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  • 1
    Keywords: Tomography, X-Ray Computed. ; Electronic books.
    Description / Table of Contents: Now in its fourth edition, this portable guide and essential learning aid now contains new material. As with the previous editions, the superb full-color cadaver sections are compared with CT and MRI images. The radiological images have all been replaced with new examples for this latest edition, taken on the most up-to date equipment to ensure excellent visualization of the anatomy. The photographic material is enhanced by useful notes with details of important anatomical and radiological features.
    Type of Medium: Online Resource
    Pages: 1 online resource (289 pages)
    Edition: 4th ed.
    ISBN: 9781498708555
    DDC: 611.00222
    Language: English
    Note: Cover -- Half Title -- Title -- Copyright -- Contents -- Preface -- Introduction -- Acknowledgements -- Interpreting cross-sections: helpful hintsfor medical students -- BRAIN -- Superficial dissection A-B -- HEAD Base of skull [Osteology] -- Cranial fossae [Cranial nerves dissection] -- Sagittal section -- Sagittal section [Cranial nerves dissection] -- Axial sections [1-19 Male] -- Selected images A xial Magnetic Resonance Images [A-C] -- Coronal sections [1-13 Female] -- Sagittal section [1 Male] -- TEMPORAL BONE/INNER EAR Coronal sections [1-2 Male] -- Selected images A xial Computed Tomogram [A] Temporal Bone/Inner Ear -- NECK -- Axial sections [1-9 Female] -- Sagittal section [1 Male] -- THORAX -- Axial sections [1-10 Male] -- Axial section [1 Female] -- Selected images Axial Computed Tomograms [A-C] Heart -- Axial Computed Tomograms [A-D] Mediastinum -- Coronal Magnetic Resonance Images [A-C] -- Reconstructed Computed Tomograms [A-E] Chest -- Reconstructed 3D Computed Tomograms [A-B] Arterial S ystem -- ABDOMEN -- Axial sections [1-8 Male] -- Axial sections [1-2 Female] -- Selected images 3D Computed Tomography Colonogram [A] -- Coronal Computed Tomograms [A-C] -- Axial Computed Tomograms [A-F] Lumbar Spine -- Coronal Magnetic Resonance Images [A-B] Lumbar Spine -- Sagittal Magnetic Resonance Images [A-D] Lumbar Spine -- PELVIS -- Axial sections [1-11 Male] -- Selected images Coronal Magnetic Resonance Images [A-C] -- Axial sections [1-7 Female] -- Selected images Axial Magnetic Resonance Images [A-B] -- Coronal Magnetic Resonance Images [A-C] -- Sagittal Magnetic Resonance Image [A] -- LOWE R LIMB -- HIP - Coronal section [1 Female] -- Selected images 3D Computed Tomograms [A-B] Pelvis -- Thigh - Axial sections [1-3 Male] -- Knee - Axial sections [1-3 Male] -- Knee - Coronal section [1 Male] -- Knee - Sagittal sections [1-3 Female]. , Leg - Axial sections [1-2 Male] -- Ankle - Axial sections [1-3 Male] -- Ankle - Coronal section [1 Female] -- Ankle/Foot - Sagittal section [1 Male] -- Foot - Coronal section [1 Male] -- UPPER LIMB -- Shoulder - Axial section [1 Female] -- Shoulder - Coronal section [1 Male] -- Selected images 3D Computed Tomograms [A-B] Shoulder Girdle -- Arm - Axial section [1 Male] -- Elbow - Axial sections [1-3 Male] -- Elbow - Coronal section [1 Female] -- Forearm - Axial sections [1-2 Male] -- Wrist - Axial sections [1-3 Male] -- Wrist/Hand - Coronal section [1 Female] -- Wrist/Hand - Sagittal section [1 Female] -- Hand - Axial sections [1-2 Male] -- Index.
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  • 2
    Online Resource
    Online Resource
    Milton :Taylor & Francis Group,
    Keywords: Human anatomy--Atlases. ; Electronic books.
    Description / Table of Contents: This book set new standards for the quality of cadaver sections and accompanying radiological images. Now in its fourth edition, this unsurpassed quality remains and is further enhanced by additional new material. The superb full-colour cadaver sections are compared with CT and MRI images, with accompanying, labelled, line diagrams. Many of the radiological images have been replaced with new examples for this latest edition, captured using the most up-to date imaging technologies to ensure excellent visualization of the anatomy. The photographic material is enhanced by useful notes with details of important anatomical and radiological features.
    Type of Medium: Online Resource
    Pages: 1 online resource (284 pages)
    Edition: 4th ed.
    ISBN: 9781498703611
    DDC: 611.00222
    Language: English
    Note: Front Cover -- Contents -- Preface -- Introduction -- The importance of cross-sectional anatomy -- Orientation of sections and images -- Notes on the atlas -- References -- Acknowledgements -- Interpreting cross-sections: helpful hints for medical students -- BRAIN -- HEAD -- NECK -- THORAX -- ABDOMEN -- PELVIS -- LOWER LIMB -- UPPER LIMB.
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  • 3
    Keywords: Leg--Anatomy--Atlases. ; Electronic books.
    Type of Medium: Online Resource
    Pages: 1 online resource (193 pages)
    Edition: 5th ed.
    ISBN: 9780702072192
    DDC: 611.98
    Language: English
    Note: Front Cover -- McMinn's Color Atlas of Lower Limb Anatomy -- Copyright Page -- Table Of Contents -- Dedication -- Preface -- Professor R. M. H. McMinn, MD (Glas), PhD (Sheff), FRCS (Eng) [b. Sept 23, 1923 - d. July 11, 2012, aged 88] -- McMinn's Legacy of Illustrated Anatomy Books -- Acknowledgements -- Terminology -- Preservation of Cadavers -- Safety Footnote -- Orientation Guides -- 1 Lower limb, pelvis and hip -- Lower limb survey -- Bones, muscles and surface landmarks of the left lower limb, from the front -- Bones, muscles and surface landmarks of the left lower limb, from behind -- Bones, muscles and surface landmarks of the left lower limb, from the medial side -- Bones, muscles and surface landmarks of the left lower limb, from the lateral side -- Male pelvic viscera and vessels -- Seen on the right side in a sagittal section, after removal of most of the peritoneum (serous membrane) -- Female pelvic viscera and vessels -- Seen on the right side in a sagittal section, after removal of most of the peritoneum (serous membrane) -- Gluteal region -- Sciatic nerve and other gluteal structures of the right side -- Surface features of the right gluteal region -- Left gluteal region and ischio-anal region, with gluteus maximus and gluteus medius cut through and portions reflected laterally -- Right gluteal region and ischio-anal region, with most of gluteus maximus removed -- Hip joint -- Left hip bone and femur, with sacrum and coccyx -- Axial section through the left hip joint at the level of the last, fifth segment of the sacrum, from below -- 2 Thigh, knee and leg -- Thigh -- Front of the right thigh (female), superficial structures of the femoral triangle -- Back of the right thigh (female) and gluteal region -- Front of the right upper thigh (female) -- Front of the right upper thigh (male) -- Lower right thigh, medial side. , Axial section through lower right thigh -- Knee joint -- Left knee joint -- Left knee joint -- Coronal section through the left knee joint (male), from the front -- Sagittal section I through the left knee joint (female), from the left -- Sagittal section II through the left knee joint (female), from the left -- Sagittal section III through the left knee joint (female), from the left -- Popliteal fossa and back of the knee -- Popliteal fossa and back of the knee -- Leg and foot survey -- Muscles and superficial vessels and nerves of the left leg and foot -- 3 Foot -- Surface landmarks of the foot -- Surface landmarks of the left foot -- Surface landmarks of the left foot -- Skeleton of the foot -- Bones of the left foot, from above -- Articulated bones of the left foot -- Attachments of muscles and major ligaments to the bones of the left foot -- Sesamoid and accessory bones -- Articulated bones of the left foot -- Bones of the left longitudinal arches, transverse tarsal joint and other joints -- Foot bones -- Left talus -- Left talus and the lower ends of the tibia and fibula -- Left talus and the lower ends of the tibia and fibula, with ligamentous attachments in the ankle region -- Left talus and the lower ends of the tibia and fibula -- Left talus and the lower ends of the tibia and fibula, with ligamentous attachments in the ankle region -- Left calcaneus -- Left navicular bone -- Left cuboid bone -- Articulated left cuneiform bones (medial, intermediate and lateral) -- Left medial cuneiform bone -- Left intermediate cuneiform bone -- Left lateral cuneiform bone -- Lower leg and foot -- Deep fascia of the foot -- Deep fascia of the right lower leg and foot, from the front and the right -- Dorsum and back of the foot -- Dorsum and sides of the foot -- Deep nerves and vessels of the right foot, from the front and right. , Deep dissection of the dorsum -- Joints beneath the talus of the left foot -- Sole of the foot -- Plantar aponeurosis of the left foot -- First layer structures -- Lower leg and sole of foot -- Deep medial structures and second layer from the right and slightly below -- Ligaments of the foot -- Ligaments of the right foot -- Sections of the foot -- Sagittal sections of the right foot -- Sagittal sections of the right foot -- Axial sections and images of the right lower leg and foot -- Coronal sections of the left ankle joint and foot (in plantarflexion) -- Oblique axial sections of the left foot -- Coronal sections of the tarsus of the right foot -- Coronal sections of the right metatarsus -- Great toe -- The dorsum, nail and sections of the great toe -- 4 Imaging of the lower limb -- Lumbar spine -- Plain radiographic and CT anatomy -- MRI anatomy-sagittal -- MRI anatomy-axial -- Pelvis -- Plain radiographic anatomy -- Male and female pelvis, sacrum -- Developmental changes within the pelvis -- MRI anatomy of the pelvis -- MRI anatomy of the hip -- Arterial anatomy -- MRA angiographic anatomy of the pelvis and leg -- Arterial anatomy of the hip -- Thigh -- MRI anatomy of the thigh-coronal -- MRI anatomy of the thigh-axial -- Knee -- Plain radiographic anatomy -- MRI anatomy of the knee-sagittal -- MRI anatomy of the knee-coronal and axial -- Arterial anatomy of the knee-DSA, CT -- Arterial anatomy of the knee-CT, MRI -- Lower leg -- MRI anatomy of the lower leg-coronal -- MRI anatomy of the lower leg-axial -- Ankle -- Plain radiographic anatomy -- MRI anatomy of the ankle-sagittal -- MRI anatomy of the ankle-axial -- MRI anatomy of the ankle-coronal and ultrasound anatomy -- Foot -- Plain radiographic anatomy -- MRI anatomy of the foot-coronal -- MRI anatomy of the foot-axial and sagittal -- Vascular anatomy of the foot and ankle. , Paediatric anatomy -- Skin -- Muscles -- Muscles of the gluteal region -- Gluteus maximus -- Gluteus medius -- Gluteus minimus -- Piriformis -- Quadratus femoris -- Obturator internus -- Gemellus superior and inferior -- Obturator externus -- Muscles of the front of the thigh -- Iliacus -- Psoas major -- Tensor fasciae latae -- Sartorius -- Rectus femoris -- Vastus lateralis -- Vastus medialis -- Vastus intermedius -- Articularis genus -- Muscles of the medial side of the thigh -- Pectineus -- Gracilis -- Adductor brevis -- Adductor longus -- Adductor magnus -- Muscles of the back of the thigh -- Biceps femoris -- Semitendinosus -- Semimembranosus -- Muscles of the front of the leg -- Tibialis anterior -- Extensor hallucis longus -- Extensor digitorum longus -- Fibularis (peroneus) tertius -- Muscle of the dorsum of the foot -- Extensor digitorum brevis -- Muscles of the lateral side of the leg -- Fibularis (peroneus) longus -- Fibularis (peroneus) brevis -- Muscles of the back of the leg -- Gastrocnemius -- Soleus -- Plantaris -- Popliteus -- Tibialis posterior -- Flexor hallucis longus -- Flexor digitorum longus -- Muscles of the sole of the foot -- First layer (Fig. 4) -- Abductor hallucis -- Flexor digitorum brevis -- Abductor digiti minimi -- Second layer (Fig. 5) -- Quadratus plantae (flexor accessorius) -- Lumbricals -- Third layer (Fig. 6) -- Flexor hallucis brevis -- Adductor hallucis -- Flexor digiti minimi brevis -- Fourth layer (Fig. 7) -- Dorsal interosseous (four) -- Plantar interosseous (three) -- Nerves -- Branches of the lumbar plexus (Fig. 8) -- Branches of the sacral plexus -- Branches of the tibial nerve L4, L5, S1, S2, S3 (Fig. 9) -- Branches of the common fibular (peroneal) nerve L4, L5, S1, S2 -- Branches of the medial plantar nerve L4, L5, S1 -- Branches of the lateral plantar nerve S1, S2. , Regional anaesthesia for foot and ankle -- Popliteal block -- Indications -- Contraindications -- Precautions -- Anatomy -- (1) Nerve stimulator-guided technique -- Equipment and drugs -- Procedure (Fig. 10) -- Complications -- (2) Ultrasound technique -- Equipment and drugs -- Procedure (Figs 11 and 12) -- Ankle block -- Indications -- Contraindications -- Anatomy -- Equipment and drugs -- Procedure -- Complications -- Midfoot field block -- Indications -- Contraindications -- Anatomy -- Equipment and drugs -- Procedure -- Complications -- The common digital block -- Indications -- Contraindications -- Equipment and drugs -- Procedure (Fig. 21) -- Complications -- Bibliography -- The lymphatic system -- General key points -- Lower limb lymphatics-key points -- 1 Lateral caval nodes -- 2 Common iliac nodes -- 3 Internal iliac nodes -- 4 Gluteal nodes -- 5 External iliac nodes -- 6 Deep inguinal nodes -- 7 Popliteal nodes -- 8 Superficial inguinal nodes -- Arteries -- Branches of the Femoral Artery -- Branches of the Popliteal Artery -- Branches of the Dorsalis Pedis Artery (Fig. 28) -- Branches of the Medial Plantar Artery -- Branches of the Lateral Plantar Artery (Fig. 29) -- Index -- A -- B -- C -- D -- E -- F -- G -- H -- I -- J -- K -- L -- M -- N -- O -- P -- Q -- R -- S -- T -- U -- V -- W -- Z.
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  • 4
    Electronic Resource
    Electronic Resource
    Oxford, UK : Blackwell Publishing Ltd
    Community dentistry and oral epidemiology 3 (1975), S. 0 
    ISSN: 1600-0528
    Source: Blackwell Publishing Journal Backfiles 1879-2005
    Topics: Medicine
    Notes: Two examiners assessed subjectively the orthodontic treatment need of a group of 183 10-year-old children. The examiners did not standardize the criteria establishing treatment, need. Intraexaminer agreement was reached in 79.8 % of the cases. Intraexaminer agreement was 91.7 % for Examiner A and 93.4 % for Examiner B. The paper highlights the subjective element in deciding orthodontic treatment need.
    Type of Medium: Electronic Resource
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  • 5
    ISSN: 1530-0358
    Keywords: Anorectal physiology ; Biofeedback ; Colon and rectal surgery ; Defecography ; Electromyography ; Gastrointestinal transit ; Manometry ; Sigmoidoscopy
    Source: Springer Online Journal Archives 1860-2000
    Topics: Medicine
    Notes: Abstract Survey forms were sent to all members of the Coloproctology Section of the Royal Society of Medicine and the American Society of Colon and Rectal Surgeons to obtain their opinions of the availability, actual use, and perceived helpfulness of different methods for the evaluation of the physiology of the colon and rectum. Responses revealed a similarity in age and practice patterns in both groups. Of the 19 methods surveyed, greater than 90 percent of respondents in both groups rely on three traditional methods of patient evaluation: patient history, digital examination, and sigmoidoscopy. Four other methods have gained acceptance by the majority of respondents in both groups: colon transit studies, defecography, perfused-catheter manometry, and rectal compliance. The three methods ranked lowest in availability, actual use, and helpfulness by both groups were single-fiber electromyography, use of a perineometer, and evoked potential studies. Our study provides a baseline for future surveys on the investigative efforts of physicians studying the physiology of the colon, rectum, and anus.
    Type of Medium: Electronic Resource
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  • 6
    Publication Date: 2020-08-15
    Description: In the Southern Ocean, that is areas south of the Polar Front, long-term oceanographic cooling, geographic separation, development of isolating current and wind systems, tectonic drift and fluctuation of ice sheets amongst others have resulted in a highly endemic benthic fauna, which is generally adapted to the long-lasting, relatively stable environmental conditions. The Southern Ocean benthic ecosystem has been subject to minimal direct anthropogenic impact (compared to elsewhere) and thus presents unique opportunities to study biodiversity and its responses to environmental change. Since the beginning of the century, research under the Census of Marine Life and International Polar Year initiatives, as well as Scientific Committee of Antarctic Research biology programmes, have considerably advanced our understanding of the Southern Ocean benthos. In this paper, we evaluate recent progress in Southern Ocean benthic research and identify priorities for future research. Intense efforts to sample and describe the benthic fauna, coupled with coordination of information in global databases, have greatly enhanced understanding of the biodiversity and biogeography of the region. Some habitats, such as chemosynthetic systems, have been sampled for the first time, while application of new technologies and methods are yielding new insights into ecosystem structure and function. These advances have also highlighted important research gaps, notably the likely consequences of climate change. In a time of potentially pivotal environmental change, one of the greatest challenges is to balance conservation with increasing demands on the Southern Ocean’s natural resources and services. In this context, the characterization of Southern Ocean biodiversity is an urgent priority requiring timely and accurate species identifications, application of standardized sampling and reporting procedures, as well as cooperation between disciplines and nations.
    Repository Name: EPIC Alfred Wegener Institut
    Type: Article , isiRev
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  • 7
    Publication Date: 2019-09-23
    Description: Highlights • Marine Image Annotation Software (MIAS) are used to assist annotation of underwater imagery. • We compare 23 MIAS assisting human annotation including some that include automated annotation. • MIAS can run in real time (50%), allow posterior annotation (95%), and interact with databases and data flows (44%). • MIAS differ in data input/output and display, customization, image analysis and re-annotation. • We provide important considerations when selecting UIAS, and outline future trends. Abstract Given the need to describe, analyze and index large quantities of marine imagery data for exploration and monitoring activities, a range of specialized image annotation tools have been developed worldwide. Image annotation - the process of transposing objects or events represented in a video or still image to the semantic level, may involve human interactions and computer-assisted solutions. Marine image annotation software (MIAS) have enabled over 500 publications to date. We review the functioning, application trends and developments, by comparing general and advanced features of 23 different tools utilized in underwater image analysis. MIAS requiring human input are basically a graphical user interface, with a video player or image browser that recognizes a specific time code or image code, allowing to log events in a time-stamped (and/or geo-referenced) manner. MIAS differ from similar software by the capability of integrating data associated to video collection, the most simple being the position coordinates of the video recording platform. MIAS have three main characteristics: annotating events in real time, in posteriorly to annotation and interact with a database. These range from simple annotation interfaces, to full onboard data management systems, with a variety of toolboxes. Advanced packages allow to input and display of data from multiple sensors or multiple annotators via intranet or internet. Posterior human-mediated annotation often include tools for data display and image analysis, e.g. length, area, image segmentation, point count; and in a few cases the possibility of browsing and editing previous dive logs or to analyze annotation data. The interaction with a database allows the automatic integration of annotations from different surveys, repeated annotation and collaborative annotation of shared datasets, browsing and querying of data. Progress in the field of automated annotation is mostly in post processing, for stable platforms or still images. Integration into available MIAS is currently limited to semi-automated processes of pixel recognition through computer-vision modules that compile expert-based knowledge. Important topics aiding the choice of a specific software are outlined, the ideal software is discussed and future trends are presented.
    Type: Article , PeerReviewed
    Format: text
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  • 8
    Publication Date: 2016-01-19
    Description: Recent years have seen a steady increase in gas hydrate-related research in New Zealand, driven by several large-scale projects and strong international collaboration. The Hikurangi Margin, east of New Zealand’s North Island, is the country’s premier gas hydrate province. Here, much of the research has been focused on processes surrounding methane seepage out of the sea floor and on geological conditions that are likely to promote the deposition of concentrated hydrate deposits. Studies into submarine erosion and landslides related to gas hydrate systems have also been a major focus in this province. In particular, flattened ridge tops and submarine mass wasting deposits have been investigated that appear to be related to the up-slope termination of gas hydrate stability. Research is also being carried out to characterise animal communities of the seabed where methane seepage occurs, in order to provide ecological risk assessments for drilling activities. Elsewhere on New Zealand’s continental margins research is also accelerating. Several “frontier” basins around New Zealand are currently being explored with respect to their potential for hosting attractive gas hydrate deposits. A primary focus is to identify and characterise key elements of favourable depositional environments, with a longer-term aim of gas hydrate exploration drilling.
    Type: Conference or Workshop Item , NonPeerReviewed
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  • 9
    Publication Date: 2014-01-07
    Type: Conference or Workshop Item , NonPeerReviewed
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  • 10
    Publication Date: 2023-02-08
    Description: Hydrogeological processes influence the morphology, mechanical behavior, and evolution of subduction margins. Fluid supply, release, migration, and drainage control fluid pressure and collectively govern the stress state, which varies between accretionary and nonaccretionary systems. We compiled over a decade of published and unpublished acoustic data sets and seafloor observations to analyze the distribution of focused fluid expulsion along the Hikurangi margin, New Zealand. The spatial coverage and quality of our data are exceptional for subduction margins globally. We found that focused fluid seepage is widespread and varies south to north with changes in subduction setting, including: wedge morphology, convergence rate, seafloor roughness, and sediment thickness on the incoming Pacific plate. Overall, focused seepage manifests most commonly above the deforming backstop, is common on thrust ridges, and is largely absent from the frontal wedge despite ubiquitous hydrate occurrences. Focused seepage distribution may reflect spatial differences in shallow permeability architecture, while diffusive fluid flow and seepage at scales below detection limits are also likely. From the spatial coincidence of fluids with major thrust faults that disrupt gas hydrate stability, we surmise that focused seepage distribution may also reflect deeper drainage of the forearc, with implications for pore-pressure regime, fault mechanics, and critical wedge stability and morphology. Because a range of subduction styles is represented by 800 km of along-strike variability, our results may have implications for understanding subduction fluid flow and seepage globally.
    Type: Article , PeerReviewed
    Format: text
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