Safety

Level 150 lifejackets are intended for coastal and offshore use and are designed to help turn an unconscious wearer face-up. That performance still depends on the right size and buoyancy for the activity, a snug fit over the clothing actually worn, correctly adjusted crotch straps, serviceable condition and the maker's servicing schedule. Level 275 is aimed at extreme offshore conditions or heavy, air-retaining clothing; it is not automatically the safer choice for every passage.

A safety line connects a correctly fitted harness to a purpose-made strong point or jackstay. Agree the route before conditions worsen, clip on before leaving the protected area and use the shortest suitable tether. Guardrails are not harness attachment points, and jackstays should be kept close to the centreline where practicable. Remaining attached does not make immersion safe: a person dragged alongside can drown, so stop the vessel if a tethered person enters the water.

Where a kill cord is fitted, the driver wears it whenever the engine is running and tests it at the start of the day or session. Stop the engine before changing driver; attach the cord to the new driver before restarting. Do not lengthen it beyond the engine maker's arrangement or clip it to loose clothing that can pull free.

The skipper sets observable triggers rather than relying on 'clip on when it feels rough'. Darkness, reduced visibility, an exposed deck task, a reefing evolution, fatigue, a rising sea or a short-handed watch can all justify an earlier lifejacket and tether policy. Brief the route, strong points and response if somebody is left suspended or enters the water.

For grave and imminent danger when assistance is required, send the VHF DSC distress alert on Channel 70 by pressing and holding the covered control until the set confirms it has sent. The alert identifies the vessel by MMSI and can include position and time when valid navigation data reaches the radio. It carries the selected nature of distress, or an undesignated distress if none was selected.

On receiving a DSC acknowledgement, or after about 15 seconds, transmit the voice MAYDAY call and message on Channel 16 when circumstances permit. Give MAYDAY three times, vessel name three times, call sign or other identity and MMSI, then repeat MAYDAY and state vessel identity, position, nature of distress, assistance required, people on board and other useful information before OVER.

PAN PAN is for an urgent concern about the safety of a person or vessel below the MAYDAY threshold. Current MCA small-boat guidance uses a DSC All Ships Urgency call with a nominated working channel, an announcement on Channel 16 and the full message on that working channel. Escalate to MAYDAY when the developing facts meet the distress threshold.

An EPIRB transmits a 406 MHz satellite distress alert; GNSS-equipped units can include position. A beacon carried on a UK-registered ship or watercraft must be registered with the UK Beacon Registry and kept current. A radar SART is a close-range locating aid. VHF range depends strongly on antenna height, so use complementary alerting and locating methods rather than treating any one device as a rescue guarantee.

HM Coastguard is the UK authority coordinating civil maritime search and rescue. At sea, use the appropriate DSC and VHF procedure; from shore, or when radio is unavailable, call 999 or 112 and ask for the Coastguard. Give identity, reliable position, the problem, people involved, assistance required and intentions. Calling early with an honest urgency assessment gives more options than waiting for control to be lost.

HM Coastguard also participates in the UK Maritime Safety Information service. Forecasts, gale warnings and navigational warnings are delivered by NAVTEX and scheduled or unscheduled radio broadcasts. An announcement on Channel 16 normally directs listeners to a working channel. A skipper still checks current forecasts, tides and warnings; hearing one broadcast does not replace a continuing appraisal.

A responsible shore contact can pass a useful overdue report, but this is not a Coastguard passage-plan filing service. Give the contact a route, people aboard, vessel details, communications, destination, latest arrival time and a clear escalation instruction. Tell them when the plan changes or the vessel arrives so they do not raise a false alarm.

The Boat Safety Scheme is a public-safety initiative for UK inland waterways and supporting navigation or harbour authorities. Its checks address hazards including fire, explosion, carbon monoxide, fuel, gas, electrical systems and pollution. Those hazard controls remain valuable on a coastal yacht, but BSS certification applicability is authority- and waterway-specific and does not replace coastal seaworthiness, statutory or coding duties, or a passage-specific inspection.

A compliant red rocket parachute flare fired vertically reaches at least 300 metres and burns bright red for at least 40 seconds, making it a long-range alerting signal. A compliant red hand flare burns for at least one minute and helps a known approaching rescuer pinpoint the casualty. A buoyant smoke signal emits highly visible smoke for at least three minutes in calm water and is primarily a daylight locating signal.

A white hand flare is not a recognised distress signal. It can warn another vessel of your presence or a collision risk, but it must not be mistaken for a red distress signal. Signal choice depends on day or night, visibility, whether help is already searching nearby and the vessel's actual carriage requirements.

Read the maker's instructions before an emergency, keep signals dry, accessible and in date, and fire them only when the emergency and chance of detection justify it. Performance figures describe the compliant product, not a guarantee that a particular observer will see it.

HM Coastguard stopped accepting unwanted flares from private individuals in January 2023. Use a confirmed third-party or take-back route such as a supplier, marina, liferaft service, local authority or suitable waste business. Never dismantle, test-fire or place unwanted pyrotechnics in ordinary waste.

Prevention starts with maintained fuel and electrical systems, clean bilges, correctly installed gas equipment, secured flammable liquids and cooking that is never left unattended. Fire extinguishers must be visible and accessible from an escape route; keep a suitable fire blanket close to cooking facilities without placing it beyond the likely fire.

The fire triangle is a decision model: sustained fire needs fuel, heat and oxygen. Safely shutting off gas or fuel removes the fuel supply; cooling removes heat; closing a space or stopping ventilation can reduce oxygen. None of these actions is worth trapping a crew member or feeding the fire by opening the wrong hatch.

Use an extinguishing medium rated for the burning material. Water is for suitable Class A solid-material fires and must not be used on liquid, gas or electrical fires. Dry powder can cover several classes but creates residue, reduces visibility and can affect breathing. CO2 can work on some small Class B and live-electrical fires, but it disperses in the open and can create an asphyxiating atmosphere in a confined space. A fire blanket can control a small pan or cooking-oil fire when it can be applied from the escape side.

On discovering fire, shout the alarm, account for the crew and keep the escape route behind you. Stop engines, fuel, gas, electrical supply or ventilation only where safe and appropriate; attack with the correct equipment from a protected position. Send the distress alert early if people or vessel are in grave and imminent danger, and prepare to abandon if control is doubtful.

Maintain the listening watch on Channel 16 or the frequency specified and repeat the aircraft's requested course, speed and working area. Clear loose gear before the helicopter arrives and keep unassigned people away from the winching area. Do not invent a universal heading or stop the vessel unless directed; the safe profile depends on the aircraft, wind, sea, yacht and casualty.

A hi-line is a light line used to guide the winchman or strop when the helicopter cannot hover directly overhead. Tend it, keep it clear of obstructions and feed or recover slack as directed. Never secure a hi-line or winch wire to the yacht and never wrap it around a person or hand.

The wire and the person being lowered may carry a dangerous static charge. Do not touch either until earthing or discharge has occurred and the aircrew or winchman directs contact. Do not assume one universal instruction to touch a particular part of the yacht first.

Once aboard, the winchman controls the transfer. Keep the working area clear, continue the requested course and speed, and report any fouled line or new hazard immediately. Never cut a fouled wire unless the helicopter crew directs it.

Start with the yacht, number and needs of people aboard, operating area, distance from help, weather, water temperature, daylight, passage length and the rules that apply. A coastal plan may include correctly fitted lifejackets, suitable harnesses and tethers, alerting and locating methods, fire-fighting equipment, first aid, sound signalling, lighting, communications and a practical means of recovering a person from the water. The exact carriage requirement is not identical for every pleasure vessel or voyage.

For a UK pleasure vessel under 13.7 metres, a liferaft is not automatically mandatory, but the skipper should consider distance from other boats and emergency services, water temperature, weather and the consequences of fire or sinking. Choose, stow and service any raft for the actual people and passage; the available crew must be able to reach and launch it.

A grab bag supplements the particular raft pack. Prioritise raising and maintaining the alarm, helping rescuers locate the survivors, protection from exposure and medical needs, then food and water. It may include a registered EPIRB or PLB, waterproof handheld VHF, suitable signals, torch, thermal protection, first aid, medication, water and a safety knife. Reconcile the list with what the raft already carries.

The departure briefing shows where equipment is, who uses it and what triggers each emergency plan. Check dates, batteries, service indicators and physical access; practice person recovery and make sure someone other than the skipper can raise the alarm and control the yacht. Abandon only when remaining aboard is more dangerous and follow rescue-service direction where available.

Shout the alarm immediately, deploy buoyancy and a visible marker, and appoint one person to maintain continuous visual contact. Mark the electronic position when available, but do not let the button press delay flotation or the helm response. The casualty moves while the yacht moves; a stored coordinate is evidence, not the person.

The skipper controls speed and separation while assigning communications and preparing the recovery side. Use a manoeuvre practiced for the yacht, propulsion, sail plan, crew and conditions. An immediate turn or stop may retain contact; a Williamson turn is one recognised return towards a reciprocal track after visual contact is lost. No named manoeuvre guarantees that the yacht will return alongside the casualty.

Plan the final approach so the yacht does not drift or surge onto the casualty. Keep the propeller clear and use neutral or stop the engine when appropriate to the practiced method. Account for wind, waves, freeboard and the side or quarter from which the recovery equipment works; a successful return that places the casualty beneath the hull or beyond the lifting point is not a successful approach.

An incapacitated casualty needs a prepared lifting system such as suitable lifting gear, a strop or a recovery net, used within its limitations. Current MCA guidance says the recovery plan should be yacht-specific, consider available crew, freeboard, wind, waves and equipment limitations, and minimise injury against the vessel. Drills must prove that the real crew can rig and use the arrangement.

Handle a cold casualty gently and recover horizontally or near-horizontally where practicable; vertical recovery can increase cardiac risk in hypothermia. Protect from wind, insulate, monitor breathing and responsiveness, and seek urgent medical guidance. Do not rub the skin, apply strong direct heat or give a drink to somebody who is not fully conscious and able to swallow.

The yacht's weight acts down through its centre of gravity, G, while buoyancy acts up through the centre of the underwater volume, B. As a stable monohull heels, the underwater shape changes and the horizontal separation of those force lines forms a righting lever, GZ. The resulting righting moment depends on the yacht's displacement and GZ; it changes with heel and loading and cannot be inferred from the upright feel alone.

Weight added high raises G and can reduce the ability to recover from a knockdown. Loose gear can shift to the low side. Liquid with a free surface in a slack tank, bilge or on deck moves as the yacht heels and produces a virtual loss of stability. The effect depends on tank geometry, subdivision, displacement and the stability data—not simply whether a tank is 'half full'. Follow the yacht's loading and tank guidance rather than applying a universal full-or-empty rule.

Water aboard causes several connected problems: added weight, free surface, reduced freeboard and possible progressive downflooding. Keep bilge suctions, cockpit drains and freeing ports clear; investigate unexplained water immediately. Close openings marked to remain shut at sea and secure washboards or hatches before rough conditions, while preserving the ventilation or system openings that must remain functional.

Seaworthiness is a continuing state. Secure heavy items for large heel angles, inspect seacocks, hoses and skin fittings, keep suitable bungs accessible, and know the bilge-pump limitations. A rising bilge level, new list, slower roll, blocked drain or water near an off-centre opening is evidence to reduce load, control ingress, change the plan and seek help before the margin disappears.

Start by avoiding unnecessary exposure. Compare the latest forecast and observed trend with tide races, overfalls, rapidly shoaling water, headlands, lee shores, daylight, bolt-holes and the return point. Wind against current, increasing wind, confused seas and steeply shoaling ground can create dangerous breaking waves even when the broad forecast number seems familiar.

Prepare before the threshold: reduce sail while the crew can still work securely, rig the boat-specific clipping route, secure heavy and loose gear, close vulnerable downflooding openings, check bilges and drains, prepare steering and communications backups, feed the crew and state the next diversion or assistance trigger. 'Reef early' is useful only when it becomes a concrete trigger and task plan.

Several tactics may be available after conditions worsen, but none produces one guaranteed attitude on every yacht. A heaving-to arrangement may involve a backed headsail, reduced mainsail or trysail and a tested helm position; the angle, drift, loads and protection depend on hull, keel, rig, sail balance, loading, wind, waves and sea room. Practise and record the yacht's behaviour in moderate conditions before relying on it offshore.

Lying ahull can expose a yacht beam-on to breaking seas and is not a generic safe default. Running off, streaming warps, using a purpose-designed drogue or deploying a sea anchor creates substantial loads and equipment-specific rigging, chafe and recovery problems. A drogue can add drag astern and help control speed or orientation, but it cannot guarantee prevention of broaching, pitch-poling, capsize or gear failure.

Crew condition is command evidence. Fear, seasickness, cold and fatigue reduce lookout, helming, communication and recovery capacity. Shorten watches, keep critical instructions explicit and reassess whether the remaining competent crew can still execute the plan. The MAIB Ocean Madam investigation shows why skipper confidence, assumptions about self-righting and an untested crew assessment cannot substitute for stability information, current weather and a conservative alternative plan.

Start with the actual operation: route exposure, daylight, tidal constraints, forecast and observed weather, sea room, diversion points, crew capability and the time for help to arrive. Then examine the barriers that keep those hazards controlled—watertight integrity, steering, propulsion, power, bilge systems, fire detection and isolation, personal safety equipment, communications, navigation, recovery and survival equipment.

Convert concerns into gates that can be checked. A gate needs evidence, an owner and an action if it fails. ‘The batteries should be fine’ is not a gate; a measured state, a charging check, an independent handheld and a latest decision time are. ‘The crew understand’ is not evidence; ask another person to locate position, stop the vessel, operate the distress control and identify the recovery equipment without prompting.

Look for common causes. A weak service battery can remove the fixed VHF, plotter, lights and electric bilge pump together. A liferaft buried below stores may exist on an inventory but be unreachable through smoke, flooding or heel. Several individually tolerable defects can therefore create one unacceptable loss of control. For stability, a free-surface penalty depends on tank geometry, filling state, liquid breadth and subdivision rather than one universal ‘half-full’ rule.

Record the operational consequence of each defect. The response may be repair, a different route, daylight-only operation, an extra competent crew member, a lower weather limit, an accessible independent backup or no departure. A formal minimum and a defensible command decision are different questions; this module cannot determine the legal or practical answer for an unidentified vessel and voyage.

Begin with the action that preserves options: slow or stop, create sea room, heave-to where the tested vessel and conditions permit, anchor where appropriate, isolate fuel or electricity, close openings or change course. The exact action is vessel- and situation-specific, but detailed diagnosis must not consume the remaining margin to danger.

Keep four functions explicitly owned: control of the vessel, control of the immediate emergency, navigation and hazard monitoring, and communications and log. A small crew may combine roles, but no function disappears because there are too few people. Give short instructions and request closed-loop reports such as water rising or falling, fire contained or spreading, casualty responsive or deteriorating, voltage stable or falling, and distance to danger.

Escalate from the real risk and trend. MAYDAY is used for grave and imminent danger requiring assistance; PAN PAN is for an urgent safety concern below that threshold. Do not delay an appropriate alert until every cause is known. Current MCA small-boat guidance uses DSC followed by the prescribed voice sequence, while other available beacons and locating aids complement rather than replace the spoken situation update.

After the first problem is controlled, reappraise the whole yacht: stability, watertight integrity, fire, power, propulsion, steering, navigation, communications, crew capacity, weather and destination. A pump keeping pace at one moment is not recovery if the battery is still falling or the route is closing. Finish the brief with the next observation time and the trigger for changing plan.

A strong response begins with what the skipper will do now to protect life and retain control. It then names the evidence that supports the decision, the uncertainty that remains, the person responsible for each concurrent task, and the point at which the plan changes. Quoting equipment or a memorised manoeuvre without showing control is not a Yachtmaster-level answer.

Use genuinely independent evidence. Position, course over ground and cross-track error may all depend on the same GNSS input. A fixed VHF, plotter and electric pump may depend on one battery. State what could fail together, which independent observation or supply challenges it, and how much time or sea room remains. Heavy-weather choices remain equally conditional: none can promise to prevent broaching, pitch-poling, capsize, or gear failure.

Brief in short operational language: who has the helm, who monitors the casualty or hazard, who navigates, who communicates, what each reports and when. Closed-loop confirmation matters because a spoken instruction is not complete merely because the skipper has said it.

This companion supports self-guided revision. It does not replace the recognised syllabus and logbook, practical instruction, first-aid or radio certification, vessel-specific drills, current official guidance or the examiner's assessment on a suitable seaworthy yacht.

The presence of equipment does not prove that it is usable. Ask whether the raft can be deployed from its stowage, whether the recovery system can lift the actual casualty, whether a second person can send distress traffic, whether the independent radio has charged batteries, and whether the yacht's essential services survive a common power loss.

Use conditions and exceptions rather than absolute rules. A defect may be tolerable on one short daylight operation with close support and unacceptable on an exposed night passage. The response must state which exposure changed, which control compensates, and who has verified it.

Schedule pressure is not safety evidence. A tidal gate, berth booking or crew commitment can make the decision harder, but it cannot restore a failed barrier. Preserve the option to delay, repair or choose a lower-exposure plan before departure converts a reversible problem into an emergency.

A good decision includes a route back to ‘go’. Record the repair or demonstration required, the revised forecast or daylight condition, the competent support needed and the latest time for reassessment. ‘No for now’ is more useful than an unexplained refusal because the crew can understand what evidence would change it.