Zipline Braking Systems

09/16/2026

A WAIVER IS NOT A BRAKING SYSTEM.

Going ziplining? Before you step off the platform, ask the operator one simple question:

“Who does the braking?”

If the answer is:

“YOU do.”

You might want to ask a second question:

“How do you spell braking?” 😎

If they spell it with an E…

Well, E is for EMERGENCY.

There’s a serious engineering point behind the humor.

When you're traveling down a steel cable at 30, 40, or 50 mph, “YOU are the brakes” should not be the entire engineering plan.

A waiver can't slow you down.

A waiver can't absorb your kinetic energy.

A waiver can't compensate for rider weight, arrival speed, wind, temperature, or changing cable conditions.

And a waiver can't activate an emergency brake when something goes wrong.

Engineering can address those hazards.

That's why I keep coming back to three simple principles:

The rider enjoys the adventure.
The braking system stops the rider.
The emergency brake is there when the primary system isn't enough.

So if the safety briefing sounds like:

“YOU'RE THE BRAKES.”

Remember:

A waiver is not a braking system—and the Emergency Room shouldn't be the backup plan.

At Safer Designs, we're working toward a simpler idea:

Design the braking around the rider—not the rider around the braking.

Safer Designs

09/10/2026

Ziplining Is Dangerous—Especially When Braking Is Treated as an Afterthought.

The industry has reported approximately 10 accidents per 100,000 zipliners, with more than half related to “breaking”—sic—because the real problem is braking.

Yet as early as 2002, our zipline system—not ZipRider—incorporated:
A 3:1 factor of safety
A fail-safe braking trolley
A properly engineered spring array serving as the emergency braking system

These were not extras. They were essential layers of protection designed to prevent a single failure from becoming a catastrophic injury.

A waiver cannot slow a zipliner.
A warning sign cannot stop a runaway trolley.
And a guide should never be the final component in an inadequately designed braking system.

When foreseeable braking failures can cause catastrophic injuries, fail-safe engineering matters.

08/14/2026

“When Zipliners Are Are Not to Breaking (sic)…”
…they’re free to enjoy the ride.

Looking back at this week’s conversations—braking-system failures, spring arrays, emergency braking, standards, inspections, insurance, accident investigations, and safer product design—one principle keeps surfacing:
(The zipliner should not be the braking system.)

When riders are not asked to brake, they are free to smile, film, share—and return.

After investigating more than 100 zipline matters and spending decades designing, manufacturing, inspecting, testing, and analyzing these systems, I keep coming back to the same engineering question:

Why assign a life-safety function to the least-trained person in the system—the customer?

A better approach is to engineer the braking system around foreseeable variables:

Rider mass. Arrival speed. Cable slope. Temperature. Wind. Friction. Spring compression. Trolley performance. Brake-zone distance. And component failure.

Then ask the harder question:
What happens when something doesn't work as intended?

That is where fail-safe engineering at Safer Designs (see our website) matters.

At Safer Designs, our objective for 2027 is straightforward: continue developing braking systems that remove braking responsibility from the rider and help address one of the most persistent hazards I see in zipline accident investigations—braking-related incidents.

Our philosophy is simple:
Design the ride so the trolley may occasionally stop a rider too soon—but, at a Six Sigma level, rarely too late.

Because the best zipline experience isn't a rider thinking:
"When do I brake?"

It's a rider thinking:
“That was awesome. Let's go again.”

07/27/2026

ETHICS BOARD https://youtu.be/mNtN3GPaMKE

Section H – Zip Line Systems

Engineering Integrity. Public Safety. Professional Accountability.

A modern zipliner approaching a landing platform does not need to stop themselves: that is the zipline owners RESPONSIBILIY (duty, obligation, and accountability.)

Clear Landing Area
Free of foreseeable impact hazards.
Primary & Secondary Brake (Fail-safe friction-braking is safer)
Performs as designed during normal operation.

Emergency Brake
Protects participants if the primary brake does not safely arrest motion.
Compression Spring Array (safer)
Operates w/o Participant Input: Safely Arrests Zipliner Motion

Landing Zone
Designed for braking, arrest, and safe dismount.

Hazard-Free Clearance Envelope
Participants should not contact exposed structural or braking components during foreseeable rider motion.

07/27/2026

https://youtu.be/mNtN3GPaMKE

From: Michael Troy Richardson, BS, MA, MS Email: [email protected]

Date of Letter: October 17, 2025
To: Ethics Committee Association for Challenge Course Technology / ANSI
Subject: Ethics Complaint Regarding Misrepresentation of ACCT/ANSI Standards by Credentialed Experts

Published Opinions by Named ACT ExpertsIn his affidavit, Richard ...

07/27/2026

What Is the ROI of a Friction-Braking Zipline Trolley?

Most people think the ROI (return on investment) is simply fewer accidents.

We think it's much bigger.

A properly engineered friction-braking trolley can help create:

✅ More confident riders
✅ More "Look, Mom—no hand braking!" moments
✅ More Facebook, Instagram, and TikTok posts
✅ More repeat guests and referrals
✅ More consistent arrivals and operations
✅ Greater trust from families and insurers

We call part of that value Pillow Insurance—the peace of mind that comes from engineering foreseeable braking risks out of the rider experience.

The safest zipline may also become the most marketable zipline.

When riders feel secure, they smile, wave, film the ride, and share the experience with friends and family.

That's where safer engineering becomes free advertising.

A real-world example: In 2002, Park City Mountain Resort (PCMR) installed our friction-braking technology and realized a 6-month ROI through improved operations and guest experience. Every installation is different, but it demonstrated that investing in safer engineering can also make sound business sense.

Safety isn't just an expense.

It's a competitive advantage.

It's happier guests.

It's stronger reviews.

It's repeat business.

It's free social media.

Safer Designs
🌐 www.SaferDesigns.com

"The best safety investment is one your guests can't stop talking about."

07/27/2026

What Is the ROI of a Friction-Braking Zipline Trolley?

It is more than stopping riders safely.

A properly engineered friction-braking trolley can help create:

✅ More confident riders
More “Look, Mom—no hand braking!” videos
More free Facebook and social-media posts
More consistent arrivals
Better hourly throughput
Less dependence on perfect rider reactions
Reduced incident and downtime exposure
Stronger conversations with insurers

We call part of that value Pillow Insurance.

Not an insurance policy—but the peace of mind that comes from engineering foreseeable braking risks out of the rider experience.

The safest zipline may also become the most marketable zipline.

When riders feel secure, they look up, smile, wave, record the experience, and share it with friends and family.

That is where safer engineering becomes free advertising.

Friction-braking trolleys do not simply reduce risk. They can increase trust, revenue, repeat business, and social-media exposure.

07/17/2026

What Your Zipline Builder Didn’t Tell You About Gravity, Speed & Momentum

Your zipline builder may have told you the cable was strong.

Your inspector may have checked the harness, trolley, and connections.

But did anyone explain the physics?

A zipline is a gravity-powered transportation system. As the rider descends, elevation becomes speed—and speed creates kinetic energy and momentum.

The faster the rider travels, the harder the braking system must work. Double the speed, and the rider’s kinetic energy increases by approximately four times.

That energy does not disappear (https://youtu.be/4neCeDqI3mk).

It must be safely absorbed by the braking system, the cable, the trolley, or—when the system fails—the rider’s body.

Two-wheeled pulleys can also create instability, excessive movement, impact hazards, derailment risks, and dangerous stopping forces.

A waiver cannot suspend gravity.

An inspection sticker cannot repeal physics.

And “the rider came in too fast” is not an explanation—it may be evidence that the system was improperly designed, tested, or operated.

MIT Experts investigates what the builder, designer, operator, and inspector should have known before the accident happened.

07/04/2026

Freedom Is Engineered. Happy 250th Birthday, America.

As we celebrate 250 years of American independence, I'm reminded that freedom has always been fueled by innovation.

From bridges and railroads to aviation and space exploration, American engineers have solved problems that once seemed impossible—not by hoping for the best, but by designing for it.

The same principle applies to adventure attractions.

The goal of a zipline shouldn't simply be to get riders from Point A to Point B. It should provide them the freedom to enjoy the experience.

Freedom to look at the scenery.

Freedom to laugh with family and friends.

Freedom to raise their hands for the perfect photo.

Freedom from worrying about braking at the right moment.

For more than 25 years, our friction-braking technology has helped demonstrate that thoughtful engineering can improve both safety and the guest experience.

When engineering manages the arrival, riders create something even more valuable—genuine smiles, unforgettable memories, and authentic social media moments that no advertising budget can buy.

The best engineering often goes unnoticed because it quietly does its job.

As America celebrates 250 years of freedom, let's also celebrate the engineers, manufacturers, operators, and innovators who continue building a safer future.

Freedom isn't just protected, its engineered.

Happy Independence Day, America(!)

Our Zipline Braking Systems are designed by the foremost Zipline Braking Expert over 25 years ago. We want to help zipline operators and owners reduce 60% of their accident claims this year(!)

06/25/2026

"Fatal Attractions: The Cost of Cutting Corners v. Their Waiver" in a series (e.g.,

Fatal Attractions: Evidence Never Lies

Fatal Attractions: Behind Every Ride Is a Story

Fatal Attractions: Where Engineering Meets the Courtroom

Fatal Attractions: How Small Failures Become Catastrophes

Fatal Attractions: Saving Lives Through Better Engineering

(Fatal Attractions: Lessons Written in Blood)

Fatal Attractions: Preventable. Predictable. Proven.

After investigating more than 150 amusement attraction cases, I've learned one lesson that never changes:

Accidents don't happen in a vacuum.

They follow a chain of engineering decisions, inspection failures, maintenance shortcuts, operational lapses, and risk assessments that too often place profits ahead

Faial Attractions: $206M Safer Attractions for Children vs. Economics, Delay, and Outspend

A waiver may acknowledge risk.

But for... It does not eliminate the duty to design, inspect, maintain, and operate attractions with reasonable care.

The laws of physics don't recognize waivers.

Gravity doesn't care what was signed.

Evidence doesn't disappear because a disclaimer exists.

That's why I'm writing my first book in a series:
Fatal Attractions: The Cost of Cutting Corners v. Their Waiver

It will examine real investigations, engineering failures, industry standards, and the lessons learned from attraction incidents—so the next tragedy can be prevented before it happens.

The goal isn't to assign blame. It's to save lives.