Tag Archive: west jordan

A Bioswale and Rain Garden with Storm Drain – Utah

A Bioswale and Rain Garden with Storm Drain - Utah

A bioswale and rain garden system located along a housing development in West Jordan, a suburb of Salt Lake City in northern Utah, part of the urban corridor known as the Wasatch Front.

A storm drain integrated within a bioswale and rain garden is a hybrid stormwater management system designed to handle excess runoff while enhancing filtration and environmental benefits. In such a setup, the bioswale and rain garden are the primary features for capturing, slowing, and filtering stormwater from nearby impervious surfaces. They are designed with vegetation, permeable soil, and sometimes rock channels to allow water to percolate naturally into the ground.

The storm drain serves as a secondary or overflow mechanism within this system. When heavy rains or extreme runoff exceed the capacity of the bioswale and rain garden, the excess water is directed into the storm drain to prevent flooding. The storm drain is strategically placed, often at the lowest point of the bioswale or rain garden, to capture overflow only when necessary. This combined approach not only reduces the burden on traditional stormwater infrastructure but also improves water quality and reduces localized flooding by using natural filtration as the first line of defense.

Such systems are commonly found in urban or suburban settings where sustainable green infrastructure is prioritized, blending engineered solutions with natural processes for maximum efficiency and ecological benefit.

A Bioswale and Rain Garden with Storm Drain in West Jordan, Utah

A Bioswale and Rain Garden with Storm Drain in West Jordan, Utah

A bioswale and rain garden system located along a housing development in West Jordan, a suburb of Salt Lake City in northern Utah, part of the urban corridor known as the Wasatch Front.

A storm drain integrated within a bioswale and rain garden is a hybrid stormwater management system designed to handle excess runoff while enhancing filtration and environmental benefits. In such a setup, the bioswale and rain garden are the primary features for capturing, slowing, and filtering stormwater from nearby impervious surfaces. They are designed with vegetation, permeable soil, and sometimes rock channels to allow water to percolate naturally into the ground.

The storm drain serves as a secondary or overflow mechanism within this system. When heavy rains or extreme runoff exceed the capacity of the bioswale and rain garden, the excess water is directed into the storm drain to prevent flooding. The storm drain is strategically placed, often at the lowest point of the bioswale or rain garden, to capture overflow only when necessary. This combined approach not only reduces the burden on traditional stormwater infrastructure but also improves water quality and reduces localized flooding by using natural filtration as the first line of defense.

Such systems are commonly found in urban or suburban settings where sustainable green infrastructure is prioritized, blending engineered solutions with natural processes for maximum efficiency and ecological benefit.

Snowy Winter Irrigation Canal – Salt Lake Valley – West Jordan – Utah

Snowy Winter Irrigation Canal - Salt Lake Valley - West Jordan - Utah

Snowy Winter Irrigation Canal – Salt Lake Valley – West Jordan – Utah

The Salt Lake Valley canal system is an extensive network of canals, ditches, and waterways built to support irrigation, agriculture, and urban water needs in the Salt Lake Valley, Utah. Dating back to the mid-19th century, this system was initiated by Mormon pioneers, who constructed the first canals shortly after their arrival in 1847. Faced with an arid climate, the settlers relied on these waterways to divert water from nearby rivers, such as the Jordan River and its tributaries, to irrigate crops and sustain their growing communities.

Over time, the canal system expanded to include major canals like the Jordan & Salt Lake City Canal, Utah & Salt Lake Canal, and others, forming a vital backbone for water distribution throughout the valley. The canals not only enabled agricultural development but also facilitated the growth of urban areas by supplying water for industry and residents. Today, while much of the original system is still in use, it has been adapted to meet modern demands, including stormwater management and secondary water supply. Conservation efforts aim to balance the system’s historical significance with its ongoing utility, ensuring it continues to serve as a crucial resource for the Salt Lake Valley.