Uwatec Aladin Air Z 2 Manual

Total Page:16

File Type:pdf, Size:1020Kb

Uwatec Aladin Air Z 2 Manual THE SYSTEM ® Active Light ® OPERATING MANUAL American feet AIR Z O2 SWISS MADE BY UWATEC AG Operating scheme for surface functions B and E B and + B and – Sleep 1 Surface Sleep 5 2 4 Input stage Ready or Input stage O % MIX 2 (or 3min) Surface (or 3min) LOGBOOK 3 in) (or 3min) (or 3m 5sec O2 % MIX Battery capacity LOGBOOK automatically depth dive time DO NOT FLY LOGBOOK CNS O2 LIMIT S L O % W NO STOP max. depth deco info tank data tank data % psi bar ® ® 2 Uwatec Aladin Air Z O2 Important remarks concerning signal words and symbols This operating manual makes use of the following icons to indicate especially important comments: Remarks: Informations and tips which are important for optimal use of the functions of your Aladin® Air Z O2. WARNING Indicates a potentially hazardous situation which, if not avoided, could result in death or serious injury. The following symbols are used in the operating manual: Flashing display Only valid if an Oxy2 is used Only valid if a pressure trans- Acoustic alarm signal mitter is used - + E Operating instruction for manual input B Example: bridging contacts B and E June 2000, Copyright by Uwatec Switzerland ® ® Uwatec Aladin Air Z O2 3 Safety considerations You must carefully read and understand this entire manual before using your Aladin® Air Z O2. Diving has many inherent risks. Even if you follow the instructions of this WARNING manual in a careful manner, it is still possible that you may be seriously injured or die from decompression sickness, oxygen toxicity or some other inherent risk of scuba Nitrox or compressed air. Unless you are fully aware of these risks and are willing to personally accept and assume responsibility for those risks, do not use the Aladin® Air Z O2! The Aladin® Air Z O2 is a decompression tool to assist a trained and certified diver in making decisions (there is no dive planner available in the Air Z O2). As with any tool, the Aladin® Air Z O2 may be misused if the following safety and operational precautions are not strictly followed. If they are followed, careful use of the Aladin® Air Z O2 can increase your diving enjoyment and reduce your risk of decompression sickness. If they are not, you will be placing yourself at serious risk for decompression sickness. While the Aladin® Air Z O2 is a technically advanced tool based on mathematical models of decompressi- on sickness and oxygen toxicity, neither it nor any other diving computer (or table) can actually monitor the physiological changes that occur in your body as you dive. In addition, each diver will vary in his or her sus- ceptibility to decompression sickness. In addition, each diver will vary in his or her susceptibility to decom- pression sickness and each individual diver‘s own susceptibility may vary from day to day. Combined with the fact that decompression modelling is an inexact science, and must be based to some extend on certain unproven assumptions, it is emphasis on you, the individual diver, to dive responsibly and to carefully fol- low all standard safe diving practices as well as the recommendations contained in this manual. Guidelines for the use of Aladin® Air Z O2: The following guidelines for using Aladin® Air Z O2 are derived from the latest medical research and the recommendations of the American Academy of Under- water Sciences for diving with diving computers. Following these guidelines will greatly increase your safety while diving, but cannot guarantee that decompression sickness will not occur. ® – The Aladin Air Z O2 is designed for dives with nitrox (max.99 %O2) and compressed air (21%O2) only. Do not use the Aladin® Air Z O2 for dives made with other mixed gases. – It is essential to check the set mixture or O2 fraction before each dive and to compare it to the gas mix- ture to be used, even if you are using an Oxy2. Always remember: Setting a wrong mixture causes eit- her insufficient decompression calculations or a too low calculation of the oxygen-toxicity! – Always check the diving limits considering the oxygen content and standard sports diving procedures ® ® 4 Uwatec Aladin Air Z O2 Safety considerations (decompression sickness, oxygen toxicity). – Do not use the Aladin® Air Z O2 for planned decompression diving. The decompression algorithm con- tained in the Aladin® Air Z O2 should be used only for emergency or unintended decompression. – In accordance with the recommended maximum diving limit of all instructional agencies, do not dive deeper than 130 feet. – The danger of nitrogen narcosis has to be taken into consideration for all dives regardless of the gas mixture. The Aladin® Air Z O2 gives no warning about this. – On all dives with the Aladin® Air Z O2, make a safety stop for at least one to three minutes within the 10 to 15 feet zone. – Always make the deepest dive of the day first when repetitive dives are planned, and for each dive make sure that the deepest portion of that dive is done at the beginning of the dive. – If your diving cylinder is equipped with a reserve or “J“-type valve, make certain that the reserve fun- ction is in an open (down) position. Failure to keep the reserve open will result in the improper calcu- lation of the dive data which depends on tank pressure. – All divers using dive computers to plan dives and indicate or determine decompression status must use their own computer which they take with them on all dives. – If the Air Z O2 fails at any time during the dive, the dive must be terminated, and appropriate surfacing procedures (including a slow ascent and a 3 to 5 minute safety stop) should be initiated immediately. – On any given dive, all divers in a buddy group must follow the most conservative dive computer for that particular dive. – Repetitive dives after exchanging the dive computer: Wait at least 24 hours before you start with the repe- titive dive. – You MUST be familiar with all signs and symptoms of decompression sickness before using the Aladin® Air Z O2! Seek IMMEDIATE treatment for decompression sickness should any of these signs or sym- ptoms occur after a dive! There is a direct correlation between the effectiveness of treatment and the delay between the onset of symptoms and the treatment for decompression sickness. – Always observe the optical and acoustic alarm signals of the Aladin® Air Z O2. Avoid situations of increased risk which are marked with a warning sign in this operating manual. – If the ascent arrow appears in the lower display window, start ascending. – If the flashing ascent arrow appears in the lower display window, start to ascend immediately. – See also page 10, 12, 74-76, 100. ® ® Uwatec Aladin Air Z O2 5 Aladin® Air Z O2 – The Diving System - + E Oxy2 (Option) MemoMouse and logbook software DataTrak (Option) Pressure Transmitter (Option) B Dive Computer Screen Guard Aladin® Air Z O2 (Optional: several colours) ® ® 6 Uwatec Aladin Air Z O2 List of chapters I Aladin® Air Z O2 – Introduction _______9 4.6 Pairing of press. transmitter and 1 Your Personal Companion _____________10 dive comp. ___________________________40 2 Aladin® Air Z O2 – Introduction __________10 ® 3 Aladin® Air Z O2 – Reducing risks of III Diving with Aladin Air Z O2 _________41 Decompression Sickness________________13 1 Terminology/Symbols 4 The Calculation Model ZH-L8 ADT 1.1 Upper display during no-stop phase __42 4.1 Description _______________________14 1.2 Upper display during decompression 4.2 Advantages _______________________16 phase____________________________43 5 Safety in Diving _______________________16 1.3 Indications on the lower display______43 1.4 Nitrox information _________________44 II Aladin® Air Z O2 – The System ________17 2 Attention Messages and Alarms 1 Description 2.1 Attention Messages ________________46 1.1 Structure _________________________18 2.2 Alarms ___________________________49 1.2 Reliability of transmission ___________19 2.3 Alarm low battery _________________51 2 Pressure transmitter and Oxy2 3 Preparation for a Dive 2.1 Pressure transmitter operating 3.1 Preparation for a Dive with Oxy2_____51 modes and functions_______________20 3.2 Preparation for a Dive with press. 2.2 Oyx2 operating modes and functions _21 transm. __________________________53 2.3 Data transmission and reception _____22 3.3 Setting the gas mixture _____________54 3 Dive Computer 4 Functions during the Dive 3.1 Operation ________________________23 4.1 Dive time_________________________55 Acticve backlight __________________24 4.2 Current depth_____________________56 3.2 Operating modes __________________29 4.3 Maximum depth___________________56 4 Setting Up (Oxy2, press. transmitter and 4.4 Ascent rate _______________________57 Aladin® Air Z O2) 4.5 Partial pressure of oxygen (ppO2)_____59 4.1 Mounting the Oxy2 to a rebreather___34 4.6 Oxygen toxicity (CNS O2%)__________59 4.2 Mounting of pressure transmitter ____35 4.7 Oxygen fraction of the inspired 4.3 Remarks about pairing _____________37 gas mixture _______________________61 4.4 How to check that the computer 4.8 Decompression information _________61 is paired correctly __________________38 4.9 Tank pressure _________________63 4.5 Pairing of Oxy2 and dive computer ___38 4.10 Increased workload warning________64 ® ® Uwatec Aladin Air Z O2 7 List of chapters 4.11 Interruption of transmission ________65 1.3 Updates (DataTrak, DataTalk) ________89 4.12 Remaining Bottom Time RBT ___65 5 Functions at the Surface VII Trouble Shooting ____________________91 5.1 End of a dive _____________________67 1 Trouble Shooting ______________________92 5.2 Desaturation time _________________68
Recommended publications
  • Hypothermia and Respiratory Heat Loss While Scuba Diving
    HYPOTHERMIA AND RESPIRATORY HEAT LOSS WHILE SCUBA DIVING Kateřina Kozáková Faculty of Physical Education and Sport, Charles University in Prague, Department of Biomedical Labo- ratory Abstract One of the factors affecting length of stay under water of a diver is heat comfort. During scuba diving there is an increased risk of hypothermia. Hypothermia is one of the most life threatening factors of a diver and significantly affects his performance. The body heat loss runs by different mechanisms. One of them is the respiratory mechanism, which is often overlooked. Compressed dry air or other media is coming out from the cylinder, which have to be heated and humidified to a suitable value. Thus the organism loses body heat and consequently energy. Based on literature search the article will describe safe dive time in terms of hypo- thermia in connection to respiratory heat loss. Key words: hypothermia, heat loss, respiration, scuba diving, water environment Souhrn Jedním z faktorů ovlivňujících délku pobytu potápěče pod vodou je tepelný komfort. Během výkonu přístro- jového potápění hrozí zvýšené riziko hypotermie. Hypotermie představuje jedno z nejzávažnějších ohrožení života potápěče a zásadně ovlivňuje jeho výkon. Ke ztrátám tělesného tepla dochází různými mechanismy. Jednou cestou tepelných ztrát je ztráta tepla dýcháním, která je často opomíjená. Z potápěčského přístroje vychází suchý stlačený vzduch nebo jiné médium, který je třeba při dýchání ohřát a zvlhčit na potřebnou hodnotu. Tím organismus ztrácí tělesné teplo a potažmo energii. Tento článek, na základě literární rešerše, popíše bezpečnou dobou ponoru z hlediska hypotermie a v souvislosti se ztrátou tepla dýcháním. Klíčová slova: hypotermie, ztráta tepla, dýchání, přístrojové potápění, vodní prostředí Introduction amount of body heat.
    [Show full text]
  • Deep Sea Dive Ebook Free Download
    DEEP SEA DIVE PDF, EPUB, EBOOK Frank Lampard | 112 pages | 07 Apr 2016 | Hachette Children's Group | 9780349132136 | English | London, United Kingdom Deep Sea Dive PDF Book Zombie Worm. Marrus orthocanna. Deep diving can mean something else in the commercial diving field. They can be found all over the world. Depth at which breathing compressed air exposes the diver to an oxygen partial pressure of 1. Retrieved 31 May Diving medicine. Arthur J. Retrieved 13 March Although commercial and military divers often operate at those depths, or even deeper, they are surface supplied. Minimal visibility is still possible far deeper. The temperature is rising in the ocean and we still don't know what kind of an impact that will have on the many species that exist in the ocean. Guiel Jr. His dive was aborted due to equipment failure. Smithsonian Institution, Washington, DC. Depth limit for a group of 2 to 3 French Level 3 recreational divers, breathing air. Underwater diving to a depth beyond the norm accepted by the associated community. Limpet mine Speargun Hawaiian sling Polespear. Michele Geraci [42]. Diving safety. Retrieved 19 September All of these considerations result in the amount of breathing gas required for deep diving being much greater than for shallow open water diving. King Crab. Atrial septal defect Effects of drugs on fitness to dive Fitness to dive Psychological fitness to dive. The bottom part which has the pilot sphere inside. List of diving environments by type Altitude diving Benign water diving Confined water diving Deep diving Inland diving Inshore diving Muck diving Night diving Open-water diving Black-water diving Blue-water diving Penetration diving Cave diving Ice diving Wreck diving Recreational dive sites Underwater environment.
    [Show full text]
  • Thermo Valves Corporation
    Thermo Valves Corporation Scuba Diving Valves The Leader in High Pressure Technology Date: 05/31/04 Thermo Scuba Products are Sold Through Authorized Distributors Only Thermo PRO Thermo PRO Modular with H Connector Thermo DIN WWW.THERMOVALVES.COM Page 2 Thermo Valves Corporation Table of Contents Introduction 4 Products and Features 5 Scuba Valve Outlets 6 Breathing Air or EAN? 6 Stand Alone Valves 5251 Thermo K 7 5651 Thermo PRO 8 5262 Thermo DIN 9 5282 Thermo DIN 10 Modular Valves 8043 Thermo Modular 11 8063 Thermo Modular 12 8082 Thermo Modular 13 Modular Valve Attachments 9020 Thermo 230 Bar H Connector 14 9040 Thermo 300 Bar DIN H Connector 15 Manifold Center Bars 16 Exploded View Drawings 5251 Series Exploded View 17 5651, 5262 & 5282 Exploded View 18 8043, 8063 & 8082 Exploded View 19 9020 & 9040 Exploded View 20 8002 CTR W VLV Manifold Center Bar Exploded View 21 Parts Index 22 Scuba Valve Parts Warnings 23 Warnings, Terms and Conditions of Sale 24 Page 3 Thermo Valves Corporation The Leader in High Pressure Technology Who We Are Thermo Valves Corporation was founded in 1972 as a manufacturer of compressed gas cylinder valves and adaptors to a wide variety of international standards. Thermo was acquired in 1988 by Hamai Industries Limited who has been manufacturing cyl- inder valves for over 75 years! Thermo now spe- cializes in specialty gas valves, valves for the semi- conductor industry and scuba diving valves. Thermo’s mission is to supply state of the art equip- ment with a focus on safety and innovation SCUBA Diving Valves With over 75 years of manufacturing experi- ence, Thermo Valves full line includes the Thermo K, Thermo PRO, Thermo DIN and Thermo Modu- lar Series of scuba diving valves.
    [Show full text]
  • Compressors & Nitrox Installations Compressors & Nitrox Installations
    CompressorsCompressors & & NitroxNitrox Installations Installations Compressors Accessories and selection Nitrox Installations Kompressoren und Nitrox Anlagen Compressors & Nitrox Installations Scuba Publications – Daniela Goldstein Jan Oldenhuizing All rights of the author and its licensors reserved This publication and all its parts are protected under laws governing copyright. All use beyond the lim- its defined by these laws on copyright are, without written permission from the publisher, not author- ized and punishable. This applies especially - but is not limited to - copying, translation or storing and distributing via electronic systems. The use of trademarks, logos, commercial names and other does not give the right to assume, even if not specifically mentioned, that these are free of rights and can be used by anybody. www.scuba.ag Compressors & Nitrox Installations Table of Content Compressors........................................................................................................................................................................................ 3 Accessories and selection............................................................................................................................................................23 Nitrox Installations.........................................................................................................................................................................36 Index .....................................................................................................................................................................................................46
    [Show full text]
  • Diving Air Compressor - Wikipedia, the Free Encyclopedia Diving Air Compressor from Wikipedia, the Free Encyclopedia
    2/8/2014 Diving air compressor - Wikipedia, the free encyclopedia Diving air compressor From Wikipedia, the free encyclopedia A diving air compressor is a gas compressor that can provide breathing air directly to a surface-supplied diver, or fill diving cylinders with high-pressure air pure enough to be used as a breathing gas. A low pressure diving air compressor usually has a delivery pressure of up to 30 bar, which is regulated to suit the depth of the dive. A high pressure diving compressor has a delivery pressure which is usually over 150 bar, and is commonly between 200 and 300 bar. The pressure is limited by an overpressure valve which may be adjustable. A small stationary high pressure diving air compressor installation Contents 1 Machinery 2 Air purity 3 Pressure 4 Filling heat 5 The bank 6 Gas blending 7 References 8 External links A small scuba filling and blending station supplied by a compressor and Machinery storage bank Diving compressors are generally three- or four-stage-reciprocating air compressors that are lubricated with a high-grade mineral or synthetic compressor oil free of toxic additives (a few use ceramic-lined cylinders with O-rings, not piston rings, requiring no lubrication). Oil-lubricated compressors must only use lubricants specified by the compressor's manufacturer. Special filters are used to clean the air of any residual oil and water(see "Air purity"). Smaller compressors are often splash lubricated - the oil is splashed around in the crankcase by the impact of the crankshaft and connecting A low pressure breathing air rods - but larger compressors are likely to have a pressurized lubrication compressor used for surface supplied using an oil pump which supplies the oil to critical areas through pipes diving at the surface control point and passages in the castings.
    [Show full text]
  • 17. Cavern Discovery
    TDI Standards and Procedures Part 2: TDI Diver Standards 17. Cavern Discovery 17.1 Introduction This course is designed to develop the minimum skills and knowledge for guided cavern diving within the limits of light penetration; in addition outlines specific hazards associated with cave diving. The Cavern Discovery course in not intended to provide instruction for cave diving environments. The objective of this course is to allow recreational divers to dive in the cavern environment under direct supervision of an active Cavern Diver Instructor. 17.2 Qualifications of Graduates Upon successful completion of this course graduates may: 1. Cavern dive under the direct supervision of an active TDI Cavern instructor 2. Enroll in a TDI Cavern Diver Course 17.3 Who May Teach 1. Any active TDI Cavern, Intro to Cave or Cave Instructor may teach this Course: 17.4 Student to Instructor Ratio Academic 1. Unlimited, so long as adequate facility, supplies and time are provided to ensure comprehensive and complete training of subject matter Confined Water (swimming pool-like conditions) Optional 1. A maximum of 4 students per active TDI instructor Cavern 1. A maximum of 2 students per active TDI Instructor are allowed; ratio should be reduced as required due to environmental or operational constraints 2. Daylight zone, i.e. within natural light of the cavern entrance 3. Penetration is limited to 1/3 of a single diving cylinder or “1/6 in doublé tanks” 4. 61 linear metres / 200 linear feet from the surface 5. 40 metres / 130 feet maximum depth 6. No decompression diving 7.
    [Show full text]
  • MSL 72.162 GEM Sidekick R.4 1
    1 MSL 72.162 GEM Sidekick R.4 Introduction GEM Sidekick SCR The GEM Sidekick SCR is the latest addition to the KISS rebreather family. Like all KISS systems, it is durable, reliable, easy to use, and economical. The Sidekick brings a few more bonuses to the table. The compact design allows the Sidekick to be used in a number of ways: Side-mount rebreather, Bailout rebreather or simple add on Gas Extender. The Sidekick requires no modification to fill all of these roles. The KISS GEM Sidekick uses the patented KISS Gas Extending Mechanism (GEM). The GEM system will allow the gas in your cylinder to last three times as long as conventional SCUBA. Other benefits include small size, lightweight, fewer parts and less complexity than diving a fully closed circuit rebreather. The Sidekick still provides many of the benefits that rebreather diving offers: warm, moist gas to breathe, no noisy rush of bubbles to scare fish away, and the longer No- Decompression-Limits of diving Nitrox. This manual describes the operation, assembly, breakdown and maintenance of your new KISS GEM Sidekick. There are sections for each system component. Later sections discuss some of the dive operations and troubleshooting. To safely use any dive equipment, the diver must fully understand the equipment. That is why this manual is required reading. Not only does the longevity of your new Sidekick depend on your reading and understanding this manual, but your safety depends on proper understanding and operation of all your dive gear. Information in this manual is subject to change.
    [Show full text]
  • Special Purpose Specification NFQ Level 6 Surface Supplied Diving
    Draft for Consultation Special Purpose Specification NFQ Level 6 Surface Supplied Diving Operations 1. Certificate Details Title Surface Supplied Diving Operations Teideal as Gaeilge TBC Award Type Special Purpose Code TBC Level 6 Credit Value 15 Purpose The purpose of this award is to enable the learner to acquire the relevant knowledge, skills and competence to effectively and safely carry out a range of specialist work in a variety of contexts as a surface supplied diver using initiative and independence while functioning as a team member, in accordance with current regulations and legislation. Statements of Learners will be able to: Knowledge, Skill and Competence Knowledge Breadth Demonstrate specialised knowledge of the surface supplied diving industry and specific knowledge of relevant dive theory, principles and practices. Kind Demonstrate knowledge of relevant theoretical concepts and abstract thinking with a firm grasp of the significant underpinning theory relevant to the surface supplied diving industry. Know How & Skill Range Utilise a comprehensive range of specialised skills and tools when in a variety of underwater environments. 1 Draft for Consultation Selectivity Apply theoretical concepts and technical skills to formulate responses to well-defined abstract problems in a surface supplied diving setting. Competence Context Operate safely and effectively in a range of challenging underwater environments in accordance with current regulations and legislation, consistent with operational best practice and apply appropriate control measures to manage risk. Role Contribute effectively, both individually as a diver and as a dive team member, to underwater operations in a range of challenging environments. Have regard for operational protocols, own safety and dive team safety.
    [Show full text]
  • Diving Cylinder and Valve Thread Compatibility
    IMCA Publiaction A4 Cover_Layout 1 02/10/2013 16:37 Page 1 A B Guidance on Diving Cylinder and Valve Thread Compatibility International Marine Contractors Association IMCA D 064 May 2020 www.imca-int.com The International Marine Contractors Association (IMCA) is the international trade association representing offshore, marine and underwater engineering companies. IMCA promotes improvements in quality, health, safety, environmental and technical standards through the publication of information notes, codes of practice and other documentation. Members are self-regulating through the adoption of IMCA guidelines as appropriate. They commit to act as responsible members by following relevant guidelines and being willing to be audited against compliance with them. There are five core committees that relate to all members: © Competence & Training © Contracts & Insurance © Health, Safety, Security & Environment © Lifting & Rigging © Marine Policy & Regulatory Affairs The Association is organised through four distinct divisions, each covering a specific area of members’ interests – Diving, Marine, Offshore Survey and Remote Systems & ROV. There are also five regions which facilitate work on issues affecting members in their local geographic area – Asia-Pacific, Europe & Africa, Middle East & India, North America and South America. IMCA D 064 www.imca-int.com/diving If you have any comments on this document, please click the feedback button below: [email protected] Date Reason Revision May 2020 Initial publication The information contained herein is given for guidance only and endeavours to reflect best industry practice. For the avoidance of doubt no legal liability shall attach to any guidance and/or recommendation and/or statement herein contained. © 2020 IMCA – International Marine Contractors Association Guidance on Diving Cylinder and Valve Thread Compatibility IMCA D 064 – May 2020 1 Background ........................................................................................................
    [Show full text]
  • Sf2 Eccr Operation Manual Sf2 Eccr Operation Manual
    SF2 ECCR OPERATION MANUAL SF2 ECCR OPERATION MANUAL Table of Contents Copyright / Warning 4 Safety 5 Preface 7 Chapter 1 – How the SF2 works 8 Chapter 2 – Soda Lime 11 2.1 Scrubber Duration Time 12 2.2 Storage 13 2.3 Influence of temperature on the Soda Lime output 13 2.4 Influence of exertion on scrubber duration time 13 2.5 SF2 scrubber duration time 13 Chapter 3 – Oxygen sensors 14 3.1 Functional principle and design of a sensor 15 3.2 Influence of pressure 16 3.3 Influence of moisture and water 16 3.4 Aging oxygen sensors 17 Chapter 4 – SF2 Components 18 4.1 Head 19 4.2 Midpart 19 4.3 Frame and accessoires 20 Chapter 5 – SF2 Assembly 21 5.1 Cylinder assembly 21 5.2 Bellow assembly 21 5.3 Scrubber and carbon fiber tube assembly 23 5.4 Battrey solenoid assembly 24 5.5 Sensor assembly 24 5.6 Loop assembly 26 Chapter 6 – Assembly accessories 29 6.1 Manual Add Kit & Off Board Gas 29 6.2 Assembly regulators, wing & harness 30 Chapter 7 - Calibration oxygen sensors 33 Chapter 8 – Predive Saftey Check 35 8.1 Check gas flow / gas direction 35 8.2 Positive- and negative test 36 8.3 Assembly Check 37 8.4 Predive Check 37 8.5 Prejump Check 38 Chapter 9 – After the dive 39 9.1 Disassembly of the SF2 39 9.2 Cleaning of the SF2 40 9.3 Disinfict 40 9.4 Transport and storage 41 Chapter 10 – Maintenance 41 Chapter 11 – Attachement 42 12.1 Checklist 42 12.2 Aditional Operation Manuals 43 Manual Version 19 / 01-2019 II Page 2 of 44 SF2 ECCR OPERATION MANUAL Congratulations on purchasing your SF2 ECCR rebreather.
    [Show full text]
  • Aqua Lung G3000ss Helmet Operations & Maintenance Manual
    AQUA LUNG G3000SS HELMET OPERATIONS & MAINTENANCE MANUAL Rev. 7/16 2 Aqua Lung G3000SS Diving Helmet Operations & Maintenance Manual COPYRIGHT NOTICE This manual is copyrighted, all rights reserved. It may not, in whole or in part, be copied, photocopied, reproduced, translated, or reduced to any electronic medium or machine readable form without prior consent in writing from Aqua Lung America, Inc. It may not be distributed through the internet or computer bulletin board systems without prior consent in writing from Aqua Lung America. © 2016 AQUA LUNG AMERICA, INC. AQUA LUNG G3000SS DIVING HELMET OPERATIONS & MAINTENANCE MANUAL, PN 400179 Aqua Lung G3000SS Diving Helmet PN 400300 Helmet Complete, G3000SS PN 400301 Helmet Complete, G3000SS w/ Hi - Use Connector PN 400302 Helmet Complete, G3000SS w/ Marsh Marine Connector You can contact a Technical Advisor via e-mail at: [email protected] [email protected] [email protected] Trademark Notice Aqua Lung®, is a registered trademark of Aqua Lung America, Inc. Warnings, Cautions and Notes: Pay special attention to information provided in warnings, cautions, and notes, that is accompanied by these symbols: A WARNING indicates a procedure or situation that if not avoided, could result in serious injury or death to the user. A CAUTION indicates any situation or technique that could cause damage to the product, and could subsequently result in injury to the user. A NOTE is used to emphasize important points, tips, and reminders. 3 TABLE OF CONTENTS I. SAFETY INFORMATION ....................................................................................................................................................6
    [Show full text]
  • B-Gg-380-000/Fp-002 Draft 4-1 Chapter 4 Diving Equipment
    B-GG-380-000/FP-002 DRAFT CHAPTER 4 DIVING EQUIPMENT DESCRIPTION AND OPERATING PROCEDURES, COMPRESSED AIR BREATHING APPARATUS (CABA) AND ACCESSORIES 401. DESCRIPTION 1. The CAF diver using Compressed Air Breathing Apparatus (CABA) is normally an attended diver in self- contained mode. Canadian waters normally require the diver to be fully suited and to use the accessories described in this Chapter. 2. The standard CABA ensemble is comprised of the following: a. Dry suit; b. Fins; c. Full facemask (FFM); d. High-pressure air aluminum twin cylinders with blanking plug cap; e. Regulators; f. Buoyancy compensator (BC); g. Digital depth gauge/Dive Computer; and h. Knives. 3. Weighted boots, the Ultra-Light Surface Supply Diving System (ULSSDS), wetsuits, search and rescue ensembles, and half-masks are available for specific operational requirements. 4. The CABA ensemble has been designed based on an assumption that all divers are subject to exposure to moderately contaminated waters in the normal course of CAF diving operations. a. Generally and unless proven otherwise, all waters - including but not limited to harbours, rivers, inlets and landlocked waters - shall be considered MODERATELY CONTAMINATED. Even waters in large bays and the open sea may be contaminated; and b. Contaminated water diving is described and discussed further in Chapter 5, which includes specific guidance on how to determine the degree of contamination. 4-1 B-GG-380-000/FP-002 DRAFT 5. The use of the CABA ensemble provides the capability for fully encapsulating the diver, affording adequate protection to a normal and healthy CAF member for diving operations.
    [Show full text]