SPIROMETRY I. Describe static volumes and capacities. V, [l] I. tidal volume V. vital capacity II. inspiratory reserve volume VI. inspiratory capacity III. expiratory reserve volume VII. expiratory capacity IV. residual volume VIII. total lung capacity Resting breathing unit Hyperventilation unit Frequency (breaths/min) Frequency (breaths /min) tidal volume Litre (l) tidal volume Litre (l) Minute Ventilation l/min Maximal Minute Ventilation (MMV) l/min Apneic pause in inspiration: …………………. Apneic pause in expiration:……………………. II. Dynamic lung volumes V, [l] FEV[1] FVC Time [s] Conclusion ELEKTRICKÝ MODEL AORTÁLNÍHO PRUŽNÍKU I. Schematically redraw modeled records and describe the changes BP, mmHg Changes in stroke volume SV=50ml SV=90m SBP DBP ∆BP pBP Time, s BP, mmHg Change in peripheral resistance R = 0,5–0,8 mmHg^.s/ml R = 1,2–1,5 mmHg^.s/ml SBP DBP ∆BP pBP Time, s BP, mmHg Change in compliance C = 0,5 ml/mmHg C = 2,0 ml/mmHg SBP DBP ∆BP pBP Time, s BP, mmHg Cardiac arrest SV=0ml SBP DBP ∆BP pBP Time, s II. Interest tasks: BP, mmHg Model and describe the changes in blood pressure during the stay in the sauna followed by a cool down (the heat reduces peripheral resistance, the cold increases peripheral resistance). Time, s Model and describe the changes in blood pressure during physical activity (gradual increase of systolic output and heart rate, and then reduction of peripheral resistance). BP, mmHg Time, s BP, mmHg Model and describe essential hypertension (increased SV and TF by + 20%) and fully developed hypertension (return of TF and SV to the original values and increased resistance by 40%). Time, s Conclusion BLOOD FLOW IN VEINS Draw a diagram of veins and valves. Draw the course of the veins on the volar side of the forearm and mark the location of the flaps of your experiment. Conclusion