Index of underwater diving: F–K

Last updated
Surface-supplied divers riding a stage to the underwater workplace Diving stage.jpg
Surface-supplied divers riding a stage to the underwater workplace

The following index is provided as an overview of and topical guide to underwater diving: Links to articles and redirects to sections of articles which provide information on each topic are listed with a short description of the topic. When there is more than one article with information on a topic, the most relevant is usually listed, and it may be cross-linked to further information from the linked page or section.

Contents

Underwater diving can be described as all of the following:

There are seven sub-indexes, listed here. The tables of content should link between them automatically:

F

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0–9

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Section contents: Top of section, Fa, Fe, Fi, Fl–Fn, Fo, Fr, Fu

Fa

Fe

Section contents: Top of section, Fa, Fe, Fi, Fl–Fn, Fo, Fr, Fu

Fi

Section contents: Top of section, Fa, Fe, Fi, Fl–Fn, Fo, Fr, Fu

Fl–Fn

Section contents: Top of section, Fa, Fe, Fi, Fl–Fn, Fo, Fr, Fu

Fo

Section contents: Top of section, Fa, Fe, Fi, Fl–Fn, Fo, Fr, Fu

Fr

Section contents: Top of section, Fa, Fe, Fi, Fl–Fn, Fo, Fr, Fu

Fu

Section contents: Top of section, Fa, Fe, Fi, Fl–Fn, Fo, Fr, Fu

G

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Section contents: Top of section, Ga, Ge, Gl, Go–Gp, Gr, Gu, Gy

Ga

Ge

Gl

Section contents: Top of section, Ga, Ge, Gl, Go–Gp, Gr, Gu, Gy

Go–Gp

Section contents: Top of section, Ga, Ge, Gl, Go–Gp, Gr, Gu, Gy

Gr

Section contents: Top of section, Ga, Ge, Gl, Go–Gp, Gr, Gu, Gy

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Section contents: Top of section, Ha–Hb, He, Hi, Ho, Hu, Hy

Ha–Hb

He

Section contents: Top of section, Ha–Hb, He, Hi, Ho, Hu, Hy

Hi

Section contents: Top of section, Ha–Hb, He, Hi, Ho, Hu, Hy

Ho

Section contents: Top of section, Ha–Hb, He, Hi, Ho, Hu, Hy

Hu

Section contents: Top of section, Ha–Hb, He, Hi, Ho, Hu, Hy

Hy

Section contents: Top of section, Ha–Hb, He, Hi, Ho, Hu, Hy

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Section contents: Top of section, Ic, Id, Im, In, Ir–Is, It

Ic

Id

Section contents: Top of section, Ic, Id, Im, In, Ir–Is, It

Im

Section contents: Top of section, Ic, Id, Im, In, Ir–Is, It

In

Section contents: Top of section, Ic, Id, Im, In, Ir–Is, It

Ir–Is

Section contents: Top of section, Ic, Id, Im, In, Ir–Is, It

It

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K

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See also


Related Research Articles

Nitrox refers to any gas mixture composed of nitrogen and oxygen that contains less than 78% nitrogen. In the usual application, underwater diving, nitrox is normally distinguished from air and handled differently. The most common use of nitrox mixtures containing oxygen in higher proportions than atmospheric air is in scuba diving, where the reduced partial pressure of nitrogen is advantageous in reducing nitrogen uptake in the body's tissues, thereby extending the practicable underwater dive time by reducing the decompression requirement, or reducing the risk of decompression sickness .The two most common recreational diving nitrox mixes are 32% and 36% oxygen, which have maximum operating depths of about 110 feet and 95 feet (29 meters respectively.

<span class="mw-page-title-main">Technical diving</span> Extended scope recreational diving

Technical diving is scuba diving that exceeds the agency-specified limits of recreational diving for non-professional purposes. Technical diving may expose the diver to hazards beyond those normally associated with recreational diving, and to a greater risk of serious injury or death. Risk may be reduced via appropriate skills, knowledge, and experience. Risk can also be managed by using suitable equipment and procedures. The skills may be developed through specialized training and experience. The equipment involves breathing gases other than air or standard nitrox mixtures, and multiple gas sources.

<span class="mw-page-title-main">Deep diving</span> Underwater diving to a depth beyond the norm accepted by the associated community

Deep diving is underwater diving to a depth beyond the norm accepted by the associated community. In some cases this is a prescribed limit established by an authority, while in others it is associated with a level of certification or training, and it may vary depending on whether the diving is recreational, technical or commercial. Nitrogen narcosis becomes a hazard below 30 metres (98 ft) and hypoxic breathing gas is required below 60 metres (200 ft) to lessen the risk of oxygen toxicity. At much greater depths, breathing gases become supercritical fluids, making diving with conventional equipment effectively impossible regardless of the physiological effects on the human body. Air, for example, becomes a supercritical fluid below about 400 metres (1,300 ft).

<span class="mw-page-title-main">Scuba diving</span> Swimming underwater, breathing gas carried by the diver

Scuba diving is a mode of underwater diving whereby divers use breathing equipment that is completely independent of a surface breathing gas supply, and therefore has a limited but variable endurance. The name scuba is an anacronym for "Self-Contained Underwater Breathing Apparatus" and was coined by Christian J. Lambertsen in a patent submitted in 1952. Scuba divers carry their own source of breathing gas, usually compressed air, affording them greater independence and movement than surface-supplied divers, and more time underwater than free divers. Although the use of compressed air is common, a gas blend with a higher oxygen content, known as enriched air or nitrox, has become popular due to the reduced nitrogen intake during long or repetitive dives. Also, breathing gas diluted with helium may be used to reduce the effects of nitrogen narcosis during deeper dives.

<span class="mw-page-title-main">Diver rescue</span> Rescue of a distressed or incapacitated diver

Diver rescue, usually following an accident, is the process of avoiding or limiting further exposure to diving hazards and bringing a diver to a place of safety. A safe place generally means a place where the diver cannot drown, such as a boat or dry land, where first aid can be administered and from which professional medical treatment can be sought. In the context of surface supplied diving, the place of safety for a diver with a decompression obligation is often the diving bell.

<span class="mw-page-title-main">Underwater diving</span> Descending below the surface of the water to interact with the environment

Underwater diving, as a human activity, is the practice of descending below the water's surface to interact with the environment. It is also often referred to as diving, an ambiguous term with several possible meanings, depending on context. Immersion in water and exposure to high ambient pressure have physiological effects that limit the depths and duration possible in ambient pressure diving. Humans are not physiologically and anatomically well-adapted to the environmental conditions of diving, and various equipment has been developed to extend the depth and duration of human dives, and allow different types of work to be done.

<span class="mw-page-title-main">Scuba gas planning</span> Estimation of breathing gas mixtures and quantities required for a planned dive profile

Scuba gas planning is the aspect of dive planning and of gas management which deals with the calculation or estimation of the amounts and mixtures of gases to be used for a planned dive. It may assume that the dive profile, including decompression, is known, but the process may be iterative, involving changes to the dive profile as a consequence of the gas requirement calculation, or changes to the gas mixtures chosen. Use of calculated reserves based on planned dive profile and estimated gas consumption rates rather than an arbitrary pressure is sometimes referred to as rock bottom gas management. The purpose of gas planning is to ensure that for all reasonably foreseeable contingencies, the divers of a team have sufficient breathing gas to safely return to a place where more breathing gas is available. In almost all cases this will be the surface.

<span class="mw-page-title-main">Dive planning</span> The process of planning an underwater diving operation

Dive planning is the process of planning an underwater diving operation. The purpose of dive planning is to increase the probability that a dive will be completed safely and the goals achieved. Some form of planning is done for most underwater dives, but the complexity and detail considered may vary enormously.

<span class="mw-page-title-main">Scuba gas management</span> Logistical aspects of scuba breathing gas

Scuba gas management is the aspect of scuba diving which includes the gas planning, blending, filling, analysing, marking, storage, and transportation of gas cylinders for a dive, the monitoring and switching of breathing gases during a dive, efficient and correct use of the gas, and the provision of emergency gas to another member of the dive team. The primary aim is to ensure that everyone has enough to breathe of a gas suitable for the current depth at all times, and is aware of the gas mixture in use and its effect on decompression obligations, nitrogen narcosis, and oxygen toxicity risk. Some of these functions may be delegated to others, such as the filling of cylinders, or transportation to the dive site, but others are the direct responsibility of the diver using the gas.

<span class="mw-page-title-main">Outline of underwater diving</span> List of articles related to underwater diving grouped by topical relevance

The following outline is provided as an overview of and topical guide to underwater diving:

Diving support equipment is the equipment used to facilitate a diving operation. It is either not taken into the water during the dive, such as the gas panel and compressor, or is not integral to the actual diving, being there to make the dive easier or safer, such as a surface decompression chamber. Some equipment, like a diving stage, is not easily categorised as diving or support equipment, and may be considered as either.