The Right Bronchial Artery Anatomical Considerations and Surgical Approach
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1. Launch the View! • Launch Human Anatomy Atlas. • Navigate to Quizzes/Lab Activities, Find the Respiratory Lab Section
Name: __________________________________________________________ Date: ______________________________ Activity 1: Respiratory System Lab 1. Launch the view! • Launch Human Anatomy Atlas. • Navigate to Quizzes/Lab Activities, find the Respiratory Lab section. • Launch Augmented Reality mode and scan the image below. • Don’t have AR? Select view 1. Respiratory System. 2. Fill in the blanks. • Find the structures listed in the word bank. • Read the definitions, then fill in the blank with the correct respiratory system structure from the word bank. © Argosy Publishing, Inc., 2007-2018. All Rights Reserved. 1/2 Name: __________________________________________________________ Date: ______________________________ Word bank: • Alveoli • Nasopharynx • Bronchi • Oropharynx • Laryngopharynx • Primary bronchi • Lungs • Trachea • Nasal cavity The ______________________________ is composed of the chambers of the internal nose that function as a part of the upper respiratory system. The ______________________________ is the most posterior part of the pharynx. It is shared by the respiratory system and the digestive system. The upper respiratory and upper digestive tracts diverge right after this structure. The front of this structure merges with the triangular entrance of the larynx. The ______________________________ conveys air between the upper and lower respiratory structures. The ______________________________ is a portion of the pharynx that begins at the rear of the nasal cavity and functions as an airway in the upper respiratory system. Its cavity always stays open, unlike the other parts of the pharynx. The ______________________________ are two organs that are responsible for gas exchange. The ______________________________ are the major airways of the lower respiratory system. The ______________________________ are the main sites of gas exchange, where oxygen is brought into the bloodstream and carbon dioxide is removed. -
Study Guide Medical Terminology by Thea Liza Batan About the Author
Study Guide Medical Terminology By Thea Liza Batan About the Author Thea Liza Batan earned a Master of Science in Nursing Administration in 2007 from Xavier University in Cincinnati, Ohio. She has worked as a staff nurse, nurse instructor, and level department head. She currently works as a simulation coordinator and a free- lance writer specializing in nursing and healthcare. All terms mentioned in this text that are known to be trademarks or service marks have been appropriately capitalized. Use of a term in this text shouldn’t be regarded as affecting the validity of any trademark or service mark. Copyright © 2017 by Penn Foster, Inc. All rights reserved. No part of the material protected by this copyright may be reproduced or utilized in any form or by any means, electronic or mechanical, including photocopying, recording, or by any information storage and retrieval system, without permission in writing from the copyright owner. Requests for permission to make copies of any part of the work should be mailed to Copyright Permissions, Penn Foster, 925 Oak Street, Scranton, Pennsylvania 18515. Printed in the United States of America CONTENTS INSTRUCTIONS 1 READING ASSIGNMENTS 3 LESSON 1: THE FUNDAMENTALS OF MEDICAL TERMINOLOGY 5 LESSON 2: DIAGNOSIS, INTERVENTION, AND HUMAN BODY TERMS 28 LESSON 3: MUSCULOSKELETAL, CIRCULATORY, AND RESPIRATORY SYSTEM TERMS 44 LESSON 4: DIGESTIVE, URINARY, AND REPRODUCTIVE SYSTEM TERMS 69 LESSON 5: INTEGUMENTARY, NERVOUS, AND ENDOCRINE S YSTEM TERMS 96 SELF-CHECK ANSWERS 134 © PENN FOSTER, INC. 2017 MEDICAL TERMINOLOGY PAGE III Contents INSTRUCTIONS INTRODUCTION Welcome to your course on medical terminology. You’re taking this course because you’re most likely interested in pursuing a health and science career, which entails proficiencyincommunicatingwithhealthcareprofessionalssuchasphysicians,nurses, or dentists. -
Nasal Cavity Trachea Right Main (Primary) Bronchus Left Main (Primary) Bronchus Nostril Oral Cavity Pharynx Larynx Right Lung
Nasal cavity Oral cavity Nostril Pharynx Larynx Trachea Left main Right main (primary) (primary) bronchus bronchus Left lung Right lung Diaphragm © 2018 Pearson Education, Inc. 1 Cribriform plate of ethmoid bone Sphenoidal sinus Frontal sinus Posterior nasal aperture Nasal cavity • Nasal conchae (superior, Nasopharynx middle, and inferior) • Pharyngeal tonsil • Nasal meatuses (superior, middle, and inferior) • Opening of pharyngotympanic • Nasal vestibule tube • Nostril • Uvula Hard palate Oropharynx • Palatine tonsil Soft palate • Lingual tonsil Tongue Laryngopharynx Hyoid bone Larynx Esophagus • Epiglottis • Thyroid cartilage Trachea • Vocal fold • Cricoid cartilage (b) Detailed anatomy of the upper respiratory tract © 2018 Pearson Education, Inc. 2 Pharynx • Nasopharynx • Oropharynx • Laryngopharynx (a) Regions of the pharynx © 2018 Pearson Education, Inc. 3 Posterior Mucosa Esophagus Submucosa Trachealis Lumen of Seromucous muscle trachea gland in submucosa Hyaline cartilage Adventitia (a) Anterior © 2018 Pearson Education, Inc. 4 Intercostal muscle Rib Parietal pleura Lung Pleural cavity Trachea Visceral pleura Thymus Apex of lung Left superior lobe Right superior lobe Oblique Horizontal fissure fissure Right middle lobe Left inferior lobe Oblique fissure Right inferior lobe Heart (in pericardial cavity of mediastinum) Diaphragm Base of lung (a) Anterior view. The lungs flank mediastinal structures laterally. © 2018 Pearson Education, Inc. 5 Posterior Vertebra Esophagus (in posterior mediastinum) Root of lung at hilum Right lung • Left main bronchus Parietal pleura • Left pulmonary artery • Left pulmonary vein Visceral pleura Pleural cavity Left lung Thoracic wall Pulmonary trunk Pericardial membranes Heart (in mediastinum) Sternum Anterior mediastinum Anterior (b) Transverse section through the thorax, viewed from above © 2018 Pearson Education, Inc. 6 Alveolar duct Alveoli Respiratory bronchioles Alveolar duct Terminal bronchiole Alveolar sac (a) Diagrammatic view of respiratory bronchioles, alveolar ducts, and alveoli © 2018 Pearson Education, Inc. -
GLOSSARY of MEDICAL and ANATOMICAL TERMS
GLOSSARY of MEDICAL and ANATOMICAL TERMS Abbreviations: • A. Arabic • abb. = abbreviation • c. circa = about • F. French • adj. adjective • G. Greek • Ge. German • cf. compare • L. Latin • dim. = diminutive • OF. Old French • ( ) plural form in brackets A-band abb. of anisotropic band G. anisos = unequal + tropos = turning; meaning having not equal properties in every direction; transverse bands in living skeletal muscle which rotate the plane of polarised light, cf. I-band. Abbé, Ernst. 1840-1905. German physicist; mathematical analysis of optics as a basis for constructing better microscopes; devised oil immersion lens; Abbé condenser. absorption L. absorbere = to suck up. acervulus L. = sand, gritty; brain sand (cf. psammoma body). acetylcholine an ester of choline found in many tissue, synapses & neuromuscular junctions, where it is a neural transmitter. acetylcholinesterase enzyme at motor end-plate responsible for rapid destruction of acetylcholine, a neurotransmitter. acidophilic adj. L. acidus = sour + G. philein = to love; affinity for an acidic dye, such as eosin staining cytoplasmic proteins. acinus (-i) L. = a juicy berry, a grape; applied to small, rounded terminal secretory units of compound exocrine glands that have a small lumen (adj. acinar). acrosome G. akron = extremity + soma = body; head of spermatozoon. actin polymer protein filament found in the intracellular cytoskeleton, particularly in the thin (I-) bands of striated muscle. adenohypophysis G. ade = an acorn + hypophyses = an undergrowth; anterior lobe of hypophysis (cf. pituitary). adenoid G. " + -oeides = in form of; in the form of a gland, glandular; the pharyngeal tonsil. adipocyte L. adeps = fat (of an animal) + G. kytos = a container; cells responsible for storage and metabolism of lipids, found in white fat and brown fat. -
The Descending Thoracic Aorta Morphological Characteristics
ARS Medica Tomitana - 2016; 3(22): 186 - 191 10.1515/arsm-2016-0031 Malik S., Bordei P., Rusali A., Iliescu D. M. The descending thoracic aorta morphological characteristics Faculty of Medicine, “Ovidius” University, Constanta ABSTRACT Introduction Our study was conducted by consulting angioCT sites made on a CT GE LightSpeed VCT64 Slice CT and a CT GE LightSpeed 16 Slice CT, following the path and relationships of the descending thoracic aorta against the vertebral column, outside diameters thereof at the Descending thoracic aorta extends from the thoracic vertebrae T4, T7, T12 and posterior intercostal aortic arch (which it continues) and aortic hiatus of arteries characteristics. The origin of of the descending the diaphragm at level of T12 vertebra [1,2,3,4,5] thoracic aorta we found most commonly on the left corresponding to the front of T10 [6], level that flank of the lower edge of the vertebral body T4, but continues with the abdominal descending aorta. She I have encountered cases where it had come above the enters the posterior mediastinum at the T4 vertebra and lower edge of T4 on level of intervertebral disc T4-T5 or describes a trajectory which is vertically downward as even at the upper edge of T5 vertebral body. At thoracic a whole, being slightly inferior oblique and to the right, vertebra T4, on a total of 30 cases, the descending thoracic aorta present a diameter of 20.0 to 32.6 mm, then, first at a distance of 2-3 cm midline, progressive values that correspond to male gender and to females approach to become median and prevertebral at the diameter ranging from 25.5 to 27, 4 mm. -
Embolization for Hemoptysis—Angiographic Anatomy of Bronchial and Systemic Arteries
THIEME 184 Pictorial Essay Embolization for Hemoptysis—Angiographic Anatomy of Bronchial and Systemic Arteries Vikash Srinivasaiah Setty Chennur1 Kumar Kempegowda Shashi1 Stephen Edward Ryan1 1 1 Adnan Hadziomerovic Ashish Gupta 1Division of Angio-Interventional Radiology, Department of Medical Address for correspondence Ashish Gupta, MD, Division of Imaging, University of Ottawa, The Ottawa Hospital, Ottawa, Angio-Interventional Radiology, Department of Medical Imaging, Ontario, Canada University of Ottawa, The Ottawa Hospital, 501 Smyth Road, Ottawa, ON K1H 8L6, Canada (e-mail: [email protected]). J Clin Interv Radiol ISVIR 2018;2:184–190 Abstract Massive hemoptysis is a potentially fatal respiratory emergency. The majority of these patients are referred to interventional radiology for bronchial artery embolization (BAE). Immediate clinical success in stopping hemoptysis ranges from 70 to 99%. However, recurrent hemoptysis after BAE is seen in 10 to 55% patients. One of the main reasons for recurrence is incomplete embolization due to unidentified aberrant Keywords bronchial and/or non-bronchial systemic arterial supply. This pictorial essay aims to ► bronchial describe the normal and variant bronchial arterial anatomy and non-bronchial systemic ► embolization arterial feeders to the lungs on conventional angiography; the knowledge of which is ► hemoptysis critical for interventional radiologists involved in the care of patients with hemoptysis. Introduction Angiographic Anatomy of Bronchial Arteries Massive hemoptysis is a respiratory -
Intercostal Arteries a Single Posterior & Two Anterior Intercostal Arteries
Intercostal Arteries •Each intercostal space contains: . A single posterior & .Two anterior intercostal arteries •Each artery gives off branches to the muscles, skin, parietal pleura Posterior Intercostal Arteries In the upper two spaces, arise from the superior intercostal artery (a branch of costocervical trunk of the subclavian artery) In the lower nine spaces, arise from the branches of thoracic aorta The course and branching of the intercostal arteries follow the intercostal Posterior intercostal artery Course of intercostal vessels in the posterior thoracic wall Anterior Intercostal Arteries In the upper six spaces, arise from the internal thoracic artery In the lower three spaces arise from the musculophrenic artery (one of the terminal branch of internal thoracic) Form anastomosis with the posterior intercostal arteries Intercostal Veins Accompany intercostal arteries and nerves Each space has posterior & anterior intercostal veins Eleven posterior intercostal and one subcostal vein Lie deepest in the costal grooves Contain valves which direct the blood posteriorly Posterior Intercostal Veins On right side: • The first space drains into the right brachiocephalic vein • Rest of the intercostal spaces drain into the azygos vein On left side: • The upper three spaces drain into the left brachiocephalic vein. • Rest of the intercostal spaces drain into the hemiazygos and accessory hemiazygos veins, which drain into the azygos vein Anterior Intercostal Veins • The lower five spaces drain into the musculophrenic vein (one of the tributary of internal thoracic vein) • The upper six spaces drain into the internal thoracic vein • The internal thoracic vein drains into the subclavian vein. Lymphatics • Anteriorly drain into anterior intercostal nodes that lie along the internal thoracic artery • Posterioly drain into posterior intercostal nodes that lie in the posterior mediastinum . -
Aorta and the Vasculature of the Thorax
Aorta and the Vasculature of the Thorax Ali Fırat Esmer, MD Ankara University Faculty of Medicine Department of Anatomy THE AORTA After originating from left ventricle, it ascends for a short distance, arches backward and to the left side, descends within the thorax on the left side of the vertebral column It is divided for purposes of The aorta is the main arterial trunk description into: that delivers oxygenated blood from Ascending aorta the left ventricle of the heart to the Arch of the aorta and tissues of the body. Descending aorta (thoracic and abdominal aorta) Ascending Aorta The ascending aorta begins at the base of the left ventricle runs upward and forward at the level of the sternal angle, where it becomes continuous with the arch of the aorta it possesses three bulges, the sinuses of the aorta Branches Right coronary artery Left coronary artery ARCH OF THE AORTA The aortic arch is a continuation of the ascending aorta and begins at the level of the second sternocostal joint. • It arches superiorly, posteriorly and to the left before moving inferiorly. • The aortic arch ends at the level of the T4 vertebra / at level of sternal angle. Branches; Brachiocephalic artery (Innominate artery) Left common carotid artery Left subclavian artery It begins when the ascending aorta emerges from the pericardial sac and courses upward, backward, and to the left as it passes through the superior mediastinum, ending on the left side at vertebral level TIV/V. Extending as high as the midlevel of the manubrium of the sternum, the arch is initially anterior and finally lateral to the trachea. -
Ascending and Descending Thoracic Vertebral Arteries
CLINICAL REPORT EXTRACRANIAL VASCULAR Ascending and Descending Thoracic Vertebral Arteries X P. Gailloud, X L. Gregg, X M.S. Pearl, and X D. San Millan ABSTRACT SUMMARY: Thoracic vertebral arteries are anastomotic chains similar to cervical vertebral arteries but found at the thoracic level. Descending thoracic vertebral arteries originate from the pretransverse segment of the cervical vertebral artery and curve caudally to pass into the last transverse foramen or the first costotransverse space. Ascending thoracic vertebral arteries originate from the aorta, pass through at least 1 costotransverse space, and continue cranially as the cervical vertebral artery. This report describes the angiographic anatomy and clinical significance of 9 cases of descending and 2 cases of ascending thoracic vertebral arteries. Being located within the upper costotransverse spaces, ascending and descending thoracic vertebral arteries can have important implications during spine inter- ventional or surgical procedures. Because they frequently provide radiculomedullary or bronchial branches, they can also be involved in spinal cord ischemia, supply vascular malformations, or be an elusive source of hemoptysis. ABBREVIATIONS: ISA ϭ intersegmental artery; SIA ϭ supreme intercostal artery; VA ϭ vertebral artery he cervical portion of the vertebral artery (VA) is formed by a bral arteria lusoria8-13 or persistent left seventh cervical ISA of Tseries of anastomoses established between the first 6 cervical aortic origin.14 intersegmental arteries (ISAs) and one of the carotid-vertebral This report discusses 9 angiographic observations of descend- anastomoses, the proatlantal artery.1-3 The VA is labeled a “post- ing thoracic VAs and 2 cases of ascending thoracic VAs. costal” anastomotic chain (ie, located behind the costal process of cervical vertebrae or dorsal to the rib itself at the thoracic level) to CASE SERIES emphasize its location within the transverse foramina. -
2.05 Remember the Structures of the Respiratory System 2.05 Remember the Structures of the Respiratory System
2.05 Remember the structures of the respiratory system 2.05 Remember the structures of the respiratory system Essential question What are the structures of the respiratory system? 2.05 Remember the structures of the respiratory system 2 Structures of the respiratory system Upper Respiratory System Nose Sinuses Pharynx Epiglottis Larynx Lower Respiratory System Trachea Lungs 2.05 Remember the structures of the respiratory system 3 Structures of the Upper Respiratory System Nose Nasal cavity – space behind the nose Vestibular region Olfactory region Respiratory region Nasal septum – cartilage that divides the nose into right and left sides Turbinates – scroll-like bones in the respiratory region Cilia – nose hairs 2.05 Remember the structures of the respiratory system 4 Structures of the Upper Respiratory System Sinuses - Cavities in the skull. Ducts connect sinuses to the nasal cavity Lined with mucous membrane to warm and moisten the air Provide resonance to the voice 2.05 Remember the structures of the respiratory system 5 Structures of the Upper Respiratory System Pharynx Throat Nasopharynx Oropharynx Laryngopharynx About 5” long 2.05 Remember the structures of the respiratory system 6 Structures of the Upper Respiratory System Epiglottis A flap or lid that closes over the opening to the larynx when food is swallowed 2.05 Remember the structures of the respiratory system 7 Structures of the Upper Respiratory System Larynx Voice Box Triangular chamber below pharynx Within the larynx are vocal cords, the glottis Also called the Adam’s Apple 2.05 Remember the structures of the respiratory system 8 Structures of the Lower Respiratory System Trachea Windpipe Approximately 4 ½” long The walls are composed of alternate bands of membrane and C-shaped rings of hyaline cartilage. -
Nerve Growth Factor Is Released by IL-1B and Induces Hyperresponsiveness of the Human Isolated Bronchus
Eur Respir J 2005; 26: 15–20 DOI: 10.1183/09031936.05.00047804 CopyrightßERS Journals Ltd 2005 Nerve growth factor is released by IL-1b and induces hyperresponsiveness of the human isolated bronchus N. Frossard*, E. Naline#, C. Olgart Ho¨glund*, O. Georges" and C. Advenier# ABSTRACT: Nerve growth factor (NGF) is a neurotrophic factor essential for the development and AFFILIATIONS survival of neurons, and is also an important mediator of inflammation. It is released by airway *EA 3771, Inflammation and environment in asthma, Universite´ cells stimulated by interleukin (IL)-1b. As IL-1b induces airway hyperresponsiveness (AHR) to the Louis Pasteur, Strasbourg, and 9 11 tachykinin NK-1 receptor agonist [Sar ,Met(O2) ]-substance P in human isolated bronchi, the aim #UPRES EA220, Universite´ de of this study was to determine whether IL-1b was able to induce NGF release from isolated Versailles and UFR Biome´dicale des Saints-Pe`res, and bronchi, and whether NGF might participate into IL-1b-induced AHR. " -1 Laboratoire d’anatomo-pathologie IL-1b (10 ng?mL ;21˚C; 15 h) increased the release of NGF from human isolated bronchi in vitro, Guigui-Georges, Paris, France. 9 11 and, in organ bath studies, the response of human bronchi to [Sar ,Met(O2) ]-substance P (0.1 mm). A significant correlation was found between these responses. AHR induced by IL-1b was CORRESPONDENCE abolished by a blocking anti-human NGF antibody. Finally, NGF (1 ng?mL-1;37˚C; 0.5 h) by itself N. Frossard 9 11 EA 3771 induced a significant increase in [Sar ,Met(O2) ]-substance P responsiveness. -
The Surgical Anatomy of the Mammary Gland. Vascularisation, Innervation, Lymphatic Drainage, the Structure of the Axillary Fossa (Part 2.)
NOWOTWORY Journal of Oncology 2021, volume 71, number 1, 62–69 DOI: 10.5603/NJO.2021.0011 © Polskie Towarzystwo Onkologiczne ISSN 0029–540X Varia www.nowotwory.edu.pl The surgical anatomy of the mammary gland. Vascularisation, innervation, lymphatic drainage, the structure of the axillary fossa (part 2.) Sławomir Cieśla1, Mateusz Wichtowski1, 2, Róża Poźniak-Balicka3, 4, Dawid Murawa1, 2 1Department of General and Oncological Surgery, K. Marcinkowski University Hospital, Zielona Gora, Poland 2Department of Surgery and Oncology, Collegium Medicum, University of Zielona Gora, Poland 3Department of Radiotherapy, K. Marcinkowski University Hospital, Zielona Gora, Poland 4Department of Urology and Oncological Urology, Collegium Medicum, University of Zielona Gora, Poland Dynamically developing oncoplasty, i.e. the application of plastic surgery methods in oncological breast surgeries, requires excellent knowledge of mammary gland anatomy. This article presents the details of arterial blood supply and venous blood outflow as well as breast innervation with a special focus on the nipple-areolar complex, and the lymphatic system with lymphatic outflow routes. Additionally, it provides an extensive description of the axillary fossa anatomy. Key words: anatomy of the mammary gland The large-scale introduction of oncoplasty to everyday on- axillary artery subclavian artery cological surgery practice of partial mammary gland resec- internal thoracic artery thoracic-acromial artery tions, partial or total breast reconstructions with the use of branches to the mammary gland the patient’s own tissue as well as an artificial material such as implants has significantly changed the paradigm of surgi- cal procedures. A thorough knowledge of mammary gland lateral thoracic artery superficial anatomy has taken on a new meaning.