MCAT BASICS+

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MCAT Basics (from MedSchoolCoach)

MedSchoolCoach

Join us as we detail MCAT exam topics. Each podcast covers several MCAT sections with lessons based on review material put out by the AAMC, such as practice tests and question banks. Sam also interviews MCAT tutors and experts who share tips on how premed students can raise their score to get into medical school.

  1. Molecular Structure and Absorption Spectra

    5D AGO

    Molecular Structure and Absorption Spectra

    In this episode, we cover molecular structure and the key spectroscopy techniques you need to know for the MCAT. We'll explore the intricacies of Nuclear Magnetic Resonance spectroscopy, breaking down the chemical shifts and spin-splitting essentials for understanding hydrogen and carbon bonds in various compounds. You'll learn how to identify functional groups using Infrared (IR) spectroscopy and how mass spectrometry can help determine molecular weights and identify unknown compounds. We'll also touch on UV-Vis spectroscopy and its role in quantifying compounds based on absorption spectra. Visit MedSchoolCoach.com for more help with the MCAT.   (00:00) Intro (01:50) Introduction to absorption spectra and molecular structure (01:52) Absorption spectroscopy and its applications (03:39) IR spectroscopy: Analyzing functional groups with infrared radiation (07:57) Key IR peaks to know for the MCAT (09:52) Visible light and its role in determining compound color (10:57) UV-Vis spectroscopy: Connecting visible and ultraviolet light for compound analysis (14:06) Quantifying compounds using UV-Vis spectroscopy and Beer's Law (16:48) Mass spectrometry: Determining molecular weight and identifying compounds (22:18) Interpreting mass spectrometry graphs and calculating molecular weight (26:44) NMR spectroscopy: Understanding molecular structure through proton shifts (31:23) Key NMR shifts to know for the MCAT (33:21) Spin splitting in NMR and the n+1 rule

    36 min
  2. Personality

    FEB 10

    Personality

    In this episode, we focus on personality and the theories relevant for the MCAT.  We’ll cover key perspectives, such as psychoanalytic theory, humanistic theory, and trait theory, along with the influence of social cognitive and biological factors on personality development. You’ll get an overview of the different personality disorders, categorized into clusters like odd or eccentric behavior, dramatic or erratic behavior, and anxious or fearful behavior. You’ll also gain an understanding of specific disorders, including narcissistic personality disorder, antisocial personality disorder, and obsessive-compulsive personality disorder. Visit MedSchoolCoach.com for more help with the MCAT. Jump into the conversation: (00:00) Intro (01:01) Introduction to Personality (01:41) Defining Personality (03:27) Overview of Personality Theories (06:11) Psychoanalytic Theory: Id, Ego, and Superego (09:03) Humanistic Theory: Achieving Individual Potential (10:16) Trait Theory: Stable Traits Over Time (11:06) Five-Factor Model of Personality (12:08) Social Cognitive Theory: Learning and Cognition (13:18) Biological Theory: Genetic Influences on Personality (15:10) Behaviorist Theory: Environmental Shaping of Personality (16:39) Introduction to Personality Disorders (19:19) Cluster A: Odd or Eccentric Behavior Disorders (22:26) Cluster B: Dramatic, Emotional, or Erratic Behavior Disorders (26:13) Cluster C: Anxious or Fearful Behavior Disorders (28:24) OCD vs. OCPD: Key Differences (29:40) Overlap Between Personality Disorder Clusters

    32 min
  3. FEB 9 • SUBSCRIBERS ONLY

    Physics 5 - Fluid Dynamics

    In this episode of MCAT Basics+, we will be discussing fluid dynamics. Our discussion will include topics such as laminar and turbulent flow, total peripheral resistance, the continuity equation, Bernoulli's equation, and Poiseuille's Law. First, we will address the differences between laminar and turbulent flow and their impact on fluid behavior in various systems. Grasping these concepts is crucial for a thorough analysis of fluid dynamics across different scenarios. Next, we will examine total peripheral resistance, a key factor in determining the overall resistance to blood flow within the circulatory system. Comprehending this concept will shed light on the workings of the cardiovascular system. We will also review the continuity equation, which establishes the relationship between flow rate and cross-sectional area in a fluid system. This equation is vital for the analysis of fluid dynamics and ensuring the conservation of mass within a system. Furthermore, we will discuss Bernoulli's equation, which links the pressure, velocity, and elevation of a fluid within a system. This equation is fundamental for grasping the principles of fluid dynamics and the conservation of energy in a moving fluid. Lastly, we will talk about Poiseuille's Law, which outlines how flow rate, pressure, and resistance interact in a cylindrical tube. This law is crucial for understanding fluid flow in structures such as blood vessels and the elements influencing flow rate. By thoroughly examining these topics, you will gain a deep understanding of fluid dynamics and its application to various bodily systems. Join us in this episode to enhance your knowledge of fluid dynamics and gear up for the MCAT exam.

    38 min
4.8
out of 5
618 Ratings

About

Join us as we detail MCAT exam topics. Each podcast covers several MCAT sections with lessons based on review material put out by the AAMC, such as practice tests and question banks. Sam also interviews MCAT tutors and experts who share tips on how premed students can raise their score to get into medical school.

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