Arthur Sewall: Difference between revisions

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'''Arthur Sewall''' (November 25, 1835 – September 5, 1900) was an American [[shipbuilder]], [[businessman]], and [[politician]] who is best known for being the [[Democratic Party (United States)|Democratic]] nominee for [[Vice President of the United States]] in the [[United States presidential election, 1896|1896 presidential election]]. Sewall's candidacy was part of a ticket with [[William Jennings Bryan]], which ultimately lost to [[William McKinley]] and [[Garret Hobart]].
{{Short description|A sustainable food production system combining aquaculture and hydroponics}}


== Early Life and Education ==
'''Aquaponics''' is an integrated system of [[aquaculture]] and [[hydroponics]] that cultivates fish and plants together in a symbiotic environment. This sustainable method of food production leverages the natural biological cycles of fish and plants to create a closed-loop system that minimizes waste and maximizes resource efficiency.
Arthur Sewall was born in [[Bath, Maine]], a prominent shipbuilding town. He was educated in the local schools of Bath and began his career in his family's shipbuilding business, Sewall & Co., which was established by his grandfather. This early exposure to shipbuilding would shape his future career and contributions to the industry.


== Career ==
==Overview==
Sewall expanded the family business, eventually becoming one of the most prominent shipbuilders in the United States. Under his leadership, the company specialized in the construction of large, steel-hulled ships, transitioning from the earlier wooden ships that had been the industry standard. His business acumen extended beyond shipbuilding; he was also involved in the railroad industry and banking, serving as the president of the Bath National Bank.
Aquaponics combines the principles of aquaculture, the raising of aquatic animals such as fish, and hydroponics, the cultivation of plants in water without soil. In an aquaponic system, fish waste provides an organic nutrient source for the plants, and the plants help to purify the water for the fish. This creates a mutually beneficial environment where both fish and plants can thrive.


== Political Career ==
==System Components==
Arthur Sewall's political career was closely tied to his business interests. He was a staunch supporter of the [[Democratic Party]], advocating for policies that favored the silver standard and opposed the gold-only standard, which was a major issue of the time. His views aligned closely with those of William Jennings Bryan, who was known for his "Cross of Gold" speech that criticized the gold standard.
An aquaponic system typically consists of several key components:


In 1896, Sewall was nominated as the vice presidential candidate alongside Bryan. The choice of Sewall was seen as a strategic move to balance the ticket with a businessman from the Northeast, complementing Bryan's populist and agrarian appeal in the Midwest and South. However, the campaign faced strong opposition from the pro-gold standard factions and the industrial and financial sectors.
* '''Fish Tank''': The primary habitat for the fish, where they are fed and grow. Fish waste accumulates in the water, which is then circulated to the plant beds.


== Personal Life and Legacy ==
* '''Biofilter''': A crucial component where nitrifying bacteria convert ammonia from fish waste into nitrates, which are less toxic and can be absorbed by plants.
Arthur Sewall was married to Emma Duncan Crooker, and they had several children. His personal life was marked by his deep involvement in his community and his church.


Sewall's legacy is somewhat mixed. While he was not successful in his bid for the vice presidency, his involvement in the 1896 election highlighted the deep economic and regional divisions within the United States at the time. Additionally, his contributions to the shipbuilding industry were significant, particularly in the transition to steel-hulled ships, which marked a new era in maritime history.
* '''Plant Beds''': These are usually filled with a growing medium such as gravel or clay pellets, where plants are cultivated. The plants absorb the nitrates and other nutrients, cleaning the water in the process.


Arthur Sewall died on September 5, 1900, in Bath, Maine. His contributions to both his local community and the broader American economic landscape are remembered in various historical accounts of the late 19th century.
* '''Sump Tank''': A reservoir that collects water from the plant beds and pumps it back to the fish tank, completing the cycle.


== See Also ==
==Benefits==
* [[History of the United States (1865–1918)]]
Aquaponics offers several advantages over traditional farming and aquaculture:
* [[Democratic Party (United States) history]]
* [[Economic history of the United States]]


[[Category:1835 births]]
* '''Water Efficiency''': Aquaponics uses significantly less water than soil-based agriculture because the water is recirculated and reused.
[[Category:1900 deaths]]
 
[[Category:American shipbuilders]]
* '''Sustainability''': By integrating fish and plant production, aquaponics reduces the need for chemical fertilizers and minimizes waste.
[[Category:American businesspeople]]
 
[[Category:Democratic Party (United States) vice presidential nominees]]
* '''Space Efficiency''': Aquaponic systems can be set up in urban environments, making them ideal for city farming and reducing the need for large tracts of land.
[[Category:People from Bath, Maine]]
 
{{US-politician-stub}}
* '''Year-Round Production''': With controlled environments, aquaponics can produce food year-round, regardless of external weather conditions.
 
==Challenges==
Despite its benefits, aquaponics also presents several challenges:
 
* '''Initial Setup Costs''': The cost of setting up an aquaponic system can be high, requiring investment in tanks, pumps, and other equipment.
 
* '''Technical Knowledge''': Successful aquaponics requires understanding of both aquaculture and hydroponics, as well as the biological processes involved.
 
* '''System Maintenance''': Regular monitoring and maintenance are necessary to ensure the health of both fish and plants.
 
==Applications==
Aquaponics is used in various settings, from small-scale home systems to large commercial operations. It is particularly valuable in areas with limited water resources or poor soil quality. Educational institutions also use aquaponics as a teaching tool to demonstrate principles of biology, ecology, and sustainability.
 
==Gallery==
<gallery>
File:Portable_fish_farm_at_growing_power.jpg|Portable fish farm at Growing Power
File:UVIAquaponicSystem.jpg|UVI aquaponic system
File:Aquaponics_at_Growing_Power,_Milwaukee.jpg|Aquaponics at Growing Power, Milwaukee
File:CDC_South_Aquaponics_Raft_Tank_1_2010-07-17.jpg|CDC South aquaponics raft tank
File:Aquaponics_with_Vibrantly_Colored_Plants.jpg|Aquaponics with vibrantly colored plants
File:Spinach_sapling_5_day_old_by_aquaponics.jpg|Spinach sapling in aquaponics
File:Aquaponics_with_catfish.jpg|Aquaponics with catfish
</gallery>
 
==Related pages==
* [[Hydroponics]]
* [[Aquaculture]]
* [[Sustainable agriculture]]
* [[Permaculture]]
 
[[Category:Aquaculture]]
[[Category:Hydroponics]]
[[Category:Sustainable agriculture]]

Revision as of 19:35, 11 February 2025

A sustainable food production system combining aquaculture and hydroponics


Aquaponics is an integrated system of aquaculture and hydroponics that cultivates fish and plants together in a symbiotic environment. This sustainable method of food production leverages the natural biological cycles of fish and plants to create a closed-loop system that minimizes waste and maximizes resource efficiency.

Overview

Aquaponics combines the principles of aquaculture, the raising of aquatic animals such as fish, and hydroponics, the cultivation of plants in water without soil. In an aquaponic system, fish waste provides an organic nutrient source for the plants, and the plants help to purify the water for the fish. This creates a mutually beneficial environment where both fish and plants can thrive.

System Components

An aquaponic system typically consists of several key components:

  • Fish Tank: The primary habitat for the fish, where they are fed and grow. Fish waste accumulates in the water, which is then circulated to the plant beds.
  • Biofilter: A crucial component where nitrifying bacteria convert ammonia from fish waste into nitrates, which are less toxic and can be absorbed by plants.
  • Plant Beds: These are usually filled with a growing medium such as gravel or clay pellets, where plants are cultivated. The plants absorb the nitrates and other nutrients, cleaning the water in the process.
  • Sump Tank: A reservoir that collects water from the plant beds and pumps it back to the fish tank, completing the cycle.

Benefits

Aquaponics offers several advantages over traditional farming and aquaculture:

  • Water Efficiency: Aquaponics uses significantly less water than soil-based agriculture because the water is recirculated and reused.
  • Sustainability: By integrating fish and plant production, aquaponics reduces the need for chemical fertilizers and minimizes waste.
  • Space Efficiency: Aquaponic systems can be set up in urban environments, making them ideal for city farming and reducing the need for large tracts of land.
  • Year-Round Production: With controlled environments, aquaponics can produce food year-round, regardless of external weather conditions.

Challenges

Despite its benefits, aquaponics also presents several challenges:

  • Initial Setup Costs: The cost of setting up an aquaponic system can be high, requiring investment in tanks, pumps, and other equipment.
  • Technical Knowledge: Successful aquaponics requires understanding of both aquaculture and hydroponics, as well as the biological processes involved.
  • System Maintenance: Regular monitoring and maintenance are necessary to ensure the health of both fish and plants.

Applications

Aquaponics is used in various settings, from small-scale home systems to large commercial operations. It is particularly valuable in areas with limited water resources or poor soil quality. Educational institutions also use aquaponics as a teaching tool to demonstrate principles of biology, ecology, and sustainability.

Gallery

Related pages