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UNDERWATER UNDERWATER INTERVENTION INTERVENTION Morial Convention Center Hall E 2019 New Orleans, LA | February 5-7, 2019 www.underwaterintervention.com UI 2019 PRODUCT CATEGORIES 1000 UNDERWATER SERVICES 3140 Propulsion Systems 1005 AUV Operators/Contractors 3145 Remotely Operated Vehicles 1010 Bridges and Dams 3150 Saturation Diving Systems 1015 Commercial Diving 3155 Slip Rings 1020 Commercial Diving Consultant 3160 Sub Sea Cutting Tools 1025 Commercial Diving Contractors 3165 Thrusters - ROV, AUV 1030 Marine Construction 3170 Ultrasonic Thickness Gauges 1035 Pile Repair/Pile Cleaning 3175 Underwater Flotation 1040 ROV Operators/Contractors 3180 Underwater Imaging Systems 3185 Underwater Inspection Equipment 2000 EDUCATION & TRAINING 3190 Underwater Lighting 2005 Commercial Diving Schools 3193 Underwater Welding 2010 Regulations and Safety 3195 Unmanned Surface Vessels 2015 Training and New Technologies 3200 Welding & Burning Equipment 3000 EQUIPMENT 4000 PRODUCTS & SERVICES 3005 Acoustic Positioning 4005 Corrosion Control & Sealing 3010 Actuators - Linear & Rotary 4010 Decommissioning 3015 Anchors 4015 Diver Communications 3020 Autonomous Underwater Vehicles 4020 Equipment Repair & Refurbishment 3025 Cables, Hoses and Umbilicals 4025 Excavation 3030 Cameras/Photography/Monitors 4030 Fiberglass Forms 3035 Cavidyne Blasters 4035 Grouts & Adhesives 3040 Commercial Diving Equipment Rentals 4040 Infection Control 3045 Commercial Diving Equipment Sales 4045 Infection Prevention 3050 Compressors 4050 Metal Detection 3055 Control Systems 4055 Mobile Satellite Service Providers 3060 Diving Helmets 4060 Petrolatum Wrap Systems 3065 Diving Suits 4065 Security and Surveillance Systems 3070 Excavation Equipment 4070 Sonar and AUV Surveys 3075 Fibre Optic Cables 4075 Trenching 3080 Flange Gasket Holders 4080 Underwater Inspection 3085 Gyro Compass 4085 Underwater Structural Welding 3090 Health & Safety Equipment 4095 Welding Service 3095 Hot Water Heaters 3100 Hydraulic Pressure Units 5000 PROFESSIONAL SERVICES 3105 Industrial & Specialty Gas 5005 Attorneys 3110 Inertial Navigation Systems 5010 Ecological Consulting & Services 3115 Lift Bags 5015 Engineering 3120 Manipulators 5020 Insurance 3125 Motion Sensing Equipment 5025 Media & Publications 3130 Nuclear and Hydro Energy 5030 Trade Association 3135 Offshore Oil and Gas UNDERWATER INTERVENTION SHOW MANAGEMENT 1430 Spring Hill Road, 6th floor, McLean VA 22102 • tel 703.259.6118 • fax 703.934.4899 • email [email protected] • underwaterintervention.com.

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FILE COPY Scripps Institution of Oceanography TABLE of CONTENTS
Marine Physical Laboratory The Scientific Research Support Potential of the Submersible MARITAL/A 3GST9 Andreas B. Rechnitzer (Viking Oceanographics, 1345 Lomita Road, El Cajon, California 92020). MPL TECHNICAL MEMORANDUM 420 April1990 Approved for public release; distribution unlimited. University of California, San Diego FILE COPY Scripps Institution of Oceanography TABLE OF CONTENTS INTRODUCTION 4 OBJECTIVE AND APPROACH 4 BACKGROUND 6 THE MARITALIA 3GST9 7 NATIONAL OCEAN RESEARCH THRUSTS 9 SIO SCIENTIFIC WORKSHOP 12 DISCUSSION 13 2 I I 1111 I SCIENTIFIC INSTRUMENT SAFETY CERTIFICATION 29 CONCLUSIONS 30 ACKNO~EDGEMENTS 31 REFERENCES 32 APPENDIX A, OCEANLAB CONCEPT REVIEW 34 APPENDIX B, SIO MARITALIA 3GST9 WORKSHOP April13, 1989 36 APPENDIX C, SCIENTISTS INTERESTED IN USE OF 3GST9 38 APPENDIX D, SCIENTIFIC RESEARCH AREAS .. 41 APPENDIX E, INSTRUMENTATION OPTIONS 45 3 II I1111---·--------------- The Scientific Research Support Potential of the Submersible MARITALIA 3GST9 INTRODUCTION Deep submergence facilities are now considered to be a vital component of the U. S. Navy fleet and the National Oceanographic Laboratory System facilities inventory. Scientific use of manned submersible systems is now routinely applied to a broad range of scientific disciplines. Advancements in deep submergence technologies continue to require evaluation and assessment for their scientific support potential. This study report assesses the scientific support potential of a specific new diver lockout submersible, the MARITALIA (3GST9), that may be added to the
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Standard Operating Procedures for Scientific Diving
Standard Operating Procedures for Scientific Diving The University of Texas at Austin Marine Science Institute 750 Channel View Drive, Port Aransas Texas 78373 Amended January 9, 2020 1 This standard operating procedure is derived in large part from the American Academy of Underwater Sciences standard for scientific diving, published in March of 2019. FOREWORD “Since 1951 the scientific diving community has endeavored to promote safe, effective diving through self-imposed diver training and education programs. Over the years, manuals for diving safety have been circulated between organizations, revised and modified for local implementation, and have resulted in an enviable safety record. This document represents the minimal safety standards for scientific diving at the present day. As diving science progresses so must this standard, and it is the responsibility of every member of the Academy to see that it always reflects state of the art, safe diving practice.” American Academy of Underwater Sciences ACKNOWLEDGEMENTS The Academy thanks the numerous dedicated individual and organizational members for their contributions and editorial comments in the production of these standards. Revision History Approved by AAUS BOD December 2018 Available at www.aaus.org/About/Diving Standards 2 Table of Contents Volume 1 ..................................................................................................................................................... 6 Section 1.00 GENERAL POLICY ........................................................................................................................
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Public Safety Scuba Diving
Industry Guide 47 A Guide to Public Safety Diving N.C. Department of Labor Occupational Safety and Health Division N.C. Department of Labor 1101 Mail Service Center Raleigh, NC 27699-1101 Cherie Berry Commissioner of Labor N.C. Department of Labor Occupational Safety and Health Program Cherie Berry Commissioner of Labor OSHA State Plan Designee Kevin Beauregard Deputy Commissioner for Safety and Health Scott Mabry Assistant Deputy Commissioner for Safety and Health Tom Savage Standards Officer Author Acknowledgments A Guide to Public Safety Diving has been prepared with materials and information from the General Industry Standards, 29 CFR 1910, Subpart T—Commercial Diving Operations, and OSHA Instruction CPL 02-00-151 (U.S. Department of Labor, Occupational Safety and Health Administration). This guide also contains information from sources such as U.S. Navy Diving Manual, National Association of Search and Rescue, California Department Fish and Game Diving Safety Manual, and the National Fire Protection Association, NFPA 1670—Standard on Operations and Technical Search and Rescue. Through an existing alliance established between the N.C. Department of Labor’s Occupational Safety and Health Divi- sion and the North Carolina Public Safety Divers’ Association (PSDA), a collaborative effort was established to make this guide possible. The PSDA board of directors provided expertise involving public safety diving in sharing best practices and technical knowledge. A special thanks to Chuck Elgin, North Carolina Underwater Response Team, for his dedication and hard work assisting in the development of this publication. This guide is intended to be consistent with all existing OSHA standards; therefore, if an area is considered by the reader to be inconsistent with a standard, then the OSHA standard should be followed.
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History of Scuba Diving About 500 BC: (Informa on Originally From
History of Scuba Diving nature", that would have taken advantage of this technique to sink ships and even commit murders. Some drawings, however, showed different kinds of snorkels and an air tank (to be carried on the breast) that presumably should have no external connecons. Other drawings showed a complete immersion kit, with a plunger suit which included a sort of About 500 BC: (Informaon originally from mask with a box for air. The project was so Herodotus): During a naval campaign the detailed that it included a urine collector, too. Greek Scyllis was taken aboard ship as prisoner by the Persian King Xerxes I. When Scyllis learned that Xerxes was to aack a Greek flolla, he seized a knife and jumped overboard. The Persians could not find him in the water and presumed he had drowned. Scyllis surfaced at night and made his way among all the ships in Xerxes's fleet, cung each ship loose from its moorings; he used a hollow reed as snorkel to remain unobserved. Then he swam nine miles (15 kilometers) to rejoin the Greeks off Cape Artemisium. 15th century: Leonardo da Vinci made the first known menon of air tanks in Italy: he 1772: Sieur Freminet tried to build a scuba wrote in his Atlanc Codex (Biblioteca device out of a barrel, but died from lack of Ambrosiana, Milan) that systems were used oxygen aer 20 minutes, as he merely at that me to arficially breathe under recycled the exhaled air untreated. water, but he did not explain them in detail due to what he described as "bad human 1776: David Brushnell invented the Turtle, first submarine to aack another ship.
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DNVGL-OS-E402 Diving Systems
OFFSHORE STANDARDS DNVGL-OS-E402 Edition January 2017 Diving systems The content of this service document is the subject of intellectual property rights reserved by DNV GL AS ("DNV GL"). The user accepts that it is prohibited by anyone else but DNV GL and/or its licensees to offer and/or perform classification, certification and/or verification services, including the issuance of certificates and/or declarations of conformity, wholly or partly, on the basis of and/or pursuant to this document whether free of charge or chargeable, without DNV GL's prior written consent. DNV GL is not responsible for the consequences arising from any use of this document by others. The electronic pdf version of this document, available free of charge from http://www.dnvgl.com, is the officially binding version. DNV GL AS FOREWORD DNV GL offshore standards contain technical requirements, principles and acceptance criteria related to classification of offshore units. © DNV GL AS January 2017 Any comments may be sent by e-mail to [email protected] This service document has been prepared based on available knowledge, technology and/or information at the time of issuance of this document. The use of this document by others than DNV GL is at the user's sole risk. DNV GL does not accept any liability or responsibility for loss or damages resulting from any use of this document. CHANGES – CURRENT This document supersedes DNV-OS-E402 Offshore standard for Diving systems, October 2010 and DNV-DS- E403 Standard for Surface Diving Systems, July 2012 Changes in this document are highlighted in red colour.
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Ear Disorders in Scuba Divers
Review Ear Disorders in Scuba Divers MH Azizi Abstract Academy of Medical History of underwater diving dates back to antiquity. Breath-hold technique in diving was Sciences of the IR Iran, known to the ancient nations. However, deep diving progressed only in the early decades of Tehran, Iran the 19th century as the result of advancements in efficient underwater technologies which subsequently led to invention of sophisticated sets of scuba diving in the 20th century. Currently, diving is performed for various purposes including commercial, recreational, mili- tary, underwater construction, oil industry, underwater archeology and scientific assessment of marine life. By increasing popularity of underwater diving, dive-related medical conditions gradually became more evident and created a new challenge for the health care profession- als, so that eventually, a specialty the so-called “diving medicine” was established. Most of the diving-associated disorders appear in the head and neck. The most common of all occupational disorders associated with diving are otologic diseases. External otitis has been reported as the most common otolaryngologic problem in underwater divers. Exostosis of the external ear canal may be formed in divers as the result of prolonged diving in cold waters. Other disorders of the ear and paranasal sinuses in underwater divers are caused by barometric pressure change (i.e., barotraumas), and to a lesser extent by decompression sickness. Barotrauma of the middle ear is the most prevalent barotrauma in divers. The inner ear barotraumas, though important, is less common. The present paper is a brief overview of diving-related ear disorders particularly in scuba div- ers.
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SCUBA: a Seaductive Diversion from Reality 20 17
SCUBA: A SEAductive DIVERsion from Reality 20 17 504.888.4882 Metairie Diving School, Inc. 4709 Airline Dr. Metairie, LA 70001 (between Clearview & Transcontinental) 46 Years and counting . Homo Aquaticus: Frequently sighted from the intertidal zone to depths in excess of 100’, this creature is slow-moving and somewhat clumsy in comparison to other marine life. Varying greatly in color and size, this animal can be identi- fi ed by a prominent, cylindrical shaped dorsal fi n. Page 2 www.harrysdiveshop.com | 504-888-4882 Table of Contents SCUBA is for YOU if 4 Getting certifi ed is EASY 5 Rental Prices and Policies 7 Medical Questionnaire 8 Our SCUBA Course Policies 10 Myths & Misconceptions 13 In-Water Orientation Dates 14 SCUBA Weekday Open Water Course 16 Accelerated SCUBA Course 17 Private Open Water SCUBA 18 Puchasing Equipment 19 Checkout Dive Weekends 20 Your EARS and diving 22 LEAD weights and you 23 Specialty Courses 26 SCUBA Rangers Kidz Summer Camp 28 Refresher - SCUBA Skills Update 30 Perfect Buoyancy & Underwater SMB deployment 31 NITROX – the breathing gas of choice 32 Advanced SCUBA Diver 33 Master Diver 34 Spearfi shing 35 RESCUE Diver 36 CPR / First Aid / DAN O2 Provider 37 Closed Circuit Rebreather (CCR) 38 Extended Range/Technical Diving 39 Who is HARRY? 41 Who is DAN? 44 Swimming Lessons with Swim-Smart @ Harry’s 46 Saturday LAP Swimming and SCUBA 48 Snorkeling LESSONS 50 Try SCUBA Saturdays 51 Page 3 www.harrysdiveshop.com | 504-888-4882 HARRY’S DIVE SHOP, INC. (Since 1971) Metairie Diving School, Inc. 4709 Airline Dr.
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Why an Underwater Habitat? Underwater Habitats Are Useful Because They Provide a Permanent Working Area for Aquanauts (Divers) W
[Type a quote from the document or the summary of an interesting point. You can position the text box anywhere in the document. Use the Drawing Tools tab to change the formatting of the pull quote text box.] Abstract What are the different types of Underwater Habitat and how do they differ? What is the Technology used in Underwater Habitats? Underwater habitats are useful study environments for researchers including marine biologists, There are three main types of underwater habitat that are distinguished from one psychologists studying the effects of prolonged periods of isolation in extreme environments, another by how they deal with water and air pressure. The first type, open To access an underwater lab, divers sometimes swim or take submersibles and physiologists studying how life adapts to different pressures. The technologies used and pressure, has an air pressure inside that is equal to the water pressure outside. which then dock with the facility. Shallow habitats may even be accessed by data gleaned from these studies have applications in space research, and in the future Decompression is required for divers returning to the surface from this type of climbing a ladder or taking an elevator. Deep-sea labs have been taken by crane underwater habitats can be used for industrial activity such as mining the deep sea, and facility, but they are able to go in and out of the laboratory on diving missions with from a boat and placed in the sea. In those labs deep underwater, it becomes expansion of these technologies extends humanity’s reach across earth’s biosphere into its relative ease, due to the fact that they don’t need to acclimate to differing dangerous to breathe in the same air as on the surface because the nitrogen oceans.
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Surface-Supplied Diver Training Manual
Surface-supplied Diver Training Manual Tennessee Aquarium Chattanooga, TN Published by the Diving Control Board Tennessee Aquarium Chattanooga, TN 1st Edition 2007 Purpose Surface-supplied diving is defined in the Tennessee Aquarium Diving Safety Manual (TADSM) as a diving mode in which the diver in the water is supplied from the dive location with compressed gas for breathing and is in voice communication with the tender on the surface. This definition is based upon the requirements outlined in the Occupational Safety and Health Administration’s Code of Federal Regulations. (29 CFR 1910 Subpart T) This federal law outlines the criteria for all commercial diving. The surface-supplied diving mode requires gear and techniques that are not introduced in recreational diver training. This text was designed by the Tennessee Aquarium Diving Control Board to introduce Aquarium divers to the fundamental principles associated with surface-supplied diving. This text should be accompanied by proper practical training, as outlined in Appendix A, to promote safe surface-supplied diving under the auspice of the Tennessee Aquarium. Figure 1 – Secret Reef Dive Show- A primary use of surface-supplied diving at the Tennessee Aquarium. i Introduction There are numerous advantages to surface-supplied diving that make it an excellent choice for many diving operations. First, the diver has the benefit of an unlimited air supply. With a surface-supplied diving system, a diver can theoretically stay underwater forever. Of course, in reality, there are comfort, thermal, and decompression limits. For deep technical diving, a surface-supplied rig relieves the diver of the need to carry numerous stage bottles.
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Saturation Diving Is Used for Deep Salvage Or Recovery Using U.S
CHAPTER 15 6DWXUDWLRQ'LYLQJ 15-1 INTRODUCTION 15-1.1 Purpose. The purpose of this chapter is to familiarize divers with U.S. Navy satu- ration diving systems and deep diving equipment. 15-1.2 Scope. Saturation diving is used for deep salvage or recovery using U.S. Navy deep diving systems or equipment. These systems and equipment are designed to support personnel at depths to 1000 fsw for extended periods of time. SECTION ONE — DEEP DIVING SYSTEMS 15-2 APPLICATIONS The Deep Diving System (DDS) is a versatile tool in diving and its application is extensive. Most of today’s systems employ a multilock deck decompression chamber (DDC) and a personnel transfer capsule (PTC). Non-Saturation Diving. Non-saturation diving can be accomplished with the PTC pressurized to a planned depth. This mode of operation has limited real time application and therefore is seldom used in the U.S. Navy. Saturation Diving. Underwater projects that demand extensive bottom time (i.e., large construction projects, submarine rescue, and salvage) are best con- ducted with a DDS in the saturation mode. Conventional Diving Support. The DDC portion of a saturation system can be employed as a recompression chamber in support of conventional, surface- supplied diving operations. 15-3 BASIC COMPONENTS OF A SATURATION DIVE SYSTEM The configuration and the specific equipment composing a deep diving system vary greatly based primarily on the type mission for which it is designed. Modern systems however, have similar major components that perform the same functions despite their actual complexity. Major components include a PTC, a PTC handling system, and a DDC.
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Technologies for Underwater Archaeology and Maritime Preservation
Technologies for Underwater Archaeology and Maritime Preservation September 1987 NTIS order #PB88-142559 Recommended Citation: U.S. Congress, Office of Technology Assessment, Technologies for Underwater Archaeol- ogy and Maritime Preservation— Background Paper, OTA-BP-E-37 (Washington, DC: U.S. Government Printing Office, September 1987). Library of Congress Catalog Card Number 87-619848 For sale by the Superintendent of Documents U.S. Government Printing Office, Washington, DC 20402-9325 (order form on the last page of this background paper) Foreword Exploration, trading, and other maritime activity along this Nation’s coast and through its inland waters have played crucial roles in the discovery, settlement, and develop- ment of the United States. The remnants of these activities include such varied cul- tural historic resources as Spanish, English, and American shipwrecks off the Atlantic and Pacific coasts; abandoned lighthouses; historic vessels like Maine-built coastal schooners, or Chesapeake Bay Skipjacks; and submerged prehistoric villages in the Gulf Coast. Together, this country’s maritime activities make up a substantial compo- nent of U.S. history. This background paper describes and assesses the role of technology in underwater archaeology and historic maritime preservation. As several underwater projects have recently demonstrated, advanced technology, often developed for other uses, plays an increasingly important role in the discovery and recovery of historic shipwrecks and their contents. For example, the U.S. Government this summer employed a powerful remotely operated vehicle to map and explore the U.S.S. Monitor, which lies on the bottom off Cape Hatteras. This is the same vehicle used to recover parts of the space shuttle Challenger from the ocean bottom in 1986.
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Safe Diving Distances from Transmitting Sonar, from the US Navy Diving Manual
APPENDIX 1A 6DIH'LYLQJ'LVWDQFHVIURP 7UDQVPLWWLQJ6RQDU 1A-1 INTRODUCTION The purpose of this appendix is to provide guidance regarding safe diving distances and exposure times for divers operating in the vicinity of ships transmit- ting with sonar. Table 1A-1 provides guidance for selecting Permissable Exposure Limits Tables; Table 1A-2 provides additional guidance for helmeted divers. Tables 1A-3 through 1A-5 provide specific procedures for diving operations involving AN/SQS-23, -26, -53, -56; AN/SQQ-14, -30, and -32; AN/BSY-1, -2; and AN/BQQ-5 sonars. Section 1A-6 provides guidance and precautions concerning diver exposure to low-frequency sonar (160-320Hz). Contact NAVSEA Supervisor of Diving (00C3B) for guidance on other sonars. This appendix has been substantially revised from Safe Diving Distances from Trans- mitting Sonar (NAVSEAINST 3150.2 Series) and should be read in its entirety. 1A-2 BACKGROUND Chapter 18 of OPNAVINST 5100.23 Series is the basic instruction governing hearing conservation and noise abatement, but it does not address exposure to waterborne sound. Tables 1A-3 through 1A-6 are derived from experimental and theoretical research conducted at the Naval Submarine Medical Research Labora- tory (NSMRL) and Naval Experimental Diving Unit (NEDU). This instruction provides field guidance for determining safe diving distances from transmitting sonar. This instruction supplements OPNAVINST 5100.23 Series, and should be implemented in conjunction with OPNAVINST 5100.23 Series by commands that employ divers. The Sound Pressure Level (SPL), not distance, is the determining factor for estab- lishing a Permissible Exposure Limit (PEL). The exposure SPLs in Tables 1A-3 through 1A-6 are based upon the sonar equation and assume omni-directional sonar and inverse square law spreading.
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