the number of clicks now? Surely if the ride system shows a green light and safe to dispatch then it's good to go, and if it isn't good to go then it can't be dispatched?

If that ride has allowed to be dispatched then the restrain system has met requirements. The only way this could be put back to negligence is if the guest has somehow managed to manipulate the system by not sitting in the seat correctly and therefore not being restrained effectively.

What we know is that the restraint came back open. We don't know what caused this and can only speculate, with the most unlikely option looking like the most likely one, for me at least (mechanical failure).
 
While I encourage everyone to treat speculation as exactly that, speculation, and wait for investigators to determine what actually occurred, it's important not to get swept up in the more extreme theories circulating on social media.

I've made the very wonderful decision to stray away from social media and reddit during this time. I'm strictly using this as my platform of information as I couldn't bother to be slapped in the face with GP slop and straight up lies. We're all knowlegable and have at least an OUNCE of maturity here.
 
If anyone’s curious if any of the non-Six Flags B&M hypers have shut because of this, apparently Mako hasn’t opened yet today. Silver Star, Shambhala, and Hollywood Dream have all been running, however. Hersheypark’s closed on weekdays so jury’s out on Candymonium at the moment.
As of today, Hollywood Dream is also down
 
As of today, Hollywood Dream is also down

For those of the less educated variety, like myself, who do not want to click onto that platofrm, that translates (according to X) as:

Following Fatal Accident, Hollywood Dream to Suspend Operations

At Six Flags in the United States, an accident occurred on a roller coaster where the safety bar came loose during operation, causing a passenger to fall to their death.

As this model has been exported to many locations, and Hollywood Dream – The Ride is one of them, it has been decided to suspend operations.#USJ_now

I did also notice this though....

Screenshot 2026-10-14 144916.png

EDIT:

It is definitely a parody account... This is their follow up post...

Screenshot 2026-10-14 145826.png
 
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I think we're more likely to see a simple cause. I.e. restraint not down far enough for the man and staff didn't properly staple before dispatching train. Nothing mechanical failing, nothing going wrong with the ride, just human error and a restraint not coming down enough.

The number of people I see doing the opposite of stapling (and going to all sorts of lengths to give themselves more space) is concerning
 
I think we're more likely to see a simple cause. I.e. restraint not down far enough for the man and staff didn't properly staple before dispatching train. Nothing mechanical failing, nothing going wrong with the ride, just human error and a restraint not coming down enough.

The number of people I see doing the opposite of stapling (and going to all sorts of lengths to give themselves more space) is concerning

Giving extra space doesn't cause the restraint to become unlocked.
 
This article is making the rounds on socials as the best-written so far, and although almost everything in it has been discussed in this thread, I thought I would post it since about a dozen new members have signed up in the last 24 hours viewing this thread.

 
It was definitely fully unlocked. There is no large gap between the seat and clamshell when locked. It's also not possible to fall out if the restraint is locked at all.
The photos show a partially closed restraint. If open, the arms are beyond vertical in appearance. It's a plausible explanaiton which I find most likely.

It's summarised nicely in the article: a rider could stop the bar before it was lowered securely over the thighs, leading to a situation in which the ratchet was technically locked — and remained locked — but there was sufficient clearance for the rider’s hips and thighs to move past it during negative-g portions of the ride.
 
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