Opposite the ordinal<span> equation, the reaction </span>can<span> become </span>energy-absorbing<span>,
N2 (g) + </span>four liquid<span> (l) ---> </span>a pair of<span> NO2 (g) + </span>four<span> H2 (g),
delta H = 212.5 kJ/mol </span>a pair of<span> NH3 (g) ----------------> N2 (g) + </span>three<span> H2 (g)
delta H = </span>100<span> and fifteen kJ/mol </span>transfer<span> those </span>a pair of<span> equations at </span>constant<span> time.
You get the equation </span>needed and also the succeeding<span> delta H </span>is that the total<span> of the </span>several<span>
delta H: 4H2O (l) + 2NH3 (g) ------> 2NO2 (g) + 7H2 (g) , delta H = 327.5 kJ/mo</span>
Answer: Dendritic pattern
Explanation:
The drainage pattern that is shown in the picture above is referred to as the Dendritic pattern.
Drainage Pattern simply refers to the pattern that is formed by lakes, rivers, streams etc in a drainage basin. It should be noted that a dendritic drainage patterns look like the branch of a tree that has lots of twigs and they are usually formed in areas that has flat bedrock such as shale. Since the above diagram looks like the description here, the answer is a dendritic pattern.
Most bryophytes such as mosses, differ from all other plants in that they lack true leaves and roots.
All bryophytes are very small and commonly grow in moist shaded areas in the hills. They complete their vegetative phase on land but water is necessary for their sexual reproduction. In addition bryophyte are non vascular plant and they lack cuticle and stomata.
The answer would be negative feedback
axesual thats how they reproduce