Fill in the blanks (underlined) on the following sentences to describe how the sliding filament model works.
My brain sends an action potential along the _____________________________ _____________________________ until it synapses with a muscle cell in my arm. receptors in the muscle cell are _____________________________ _____________________________ _____________________________, so when the motor neuron releases
_____________________________ into the synapse, the channels open up and create a rush of sodium into the cell, which if it's strong enough will cause nearby voltage-gated sodium channels to open as well. the action potential zips along a muscle cell's membrane, called the _____________________________, which has lots of tubes that run deep inside the cell, called _____________________________. When an action potential travels down one t-tubules it eventually triggers the voltage sensitive proteins that are linked those calcium channels on the cell’s _____________________________ _____________________________. when the sarcoplasmic reticulum channels are thrown open, the calcium stored inside rushes into the rest of the cell. The protein _____________________________ loves to bind with calcium, which changes its shape. The calcium latches onto the troponin and causes it to pull _____________________________ away from the sites on the _____________________________ strands that the _____________________________ wants to attach to. Only myosin heads that have a molecule of _____________________________ broken down into
_____________________________ and leftover _____________________________ can bind to newly exposed sites. when the myosin finally binds to actin, the myosin releases all of the stored energy and changes _____________________________. By changing shape it pulls on the actin strand and in the process it _____________________________ the whole sarcomere, and _____________________________ the muscle. Once the _____________________________ is spent, the myosin has no use for the ADP in the phosphate, so they unbind. The unbinding causes a small change in shape which allows a fresh ATP to bind to the myosin head. This _____________________________ causes another shape change and causes the _____________________________ to release the _____________________________. Meanwhile, the _____________________________ pumps are working hard to restock the calcium and the sarcoplasmic reticulum, so they start grabbing the _____________________________ that is floating around, causing calcium to unbind from _____________________________. When it un binds, the shape change puts the _____________________________ back into place.

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Lanuel

The words which completes the passage about how the sliding filament model works are:

  1. motor neurons
  2. ligand-gated sodium channels
  3. acetylcholine
  4. sarcolemma
  5. T-tubules
  6. sarcoplasmic reticulum
  7. troponin
  8. tropomyosin
  9. actin
  10. myosin
  11. ATP
  12. ADP
  13. phosphate
  14. shape
  15. shrinks
  16. contracts
  17. energy
  18. unbinding
  19. myosin
  20. actin
  21. calcium
  22. calcium
  23. troponin
  24. tropomyosin

What is the sliding filament model?

The sliding filament model can be defined as a theory which states that the mechanism of muscle contraction occurs when actin and myosin filaments of striated muscle (muscle proteins) slide past each other, so as to generate movement in the body of a living organism.

Basically, the human brain sends an action potential along the motor neurons until the action potential synapses with a muscle cell in the body part of a living organism such as arm, leg, etc.

Read more on sliding filament model here: https://brainly.com/question/14625676

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