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PE Paper 1 *
Physiology
impact of training on lifestyle diseases
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Created by
Francesca T
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Cards (21)
cardiovascular system
lifestyle disease
atherosclerosis
coronary heart disease
heart attack
stroke
respiratory system
lifestyle diseases
asthma
COPD
- chronic obstructive pulmonary disease
atherosclerosis
fatty plaque
development in the arterial walls progressively narrowing the lumen and hardening the walls
coronary heart disease
atherosclerosis
of the coronary arteries = blood flow is reduced to the heart
angina
chest pain due to the partial blockage of
coronary arteries
heart attack
a blockage in a coronary artery which limits blood flow to an area of cardiac muscle
stroke
a blockage of the
cerebral artery
by a
blood clot
or a burst blood vessel in the brain
Effects of training -
CV lifestyle diseases
reduced levels of
cholesterol
and blood
lipids
increased coronary
circulation
decreased blood
viscosity
prevents
hardening
and loss of
elasticity
cardiac
hypertrophy
, increased ventricular
contractility
and
stroke
volume
decreased body
fat
increased
blood flow and oxygen transportation
Effects of training -
Respiratory diseases
increased respiratory muscle strength
decreased resting / submaximal breathing frequency
increased airflow, alleviated breathlessness
maintenance of full use of lung tissue and elasticity
increased alveoli surface area
reduced levels of blood lipids and
cholesterol
decreased risk of
atherosclerosis
prevents hardening and loss of elasticity
decreased development of
atherosclerosis
and
hypertension
decreased
blood viscosity
prevents
blood clots
forming and reduces
blood pressure
increased
coronary circulation
reduced
incidence
of heart attacks
cardiac hypertrophy
, increased
ventricular contractility
and
stroke volume
decreased blood pressure
and strain on heart
decreased
body fat
decreased
blood pressure
and reduced strain on heart
increased blood flow
and
oxygen transportation
reduced
onset of fatigue
; decreased
blood pressure
and
strain on heart
increased
respiratory muscle strength
decreased respiratory effort and alleviates symptoms of
asthma
decreased
resting
/
submaximal
breathing frequency
reduced
onset of fatigue
increased
airflow
,
alleviated
breathlessness
reduced necessity for
medication
maintenance of full use of
lung tissue
and elasticity
decreased risk of infection for
COPD
increased
alveoli
surface area
maximises
gaseous exchange
efficiency