industrial smog

photochemical smog

urban smog

organic smog

none of the other answers are correct

industrial smog

photochemical smog

urban smog

organic smog

none of the other answers are correct

Chlorofluorocarbons (CFCs)

Methane

Carbon dioxide

Sulfur dioxide

Chlorofluorocarbons (CFCs)

Methane

Carbon dioxide

Sulfur dioxide

Nitrogen-rich agricultural runoff enters aquatic ecosystems, with exponential increases in aquatic vegetation growth resulting from increased nutrient availability in the watershed. Oxygen is consumed when when the bloom of aquatic vegetation dies off and decomposes, resulting in hypoxia and die-off of aquatic wildlife.

Nitrogen-rich agricultural runoff enters aquatic ecosystems, with exponential increases in aquatic vegetation growth resulting from increased nutrient availability in the watershed. Oxygen is consumed when when the bloom of aquatic vegetation dies off and decomposes, resulting in hyperoxia and die-off of aquatic wildlife.

Nitrogen-rich agricultural runoff enters aquatic ecosystems, resulting in increased nutrient availability and algal blooms. The now-overpopulated aquatic plants consume most of the oxygen available in the watershed, resulting in hypoxia and die-off of aquatic wildlife.

Nutrients from agricultural runoff enter the watershed and the resulting algal bloom limits availability of sunlight and oxygen production, resulting in a hypoxic aquatic ecosystem and wildlife die-offs.

Nitrogen-rich agricultural runoff results in exponential growth of aquatic flora, which provides a more abundant food source for aquatic wildlife. The resulting overpopulation by aquatic wildlife creates a hypoxic environment, which causes fish and other aquatic animals to suffocate.

Nitrogen-rich agricultural runoff enters aquatic ecosystems, with exponential increases in aquatic vegetation growth resulting from increased nutrient availability in the watershed. Oxygen is consumed when when the bloom of aquatic vegetation dies off and decomposes, resulting in hypoxia and die-off of aquatic wildlife.

Nitrogen-rich agricultural runoff enters aquatic ecosystems, with exponential increases in aquatic vegetation growth resulting from increased nutrient availability in the watershed. Oxygen is consumed when when the bloom of aquatic vegetation dies off and decomposes, resulting in hyperoxia and die-off of aquatic wildlife.

Nitrogen-rich agricultural runoff enters aquatic ecosystems, resulting in increased nutrient availability and algal blooms. The now-overpopulated aquatic plants consume most of the oxygen available in the watershed, resulting in hypoxia and die-off of aquatic wildlife.

Nutrients from agricultural runoff enter the watershed and the resulting algal bloom limits availability of sunlight and oxygen production, resulting in a hypoxic aquatic ecosystem and wildlife die-offs.

Nitrogen-rich agricultural runoff results in exponential growth of aquatic flora, which provides a more abundant food source for aquatic wildlife. The resulting overpopulation by aquatic wildlife creates a hypoxic environment, which causes fish and other aquatic animals to suffocate.

The leachate can be at a high temperature

The leachate can leak into nearby soils

The leachate can be classified as toxic waste and have to be treated accordingly

The leachate can contain toxic metal compounds

The leachate can leak into groundwater

The leachate can be at a high temperature

The leachate can leak into nearby soils

The leachate can be classified as toxic waste and have to be treated accordingly

The leachate can contain toxic metal compounds

The leachate can leak into groundwater

Eutrophication and increased algal bloom

Poisoning of water invertebrates by pesticides

Increased lake and river fertility

Making trees downstream grow larger

Free fertilizer for downstream farmers

Eutrophication and increased algal bloom

Poisoning of water invertebrates by pesticides

Increased lake and river fertility

Making trees downstream grow larger

Free fertilizer for downstream farmers