Answer:
Sweat rates commonly range between one to four pounds (one half to two quarts) per hour, depending on your sport and environmental conditions.
Explanation:
B. Swamp
C. Lake
D. River
The correct answer is D. River
Explanation:
Rivers are one of the most common ecosystems. A river is characterized by flowing water in which biotic factors (animals, plants, bacteria, etc.) and abiotic factors (rocks, water, minerals) interact. Also, they cross major ecosystems such as forests or rainforests.
Moreover, rivers are unique because they contain fresh rather than salt water as in the ocean, and they are always flowing while in a marsh, swamp or lake the water does not flow. This suggests the ecosystem is the photograph is a river because in this the water flows and as a result of this, there is a strong current which is possible in a river but not in a lake, marsh or swamp.
Answer:
river
Explanation:
it is smaller than the width of a lake
metabolic process that produces ATP in yeast (a
single-celled fungus)
Glass
apparatus
Several
hours later
Seal
Sugar
yeast
and water
Which statement best describes substance X?
O
RL is oxygen released by protein synthesis.
(2) It is glucose that was produced in
photosynthesis
(3) It is starch that was produced during digestion
(4) lis carbon dioxide released by respiration
Answer:
The correct option is D. It is carbon dioxide released by respiration.
Explanation:
The process by which ATP is abundantly formed in organisms is termed as cellular respiration. Cellular respiration can be described as a process in which carbon dioxide and water are produced from glucose and oxygen. ATP molecules are synthesized by this process which are used for cellular activities.
Hence, the substance X in the investigation shows carbon dioxide which was produced when the yeast cells began to respire. Yeast cells can respire either in the presence of oxygen or without oxygen.
Answer:
This is the answer
Explanation:
hope this helps :}
Answer: they carry out essential functions that are necessary for the survival of cells; maintain homeostasis
Answer:
Vital capacity can be defined as the maximum volume of air a person can breathe in after a forced expiration. It is equivalent to the sum of expiratory reserve volume (ERV), tidal volume (TV) and inspiratory reserve volume (IRV).
Now, the vital capacity of John would be = 450 + 2600 + 900 ml
= 3950 ml or 3.95 L.