Modules
- Year 1
- Year 2
- Year 3
- Year 4
- Year 5
- Year GEP 1
Year 1 FM1: Fundamentals of Medicine
- Dr Lesley Robson
- l.g.robson@qmul.ac.uk
Introduction
The aims of the FunMed Module are:
- To develop independent learning and critical reasoning skills necessary for a University course
- To acquire basic Information Technology (IT) skills in accessing information and in word processing
- To develop time management skills in planning and scheduling work
- To work and communicate effectively in small groups
- To appreciate the development of modern medicine and its historical context
- To appreciate the historical, social and demographic characteristics of the East End of London, and the implications of these for the health of the local population
- To develop an understanding of normal biological structure and function, at the cellular and molecular level; and knowledge of cellular pathology and basic pharmacology sufficient to provide a foundation for subsequent stages
- To obtain a basic knowledge of anatomical terms and of the location of the main organs and structures, including the use of medical imaging
- To begin to understand the contribution of genetic, social, environmental, political, occupational and behavioural factors to health, illness and disease
- To begin to appreciate the effect of illness on people and their families
- To begin to understand the role of the doctor and other health professionals in society
- To prepare students for meeting patients in clinical settings, by addressing communication skills and ethical principles in the health professional - patient relationship
- To develop basic skills of resuscitation and emergency care
- To provide a broad overview of the entire MBBS course
Index
- General Outcomes for the Whole Person
- General Outcomes for Community Care
- Bronchiectasis and Cystic Fibrosis (Priority 3)
- General Outcomes for the Whole Person
- Medical knowledge: ANATOMY
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Anatomical Positions, Planes and Movements
- Describe the main features of the human body, by using appropriate anatomical language.
- Describe the anatomical position and use correct anatomical terms to describe body directions, regions and body planes or sections.
- Locate and name the major body cavities and their subdivisions and list the major organs contained within them. Name the serous membranes and indicate their common function
- Use the basic language of anatomical directions and movements (superior, inferior, anterior, posterior, proximal, distal, pronation etc)
- An introduction to the anatomy laboratory
- Identify the main components of the cardiovascular, respiratory, digestive, urinary, endocrine and reproductive systems of the body.
- Understand the anatomical position and planes of section
- Locate the major organs in cross section and on MRI and CT
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Blood and the Circulatory System
- Identify the structural difference between arteries and veins related to function. Name and locate the major arteries and veins in the systemic circulation.
- Describe the position of the heart and identify the great vessels
- Follow the main vessels to the viscera and to the periphery, identifying the main vessels
- Differentiate between systemic, portal and pulmonary circulation
- Describe the general location of lymph nodes.
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Epithelia and Glands
- For each of the various types of epithelial tissue, outline its structural characteristics, functional capabilities, cellular specialisations and be able to give an example of a body site where it would be located.
- Recognise the various epithelial cell types in photomicrographs and predict their function from their structure
- Recognise glandular tissue in photomicrographs, identify the gland type and its likely function
- Name the various types of glands, relate their structure to their function, and give an example of where each might be found in the body.
- Understand and master the use of the system for classifying different types of lining epithelia based on number of layers and shape of cells on the surface
- Recognise the basement membrane and list its functions
- Describe the basic structure of a mucosa and a serosa, and predict their functions from the different types of epithelial cell found on their surface.
- Recognise the mucous and serous membranes in photomicrographs and be able to identify different structural components found in each of these complex tissues
- Bones and Joints
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Muscles, Nerves and Connective Tissue
- Describe the categorisation, main structural features and functions of the connective tissues.
- Recognise the different types of connective tissue in photomicrographs
- Compare and contrast the structure, function and location of the three major types of muscle.
- Recognise nervous tissue and be able to distinguish neural and glial components
- Describe the different cell types found in mature connective tissue.
- Identify common cell types found in connective tissues
- Describe the major responses of muscle to use and disuse.
- Relate the functional organisation of the neuromuscular synapse (junction) to the process of neuromuscular transmission.
- Show understanding of how different cell types within nervous tissue and the organisation of the tissue contribute to its functions
- Relate the composition of extracellular matrix components to the functional requirements of the various connective tissues.
- Understand differences in the make-up of the extracellular matrix between various connective tissues and how types are differently organised
- Outline the distinctive structural and functional characteristics of nervous tissue.
- Compare and contrast the structure and functions of the two types of adipose tissue.
- Relate organisation of different types of connective tissue to their function
- Relate the structures of the neuronal cell body, dendrites, axon and synaptic terminal to their function.
- Recognise different types of muscle and different components of muscle tissue in photomicrographs
- Surface Anatomy - General
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Autonomic Nervous System
- Compare and contrast the SNS and ANS
- Draw labelled diagrams to show the general arrangement of motor and somatic reflexes.
- Name the divisions of the ANS, and describe the segmental organisation of the sympathetic and parasympathetic nervous systems.
- Draw a series of labelled diagrams to show the arrangement of nerve fibres in the divisions of the ANS at the anatomical and neurochemical and receptor levels,
- Describe how the adrenal medulla acts as a modified post-ganglionic cell.
- Briefly describe how the enteric nervous system can control gut function.
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Anatomical Positions, Planes and Movements
- Medical knowledge: PHYSIOLOGY
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General Outcomes for Nervous System Physiology
- Describe how sensory nerve endings transduce and encode stimuli with examples including peripheral stretch (mechano) and thermoreceptors
- Be able to describe the biophysical requirements for action potentials to take place
- What are the membrane properties essential for excitability? Including an introduction to resting and action potentials and voltage-gated ion channels
- Explain the effects of nerve fibre diameter and myelination on conduction velocity
- Be able to discuss the principle characteristics of an action potential
- Why everything depends on the Na-pump
- Describe what is meant by threshold, sub-threshold and supra-threshold responses, and how a neuronal dendritic tree can integrate many synaptic inputs, taking the spinal a-motor neuron as an example
- Have an understanding of the importance of saltatory nerve conduction for activities of daily life
- What is the basic mechanism of local anaesthetics (an example of pharmacological manipulation of excitability)
- Describe a synapse and the role of both excitatory and inhibitory neurotransmitters with examples
- Why is pre-synaptic Ca2+ important?
- Understand the concept of a ligand-gated receptor
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Neuropharmacology
- Be able to explain how neurotransmitters can produce electrical changes by activating / inhibiting receptors in the post-synaptic cell
- Be able to outline the role of G-proteins in coupling a hormone/NT receptor complex to a) adenylate cyclase; b) hydrolysis of inositol phospholipids
- By means of simple diagrams and suitable examples, be able to describe the properties of the receptor-regulated ion channels and the neurotransmitters which activate them
- Describe the major neurotransmitter systems in the central and peripheral nervous systems
- Describe the role of protein kinases in transmitting the intracellular effects of second messengers
- Explain how an action potential is initiated by the summation of synaptic inputs
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Autonomic Nervous System
- Compare and contrast the SNS with the autonomic nervous system (ANS)
- Draw labelled diagrams to show the general arrangement of motor and somatic reflexes
- Name the divisions of the ANS, and describe the segmental organisation of the sympathetic and parasympathetic nervous systems
- Draw a series of labelled diagrams to show the arrangement of nerve fibres in the divisions of the ANS at the anatomical, neurochemical and receptor levels
- Describe how the adrenal medulla acts as a modified post-ganglionic cell
- Briefly describe how the enteric nervous system can control gut function
- Gastrointestinal Physiology - General
- Function of the GI Tract
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Homeostasis
- Be able to apply the principles of homeostasis to one human physiological system - body temperature; blood glucose concentration; body fluid volume
- Be able to define homeostasis in relation to the physiological systems
- Be able to discuss the contribution of negative feedback, positive feedback and positive feed-forward to the process of body homeostasis
- Acid-Base Balance
- Body Fluids
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General Outcomes for Nervous System Physiology
- Medical knowledge: CELL BIOLOGY
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Biological Energy
- Define the principal energy stores in human cells
- Describe the principal biological roles of ATP in relation to biosynthesis reactions, transport and motility
- Describe the principal mechanisms of energy generation within the cell and distinguish between ATP generation through substrate level phosphorylation and via the proton motive force
- Explain the significance of B-group vitamins in terms of coenzyme structure and function
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Cell and Tissue Structure
- Understand the functions of the principal components of the extracellular matrix and relate to cell function and disease
- Identify the organelles and ultrastructural features of cells; describe organisation and functions of the following and, where applicable, relate to human disease
- Discuss the structure and function of inter-cellular connections in relation to tissue function eg adherens junctions, tight junctions, gap junctions, desmosomes, synapses and relate to disease
- nucleus; mitochondrion; endoplasmic reticulum (rough and smooth); Golgi complex; lyosomes; peroxisomes; cytoskeleton; plasma membrane
- Relate the specialised structure of the cell surface (microvilli, cilia, pseudopodia) to the functions of the tissues and cells concerned
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Membrane Function
- Be able to describe the function of membrane proteins
- Understand the functions of biological membranes and associated proteins including adhesion, transport and communication
- Distinguish between passive diffusion, facilitated diffusion, secondary active transport, and active transport giving examples of each in human tissues
- Relate specialisations of the plasma membrane to its function
- Describe how deficiencies in folding, trafficking and function of the CFTR protein cause cystic fibrosis
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Proteins
- Understand the role of the ribosome in mRNA translation; how and where, including co-translational translocation of membrane and secreted peptides at the ER
- Outline the common structural features of the amino-acids and the roles of their side chains in protein structure and function
- Describe the structure of proteins and the stabilising forces of the a-helix, b-pleated sheet and collagen triple helix
- Comprehend the problems of protein folding in vivo and the role of molecular chaperones in dealing with this
- Explain how post translational modifications can be important for stability and modulation of function
- Cell Differentiation and Cell Death
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Sugars and Polysaccharides
- Distinguish between the terms monosaccharide, disaccharide and polysaccharide and name a physiologically important example of each group
- Define the terms: glycosidic bond; sugar esterification (phosphates + sulphates); amino sugar, giving a physiologically relevant example of each one
- Define the mechanism and biological importance of protein glycosylation
- Outline the structures and biological roles of glycogen, heparin, proteoglycan and bacterial lipo-polysaccharide
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Enzymes
- Define the following terms in relation to enzyme catalysis: substrate specificity; active site; activation energy; cofactor and co-enzyme; proenzyme
- Explain by reference to the Michaelis-Menten equation how the rate of enzyme catalysed reaction depends on enzyme concentration and substrate concentration
- Enzyme activity assays
- Explain the effects of enzyme catalysis of changes in temperature and pH; distinguish between competitive and non-competitive inhibition, giving a physiological example of each
- Define the term isoenzymes and their value in diagnostic enzymology
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Lipids and Membranes
- Understand the architecture and components of the currently accepted view of biological membranes
- Describe the general structural features, properties and biological roles of triglycerides (triacylglycerols); phospholipids; glycolipids; cholesterol and steroids
- Distinguish between essential and non-essential fatty acids
- Relate the lipid and protein composition of biological membranes to the membrane's properties
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Biological Energy
- Medical knowledge: MOLECULAR BIOLOGY and GENETICS
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Genetics - General Outcomes
- PCR and its uses in pre-natal diagnosis / pre-implantation genetic diagnosis
- Evaluate the contribution of genetic and environmental factors to normal human variation and to disease
- Use of high density single nucelotide polymorphism (SNP) arrays of disease gene mapping and cancer diagnostics
- Describe the basic principles of Mendelian inheritance and understand the difference between monogenic, multigenic and multifactorial disorders
- Old and new sequencing: how to sequence your genome for £2000
- Understand the role of cytogenetics and molecular genetics in clinical diagnosis
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Inheritance and Mutation
- Define the following terms in relation to human genetics and disease: homozygous; heterozygous; proband; sibling; recessive; dominant; co-dominant; penetrance; anticipation; imprinting phenotype; genotype; allele
- Describe, with examples, the different patterns of inheritance of single gene disorders
- Describe the different types of gene mutation and their consequences
- Describe how mutations in different genes can result in the same clinical disorder
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Genetic Variation
- Define the terms rare and polymorphic genetic variation
- Discuss how DNA polymorphisms can be detected and how they may be used to identify individuals
- Understand the basic principles of population genetics with reference to allele frequencies and the Hardy-Weinberg equilibrium
- Explain how genetic variation contributes to common disease
- Epigenetics
- The Human Genome
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RNA Structure and Synthesis
- Describe the Central Dogma and the basic structure of a gene
- Describe the process of transcription and explain the function of RNA polymerase
- Explain what a promoter is and its role in transcription
- How is RNA modified before leaving the nucleus?
- Describe the different types of RNA and their role in translation
- Describe how antibiotics can interfere in the process of transcription
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Cell Division and its Control
- Describe the main features of the cell cycle
- Describe the main mechanisms and biological functions of mitosis and meiosis
- Discuss the role of genes in co-ordinating the cell cycle
- Give examples of human diseases associated with mutations in these genes
- Explain how some chemotherapeutic drugs may inhibit cell division in cancer cells
- Forensic Molecular Pathology
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DNA Structure and Synthesis
- Describe, using simple diagrams, the structure of DNA and its organisation into nucleosomes and chromatin
- Describe the organisation of human genes, both internally and into gene families
- Outline the mechanism of DNA synthesis (replication) and describe how some antibiotics interfere in this process
- Explain the very low level of mistakes in the DNA replication process
- Outline methods of DNA repair, with an example of the clinical consequence of a defective repair mechanism
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Protein Synthesis
- Outline the key features of the genetic code
- What are the essential RNA species for translation
- Describe the events and regulation in the ribosome cycle of protein synthesis
- Describe the structural changes undergone by a newly synthesised polypeptide in order to constitute a biologically active protein in the appropriate site (post-translational modifications / targeting and sorting)
- How does viral and bacterial interference effect protein translation
- Know that antibiotics are used to target ribosomes
- Outline protein synthesis defects in inherited disease
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Genetics - General Outcomes
- Medical knowledge: PATHOLOGY
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General Pathology
- Describe how the basic tissue types are organised in the skin and the colon
- Describe the types of investigations that can provide tissue for histological analysis, and discuss the clinical value of such analysis
- Describe the morphological changes undergone by cancer cells as seen in a photomicrograph
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General Pathology
- Medical knowledge: CANCER
- Cancer and Genetic Disease
- Pathology of Cancer - General
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Neoplasia
- Define the terms: tumour, neoplasm, benign, malignant, histogenesis, differentiation, metastasis
- Revise the principles behind the classification of malignant neoplasms
- Revise the principles behind the classification of malignant neoplasms
- Define the terms: tumour, neoplasm, benign, malignant, histogenesis, differentiation, metastasis
- Define the term paraneoplastic syndrome and give some examples
- Describe the behaviour and pathological features of malignant neoplasms
- List aetiological agents that have been linked to the development of some malignant neoplasms
- Give a brief classification of benign and malignant neoplasms according to their cell of origin
- Give a brief classification of benign and malignant neoplasms according to their cell of origin
- Name the aetiological agents that have been linked to the development of some malignant neoplasms
- Describe the behaviour and pathological characteristics of malignant neoplasms
- Compare and contrast the pathological features of benign and malignant neoplasms
- Describe the effects of a neoplasm on the host
- Compare and contrast the pathological features of benign and malignant neoplasms
- Define the term Paraneoplastic Syndrome and give some examples
- Describe the effects of a neoplasm on the host
- Chemical Agents Causing Disease
- Medical knowledge: IMMUNOLOGY and INFLAMMATION
- The Immune Response in Health
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Immunology - General Outcomes
- Understand cytokines and their function
- To understand how the immune system can sometimes do more harm than good
- Understand that immunology is related to disease including infections, autoimmunity and allergy (hypersensitivity)
- Appreciate the key concept that cytokines are very beneficial molecules in small localised controlled doses, but are extremely harmful molecules in high prolonged and systemic doses
- To understand that the immune response normally can tell the difference between ‘self’ and ‘non-self’
- Be aware of the main players in the immune system including lymphocytes (T-cells, B cells and NK cells), myeloid cells (macrophages and granulocytes), dendritic cells and antibodies
- Know that the immune system is an agent of harm in the modern age
- To give examples in which this ability to discriminate breaks down - autoimmunity
- Appreciate that communication between cells is critical
- To understand that an appropriate immune response is sometimes undesirable, such as in transplantation
- Realise the importance of long term immunological memory
- To be aware of the basic therapeutic mechanisms by which we deliberately suppress the immune system in auto-immunity and transplantation.
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Recognition and Response to Antigens
- Understand that some pathogens live inside cells - this includes all viruses, or bacteria such as TB
- What is an antigen?
- How are these eliminated by the cell-mediated immune response including macrophages, cytotoxic T cells, NK cells and yd cells
- Know how the immune system recognises antigens
- What is the MHC and its role in presenting antigens in a form that T cells can see.
- Introduce the idea that TCRs and BCRs are made with random antigen recognition capacities
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Communication between Immune Cells and Tissues
- Know that Th1 cells drive cell-mediated immunity
- Know that Th2 cells drive humoral immunity
- Know that Th17 cells drive responses to extracellular bacteria
- Know that T-reg cells retrain immune responses
- Know that memory T-cells remember our infection history
- Appreciate that CD4 or helper T-cells orchestrate adaptive immun responses
- Medical knowledge: MICROBIOLOGY and INFECTION
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Pathogenesis
- Describe portals of entry of pathogens and their adherence mechanisms
- For viruses, list their mechanisms of persistence, and explain their harmful effects (killing cells, alter functions of cells, giant cell formation, malignant change, hypersensitivity)
- For bacteria, list their mechanisms of persistence, describe how they make you ill, and how they survive the host response (involving stress, stealth, scavenging, striking back)
- Describe how pathogens are disseminated through host organs and how they exit from the host
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General Outcomes for Microbiology
- Be able to distinguish between the different groups of pathogens
- List the basic characteristics of viruses and the criteria by which they are classfied
- Outline the structure of bacteria, emphasising differences from eukaryotic cells
- Describe the structure of viruses, defining the terms: capsid; capsomeres; genome; nucleocapsid, envelope
- Describe how bacteria can be classified on the basis of staining properties and morphology
- Describe how viruses replicate
- List those parts of the body which should be sterile and those which have a normal flora
- Antivirals and Viral Infections
- Antimicrobials and Bacterial Infections
- Sources of Infection and Routes of Transmission
- Terminology used in Microbiology
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Pathogenesis
- Medical knowledge: THERAPEUTIC PRINCIPLES
- Safe Prescribing and Drug Administration
- Evidence Based Pharmacology
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Pharmacokinetics and Pharmacodynamics
- Describe drug binding sites giving examples of both site and drug that attaches to it.
- Note G-protein-coupled receptors (GPCRs) compose largest group of drug binding sites
- Discuss selectivity of drug action
- Understand what is meant by structure-action relationships
- Compare and contrast routes of drug administration
- Understand what is meant by pharmacokinetics
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Drug Receptor Interactions
- Define the terms: agonist, antagonist, EC50, efficacy and potency
- Draw idealised concentration vs response curves to distinguish between drugs of high and low potency and/or high and low efficacy
- Describe, with a clinical example, the characteristics of competitive antagonism
- Distinguish competitive antagonism from non-competitive and physiological antagonism
- Pharmacological Principles - General
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Drug Absorption and Elimination
- Explain drug absorption with reference to the pH-partition hypothesis, as applied to aspirin
- Define the term apparent volume of distribution and discuss why drugs have different values for this; explain pre-systemic (first pass) metabolism
- Briefly describe the ways in which drugs are eliminated from the body
- Medical knowledge: SOCIOLOGY
- Stigma and Health
- Child Poverty and Health
- Medical knowledge: EPIDEMIOLOGY
- Medical knowledge: PUBLIC HEALTH and GLOBAL HEALTH
- Clinical skills: IMAGING
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General Outcomes for Imaging
- Identify components of body systems and structures in several common types of medical images: ultrasound; X-Ray, CT-Scan; MRI-Scan; compared with anatomical pictures and the CAL packages
- Describe the uses of, and the differences between, the following medical imaging techniques: plain (X-Ray) films; computerised tomography (CT); magnetic resonance imaging (MRI).
- Discuss why knowledge of anatomy is vital to appreciate the applications of imaging to medicine.
- Discuss the use of contrast: Barium, iodine, gadolinium.
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General Outcomes for Imaging
- Clinical skills: PREVENTATIVE CARE and HEALTH PROMOTION
- Preventative care and Screening
- Clinical skills: INTERACTION WITH PATIENTS
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Interacting with Patients - General
- Describe a model that identifies the tasks and stages in the consultation
- Identify factors that act as barriers and enablers to communication
- Discuss the role and value of attentive listening, rapport and empathy, different question styles and summarising
- Demonstrate appropriate non-verbal (eg body language) and verbal skills (eg use of silence, open and closed questions and summarising) to gather information
- Develop skills in observation, listening, information gathering, empathy and reflective learning
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Cultural Issues
- Discuss variation in social relations and the effect on communication with health-care workers
- Identify potential effects of culture, age, gender, ethnicity, religion, socio-economic status and environment on communication.
- Discuss how health beliefs affect interactions with health-care workers and services
- Recognise the importance of not making assumptions.
- Discuss the role of health advocates in overcoming barriers to communication and enabling access to health-care
- Develop skills in listening, information gathering, empathy and respect.
- Non-verbal Communication
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Interacting with Patients - General
- Professional issues: LEARNING
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Using Information Technology (I.T.)
- Explain why you would search a database
- Know the difference between a citation, abstract and full text
- Know how to use internet searches to identify and explore health-related websites to identify current national guidelines relating to diabetes and obesity
- Know the structure of a bibliographic citation: author; title; source; pagination; year of publication
- Be able to find and know the usefulness of a Library Database list
- Understand authentication (ie ATHENS personal usernames and passwords)
- Know the availability of three major databases for medics; have ability to find answers to problems eg using Medline, PubMed, Web of Science, Cochrane, NeLH
- Know how to use author, journal and subject facility; be able to apply Boolean oerators to search strategy AND/OR; be able to apply limits to search results; be able to combine search strategies
- Demonstrate the ability within the Web of Science, to use cited reference searching
- Be able to display and email search results within a database
- Attitudes to Learning
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Using Information Technology (I.T.)
- Professional issues: MEDICAL PROFESSIONALISM
- General Outcomes for Medical Professionalism
- Professional issues: ETHICS and LAW
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Confidentiality
- Evaluate the importance of privacy in personal life, and why this might entail a right to confidentiality
- Outline why respect for confidentiality is such an important component of successful clinical relationships and of the key tenets policy.
- Describe the specific duties of medical students as regards confidentiality, and typical dangers of breaching it.
- Discuss arguments for and against the belief that confidentiality should be broken in the public interests, including the confidentiality of the clinical relationship
- Informed Consent
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Confidentiality
- Medical knowledge: ANATOMY
- General Outcomes for Community Care
- Medical knowledge: PUBLIC HEALTH and GLOBAL HEALTH
- Bronchiectasis and Cystic Fibrosis (Priority 3)
