• die Natrium-Kalium-Pumpe (Mc Graw-Hill)
• das Ruhepotenzial einer Nervenzelle (Resting Potential) (WH Freemann)
• das Aktionspotenzial einer Nervenzelle (Action Potential) (WH Freemann)
• Action Potentials  (Gary Fisk, Ph.D.)
• Synaptische Übertragung (Synaptic Transmission) (WH Freemann)
• unipolare und multipolare Neurone (Liang und Spilman)

• Atemwege, Lunge (Anatomie und Funktion)
• Atemmechanik
• Thorax
• Alveolen und Kapillarnetz
• Kreislauf
• Anatomie und Physiologie von Leber-Galle-Pankreas

• Fig. 2-15 - Titration Curves for Acetic Acid, Phosphate and Ammonia
  
• Fig. 2-16 - Titration of a Titration of a Polyprotic Acid 

• Fig. 3-29 -- Construction of a Recombinant DNA Molecule
  
• Fig. 3-30 -- Cloning with Bacteriophage lambda
  
• Fig. 3-33 -- Site-directed Mutagenesis

• Fig. 4-8 -- Titration of Glycine

• Fig. 5-3 -- Enzyme-linked Immunosorbent Assay
  
• Fig. 5-5 -- Ion-exchange Chromatography
  
• Fig. 5-6 -- Gel Filtration Chromatography
  
• Fig. 5-15 -- Edman Degradation
  
• Fig. 5-16 -- Generating Overlapping Fragments to Determine the Amino Acid Sequence of a Polypeptide

• Fig. 6-7 -- The Alpha Helix
  
• Fig. 6-9 -- Beta Sheets
  
• Fig. 6-33 -- Symmetries for Oligomeric Proteins
  
• Fig. 6-39 -- Protein Disulfide Isomerization Reaction
  

• Fig. 7-7 -- Oxygen Binding Curve of Hemoglobin
  
• Fig. 7-9 -- Movements of the Hemoglobin Heme and F Helix during the TR Transition
  
• Fig. 7-12 -- The Bohr Effect
  
• Fig. 7-14 -- The Effect of BPG and CO2 on Hemoglobin's O2 Dissociation Curve
  
• Fig. 7-29 -- Mechanism of Force Generation in Muscle
  

• Fig. 10-20 -- The Signal Hypothesis
  
• Fig. 10-35 -- Model for Glucose Transport
  

• Fig. 11-13 -- The Effect of Preferential Transition State Binding
  
• Fig. 11-16 -- Chair & Half-chair Conformations
  
• Fig. 11-19 -- The Phillips Mechanism for the Lysozyme Reaction
  

• Fig. 12-2 -- The Progress Curves for a Simple Enzyme-catalyzed Reaction
  
• Fig. 12-3 -- A Plot of Initial Velocity versus Substrate Concentration for a Simple Enzymatic Reaction
  
• Fig. 12-4 -- A Double-reciprocal (Lineweaver-Burk) Plot
  
• Fig. 12-7 -- A Lineweaver-Burk Plot for Competitive Inhibition
  
• Fig. 12-8 -- A Lineweaver-Burk Plot for Uncompetitive Inhibition
  
• Fig. 12-9 -- A Lineweaver-Burk Plot for Mixed Inhibition
  
• Fig. 12-10 -- Plot of Velocity versus [Aspartate] for the ATCase Reaction

• Fig. 14-1 -- Overview of Glycolysis
  
• Fig. 14-5 -- The Enzymatic Mechanism of Class I Aldolase
  
• Fig. 14-9 -- The Enzymatic Mechanism of GAPDH
  
• Fig. 14-22 -- PFK Activity versus F6P Concentration
  

• Fig. 15-1 -- Overview of Glucose Metabolism
  
• Fig. 15-20 -- The Major Phosphorylation and Dephosphorylation Systems That Regulate Glycogen Metabolism in Muscle
  
• Fig. 15-21 -- Hormonal Control of Glycogen Metabolism
  
• Fig. 15-22 -- Comparison of the Pathways of Gluconeogenesis and Glycolysis
  
• Fig. 15-27 -- The Transport of PEP and Oxaloacetate from the Mitochondrion to the Cytosol
  
• Fig. 15-34 -- The Pathway of Dolichol-PP-oligosaccharide Synthesis
  

• Fig. 16-1 -- Overview of Oxidative Fuel Metabolism
  
• Fig. 16-2 -- The Reactions of the Citric Acid Cycle
  
• Fig. 16-14 -- Regulation of the Citric Acid Cycle
  
• Fig. 16-15 -- Amphibolic Functions of the Citric Acid Cycle
  

• Fig. 17-8 -- The Mitochondrial Electron Transport Chain
  
• Fig. 17-18 -- The Coupling of Electron Transport and ATP Synthesis
  
• Fig. 17-21 -- The Binding Change Mechanism for ATP Synthesis
  
• Fig. 17-23 -- The Coordinated Control of Glycolysis and the Citric Acid Cycle
  

• Fig. 18-6 -- Modes of Interconversion
  
• Fig. 18-20 -- The Calvin Cycle
  
• Fig. 18-22 -- The Mechanism of the RuBP Carboxylase Reaction
  

• Fig. 19-5 -- A Model for Plasma Triacylglycerol and Cholesterol Transport in Humans
  
• Fig. 19-9 -- The Oxidation Pathway of Fatty Acyl-CoA
  
• Fig. 19-19 -- A Comparison of Fatty Acid Oxidation and Fatty Acid Biosynthesis
  
• Fig. 19-22 -- The Reaction Sequence for the Biosynthesis of Fatty Acids
  
• Fig. 19-37 -- LDL Receptor-mediated Endocytosis in Mammalian Cells
  

• Fig. 20-7 -- The Mechanism of PLP-dependent Enzyme-catalyzed Transamination
  
• Fig. 20-8 -- The Urea Cycle
  

• Fig. 21-5 -- The Cori Cycle
  
• Fig. 21-6 -- The Glucose-Alanine Cycle
  
• Fig. 21-7 -- GLUT4 Activity
  
• Fig. 21-15 -- Receptor Tyrosine Kinase Activation
  
• Fig. 21-16 -- The Ras Signaling Cascade
  
• Fig. 21-19 -- The Phosphoinositide Signaling System
  

• Fig. 22-1 -- The Metabolic Pathway for the de novo Biosynthesis of IMP
  
• Fig. 22-4 -- Control of the Purine Biosynthesis Pathway
  
• Fig. 22-5 -- The de novo Synthesis of UMP
  
• Fig. 22-7 -- Regulation of Pyrimidine Biosynthesis
  
• Fig. 22-12 -- The Control Networks for Regulating Deoxyribonucleotide Biosynthesis
  

• Fig. 23-16 -- The UV Absorption Spectrum of Native and Denatured E. coli DNA
  
• Fig. 23-17 -- A DNA Melting Curve
  

• Fig. 24-1 -- The Meselson and Stahl Experiment
  
• Fig. 24-32 -- The Holliday Model of General Recombination between Homologous DNA Duplexes

● Wasser - Lösungsmittel für Salze

● Teilchenmodelle im Anfangsunterricht
● 3D-Moleküldarstellungen [Java-Applet]
● Chlorophyll und ß-Carotin * ein Fall für zwei

...