Category: Steel

The Wisconsin Dells is a city located in southern Wisconsin, in the United States. It is a popular tourist destination known for its natural beauty, outdoor recreational activities, and water parks.

The Wisconsin Dells area is situated along the Wisconsin River and features unique geological formations such as sandstone cliffs and rock formations that were created over thousands of years. The area is also home to a number of lakes, including Lake Delton, which is a man-made lake that was created in the 1920s.

The Wisconsin Dells is often referred to as the “Waterpark Capital of the World,” with numerous water parks and attractions for all ages. Some of the most popular water parks in the area include Noah’s Ark Waterpark, Kalahari Resorts, and Wilderness Resort.

In addition to water parks, the Wisconsin Dells is also home to other attractions such as amusement parks, mini-golf courses, boat tours, zip lines, and much more. Outdoor enthusiasts can enjoy activities such as hiking, biking, fishing, and camping in the area’s state parks and nature preserves.

Overall, the Wisconsin Dells offers a unique blend of natural beauty, outdoor adventure, and family-friendly attractions, making it a popular vacation spot for people of all ages.

The Wisconsin Dells were formed during the last glacial period, which lasted from about 110,000 to 10,000 years ago. The area was covered by a large glacier, known as the Wisconsin Glacier, which carved out the unique sandstone formations and created the river valleys that are now characteristic of the region.

As the glacier receded, it left behind meltwater and sediment that further shaped the landscape and created the lakes and rivers in the area. The sandstone cliffs and rock formations that are now popular tourist attractions were formed through a combination of erosion from wind and water, as well as the natural weathering and erosion that occurs over time.

There are glacial erratics in the Wisconsin Dells region. Glacial erratics are large boulders that were carried by glaciers and deposited in a different location as the glacier receded. These erratics are often made of different rock types than the bedrock in the surrounding area, making them easy to identify.

During the last glacial period, the Wisconsin Glacier carried boulders from the Canadian Shield and deposited them throughout the region, including in the Wisconsin Dells area. Some of the largest glacial erratics in the region can be found in Rocky Arbor State Park, which is located just outside of the city.

In addition to glacial erratics, the Wisconsin Dells region also features other glacial features such as moraines, drumlins, and eskers, which were all formed by the movement of the glacier during the last ice age. These glacial features add to the unique geological history and natural beauty of the region.

The weight of steel is primarily determined by its density, which can vary depending on the grade of steel. Generally speaking, the heavier grades of steel tend to have higher density and therefore weigh more than lighter grades.

One of the heaviest grades of steel is commonly referred to as “mild steel,” which is also known as low carbon steel. This type of steel has a relatively low carbon content and is used in a wide range of applications, from construction and engineering to automotive and manufacturing. Mild steel is a heavy and dense material that is often used for high-stress applications where strength and durability are important.

Another heavy grade of steel is high carbon steel, which is also known as tool steel. This type of steel has a high carbon content and is used to make cutting tools and other high-stress components that require extreme durability and wear resistance. High carbon steel is also a heavy and dense material that is valued for its strength and toughness.

It’s important to note that the weight of steel can also vary depending on the shape and size of the object. For example, a thick steel plate will be heavier than a thin steel sheet of the same material, even if they are made from the same grade of steel.

Cubic Foot

The weight of one cubic foot of mild steel can vary slightly depending on the specific composition of the steel, but a commonly used value for the density of mild steel is approximately 0.284 pounds per cubic inch.

Using this value, we can calculate the weight of one cubic foot of mild steel as follows:

1 cubic foot = 12 inches x 12 inches x 12 inches = 1,728 cubic inches Density of mild steel = 0.284 pounds per cubic inch Weight of one cubic foot of mild steel = 1,728 cubic inches x 0.284 pounds per cubic inch = 490.752 pounds (approximately)

Therefore, one cubic foot of mild steel typically weighs around 491 pounds. However, this value may vary depending on the specific composition and processing of the steel.

Stainless

The ASME (American Society of Mechanical Engineers) Boiler and Pressure Vessel Code provides specifications for a variety of materials including stainless steel. There are many grades of stainless steel available, but here are some of the most commonly used ASME grades of stainless steel:

• ASME SA240 304: This is a commonly used austenitic stainless steel with 18-20% chromium and 8-10% nickel. It is highly resistant to corrosion and is often used in food processing and chemical industries.
• ASME SA240 316: This is another austenitic stainless steel with 16-18% chromium, 10-14% nickel, and 2-3% molybdenum. It has excellent corrosion resistance and is often used in marine and chemical processing applications.

These two grades might be the most used in food service and manufacturing of food facing equipment of fixtures, but there are more grades of stainless steel that can be used in aviation, process and refining, transportation and temperature sensitive applications.

• ASME SA240 321: This is a titanium-stabilized austenitic stainless steel with 17-19% chromium and 9-12% nickel. It is highly resistant to corrosion and is often used in high-temperature applications.
• ASME SA240 347: This is a columbium-stabilized austenitic stainless steel with 17-19% chromium and 9-13% nickel. It has excellent corrosion resistance and is often used in high-temperature and chemical processing applications.
• ASME SA240 410: This is a martensitic stainless steel with 11.5-13.5% chromium. It has good corrosion resistance and is often used in applications where high strength and hardness are required.
• ASME SA240 440C: This is another martensitic stainless steel with high carbon content (0.95-1.2%). It has excellent hardness and wear resistance and is often used in knife blades, bearings, and other high-wear applications.

There are many other grades of stainless.

Pipe, Stainless

1. ASTM A312/A312M – Standard Specification for Seamless, Welded, and Heavily Cold Worked Austenitic Stainless Steel Pipes: This specification covers a variety of grades of austenitic stainless steel pipes, including TP304, TP304L, TP316, TP316L, TP321, TP321H, TP347, and TP347H.
2. ASTM A358/A358M – Standard Specification for Electric-Fusion-Welded Austenitic Chromium-Nickel Stainless Steel Pipe for High-Temperature Service and General Applications: This specification covers several grades of electric-fusion-welded austenitic chromium-nickel stainless steel pipes for high-temperature service and general applications. Some of the grades covered are Grade 304, 304L, 316, 316L, and 347.
3. ASTM A409/A409M – Standard Specification for Welded Large Diameter Austenitic Steel Pipe for Corrosive or High-Temperature Service: This specification covers several grades of welded large diameter austenitic steel pipes for corrosive or high-temperature service. The grades covered include TP304, TP304L, TP316, TP316L, and TP347.
4. ASTM A790/A790M – Standard Specification for Seamless and Welded Ferritic/Austenitic Stainless Steel Pipe: This specification covers several grades of seamless and welded ferritic/austenitic stainless steel pipes for general corrosive service and low-temperature service. Some of the grades covered are Grade UNS S31803, S32205, S32750, S32760, and S32520.

http://www.encyclopediaofalabama.org/article/h-1638

After the civil war, Birmingham became the largest steel producing area in the south east. Steel production requires iron ore, coke, coal, limestone and dolomite. Postbellum steel production technology involved the use of blast furnaces, and limestone and dolomite were used with the iron ore to carry away impurities, like a flux, except in this case it was called slag. Raw material were found in the unique geology of the region, and an abundance of railroads allowed for the transport of raw materials and finished product.

Like building Pullman rail cars and coal mining, a ‘company town’ aspect of production arose. Critics point to high mortality rates in the growth of the industry, but this was also true of the age, and of steel production in northeastern centers. Later, industries developed that produced pipe and fittings.

Early Birmingham pipe producers made cast iron, or ductile pipe. Later, a large production and distribution of steel pipe evolved. Many people forget that most of the pipe for the Alaskan pipeline was purchased from Japan, the pipeline was built in the 1970’s.

There is still a large steel pipe distribution network centered in Birmingham, with a great deal of the pipe being imported and some produced domestically. With it’s centralized shipping points, Birmingham ships the most pipe in the southeast by rail and truck. Major shippers include U.S. Pipe, Nucor, American Pipe and Supply and Consolidated Pipe & Supply.

The modern steel pipe industry serves the pipeline industry, refinery and chemical plant construction and vessel manufacturing. Modern steel pipe is produced in two formats in general, ERW and Seamless. ERW is Electric Resistance Welded and produced by folding sheets of metal into a pipe and welding the seam. Seamless pipe is extruded.

University of Alabama Birmingham (UAB) has broken ground at the corner of 17th St. S and Ninth Ave S on a new center that will house computers, network operations and the campus Security Operations Center.

The building may house a nerve center for public surveillance cameras.

Tesla will be providing solar panels and battery backup units. The building will be a hub for new fiber optic connections to other campus facilities and the internet.

Korn & Alice In Chains

Oak Mountain Amphitheatre (formerly the Verizon Wireless Music Center)

Korn & Alice In Chains come to Oak Mountain Amphitheatre on Tuesday 23rd July 2019! Rock and metal

Oak Mountain Amphitheatre

Formed in Seattle, Washington in 1987, Alice In Chains found fame in the 1990s alongside fellow Seattle bands  Nirvana, Pearl Jam, and Soundgarden as part of the grunge movement. The group became one of the most successful bands of the 1990s, selling over 30 million records worldwide (over 14 million records in the US alone), with two number one albums and six top ten albums on the Billboard 200 chart. The band’s debut, Facelift, which was released in 1990, was certified double-platinum and lead the way for similar success with their third and fourth albums. In 1996, the band took an unofficial hiatus due to lead vocalist Layne Staley’s struggles with addiction that eventually culminated in his death in 2002. In 2005, the remaining band members reunited for a charity concert and in 2006 Alice In Chains began touring and recording again with William DuVall taking over as lead vocalist full-time. Rainier Fog, the band’s sixth and most recent studio album, was released in 2018, debuting at No. 12 on the Billboard 200 and receiving a Grammy nomination for Best Rock Album.