Ruby Pipeline

The Ruby Pipeline is a 42-inch (1,100 mm) natural gas pipeline running from Opal, Wyoming, to Malin, Oregon. The route crosses Northern Utah, and Northern Nevada.[1] Ruby Pipeline, L.L.C. filed an application with the Federal Energy Regulatory Commission (FERC) on January 27, 2009, authorizing the construction and operation of the Ruby Pipeline Project. On April 5, 2010, the FERC approved the application. Construction began on July 31, 2010, and the pipeline was placed in service on July 28, 2011. The pipe is 680 miles (1,090 km) long with an expected capacity of 1.5 billion cubic feet per day (42×10^6 m3/d).

Ruby Pipeline
Ruby Pipeline
Location
CountryUnited States
General directioneast-west
FromOpal, Wyoming
Passes throughWyoming, Utah, Nevada, Oregon
ToMalin, Oregon
General information
Typenatural gas
PartnersEl Paso Corporation
OperatorRuby Pipeline, L.L.C.
Commissioned2010
Technical information
Length680 mi (1,090 km)
Maximum discharge1.5 billion cubic feet per day (15 billion cubic metres per year)
Diameter42 in (1,067 mm)

Controversy

There is concern that the project crosses more than 1000 rivers and streams and, according to the Center for Biological Diversity, threatens some endangered fish species.[2]

The Center for Biological Diversity and Summit Lake Paiute Tribe of Nevada petitioned the Ninth Circuit Court of Appeals for an emergency action blocking the pipeline.[3] Despite not winning the injunction requests, the Court ultimately ruled in their favor, finding that environmental reviews for the pipeline's impacts to endangered fish species and sagebrush habitats did not comply with environmental laws.

Notes

8BLM.gov: Ruby Pipeline Project

gollark: They do have to spin pretty fast. There are sealed helium ones now.
gollark: > The HDD's spindle system relies on air density inside the disk enclosure to support the heads at their proper flying height while the disk rotates. HDDs require a certain range of air densities to operate properly. The connection to the external environment and density occurs through a small hole in the enclosure (about 0.5 mm in breadth), usually with a filter on the inside (the breather filter).[124] If the air density is too low, then there is not enough lift for the flying head, so the head gets too close to the disk, and there is a risk of head crashes and data loss. Specially manufactured sealed and pressurized disks are needed for reliable high-altitude operation, above about 3,000 m (9,800 ft).[125] Modern disks include temperature sensors and adjust their operation to the operating environment. Breather holes can be seen on all disk drives – they usually have a sticker next to them, warning the user not to cover the holes. The air inside the operating drive is constantly moving too, being swept in motion by friction with the spinning platters. This air passes through an internal recirculation (or "recirc") filter to remove any leftover contaminants from manufacture, any particles or chemicals that may have somehow entered the enclosure, and any particles or outgassing generated internally in normal operation. Very high humidity present for extended periods of time can corrode the heads and platters. https://en.wikipedia.org/wiki/Hard_disk_drive#Integrity
gollark: Interweb says it's to keep pressure equalized between the inside and out.
gollark: Ah yes, destroy it as an example to the others.
gollark: I find that threatening my electronics with a hammer or something works.
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