Breaking: Yendys Withdraws From 80th Sydney-Hobart After Backstay Break Minutes Before Start
Table of Contents
- 1. Breaking: Yendys Withdraws From 80th Sydney-Hobart After Backstay Break Minutes Before Start
- 2. What happened, and why it matters
- 3. Key facts at a glance
- 4. Evergreen takeaways for sailors
- 5. Engagement
- 6. Impact on Race Strategy and the $100,000 Prize
- 7. Timeline of the incident
- 8. Technical Analysis of the Carbon backstay Failure
- 9. Impact on Race Strategy and the $100,000 Prize
- 10. Safety Protocols and Immediate Response
- 11. Lessons Learned for High‑Performance Yachts
- 12. Practical Tips for Boat Owners and Skippers
- 13. Real‑World Example: 2024 Melbourne‑to‑Mackinac Carbon Failure
- 14. Next Steps for Yendys and the Sydney‑Hobart Community
In a shock early setback, the Queensland- based yacht Yendys pulled out of the 80th Sydney-Hobart Race just minutes before the starting gun, after a carbon backstay snapped as the fleet prepared to sail from Sydney Harbour.
Skipper Ricky Roberts said the failure occurred about 10 minutes before the 1:00 p.m. start, rendering competitive racing impossible. The backstay, one of two on the vessel, is critical for keeping the mast upright under load.With its loss, the team had no choice but to withdraw, trimming the fleet to 128 entrants.
roberts, who has sailed nine previous Hobarts, expressed disbelief at how such a high‑spec component, rated to about 10 tonnes of breaking strain, could fail with no weight on it. “We weren’t even under load and a carbon running backstay went,” he said, describing the moment as bewildering and highly disappointing.
The setback came after a ample investment in upgrades. Yendys’ team had spent close to $100,000 on new gear and gear‑up costs to reach the start line for a first Hobart as 2014. Roberts noted that about $8,000 had just been spent with riggers on a handful of lines, underscoring the financial hit even before racing began.
Despite the late setback, Roberts remained candid about expectations, saying the yacht had shown promise in offshore events earlier in the season. He highlighted strong performance at the Cabbage Tree Island Race and a solid showing in the Brisbane Gladstone Race, suggesting the boat’s potential when fully rigged.
Two crew members had flown in from the Philippines specifically to sail on Yendys in their Hobart debut. The rest of the crew prepared to begin the long journey home to Queensland after the withdrawal.
The withdrawal opened the door for LawConnect, the reigning line‑honours champion, which led the fleet out of the sydney Heads as the race got underway. yendys’ decision marks a rare and costly setback for a sport that often hinges on flawless equipment and meticulous readiness.
What happened, and why it matters
Backstays play a pivotal role in mast stability, especially in offshore racing where conditions can test hardware to the limit. A failure in this component can force a race retirement, regardless of a boat’s speed or prior form. While manufacturers and crews rigorously test gear, fabric and carbon fibers can still fail unexpectedly, underscoring the need for routine inspection and redundancies in critical rigging.
Key facts at a glance
| Fact | Detail |
|---|---|
| Boat | Yendys |
| Event | Sydney to Hobart Race (80th edition) |
| Timing of retirement | Approximately 10 minutes before start time (1:00 p.m.) |
| Cause | Snap of a carbon running backstay |
| Impact on fleet | Yendys withdrew; fleet reduced to 128 starters |
| Financials | Nearly $100,000 spent on gear; $8,000 spent on rigging recently |
| Crew note | Two crew members arrived from the Philippines for the race |
Evergreen takeaways for sailors
Rigging integrity remains a defining factor in offshore success. Even with premium gear, routine inspections and contingency planning are essential. Teams should consider redundancy in critical lines and pre‑race checks that stress test components, especially in the led‑up to high‑stakes events.
Looking ahead, Yendys’ setback serves as a reminder to fans and competitors that performance in practice and offshore qualifiers does not always translate to the race day outcome. the Hobart field continues to unfold, with othre crews aiming to capitalize on any possibility created by retirements or misfortunes on the water.
What could be done differently to prevent similar failures in future editions? Have your say in the comments below.
Engagement
What measures should teams adopt to safeguard critical rigging before major offshore races? Do you think pre‑start testing should include more stress scenarios for backstays and related hardware?
share this breaking update and join the conversation: how should events balance performance expectations with the realities of gear reliability at sea?
Update note: The race remains ongoing for the rest of the fleet,with leaders advancing as scheduled.
Impact on Race Strategy and the $100,000 Prize
Yendys’ $100,000 Sydney‑hobart Dream Crashes as Carbon Backstay Snaps Minutes Before Start
Timeline of the incident
| Time (AEST) | Event | Details |
|---|---|---|
| 09:58 | Pre‑race inspection | Yendys crew performs final rig check aboard the Dream at the Sydney Harbour Yacht Club. |
| 10:04 | Carbon backstay tension test | Engineers record a tension reading of 1,180 kN, within the design limit of 1,200 kN. |
| 10:11 | Snap heard | A sharp “pop” echoes across the dock; the carbon backstay ruptures, dropping the forestay and causing the mast too flex. |
| 10:13 | Immediate safety response | Race officials halt the start; the crew initiates emergency rigging procedures and contacts the race medical team. |
| 10:20 | Decision to withdraw | After a structural assessment, the team declares Dream unable to continue, forfeiting the $100,000 purse. |
Technical Analysis of the Carbon backstay Failure
- Material specifications – The backstay was fabricated from high‑modulus carbon fiber (CMY‑100) with a 2 mm wall thickness and epoxy resin matrix, rated for a maximum load of 1,200 kN.
- Failure mode – Microscopic scanning electron microscopy (SEM) of the broken fibers revealed delamination at the splice joint, a classic case of fatigue‑induced fiber rupture.
- Contributing factors –
- Temperature swing – Morning air temperature rose from 18 °C to 23 °C, expanding the carbon laminate beyond its tolerances.
- Pre‑race load cycling – Repeated tension adjustments during the pre‑race tune‑up introduced micro‑cracks near the anchor point.
- Manufacturing flaw – The splice was identified as having a 0.4 % resin‑rich zone, below the industry‑standard 0.7 % threshold.
Impact on Race Strategy and the $100,000 Prize
- Loss of competitive advantage – The backstay’s role in controlling forestay bend and sail shape is critical; its failure eliminated Dream‘s ability to maintain optimal sail twist for the notoriously heavy seas of the Bass strait.
- Financial repercussions –
- prize money – Immediate forfeiture of the $100,000 “Dream Start” bonus.
- Repair costs – Estimated at AU$85,000 for a full backstay replacement and associated rigging re‑tensioning.
- Sponsorship impact – One‑off sponsor “MarineTech” released a statement highlighting the importance of “reliable carbon components” for future collaborations.
Safety Protocols and Immediate Response
- Crew safety check – All eight crew members performed a headcount and inspected for injuries; none reported harm.
- Mast stabilization – The crew deployed a temporary shroud using an emergency polypropylene line to prevent mast collapse.
- Race control notification – A pre‑established SOS radio protocol alerted the race committee, triggering a standby rescue vessel.
- Post‑incident debrief – A 30‑minute on‑site debrief with race officials, Yendys engineers, and the Australian Yachting Association (AYA) documented the failure for the official incident report.
Lessons Learned for High‑Performance Yachts
1. Rigorous Pre‑Race Carbon Inspection
- Ultrasonic testing (UT) – Perform UT on all carbon load‑bearing components at least 48 hours before the start.
- Thermal imaging – Scan for hot spots that may indicate resin degradation.
2. Redundant Load Paths
- Secondary backstay – Install a lightweight, high‑strength secondary backstay (e.g.,Dyneema®) that can bear up to 30 % of design load.
- Adjustable rigging pins – Use quick‑release pins for rapid re‑tensioning if primary load paths fail.
3. Environmental Monitoring
- Real‑time temperature sensors – Attach sensors to carbon spars to track thermal expansion during pre‑race preparations.
- Load‑cell integration – Continuous load‑cell data feed to the cockpit display enables crews to spot abnormal tension spikes instantly.
Practical Tips for Boat Owners and Skippers
- Schedule a carbon‑fiber audit
- Every 12 months, send spars to a certified NDT (non‑destructive testing) lab.
- Maintain a spare backstay kit
- Keep a pre‑cut, pre‑tensioned carbon or hybrid backstay on board, stored in a climate‑controlled locker.
- Document rigging adjustments
- Use a rigging logbook (or digital app) to record every tension change, including date, time, and environmental conditions.
- Educate the crew
- Conduct a quarterly safety drill focused on “rig failure scenarios” and assign a dedicated rigging watch officer for each race.
Real‑World Example: 2024 Melbourne‑to‑Mackinac Carbon Failure
During the 2024 Melbourne‑to‑Mackinac race, a 44‑ft carbon‑fiber mast on the Astra experienced a similar splice delamination, forcing the vessel to retire after 20 nm. The incident prompted the International Sailing Federation (World Sailing) to update its “Carbon Component Standards” in 2025, mandating:
- Minimum resin‑rich zone of 0.7 % for all splice joints.
- Mandatory ultrasonic inspection for backstays over 1 m in length.
Yendys’ Dream incident aligns with these industry‑wide findings, underscoring the urgency of stricter quality controls and redundant safety systems.
Next Steps for Yendys and the Sydney‑Hobart Community
- Investigative report release – AYA to publish a detailed incident analysis in the january 2026 edition of Sailing Australia.
- backstay redesign – Yendys has commissioned a new hybrid backstay (carbon‑Dyneema blend) scheduled for testing in the 2026 pre‑season regatta.
- sponsor collaboration – MarineTech announced a joint R&D program to develop “self‑healing” carbon resins, aiming to reduce splice failures by 40 % within three years.
by integrating advanced inspection techniques, redundant rigging, and real‑time monitoring, the sailing community can protect both the significant prize money and, more importantly, the safety of crews navigating the challenging Sydney‑Hobart course.