PhysioEx Exercise 2 Activity 6
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PhysioEx Exercise 2 Activity 6
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PhysioEx Lab Report
Exercise 2: Skeletal Muscle Physiology
Activity 6: The Skeletal Muscle Length-Tension Relationship
Name: Angelica
Date: 8 March 2021
Session ID: session-0e9e886f-7131-6307-2ec1-f2fa73f6bcc0
Pre-lab Quiz Results
You scored 100% by answering 5 out of 5 questions correctly.
Experiment Results
Predict Question
Stop & Think Question
During an isometric contraction
You correctly answered:
the skeletal muscle is generating force, but it remains at a fixed
length.
1
The force that results from muscles being stretched is
You correctly answered:
passive force.
2
Active force
You correctly answered:
is determined by the amount of myosin bound to actin.
3
When you generate the isometric length-tension curve, which of the following forces
will not
be indicated on your screen?
You correctly answered:
tetanic force.
4
Passive force in skeletal muscle is largely caused by
You correctly answered:
the protein titin.
5
Predict Question: As the resting length of the muscle is changed, what will happen to the
amount of total force the muscle generates during the stimulated twitch?
Your answer:
An increase in muscle length will increase total force.
1
Note the dip in total force at a muscle length of 90 mm as compared to the total force at a
muscle length of 80 and 100 mm. Why does this occur?
1
3/8/2021
PhysioEx Exercise 2 Activity 6
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Experiment Data
Voltage (v)
Length (mm)
Active Force
Passive Force
Total Force
8.5
75
1.82
0
1.82
8.5
70
1.75
0
1.75
8.5
65
1.55
0
1.55
8.5
60
1.21
0
1.21
8.5
55
0.73
0
0.73
8.5
50
0.11
0
0.11
8.5
80
1.75
0.02
1.77
8.5
90
1.21
0.25
1.46
8.5
100
0.11
1.75
1.86
Muscle Length = 75 mm
Active Force = 1.82
Passive Force = 0
Total Force = 1.82
Muscle Length = 75 mm
Active Force = 1.82
Passive Force = 0
Total Force = 1.82
Muscle Length = 70 mm
You correctly answered:
At this muscle length, active force has decreased in value and
passive force has not yet increased to a significant value.
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
3/8/2021
PhysioEx Exercise 2 Activity 6
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Active Force = 1.75
Passive Force = 0
Total Force = 1.75
Muscle Length = 70 mm
Active Force = 1.75
Passive Force = 0
Total Force = 1.75
Muscle Length = 65 mm
Active Force = 1.55
Passive Force = 0
Total Force = 1.55
Muscle Length = 65 mm
Active Force = 1.55
Passive Force = 0
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
Your preview ends here
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Total Force = 1.55
Muscle Length = 60 mm
Active Force = 1.21
Passive Force = 0
Total Force = 1.21
Muscle Length = 60 mm
Active Force = 1.21
Passive Force = 0
Total Force = 1.21
Muscle Length = 55 mm
Active Force = 0.73
Passive Force = 0
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
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PhysioEx Exercise 2 Activity 6
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Total Force = 0.73
Muscle Length = 55 mm
Active Force = 0.73
Passive Force = 0
Total Force = 0.73
Muscle Length = 50 mm
Active Force = 0.11
Passive Force = 0
Total Force = 0.11
Muscle Length = 50 mm
Active Force = 0.11
Passive Force = 0
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
3/8/2021
PhysioEx Exercise 2 Activity 6
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Total Force = 0.11
Muscle Length = 80 mm
Active Force = 1.75
Passive Force = 0.02
Total Force = 1.77
Muscle Length = 80 mm
Active Force = 1.75
Passive Force = 0.02
Total Force = 1.77
Muscle Length = 90 mm
Active Force = 1.21
Passive Force = 0.25
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
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Total Force = 1.46
Muscle Length = 90 mm
Active Force = 1.21
Passive Force = 0.25
Total Force = 1.46
Muscle Length = 100 mm
Active Force = 0.11
Passive Force = 1.75
Total Force = 1.86
Muscle Length = 100 mm
Active Force = 0.11
Passive Force = 1.75
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
Active Force
Active Force
Passive Force
Passive Force
Total Force
Total Force
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Total Force = 1.86
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Post-lab Quiz Results
You scored 100% by answering 5 out of 5 questions correctly.
Review Sheet Results
When a skeletal muscle is stimulated and generates force but remains at a fixed length
You correctly answered:
the muscle is contracting isometrically.
1
Which protein is mostly responsible for the development of passive force in a muscle?
You correctly answered:
titin.
2
In skeletal muscle, active force stimulated through a range of muscle lengths
You correctly answered:
will utilize ATP hydrolysis to drive the cross bridge cycle.
3
Which of the following is
not
depicted in a typical skeletal muscle isometric length-tension
curve?
You correctly answered:
time.
4
Maximal active tension will be produced in a skeletal muscle fiber when
You correctly answered:
the fiber is at its resting length.
5
What happens to the amount of total force the muscle generates during the stimulated
twitch? How well did the results compare with your prediction?
Your answer:
My prediction was correct, when there is an increase in muscle length, the total force also
increases. When there is a decrease in muscle length, there is a decrease in total force.
1
What is the key variable in an isometric contraction of a skeletal muscle?
Your answer:
The length-tension relationship.
2
Based on the unique arrangement of myosin and actin in skeletal muscle sarcomeres,
explain why active force varies with changes in the muscle's resting length.
Your answer:
When the skeletal muscle's resting length increases, there is more time for myosin bridges
to return to their starting positions.
3
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PhysioEx Exercise 2 Activity 6
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What skeletal muscle lengths generated passive force? (Provide a range.)
Your answer:
80mm to 100mm range.
4
If you were curling a 7-kg dumbbell, when would your bicep muscles be contracting
isometrically?
Your answer:
As you lift/curl the 7-kg dumbbell up, your bicep muscles will contract isometrically.
5
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