The equation that best represents conservation of matter is as follows:
6H₂O+6CO2 → C6H12O6 + 60₂ (option C).
<h3>What is the law of conservation of matter?</h3>
The law of conservation of matter states that the total amount of mass in any isolated system remains constant, and cannot be created or destroyed.
This law further explains that in a chemical reaction, the amount of reactants must equal the amount of products.
This indirectly means that a chemical reaction must be in a balanced form.
Therefore, the balanced equation that best represents conservation of matter is as follows:
6H₂O+6CO2 → C6H12O6 + 60₂
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Semen is the thick fluid that contains the sperm that is basic in nature, thus protecting it from the acidic nature of the vagina.
Explanation:
the answer should be d because of the concentration gradient see if that makes sense
Answer:
a. halophilic
Explanation:
Halophilic microorganisms have an absolute requirement for high salt concentration (NaCl concentration). These microbes grow well under the conditions of higher salt concentration but do not survive the lower salt concentrations. For example, the halobacteria are the archaeans that depend on high NaCl concentrations for growth and do not survive at a concentration below about 1.5 M NaCl.
According to the observations, the bacterium could not grow in the tube having a NaCl concentration of 0.5% but exhibits maximum growth under higher NaCl concentrations (15%). This means that the observed bacterium is a halophile or halophilic microbe.
Comets are basically dusty snowballs which orbit the Sun. They are made of ices, such as water, carbon dioxide, ammonia and methane, mixed with dust. These materials came from the time when the Solar System was formed. Comets have an icy center (nucleus) surrounded by a large cloud of gas and dust (called the coma).
Comets go around the Sun in a highly elliptical orbit. They can spend hundreds and thousands of years out in the depths of the solar system before they return to Sun at their perihelion. Like all orbiting bodies, comets follow Kepler's Laws - the closer they are to the Sun, the faster they move.