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ANAT260 Signature Assignment

Jan 31,22

ANAT260 Signature Assignment

Question:

Answer the following questions using a minimum of five (5) academic references (you many not use Wikipedia, blogs, or other informal sources.) Use APA format in-text citations in your answers and include a reference page.

Question 1

  • What serosal cavities have been penetrated by the first arrow?
  • Explain the location, the microscopic cellular components of the serous membrane, and the purpose of the serous membrane.

Question 2

  • Describe the Autonomic Nervous System and explain how the patient’s ANS reacts to the arrow attack and how it will affect the patient’s vital signs (P, BP, R, T).

Question 3

  • Describe the trajectory of the first arrow using directional terms and anatomical planes.
  • Identify and describe the organs and any other membranes that may have been affected by the first arrow.

Question 4

  • Describe the cardiovascular system and explain how both the pulmonary and systemic circuits will be affected by both arrows.
  • Include the effect on the Hematocrit and Hemoglobin values.

Question 5

  • Identify the possible neuromuscular effects of the second arrow and explain your reasoning.
  • Describe the components of a neuromuscular junction including key organelles.

Question 6

  • Identify and describe the three labeled tissue types found in the tracheal slide (Slide 2) below. Include the subcategories and cellular components for each tissue type.
  • How will the injuries affect this area?

Answer:

Introduction

Table of Contents

Serosal cavities. 3

Autonomic Nervous System.. 3

Trajectory of the First arrow.. 4

Cardiovascular System.. 4

Possible neuromuscular effects of the second arrow.. 5

Reference List 8

 

Serosal cavities

Among the three “serous cavities” within the human body, the arrow initially penetrates the “pleural cavity”, which is the region around the lungs also covered by a “pleural membrane” (Karpathiou et al., 2021). Between rib 7 and 8, the arrow protrudes into the “intercostal region”, between the “visceral and parietal pleura”.

A “serous membrane” (SM) is made up of one coat of polished “mesothelial cells” that are used to the surface layer of a fragile layer of “collagenous tissue” that connects to the primary “endothoracic/transversalis fascia”. The “SM mesothelium” forms the interlining of a closed “serous membrane cavity”. The “SM ” paneling the partition of a “serous cavity” is referred to as “parietal”, whereas the membrane protecting “viscera” is referred to as visceral. A SM connects the parietal and visceral components. It prevents organs from drying out and creating internal tears by lubricating them.

Autonomic Nervous System

The “Autonomic Nervous System” (ANS) is accountable for directing required obligations and making routine alterations in the bodies. It directs the inward temperature, just as the “cardiovascular, respiratory, stomach-related, and excretory exercises” (Ziemssen & Siepmann, 2019). The ANS is regularly valuable for “smothering organs, conveying neural connections, or causing momentary changes in the referenced regions”. The one experiencing a bolt assault is troubled by the mental break-up known as “intense pressure.” The thoughtful and “parasympathetic ” break-up of the “ANS innervate of the organs inside the body”, regularly with restricting impacts. At the time of the attack, “the ANS reacts by contracting the beat”. This is because the inside crack by striking a” vein” causes a great deal of outside death. There is a redirection of blood, the circulatory strain depreciates. Because of blood loss, the individual’s breath becomes delayed. With less blood and gas exchange in the body, leading to decrease in the internal body of the temperature to diminish as there is less flow of blood to critical organs like the heart, causing it to throb rapidly but weakly.

Trajectory of the First arrow

The primary arrow ” direction” is on the surface segment of the body since it is a slit up in a cross over plane, “anteriorly and posteriorly” when cut up in a “coronal plane,” and on the horizontal cut in a left side of the “sagittal plane”. The direction is in the top “left quadrant”, more specifically in the “despondent individual” zone (Goldberger et al., 2019). The bolt is piercing all of the flesh coat in this area. The “epidermis” is first, trailed by the “layer corneum”, “layer granulosum”, “layer spinosum”, and “layer basale”. The dermis follows, striking tangible “nerve strands, material corpuscles, lamellar corpuscles, and hair follicle receptors”. It has pierced the skin, the intercostal muscles, the outer sideways muscle, the interior diagonal muscle, and the serratus anterior muscle.

This will damage the organs in the neurotic region especially in the left side, after going through the intercostal hole between ribs. The stomach, stomach, and lungs are instances of these organs. It will initially penetrate the stomach”s serous layer, then, at that point, its gastric mucosa, then, at that point, its back serious film, trailed by infiltrating the diaphragm’s parietal pleurae, then, at that point, the lungs” serous layer, lastly entering the lungs.

Cardiovascular System

The heart, veins, and blood are the fundamental components of the cardiovascular structure. “The muscle of the heart (H) located in the mediastinum” and comprises a “pericardium” that “encompasses the heart and a solitary muscle called the cardiovascular muscle”. It has a right and left chamber. The chamber is bigger than the ventricle and has valves that partition it. A tricuspid valve associates the right chamber to the right ventricle, while a bicuspid valve interfaces the passed-on chamber to the left valve. These valves keep blood from streaming in reverse from the chamber to the “ventricle”. “Blood” is misdirected from the H by courses, while “veins” carry it back to the H (Xiong et al., 2020). The bolt that is discharged in the serosal pit affects the H’s “Pulmonary Circulation” (PC). It wounded the other “lobular branch and tertiary branch that carries and holds the alveoli and alveoli sacs” since it extended through the lungs an unacceptable fold. By injuring this region, gas trade will be unimaginable, bringing about deficiently oxygenated blood being conveyed to the heart, interfering with the pneumonic stream and central course. The arrow embedded into the back cervical triangle influences both stream and gas trade in the spreads because assuming it is infiltrated profoundly to the point of arriving at the windpipe, it will create uncommon breathing, which will influence the gas trade.

The value of “haemoglobin,” which are “red platelets,” would decline “as a result of blood loss due to damage in the intercostal ribs” and particularly in the rear “cervical triangle,” where veins are organised. The “hematocrit,” or the rise of total platelet count as a result of “increased blood formation by osteoblasts” in the “bone marrow” as owing to increased blood loss.

Possible neuromuscular effects of the second arrow

It was on the back of the cervical triangle, hence the arrow had injured the “cervical nerves”. One of these is the “Accessory Nerve,” which is important in the development of the “sternocleidomastoid and trapezius muscles.” The bolt has destroyed this nerve, rendering to the sufferer and immobilized. Another example is in the neck the “phrenic nerve”, and, if attacked by the second bolt, will cause the stomach to cease operating. Another is the “cervical plexus”, which is connected to the adornment nerve at the hip and produces numbness in the neck and shoulders.

Components of a neuromuscular junction:

The “neuromuscular intersection” refers to the area of the link between the engine’s “nerve axons” and “muscle strands.” The four types of cells, including “distinct cells, Engine neurons, Schwann cells, and muscle strands.” The role of the “neuromuscular intersection” is to transmit impulses from the “engine neuron to the skeletal muscle fibre”, allowing for good control of “skeletal muscle constriction” and therefore making a conscious development. This link, which advances significant degrees of transmitter discharge, is guided with junctional folds and several dynamic zones.

Three labeled tissue types found in the tracheal slide

“Connective Tissue” is a subclass of “Hyaline Cartilage” and is in trachea rings, the nose, and “sternum” where the ribs meet (Nie et al., 2020). It is classified as “Epithelial Tissue” subcategory of “Ciliated Pseudostratified Columnar Epithelium” and is found along the “respiratory tract.” “Smooth Muscle” is a subclass of “Muscular Tissue” that is found in “the stomach, the hollow interior structures of the blood vessels, intestines and airway to the lungs”.

The first arrow affects the “hyaline cartilage” (HC), which is located in the intercostal region between ribs 7 and 8. If the arrow hits HC, it will shatter ribs 7 and 8, which are linked to the sternum. Because it is in the “cervical area,” the “Ciliated pseudostratified columnar epithelium” the second haveinfluenc the bolt which will dry the throat, affecting oxygen intake and the patient will have difficulty inspiring. Finally, both arrows cause injury to smooth muscle, which “will eventually die due to blood loss” as a result of gas exchange.

Reference List

Goldberger, J. J., Arora, R., Buckley, U., & Shivkumar, K. (2019). Autonomic nervous system dysfunction: JACC focus seminar. Journal of the American College of Cardiology, 73(10), 1189-1206. Retrieved from https://doi.org/10.1016/j.jacc.2018.12.064

Karpathiou, G., Casteillo, F., Dridi, M., & Peoc’h, M. (2021). Mesothelial Cysts: A Clinicopathologic Analysis of Cystic Lesions of the Serosal Cavities. American Journal of Clinical Pathology, 155(6), 853-862. Retrieved from https://doi.org/10.1093/ajcp/aqaa189

Nie, X., Chuah, Y. J., Zhu, W., He, P., Peck, Y., & Wang, D. A. (2020). Decellularized tissue engineered hyaline cartilage graft for articular cartilage repair. Biomaterials, 235, 119821. Retrieved from https://doi.org/10.1016/j.biomaterials.2020.119821

Xiong, T. Y., Redwood, S., Prendergast, B., & Chen, M. (2020). Coronaviruses and the cardiovascular system: acute and long-term implications. European heart journal. Retrieved from 10.1093/eurheartj/ehaa231

Ziemssen, T., & Siepmann, T. (2019). The investigation of the cardiovascular and sudomotor autonomic nervous system—a review. Frontiers in neurology, 10, 53. Retrieved from https://doi.org/10.3389/fneur.2019.00053