-Physical quantities and their measurement units. The particle kinematics: Reference systems - Rectilinear motion: position, velocity and and uniform rectilinear motion. Acceleration and uniform accelerated motion. free fall motion of a body, examples. Bidimensional kinematics, position and velocit vector, trajectory. Operations with vectors: sum, difference, using the grapical approach. Overview of goniometric functions and Vector components. Vector sum using components. Motion of a projectile and examples. Uniform circular motion: velocity, centripetal acceleration, angular velocity, motion time study, harmonic motion.
-Particle Dynamics: Newton's laws, Examples and applications. Weight force, normal plane reaction, frictional force. Inclined plane without friction, examples. Inclined plane with friction. Tension of a rope, elastic force, centripetal resulting force and examples. Pressure and friction force in the decubitus.
- Rigid body dynamics: existence of the center of mass and equation of translational dynamics. Position of the center of mass. Moment of a force. Balance of a rigid body. Levers: equations, schematic drawings and applications to the human body. Rotational dynamics, rotational analogue of Newton's second law. Application to the support design.
- Biomechanical applications: quantitative analysis of the levers in the human body: the skull; trunk-vertebral balance - Normal weight case and Obesity / Overweight case and analogies with the lifting of a patient; foot during walking; elbow joint. Hip joint and its pathologies: Forces and moments on the normal joint; Antalgic hip and use of the stick and other supports. Applications to patient support and therapist effects. The vertebral column and its pathologies: Forces and moments on the fifth lumbar vertebra; limit of elasticity of the disc, hernia; Slip stress. Effects when lifting a patient.
Work and energy: Work of a force - Power - Kinetic energy - Theorem of kinetic energy - Conservative forces - Potential energy - Conservation of mechanical energy.
Electrostatics and electrodynamics: Electric charge. Coulomb's law. The electric field. Electrical potential and potential difference. The electric current. Electrical resistance and Ohm's law. Application: power supply and movement in bionic supports.
PART I: Introduction to Chemistry
Description of Matter:
The Atom. Isotopes and Atomic Masses. Introduction to the Periodic Table. Atomic Orbitals and Their Energies. Chemical Bonding: An Overview of Chemical Bonding. Ionic Bonding. Lewis Electron Dot Symbols. Lewis Structures and Covalent Bonding. Properties of Covalent Bonds, Polar Covalent Bonds. Ionic and hydrogen bonds.
Energy Changes in Chemical Reactions and Chemical Thermodynamics:
Thermodynamics and Work. The First and The Second Law of Thermodynamics. Enthalpy and Entropy Free Energy. Spontaneity and Equilibrium. Thermodynamics and Life.
Enzymes: classification, kinetics, and control
Molecules, Ions and Chemical Formulas:
Chemical Compounds. Acids and Bases and Ionic Compounds. The Chemical Equilibrium: Concept of Chemical Equilibrium. The Equilibrium Constant. Factors That Affect Equilibrium. Solution Concentrations. Acid–Base Reactions. A Qualitative Description of Acid–Base Equilibriums. Molecular Structure and Acid–Base Strength. Acid–Base Reaction.
Reactions in Aqueous Solution:
Aqueous Solutions. The Autoionization of Water. Solubility and pH.
Elements of Organic Chemistry:
General Overview of Carbon Compounds. Alkanes, Alkenes, Alkynes, Benzene. Overview of Functional Groups: Alcohols, Ethers and Phenols. Aldehydes and Ketones. Amines and Heterocycles.
PART II: STRUCTURE AND FUNCTION OF BIOMOLECULES
Carbohydrate: General aspects and classification. Monosaccharides, Disaccharides and Polysaccharides.
Lipids: General aspects and classification. Fatty Acids, Triglycerides, Phospholipids, Sterols and Cholesterol.
Proteins: Amino Acids, Peptides, and Proteins. Covalent structures and three-dimensional structures of proteins. Protein Folding and Dynamics. Hemoglobin and Mioblobin. Protein Function
Pathological Hemoglobin.
Nucleic Acids: structure, fuction and general aspects. Nucleotides and Nucleosides
PART III: METABOLISM
Introduction to Metabolism:
Carbohydrate metabolism I: major metabolic pathways and their control. Glycolysis. Citric Acid Cycle. Electron Transport and Oxidative Phosphorylation. Carbohydrate metabolism II: special pathways and glycoconjugates. Glycogen Metabolism, Gluconeogenesis and the Pentose Phosphate Pathway.
Lipid Metabolism: utilization and storage of energy in lipid form. Pathways of metabolism of special lipids: β-oxidation and ketogenesis.
Protein Metabolism: Amino acid metabolism and Urea cycle.
Hardware Main components - von Neumann architecture
- CPU
- memories
- mass memories
- I / O
- bus
Devices Performance
Software
System software and application software
- process manager (time slicing)
- central memory manager (shared by all processes)
- secondary storage manager (files and directories)
- device manager (driver)
- user interface (user interaction)
Computer networks
- computer networks and sharing of resources
- types of networks: LAN, WLAN, WAN
- network topology
- client / server and P2P (peer-to-peer) models: comparison
- Internet: network of networks
- functioning of the Internet
- other types of networks: intranet and extranet
- transmission media: twisted pair, coaxial cable, Ethernet cable, optical fiber, terrestrial radio link, satellite.
- data transfer:
- how to connect to the Internet
Search engines
- searches with Google
- special searches