Proceedings of the Advanced Scientific Diving Workshop
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Isolated and Confined Environments
17 Isolated and Confined Environments Carole Tafforin Ethospace, Toulouse, France Characteristics of space analogue environments with regard to human per- formance concern the crew adaptation in a socio-psychological context and in a temporal dynamics. Isolation, confinement and time are major features on Earth to reproduce an extra-terrestrial environment for manned mission simulations. In the current space missions (low Earth orbit, LEO) and in the perspective of interplanetary missions (near-Earth asteroid, Moon, Mars), men and women will have to adapt to social constraints (crew size, multinationality, mixed-gender) and spatial restrictions (volume, multi-chambers, life-support) on short-term, medium-term and long-term durations. The crewmembers also will have to perform intra-vehicular activities (IVA)and extra-vehicular activ- ities (EVA). For training, preventing and optimizing such tasks, simulations of living and working together in isolated and confined environments, and simulations of operating with a space suit on geological surfaces are the new requirements. During the two decades (1991–2011), space simulators (confinement) and analogue settings (isolation) were adequately developed on Earth with the ultimate goal of walking on Mars. Time periods extended up to 500 days. Space analogue environments are located worldwide (Canada, United States, Russia, Europe, Antarctica and Arctic). Mission durations in space analogue environments cover days, weeks and years. Isolation and confinement facilities implemented for such simulations are listed in Table 17.1. Over a 7-day duration, the Canadian Astronaut Program Space Unit Life Simulation (CAPSULS) was an Earth-based initiative that simulated a typical space shuttle or space station mission [1]. CAPSULS provided the Canadian astronaut participants with space mission training. -
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SCIENTIFIC AMERICAN FRONTIERS PROGRAM #1503 "Going Deep" AIRDATE: February 2, 2005 ALAN ALDA Hello and welcome to Scientific American Frontiers. I'm Alan Alda. It's said that the oceans, which cover more than two thirds of the earth's surface, are less familiar to us than the surface of the moon. If you consider the volume of the oceans, it's actually more than ninety percent of the habitable part of the earth that we don't know too much about. The main reason for our relative ignorance is simply that the deep ocean is an absolutely forbidding environment. It's pitch dark, extremely cold and with pressures that are like having a 3,000-foot column of lead pressing down on every square inch -- which does sound pretty uncomfortable. In this program we're going to see how people finally made it to the ocean floor, and we'll find out about the scientific revolutions they brought back with them. We're going to go diving in the Alvin, the little submarine that did so much of the work. And we're going to glimpse the future, as Alvin's successor takes shape in a small seaside town on Cape Cod. That's coming up in tonight's episode, Going Deep. INTO THE DEEP ALAN ALDA (NARRATION) Woods Hole, Massachusetts. It's one of the picturesque seaside towns that draw the tourists to Cape Cod each year. But few seaside towns have what Woods Hole has. For 70 years it's been home to the Woods Hole Oceanographic Institution — an organization that does nothing but study the world's oceans. -
New and Different to Come Your Way with Regard to Our Upcoming 2019 Sea Technology Buyers Guide/Directory
WATCH FOR SOMETHING NEW AND DIFFERENT TO COME YOUR WAY WITH REGARD TO OUR UPCOMING 2019 SEA TECHNOLOGY BUYERS GUIDE/DIRECTORY PROCEED TO MAGAZINE from Surface to Seabed Position / Heading Weather Monitoring Electromagnetic / Smart™ Depth Sensor Ultrasonic Speed Acoustic Communications (ACOMMs) ADCP / DVL Acoustic Communications (ACOMMs) Altimeter Side Scan Forward-looking Sonar Multibeam Sonar Collecting and connecting from surface to seafloor, AIRMAR and MSI push the boundaries of ultrasonic technology to deliver multi-sensor and array solutions that ensure the highest level of data integrity. Consult with our engineering teams to source or design the perfect combination of sensors to achieve your mission’s goals. AIRMAR.COM MSITRANSDUCERS.COM 2 ST | June 2018 www.sea-technology.com High Performance Cable Handling Systems RESEARCH INSTITUTIONS • MILITARY • GOVERNMENT AGENCIES # Custom and Standard Configurations # Mil-Spec, ABS, DNV and 46CFR Certifications # Easy to Operate and Maintain InterOcean Systems has been supplying specialized winches and cable handling systems for over 45 years. Let our experienced application engineers assist you in reviewing and developing performance specifications for your specialized application. Contact us to discuss your oceanographic winch and cable handling system needs! InterOcean Systems, LLC Tel. (858) 565-8400 • Fax (858) 268-9695 www.interoceansystems.com An affiliate of Delmar Systems, Inc. ANY APPLICATION • ANY LOAD • RUGGED AND RELIABLE www.sea-technology.com June 2018 | ST 3 The SeaBat T-series Modular, compact multibeam sonar family that grows with your business The unique modular design concept of the SeaBat T-series allows you to configure exactly the sonar survey system for the job at hand. -
Habitability Studies and Full Scale Simulation Research: Preliminary Themes Following HISEAS Mission IV
47th International Conference on Environmental Systems ICES-2017-138 16-20 July 2017, Charleston, South Carolina Habitability Studies and Full Scale Simulation Research: Preliminary themes following HISEAS mission IV Sandra Häuplik-Meusburger1 Vienna University of Technology, space-craft Architektur, Vienna, Austria Kim Binsted2 University of Hawai'i at Manoa, HI-SEAS Tristan Bassingthwaighte3 University of Hawai'i at Manoa, HI-SEAS IV Georgi Petrov4 Synthesis The ‘Hawai'i Space Exploration Analog and Simulation’ (HI-SEAS) is a long duration Mars exploration analogue study run by the University of Hawaii at Manoa, funded by NASA. The first mission started in 2013. HI-SEAS mission IV included six crew-members, three male and three female. The mission began on 28 August 2015 and was scheduled to run for a year. HI-SEAS V began on January 19th, 2017 and is scheduled for 8 months. Research conducted during the missions includes research into food preparation and preferences, behavior, crew dynamics, group performance and other relevant issues for future missions to Mars and beyond, as well as our study on habitability. This paper introduces the continuing ‘HI-SEAS Habitability Study’, which systematically investigates the relationship between the built environment (habitat) and its inhabitants. The term habitability describes the physical suitability and subjective value of a built habitat for its inhabitants within a specific environment. Along with human factors, habitability is critical for the design of an inhabited confined and isolated environment and thus the well-being of the inhabitants. The study uses a mix of methodologies for data collection, including monthly questionnaires during the mission and post mission interviews. -
"Aquarius" Undersea Habitat As an Analog for Long- Duration Space Flight
https://ntrs.nasa.gov/search.jsp?R=20110011365 2019-08-30T15:38:42+00:00Z Source of Acquisiti on NASA Jolmson Space Center The NEEMO Project: A Report on how NASA Utilizes the "Aquarius" Undersea Habitat as an Analog for Long- Duration Space Flight. Bill ToddlUnited Space Alliance Marc Reagan/NASA NEEMO Project Leads Spaceflight Training, NASAJJSC October, 2003 Abstract NEEMO is the NASA Extreme Environment Mission Operations, a cooperative project between NASA and the National Oceanic and Atmospheric Administration (NOAA). NEEMO was created and is managed by the Mission Operations Directorate at the Johnson Space Center in Houston, Texas. On the NOAA side, the National Undersea Research Center (NURC) in Key Largo, FL, with the help of the University of North Carolina at Wilmington, manages and operates the Aquarius Program. NEEMO was developed by astronaut training specialists to utilize an undersea research habitat as a multi-objective mission analog for long-duration space flight. Each mission was designed to expose astronauts to extreme environments for training purposes and to research crew behavior, habitability, and space analog life sciences. All of this was done much in the model of a space mission utilizing specific crew procedures, mission rules and timelines. Objectives of the missions were very diverse and contained many of the typical space mission type activities such as EV As (also known as extra vehicular activities), in-habitat science and research, and educational, public outreach, and media events. Five missions, dubbed NEEMO 1-5, were conducted between October 2001 and July 2003, the longest of which (NEEMO 5) lasted 14 days. -
Exploration of the Deep Gulf of Mexico Slope Using DSV Alvin: Site Selection and Geologic Character
Exploration of the Deep Gulf of Mexico Slope Using DSV Alvin: Site Selection and Geologic Character Harry H. Roberts1, Chuck R. Fisher2, Jim M. Brooks3, Bernie Bernard3, Robert S. Carney4, Erik Cordes5, William Shedd6, Jesse Hunt, Jr.6, Samantha Joye7, Ian R. MacDonald8, 9 and Cheryl Morrison 1Coastal Studies Institute, Louisiana State University, Baton Rouge, Louisiana 70803 2Department of Biology, Penn State University, University Park, Pennsylvania 16802-5301 3TDI Brooks International, Inc., 1902 Pinon Dr., College Station, Texas 77845 4Department of Oceanography and Coastal Sciences, Louisiana State University, Baton Rouge, Louisiana 70803 5Department of Organismic and Evolutionary Biology, Harvard University, 16 Divinity Ave., Cambridge, Massachusetts 02138 6Minerals Management Service, Office of Resource Evaluation, New Orleans, Louisiana 70123-2394 7Department of Geology, University of Georgia, Athens, Georgia 30602 8Department of Physical and Environmental Sciences, Texas A&M – Corpus Christi, Corpus Christi, Texas 78412 9U.S. Geological Survey, 11649 Leetown Rd., Keameysville, West Virginia 25430 ABSTRACT The Gulf of Mexico is well known for its hydrocarbon seeps, associated chemosyn- thetic communities, and gas hydrates. However, most direct observations and samplings of seep sites have been concentrated above water depths of approximately 3000 ft (1000 m) because of the scarcity of deep diving manned submersibles. In the summer of 2006, Minerals Management Service (MMS) and National Oceanic and Atmospheric Admini- stration (NOAA) supported 24 days of DSV Alvin dives on the deep continental slope. Site selection for these dives was accomplished through surface reflectivity analysis of the MMS slope-wide 3D seismic database followed by a photo reconnaissance cruise. From 80 potential sites, 20 were studied by photo reconnaissance from which 10 sites were selected for Alvin dives. -
Bill's Cave Diving Lexicon
Bill’s Cave Diving Lexicon 120 Rule: Noticing from the Navy NDL table that, for certain depths, depth + bottom time = 120 so that the NDL can be determined by subtracting the depth from 120. 200 DIN: Thread depth in a DIN valve and associated pressure (200 BAR) that can be handled. This size (7 threads) allows for a DIN to yoke conversion. 300 DIN: Thread depth in a DIN valve that provides the most secure (9 threads) connection and can withstand 300 BAR pressure. 5 nines pure: 99.999% pure, as in a gas. 50-50: Gas mix of 50% oxygen and 50% nitrogen used for decompression gas. 6351-T6 Aluminum Alloy: Alloy that has had problems with tank ruptures. Absolute Pressure: Total pressure being exerted on a diver At sea level Absolute pressure is 1 ATA and it increases by 1 ATA for each 33fsw (34ffw). ADDD (Air, Duration, Depth, Distance): Limits for dive termination acronym minimum Air volume/pressure, maximum Duration of dive, maximum Depth of dive, and maximum Distance of penetration. ADV (Automatic Deflation Valve, and Automatic Diluent Valve ): Device on a buoyancy compensator that allows for rapid air purging, and device on a rebreather that dilutes the breathing mix. AGE (Arterial Gas Embolism): A lung expansion injury. A condition in which gas bubbles enter the arterial system and cause damage by blocking blood flow to vital organs, most commonly the brain. This is generally caused by air passing through the walls of the alveoli into the bloodstream. Air: A gas mixture of Oxygen (21%), Nitrogen (78%), and other gasses (1%, Helium, Argon, etc.). -
The History of Dräger Johann Heinrich Dräger (1847–1917) Dr
D The History of Dräger Johann Heinrich Dräger (1847–1917) Dr. Bernhard Dräger (1870–1928) Dr. Heinrich Dräger (1898–1986) Contents 04 The Early Years: From Inventor’s Workshop to Medical and Safety Technology Specialist 10 Turbulent Times: Between Innovation Challenges and Political Constraints 20 New Beginnings: Transformation to a Modern Technology Group 30 Globalization: Realignment as a Global Technology Leader Dr. Christian Dräger (*1934) Theo Dräger (*1938) Stefan Dräger (*1963) Technology for Life for over 120 years Dräger is technology for life. Every day we take on the responsibility and put all our passion, know-how and experience into making life better: With outstanding, pioneering technology which is 100 percent driven by life. We do it for all the people around the world who entrust their lives to our technology, for the environment and for our common future. The key to the continued success of the Company, based in Lübeck, Germany, is its clear focus on the promising growth industries of medical and safety technology, its early expansi- on to international markets, and above all, the trust it has built and maintains with custo- mers, employees, shareholders, and the general public. The Company has always been managed by entrepreneurial members of the Dräger family, who have responsibly met new challenges while never losing sight of the vision: Johann Heinrich Dräger, Dr. Bernhard Dräger, Dr. Heinrich Dräger, Dr. Christian Dräger, Theo Dräger, and now Stefan Dräger. Healthy growth has consistently remained the main objective of the family business and shapes decisions within the Company even now. Founded in 1889 by Johann Heinrich Dräger, the family business has been headed in the fifth generation by CEO Stefan Dräger since 2005. -
Optimal Breathing Gas Mixture in Professional Diving with Multiple Supply
Proceedings of the World Congress on Engineering 2021 WCE 2021, July 7-9, 2021, London, U.K. Optimal Breathing Gas Mixture in Professional Diving with Multiple Supply Orhan I. Basaran, Mert Unal compressors and cylinders, it was limited to surface air Abstract— Professional diving existed since antiquities when supply lines. In 1978, Fleuss introduced the first closed divers collected resources from the bottom of the seas and circuit oxygen breathing apparatus which removed carbon lakes. With technological advancements in the recent century, dioxide from the exhaled gas and did not form bubbles professional diving activities also increased significantly. underwater. In 1943, Cousteau and Gangan designed the Diving has many adverse effects on human physiology which first proper demand-regulated air supply from compressed are widely investigated in order to make dives safer. In this air cylinders worn on the back. The scuba equipment with study, we focus on optimizing the breathing gas mixture minimizing the dive costs while ensuring the safety of the the high-pressure regulator on the cylinder and a single hose divers. The methods proposed in this paper are purely to a demand valve was invented in Australia and marketed theoretical and divers should always have appropriate training by Ted Eldred in the early 1950s [1]. and certificates. Also, divers should never perform dives With the use of Siebe dress, the first cases of decompression without consulting professionals and medical doctors with expertise in related fields. sickness began to be documented. Haldane conducted several experiments on animal and human subjects in Index Terms—-professional diving; breathing gas compression chambers to investigate the causes of this optimization; dive profile optimization sickness and how it can be prevented. -
Instructor Development Course Award Winning Padi
INSTRUCTOR DEVELOPMENT COURSE AWARD WINNING PADI 5-STAR IDC CENTRE www.facebook.com/IDCKohTaoThailand WELCOME TO THE INSTRUCTOR DEVELOPMENT COURSE!!! MEET YOUR COURSE DIRECTOR: Marcel van den Berg Platinum PADI Course Director / EFR Instructor Trainer #492721 "Let me introduce myself; my name is Marcel van den Berg. I’m originally from the Netherlands and have now been living in Thailand for almost a decade. In 2003, I decided to take a diving course to experience the hype that everyone was talking about. It only took me 20 minutes on my first Open Water dive to realize that you can have a fantastic career in this amazing underwater realm. From that moment on, I actively pursued my career in diving. I hold a tremendous passion towards diving which I have been able to share with others during my teaching and turning thousands of students into divers. It didn’t take long to decide to advance in my career and I continued my education towards Course Director and Specialty Instructor Trainer. Within the first year I achieved Platinum Status from PADI and kept that until this day. Now I’m able to teach the success I had to new Instructors and I look forward to share my passion and success in Diving with you! Come and join us for your professional diving training at Sairee Cottage Diving and let me teach you an award winning program that far exceeds the minimum standards of the dive industry” Marcel van den Berg 2 Teaching Experience: Taught over 4500 students on all PADI levels Certifications: PADI Platinum Course Director #492721 Emergency -
1'1 11 E W Rfare Divii1g
www.mcdoa.org.uk 1'1 11 E W RFARE DIVII1G www.mcdoa.org.uk CONTENTS www.mcdoa.org.uk FOREWORD EDITOR'S FOREWORD DATES FOR YOUR DIARY OUR MAN IN MARBATSTAFF 7 JMC 013 8 BABY FROGS 12 SANDOWN and INVERNESS BOW OUT 16 MCM COMMAND and SUPPORT 17 SUBMARINE RESCUE 22 LONGLOOK 2001 28 PLANES, TRAINS and AUTOMOBILES 30 SONAR 2193 31 THUNDERBIRD ONE 37 VIEW FROM THE MCMTA 39 THE SINKING of the SCYLLA 13 LONG LOOK THE 'AUSSIE' PERSPECTIVE 15 OPERATION GARDEN on the THAMES 17 HOLIDAYS' 51 MINE DISPOSAL SYSTEM 53 TRAP, TARG, TOAR and RIPS 58 MCMV WEAPON SYSTEM UPGRADES 69 COMMAND• SUPPORT SYSTEMS 70 DIVING STANDARDS (NAVY) 71 DDS - A SCHOOL OF CHANGE 81 MWTU 90 ADVANCED MINE WARFARE TRAINING IN 2005 95 THE MARITIME WARFARE CENTRE 97 'THE ASSOCIATION' 99 HMS LENNOX 1958 102 SPACE SHUTTLE RECOVERY 106 THE NITEWORKS PROJECT III SAFETY CASE REPORT 113 DEFECTS 111 www.mcdoa.org.uk FOREWORD www.mcdoa.org.uk From Captain N P Stanley M.Phil, MNI Royal Navy Captain Minewarfare & Patrol Vessels, Fishery Protection and Diving I am delighted to be able to write the introduction to this current edition of MAD Magazine. Its appearance on the streets coincides with my own departure from the front-line. returning to MOD after two and a half years at the Waterfront but well placed to present something of a haul down report to the community; a reflection of the last few years and a look ahead to what we have on the horizon. Starting with people: it has clearly been a demanding period. -
Divex G30 Carbon Dioxide Analyser Calculated and Compensated for by the Order Code G30 Microprocessor
World leaders in diving equipment technology Divex G30 Carbon DEFENCE Dioxide Analyser COMMERCIAL The G30 Analyser is ideal for monitoring Specification diving chamber carbon dioxide levels. A simple reduced pressure (0.9 to 1.1 Bar) General HEAD OFFICE gas supply, can be supplied from the Range 0 - 5000 ppm CO 2 Enterprise Drive diving chamber at a rate of 0.5lt/min. The Resolution 50 ppm CO 2 Westhill Accuracy ± 2% of Full Scale Aberdeen bright LED read-out displays the CO 2 Linearity 1% of Full Scale AB32 6TQ level in parts per million to within 2% ac - Repeatability 1% of Full Scale T: +44 (0)1224 740145 curacy. It is anticipated that the analyser Response Time 30 Seconds (typical) F: +44 (0)1224 740172 Stability 1% of Full Scale per week will be panel mounted as part of a satu - (typical) ration dive control and is therefore sup - Warm-Up Time 40 seconds plied in a splash proof housing to Gas Flow Rate 0.5 litres/minute special order only. Pressure Effects 0.15% of reading per millibar Operating Pressure ± 5 psig (nominal) Display 4 Digit High Bright Red LED The G30 provides a continuously digital Power Supply 110 - 240v AC (to be specified at time of display of parts per million CO 2 in the gas ordering) sample flowing through the sensor unit. The Outputs 0-1 Volt for Chart Recorder instrument displays the measured valve on Plus 4 - 20mA GLOBAL a 4 digit LED display and supplied to read internally powered Alarm Relays 2 x Single pole change over LOCATIONS over the range 0-5000ppm CO 2.