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  • 1
    Online Resource
    Online Resource
    Cham :Springer International Publishing :
    Keywords: Geotechnical engineering. ; Geography. ; Earth sciences. ; Civil engineering. ; Environmental monitoring. ; Mineralogy. ; Geotechnical Engineering and Applied Earth Sciences. ; Regional Geography. ; Earth and Environmental Sciences. ; Civil Engineering. ; Environmental Monitoring. ; Mineralogy.
    Description / Table of Contents: Chapter 1. Drilling targets in the Polar Regions -- Chapter 2. Drilling challenges in the Polar Regions -- Chapter 3. Direct-push and percussion drilling -- Chapter 4. Non-coring erosion drilling in permafrost -- Chapter 5. Auger and rotary dry drilling -- Chapter 6. Rotary drilling with drilling fluid circulation -- Chapter 7. Air and foam drilling -- Chapter 8. Special drilling methods in the Polar Regions -- Chapter 9. Offshore drilling and sampling in the Polar Regions. Concluding Remarks, References.
    Abstract: This book provides a comprehensive review of drilling technologies in the polar regions, from the portable drilling equipment for shallow sampling and coring, to heavy drilling equipment for deep onshore and offshore drilling. Particular attention is given to safe drilling methods in permafrost. In recent years, interest in drilling in the polar regions has increased under the pressure of the geopolitical “rush” and the undiscovered resource potential. In addition, borehole monitoring of permafrost thermal states is urgently needed to obtain evidence of climate change. The book focuses on the latest drilling technologies but also discusses the historical development of sampling, and drilling tools and devices, over the last 60–70 years providing valuable insights into a way forward and future possibilities.
    Type of Medium: Online Resource
    Pages: XVI, 387 p. 1 illus. , online resource.
    Edition: 1st ed. 2022.
    ISBN: 9783031072697
    Series Statement: Springer Polar Sciences,
    DDC: 624.151
    Language: English
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  • 2
    Online Resource
    Online Resource
    Singapore :Springer Nature Singapore :
    Keywords: Geophysics. ; Geotechnical engineering. ; Physical geography. ; Geophysics. ; Geotechnical Engineering and Applied Earth Sciences. ; Physical Geography.
    Description / Table of Contents: Hot-Point Drills -- Electric Thermal Coring Drills -- Hot-Water Ice Drills -- Steam Ice Drills -- Perspectives For Future Development of Thermal Ice-Drilling Technology.
    Abstract: This book provides a review of thermal ice drilling technologies, including the design, parameters, and performance of various tools and drills for making holes in ice sheets, ice caps, mountain glaciers, ice shelves, and sea ice. In recent years, interest in thermal drilling technology has increased as a result of subglacial lake explorations and extraterrestrial investigations. The book focuses on the latest ice drilling technologies, but also discusses the historical development of ice drilling tools and devices over the last 100 years to offer valuable insights into what is possible and what not to do in the future. Featuring numerous figures and pictures, many of them published for the first time, it is intended for specialists working in ice-core sciences, polar oceanography, drilling engineers and glaciologists, and is also a useful reference for researchers and graduate students working in engineering and cold-regions technology.
    Type of Medium: Online Resource
    Pages: XII, 278 p. 348 illus., 176 illus. in color. , online resource.
    Edition: 1st ed. 2020.
    ISBN: 9789811388484
    Series Statement: Springer Geophysics,
    DDC: 550
    Language: English
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  • 3
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    Singapore : Springer | Beijing : Geological Publishing House
    Call number: 9789811005602 (e-book)
    Description / Table of Contents: This book provides a review of mechanical ice drilling technology, including the design, parameters, and performance of various tools and drills for making holes in snow, firn and ice. The material presents the historical development of ice drilling tools and devices from the first experience taken place more than 170 years ago to the present day and focuses on the modern vision of ice drilling technology. It is illustrated with numerous pictures, many of them published for the first time. This book is intended for specialists in ice core sciences, drilling engineers, glaciologists, and can be useful for high-school students and other readers who are very interested in engineering and cold regions technology
    Type of Medium: 12
    Pages: 1 Online-Ressource (XIV, 284 Seiten) , Illustrationen
    Edition: Online edition Springer eBook Collection. Earth and Environmental Science
    ISBN: 9789811005602 , 978-981-10-0560-2
    ISSN: 2364-9119 , 2364-9127
    Series Statement: Springer Geophysics
    Language: English
    Note: Contents Preface 1 Introduction to Ice Drilling Technology 1.1 Ice Drilling Targets and Aims 1.2 Structure of Ice Sheets and Glaciers 1.3 Classification of Ice Drilling Methods References 2 Yearly History of Ice Drilling from Nineteeth to the First Half of Twentieth Century References 3 Direct-Push Drilling 3.1 Drive Sampling 3.1.1 Basic Principles 3.1.2 Mt. Rose Sampler 3.1.3 Utah Snow Sampler 3.1.4 Federal Snow Sampler 3.1.5 Bowman Sampler 3.1.6 Rosen Sampler 3.1.7 Large Diameter Snow Samplers 3.1.8 Vibratory Drill 3.2 Penetrative Testing 3.2.1 Ski Pole Penetrometer 3.2.2 Ram Penetrometer 3.2.3 Snow Resistograph 3.2.4 Digital Thermo-Resistograph 3.2.5 Snow Micro-Penetrometer 3.2.6 SABRE Probe 3.2.7 Cone Penetrometer Testing 3.3 Summary References 4 Hand- and Power-Driven Portable Drills 4.1 Noncoring Augers 4.1.1 SFFEL Noncoring Auger 4.1.2 SIPRE/CRREL Ice Thickness Kit 4.1.3 Kovacs Ice Thickness Kit 4.1.4 AARI Portable Sled-Mounted Drilling Rig 4.1.5 Handheld Coal-Boring Augers 4.1.6 Ice Augers for Winter Fishing 4.2 Noncoring “Piston” Drill 4.3 Core Augers. 4.3.1 General Principles 4.3.2 SFFEL Auger 4.3.3 SIPRE Auger 4.3.4 CRREL Auger 4.3.5 Rand Auger 4.3.6 Big John 12″ Auger 4.3.7 PICO Lightweight Auger 4.3.8 Kovacs Auger 4.3.9 IGAS Hand Auger 4.3.10 Swiss Hand Auger 4.3.11 UCPH Hand Auger 4.3.12 “Prairie Dog” Auger 4.3.13 “Sidewinder” 4.3.14 IDDO Hand Auger 4.4 Core Drills with Teeth and Annular Bits 4.4.1 Taku Glacier Hand Drill 4.4.2 Canadian Portable Ice Drill 4.4.3 Tsykin’s Hand Drill 4.4.4 5th CAE Drill 4.4.5 Ice Core Drill with Annular Bit PI-8 4.5 Mini Drills 4.5.1 Livingston Island Mini Drill 4.5.2 Chipmunk Drill 4.6 Summary References 5 Percussion Drills 5.1 Cable-Tool Drill Rigs 5.1.1 IGAS Cable-Tool Rig 5.1.2 Cable-Tool of California Institute of Technology 5.1.3 Star Iron Works Cable-Tool 5.2 Pneumatic Drills 5.3 Rotary-Percussion Drills 5.4 Summary References 6 Conventional Machine-Driven Rotary Drill Rigs 6.1 Dry Drilling 6.1.1 Expéditions Polaires Françaises in Greenland 6.1.2 Baffin Island Expedition 6.1.3 Norwegian-British-Swedish Antarctic Expedition 6.1.4 Mirny Station, Antarctica 6.2 Auger Drilling 6.2.1 Mirny Station, Antarctica 6.2.2 McMurdo Station, Antarctica 6.2.3 Amundsen–Scott Station, South Pole 6.2.4 Subglacial Lake Ellsworth Camp 6.3 Commercial Drill Rigs for Ice Fishing 6.4 Air Rotary Drilling 6.4.1 Mirny, Antarctica 6.4.2 Site 2, Greenland 6.4.3 Byrd Station, Antarctica 6.4.4 Little America V, Antarctica 6.4.5 Franz Josef Land, Russian Arctic 6.4.6 Base Roi Baudouin, Antarctica 6.5 Rotary Drilling with Fluid Circulation 6.5.1 Taku Glacier, Alaska 6.5.2 Mer de Glace, French Alps 6.5.3 South Leduc Glacier, British Columbia 6.5.4 McMurdo Station, Antarctica 6.6 Wire-Line Drills 6.6.1 International Antarctic Glaciological Project, East Antarctica 6.6.2 Ross Ice Shelf Project 6.6.3 Base Druzhnaya, Antarctica 6.6.4 Black Rapids Glacier, Alaska 6.6.5 Isua Greenstone Belt, Southwestern Greenland 6.6.6 Foremore Glacier, British Columbia, Western Canada 6.6.7 Rapid Access Ice Drill (RAID) 6.6.8 Agile Sub-ice Geological (ASIG) Drill 6.7 Drilling in Rock Glaciers 6.7.1 Overview of Projects Using Conventional Drilling Equipment 6.7.2 Koci Drill 6.8 Summary References 7 Flexible Drill-Stem Drill Rigs 7.1 Rapid Shallow Drill Rigs 7.2 Rapid-Access Drill Rigs 7.2.1 Thermomechanical Drill 7.2.2 Coiled-Tubing Drill Rigs 7.2.3 RADIX 7.2.4 SUBGLACIOR Drilling Probe 7.3 Summary References 8 Cable-Suspended Electromechanical Auger Drills 8.1 Basic Principles 8.2 University of Iceland (UI) Drill 8.3 University of Bern (UB) Drills 8.3.1 Rufli Drill 8.3.2 Further Improved UB Drills 8.4 CRREL Drill 8.5 Institute of Low Temperature Science (ILTS) Drills 8.5.1 First Prototypes 8.5.2 ID-140 Drill 8.5.3 ILTS-140 Drill 8.5.4 MID-140 Drill 8.5.5 Portable ILTS-130 and -100 Drills 8.5.6 ILTS-130E(F) and ILTS-150 Drills 8.5.7 New Portable ILTS Drill 8.6 University of Copenhagen (UCPH) Drill 8.7 Laboratoire de Glaciologie et Géophysique de l’Environnement (LGGE) Drills 8.8 National Hydrology Research Institute (NHRI) Drill 8.9 Polar Ice Coring Office (PICO) 4″ Drill 8.10 Alfred-Wegener Institute (AWI) Drills 8.11 Australian National Antarctic Research Expedition (ANARE) Drill 8.12 BZXJ Drills 8.13 Geo Tecs Drills 8.13.1 Geo Tecs Prototype Shallow Drill 8.13.2 Further Improvements 8.13.3 Field Testing and Operations 8.14 Hilda/Simon/Eclipse Drills 8.14.1 Hilda/Simon Drills 8.14.2 Eclipse Drill 8.14.3 Field Testing and Coring 8.14.4 Badger-Eclipse Drill 8.15 Byrd Polar Research Center (BPRC) Drills 8.16 British Antarctic Survey (BAS) Drills 8.16.1 BAS/IMAU Drill 8.16.2 Rapid-Access Isotope Drill 8.17 FELICS Drills 8.17.1 3″ Drill 8.17.2 “Backpack Drill” 8.18 Blue Ice Drill (BID) 8.18.1 BID General Fescription 8.18.2 Operation and Performance 8.18.3 BID-Deep System 8.19 Summary References 9 Cable-Suspended Electromechanical Drills with Bottom-Hole Circulation 9.1 CRREL Electromechanical Drill 9.1.1 Drilling Equipment 9.1.2 Camp Century, Greenland 9.1.3 Byrd Station, Antarctica 9.2 ISTUK Drill 9.2.1 Drill System 9.2.2 Dye 3, Greenland (GISP) 9.2.3 Summit, Greenland (GRIP) 9.2.4 Law Dome, Antarctica 9.3 LGGE Electromechanical Drills 9.4 PICO-5.2″ Electromechanical Drill 9.4.1 Drill System 9.4.2 Summit, Greenland (GISP2) 9.4.3 Taylor Dome, Antarctica 9.4.4 Siple Dome, Antarctica 9.5 KEMS Electromechanical Drill 9.5.1 Drill System 9.5.2 Severnaya Zemlya, Russian Arctic 9.5.3 Vostok Station, Antarctica 9.6 JARE Electromechanical Drill 9.6.1 Drill System 9.6.2 Preliminary Tests 9.6.3 First Deep Ice Coring Project at Dome F, Antarctica 9.6.4 Second Deep Ice Coring Project at Dome F, Antarctica 9.6.5 Kunlun Station (Dome A), Antarctica 9.7 Hans Tausen (HT) Electromechanical Drill and Its Modifications 9.7.1 Basic Drill System 9.7.2 Hans Tausen Ice Cap, Greenland 9.7.3 NorthGRIP, Greenland 9.7.4 EPICA Dome C, Antarctica 9.7.5 EPICA-DML, Kohnen Station, Antarctica 9.7.6 Berkner Island, Antarctica 9.7.7 Talos Dome, Antarctica (TALDICE) 9.7.8 Flade Isblink Ice Cap, Greenland 9.7.9 NEEM Deep Ice Core Drilling, Greenland 9.7.10 James Ross Island, Antarctica 9.7.11 Fletcher Promontory, Antarctica 9.7.12 Roosevelt Island, Antarctica 9.7.13 NEEM, Greenland (UCPH Intermediate-Depth Ice Core Drilling System) 9.7.14 Aurora Basin North, Antarctica 9.7.15 Renland Ice Cap, Greenland 9.7.16 Summit, Greenland (IDDO Intermediate-Depth Drill) 9.7.17 South Pole, Antarctica (SPICE) 9.8 IDRA Drill 9.9 DISC Electromechanical Drill 9.9.1 Drill System 9.9.2 Field Testing at Summit, Greenland 9.9.3 WAIS Divide, Antarctica 9.9.4 Replicate Coring, WAIS Divide, Antarctica 9.10 IBED Drill 9.11 Summary References 10 Drilling Challenges and Perspectives for Future Development 10.1 Low-Temperature Drilling Fluids 10.1.1 Drilling Fluid Compositions 10.1.2 ESTISOL™ 240/COASOL™ Drilling Fluid 10.1.3 ESTISOL™ 140 Drilling Fluid 10.1.4 Low-Molecular Weight Dimethyl Siloxane Oils 10.1.5 Low-Molecular Weight Esters 10.1.6 Kerosene-Based Drilling Fluids Mixed with Fourth-Generation Foam-Expansion Agents 10.2 Ice Drilling Under Complicated Conditions 10.2.1 Permeable Snow-Firn 10.2.2 Brittle Ice Zone 10.2.3 Warm Ice 10.2.4 Debris-Containing Ice 10.2.5 Bedrock 10.2.6 Elimination of Sticking Drills 10.3 Advanced Drilling Systems 10.3.1 Rapid-Access Ice Drilling Systems for Subglacial Bedrock Drilling 10.3.2 Sidewall Drilling 10.3.3 Automated Drilling Systems References Appendix A: Records of Mechanical Drilling in Ice Appendix B: Abbreviations of Institutes, Organizations, and Projects
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  • 4
    Publication Date: 2011-03-28
    Print ISSN: 1816-8957
    Electronic ISSN: 1816-3459
    Topics: Geosciences
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  • 5
    Publication Date: 2020-01-01
    Print ISSN: 1531-1074
    Electronic ISSN: 1557-8070
    Topics: Biology , Physics
    Published by Mary Ann Liebert
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  • 6
    Publication Date: 2020-03-01
    Print ISSN: 1873-9652
    Topics: Geosciences
    Published by Elsevier
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  • 7
  • 8
  • 9
    Publication Date: 2021-09-01
    Description: Hot-point drills have been widely used for drilling boreholes in glaciers, ice caps and ice sheets. A hot-point drill melts ice through the thermal head at its bottom end. Penetration occurs through a close-contact melting (CCM) process, in which the ice is melted, and the meltwater is squeezed out by the exerted force applied on the thermal head. During the drilling, a thin water film is formed to separate the thermal head from the surrounding ice. For the hot-point drill, the rate of penetration (ROP) is influenced by several variables, such as thermal head shape, buoyancy corrected force (BCF), thermal head power (or temperature) and ice temperature. In this study, we developed a model to describe the CCM process, where a constant power or temperature on the working surface of a thermal head is assumed. The model was developed using COMSOL Multiphysics 5.3a software to evaluate the effects of different variables on the CCM process. It was discovered that the effect of thermal head shape and the cone angle of conical thermal head on ROP is less significant, whereas the increase in the BCF and the power (or temperature) of the thermal head can continuously enhance the ROP.
    Print ISSN: 0260-3055
    Electronic ISSN: 1727-5644
    Topics: Geography , Geosciences
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  • 10
    Publication Date: 2019-08-21
    Description: During field seasons 2016/17 and 2017/18, pre-site seismic surveys were undertaken in the Ekströmisen region of Dronning Maud Land, with the primary goal of building a stratigraphic age framework of sub-ice-shelf sedimentary strata. These sediments cover the Explora Wedge, a syn- or post-rift volcanic deposit. Expected ages range from Late Mesozoic to Quaternary. From new vibroseismic profiles, we selected sites for seafloor sampling with short cores through Hot Water Drill (HWD) holes of the oldest and of the youngest sedimentary sequencesto confine their age time span. There is further potential for drilling deeper sediment cores with the support of international partners. Deep drilling should recover the sediments overlying the Explora Escarpment, in order to discover the context and nature of the Explora Wedge. We expect the overlying sedimentary sequences to reveal the history of polar amplification and climate changes in this part of Antarctica, the build-up of the East AntarcticIce Sheet during past warmer climates and its Cenozoic and future variability. We successfully sampled the sea floor with different tools through HWD holes at two sites selected from the reflection seismic data close to the German Neumayer Station III, and discovered a pebbly sea floor coated with bryozoan skeletons. Present HWD holes penetrating the ice shelf to sample the sea floor will provide the unique opportunity for further piggy back experiments consisting of multi-disciplinary nature. For example, experiments and deploying measuring setup for oceanography, sea and ice shelf physics, geophysics, geology, hydrography, biogeochemistry could be potential future actions in order to characterise the ocean-ice-sediment interactions, processes and ecosystem observations. For season 2018/19 – besides additional geological sampling – it is planned to deploy a multiyear oceanographic mooring beneath the ice shelf. During future campaigns, we will try to launch an Autonomous Underwater Vehicle (AUV) either through a HWD hole, from a ship, or from the fast ice with the necessary power to operate and measure within the sub-ice shelf cavity.
    Repository Name: EPIC Alfred Wegener Institut
    Type: Conference , notRev
    Format: application/pdf
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