MCAT Basics (from MedSchoolCoach)

In this episode, we cover the topic of viruses. We explore a comprehensive range of subtopics including the definition and structure of viruses, their life cycles, and the differences between transduction and transfection. We also discuss virus classification, viral mutations, and subviral particles. This material will primarily appear in the Bio/Biochem section of the MCAT. 
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Jump into the conversation:
[00:00] Introduction
[01:57] Definition of a virus
[02:55] Virus structure
[10:41] The viral life cycle
[17:34] The bacteriophage life cycle
[21:40] The retrovirus life cycle
[21:40] The retrovirus life cycle
[27:11] Virus classification
[32:09] Viral mutation 
[40:31] Subviral particles

The Doppler Effect is a crucial concept for the MCAT, particularly in the Chemistry & Physics section. We'll explore how the Doppler effect occurs when a wave source moves relative to an observer, affecting the observed frequency and wavelength. Using practical examples like an ambulance speeding towards you, we'll bring these concepts to life.
We'll also break down the Doppler effect equation, examining what it reveals—and what it doesn’t—about wave behavior. By the end of this episode, you'll have a solid understanding of The Doppler effect and will be ready to tackle any related questions on the MCAT. 
Visit MedSchoolCoach.com for more help with the MCAT.
Jump into the conversation:
(00:00) Introduction to the MCAT Basics
(02:09) Conceptual Explanation of the Doppler Effect
(03:55) Example: Doppler Effect with an ambulance
(04:55) Speed of sound and wave propagation
(05:31) Impact of ambulance motion on sound wave speed
(06:37) Relationship between wave speed and frequency
(07:30) Detailed explanation of sound frequency
(08:45) Introduction to the Doppler Effect equation
(10:08) Proportionality in the Doppler Effect equation
(11:08) Discussion on wavelength and frequency relationship
(12:29) Application of the Doppler Effect equation

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

In this episode, we discuss population genetics and see how genetically related individuals share the same alleles, delving into the mechanisms of gene flow and genetic drift. We'll also unravel the complexities of hybrid vigor, reproductive isolation, and natural selection, and how these processes shape the genetic landscape of populations. 
 
We'll also touch on the fascinating dynamics of X-linked and mitochondrial inheritance, and the role of genomic imprinting in disease risk. Ever wondered how the Hardy-Weinberg equation helps us understand genetic equilibrium in populations? We've got that covered too, breaking down the assumptions and applications of this essential model. Plus, we'll delve into how allele frequencies can shift due to factors like mutations and population bottlenecks.
 
Visit MedSchoolCoach.com for more help with the MCAT.
 
Jump into the conversation:
[00:00] Introduction to the MCAT Basics
[01:06] Overview of Population Genetics
[01:55] Definition of Population Genetics
[03:01] Genotype vs. Phenotype
[03:38] Example of BRCA1 Gene
[07:33] Autosomal Dominant and Recessive Inheritance Patterns
[08:40] X-Linked Inheritance Patterns
[09:38] Mitochondrial Inheritance
[10:46] Genomic Imprinting
[12:46] Complex and Multifactorial Inheritance
[13:52] Introduction to Hardy Weinberg Equation
[14:33] Assumptions of Hardy Weinberg Equation
[15:16] Historical Context of Hardy Weinberg Equation
[17:02] Calculation of Allele Frequencies
[19:18] Example Problem Using Hardy Weinberg Equation
[23:17] Limitations of Hardy Weinberg Equation
[24:07] Ways Populations Change Over Time
[24:58] Natural Selection
[27:10] Fecundity and Fertility in Natural Selection
[28:07] Types of Natural Selection
[30:00] Mutation
[32:17] Example of Mutation in HIV Research
[34:29] Genetic Drift
[38:11] Gene Flow and Gene Leakage
[40:12] Hybrid Vigor and Reproductive Isolation
[42:16]  Prepare for MCAT success with MedSchoolCoach.

Social norms and deviance as covered in the MCAT is a fascinating topic, and in this episode, we'll break down the intersection of social norms—folkways, mores, taboos, and laws—how they play a crucial role in shaping societal values, and what happens when these norms break down, a concept known as anomy. Plus, we'll delve into collective behavior phenomena such as fads, mass hysteria, moral panic, and riots, touching on some real-life examples and historical comparisons.
 
Expect a comprehensive overview, with real-world relevance and plenty of examples to help solidify your understanding. 
 
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Jump into the conversation:
[00:00] Introduction to the MCAT Basics
[04:57] Breaking social norms is not a big deal.
[09:00] Jeffrey Dahmer was a serial killer.
[12:41] Breaking social norms, deviance explained in theories.
[14:03] Biking under influence leads to deviant identity.
[19:02] Weak community ties breed crime, social disorganization theory.
[20:20] Cultural deviance theory explains lower class deviance.
[23:39] Social control theory emphasizes individual responsibility for deviance.
[26:58] Orson Welles's 1938 radio drama causes hysteria.