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Seismic Code Development: A Critical Component of Preventing Earthquake Losses

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Earthquakes are one of the most destructive natural phenomena. FEMA estimates earthquake losses to be over $6 billion a year in the United States. While earthquake hazards cannot be controlled, the level of preparedness and effort devoted to developing, implementing, and enforcing building codes can be.

There’s a well-known saying: “Earthquakes don’t kill people – buildings do.” Expanded, it is: “Earthquakes do not injure or kill people. Inadequately built man-made structures can and do injure and kill people.” 

Building codes aim to mitigate the risk structures present. Seismic code development continues as better ways to enhance life safety conditions are uncovered, enabling the construction of safer structures.

About Seismic Codes

Seismic bracing is a crucial component of building design in areas prone to seismic activity. Proper bracing mitigates structural and non-structural damage in a seismic event, improving the safety of buildings and their occupants. Seismic codes set forth minimum design and construction requirements. 

Structures that meet minimum requirements should be capable of resisting earthquake loads without serious structural damage. Non-structural and architectural damages can be reduced with additional precautions. In addition to setting minimum requirements, building codes restrict or prohibit certain vulnerable types of buildings in seismically hazardous areas.

seismic code development

Seismic Requirements Can Vary

Seismic code requirements vary depending on the region and its local building codes, regulations, and guidelines. Most states and local jurisdictions adopt the building codes maintained by the International Code Council (ICC). They include: the International Building Code (IBC), the International Residential Code (IRC), and the International Existing Building Code (IEBC). New editions of the International Codes are published every 3 years. 

Who Sets Code Requirements?

In the United States, the International Building Code (IBC) sets minimum design and construction requirements. The American Society of Structural Engineers (ASCE-7) provides earthquake specific requirements. Some noteworthy seismic code requirements include:

  • Plain masonry and plain concrete buildings without steel reinforcement are not permitted in moderate-to-high seismic hazard regions.
  • Major mechanical, electrical, and plumbing (MEP) components are braced to resist earthquake loads and motion. 
  • Buildings like hospitals, hazardous material storage facilities, and emergency structures are designed for at least 50% more seismic load than common buildings.
  • And much more.

It is essential to understand and adhere to seismic requirements to enhance the safety and stability of buildings during seismic events. 

The History Behind Seismic Code Development

seismic code development

Building codes did not have earthquake design requirements prior to the 1906 San Francisco earthquake. Earthquakes were not mentioned in building codes until the Palo Alto Code in 1927. The Santa Barbara earthquake in 1925 was the turning point for seismic codes, due to the damage observed in buildings. In 1925, Congress gave the United States Coast and Geodetic Survey responsibility to investigate and report on seismology. This had significant effects on seismic code development. 

In 1933, the first mandatory seismic codes in the United States were published, following the Long Beach earthquake that same year, after extensive damage to school buildings. Since then, codes have been revised as new knowledge emerges in order to improve on the safety of buildings and reduce losses from earthquakes. 

Since these early earthquake events, code revisions have become much more organized. Every time a major seismic event occurs, findings from these events can lead to code changes. For example, the 1971 San Fernando Earthquake illustrated the vulnerability of “soft-story” concrete buildings and non-ductile concrete buildings. The 1994 Northridge earthquake illustrated that welded steel connections that were previously thought to be ductile were not and major code changes resulted. In these earthquakes and many others, the vulnerability of nonstructural items such as MEP systems and architectural items was apparent. Modern codes include measures to protect these items during seismic events.

Seismic Code Continues To Advance

Seismic Code Development: A Critical Component of Preventing Earthquake Losses

Changes and additions to seismic codes continue to develop with new research and documentation of performance in past earthquakes. Even well-designed buildings can be damaged during an earthquake, depending on its severity. As such, seismic code development is crucial to provide higher protection and damage reduction, especially for critical facilities, such as hospitals. 

The Only Firm In Utah With Someone Nonstructural the Code Committees that Developed MEP Seismic Design Requirements

VIE Engineers doesn’t just read seismic codes – we also participate in seismic code development. We are the only engineering firm in the state of Utah that currently has someone on code committees. Through our direct involvement, this helps take advantage of code provisions for your benefits.

Our engineers use dynamic analysis and take advantage of methods in building code that most people aren’t even aware of. Our senior engineer, Mr. Masek, has been an active member of the ASCE 7 code committee, in addition to other professional activities for professional engineering organizations, such as the American Society of Civil Engineers, the Structural Engineering Institute, and the Earthquake Engineering Research Institute. He has developed seismic criteria for both new facilities and retrofits of existing structures. 

Contact us to learn more about our seismic engineering services and what we can do for you. 

Filed Under: seismic bracing

engineering estimate

When getting quotes for seismic bracing design, it is important to understand what these quotes include. Specifically, it is important to understand if they include just engineering or both engineering and seismic bracing components.  

Here, we’ll touch on why engineering estimates can vary while also explaining what you can expect when you get an estimate from the experienced professionals here at VIE Engineers.

Why Engineering Estimates Vary

A certain degree of variability is inevitable in engineering estimates. For example, quotes from engineering firms that provide proposals for everything needed for the project will naturally be higher than quotes from firms that just do part of the engineering. 

A key component of understanding engineering estimates and why they are at the price they are is to look at the components included in the estimate.

Some components of engineering estimates may be: the cost to retrofit the structural elements of the building; non-seismic, non-construction costs that directly support retrofit work; building characteristics such as whether the building is deemed historic, the building type, the building area, etc; and more. 

Other factors to consider with the costs of design include:

  • Location. The cost of living and design challenges of your region can impact your estimate.
  • Project scope. Is the estimate just for reports and drawings or does it include other aspects?
  • Experience. Engineers with more experience and/or specialized licenses can charge more than new engineers.
engineering estimate

Engineering Estimates That Account For The Whole Package

VIE uses innovative designs to reduce the cost by a factor of 2 or more compared to firms that do engineering only. Our engineers utilize advanced engineering procedures to reduce the number of braces on a project. Our estimates include the whole package, such as all braces, in addition to the design.

When you consider everything that our engineering estimates include, you’ll understand that you’ll be doing the best thing for your project.

What’s Included In VIE’s Engineering Estimates:

VIE provides seismic bracing of MEP systems. We develop positive relationships with design review companies and government agencies to ensure that the design-approved project is completed in a time-efficient manner. Part of this includes comprehensive estimates that include the following – and more.

  • Our state of the art engineering uses advanced procedures to take into account system dynamic properties and system ductility. By doing this, our designs typically use smaller seismic braces and fees than more conservative designs. 
  • VIE works with MEP contractors to understand and use actual load levels. For example, we do not just use the maximum gravity loads that you may see in a conservative load table. We understand what the loads will actually be and use that information in our work. 
  • All engineering for seismic bracing is done by professional engineers that are licensed in the state where a project is located. We do not use non-engineers to lay out and select brace types and then provide the service of a “stamping engineer” to quickly review and stamp drawings and calculations. Our engineers mark up exactly where braces go based on engineering techniques, removing guesswork from your installation. Our kits are specifically sized and labeled for specific locations on our drawings, rather than just a table.
  • VIE does not use cookie cutter brace loads or diagrams that are published by various manufacturers or bracing suppliers. Our designs show which brace types are needed and where these braces should be located. This eliminates the confusion that can be created by some firms that just specify generic brace spec tables or generic drawings.
  • VIE, with CFC, provides complete bracing design and also provides all the bracing cables, strut, fittings, and all that is needed for a project. 
  • We provide field support throughout a project, as well as training contractors in brace installation at no additional cost.
  • VIE do not nickel and dime our clients with change orders. We understand that a design review may be needed.
  • We accept refunds of unused bracing fits. We do not charge a restock fee.

Leading Seismic Engineering Services Throughout The United States

equipment anchorage design VIE Engineers Ogden, UT

VIE Engineers provides seismic engineering services throughout the United States, including seismic grant writing, seismic equipment certification, seismic bracing, and more. Our engineers look closely at project specifications and code-required component importance factors, as well as the specific braces required and where they should go, ways to reduce installation labor, and more. 

We work with Connectors For Construction (CFC) in order to provide our clients with the whole package in a turn-key solution and factor this into our estimates. This enables us to provide comprehensive engineering estimates that include far more than just the design.

To learn more about our services and what our estimates include, please don’t hesitate to contact us today. 

Filed Under: seismic engineer

Semiconductors are the brains of our digital world. Their processing power enables us to have advanced medical equipment, smartphones, computers, space travel, and more. Since they are the basis of so much technology, their advancement is key to innovation.

While semiconductor chips themselves are impressive, the impeccable precision required to make them is even moreso. These multi-billion dollar fabrication plants, also known as fabs, contribute to a massive global industry, with revenues that are projected to surpass $1 trillion by 2025.

To meet design and manufacturing demands, fabs must ensure that they are protected from seismic activity with appropriate seismic bracing measures.

About Semiconductor Chips

semiconductor seismic bracing UT

Without semiconductor chips, many of the world’s life-changing advances would not be possible. The modern semiconductor chip enables smartphones to have more combined processing power than the computers that landed man on the moon in the 1960s. 

According to the Semiconductor Industry Association (SIA), a single semiconductor chip has as many transistors as all of the stones in the Great Pyramid in Giza. With over 100 billion integrated circuits in use globally, this is equivalent to the number of stars in our part of the Milky Way galaxy. 

These chips have allowed for breakthroughs in communication, transportation, clean energy, healthcare, and more. They continue to pave the path for innovation, running not only the modern world, but mapping out the future one.

As such, the semiconductor industry is booming – and to meet demand, more fabrication plants are being built. The United States is a hot spot for fab construction. 

What Goes Into A Semiconductor Fabrication Plant

Also known as a fab or a foundry, these factories require many expensive devices in order to function. As demands for more advanced chips grow, so too do the expenses of both building and maintaining the environment necessary to fabricate them. These skyrocketing costs mean that new fabs can cost billions of dollars.  

semiconductor seismic bracing UT

The central part of a fab is the clean room, where all fabrication takes place and where all the machinery for circuit production is. The environment is controlled to eliminate all dust, as even a singular speck could ruin a microcircuit. It must also be damped against vibration in order to ensure nanometer-scale alignment of machines, as well as being kept within a very specific band of temperature and humidity so as to minimize static electricity. 

Fabs also have air handling equipment, an air plenum, a return air plenum, the clean subfab with support equipment, the ground floor, and office space. The equipment used for fabrication ranges from $700,000 to hundreds of millions of dollars each, with typical semiconductor fabrication plans having hundreds of equipment items. 

Seismic Engineering: Protecting Our World To Build Our Future

Semiconductors are one of the top five American exports, and the semiconductor industry employs over 250,000 people in the United States while supporting approximately 1.8 million additional U.S. jobs. Seismic bracing is necessary to protect specialty systems, equipment, and the life-safety of fabs.

semiconductor seismic bracing UT

While semiconductor fabrication plants themselves are generally designed to either meet or exceed code requirements, the vibration-sensitive equipment is often left exposed to the lateral loads of seismic events. Seismic bracing, equipment anchorage, and equipment seismic certification are all ways fabs can protect their systems. This prevents otherwise disastrous damage that doesn’t just render fabs non-functional, but also result in devastating economic consequences.

Nearly everything in a fab needs some kind of seismic anchorage and bracing. Non-structural systems in general tend to be more valuable than the structure, and this is especially true when it comes to fabs. These very specialized systems are far, far more valuable than the structure. As such, obtaining secure seismic bracing is essential. Fabs run continuously and seismic bracing enables them to continue functionality during and after a seismic event. 

All-Inclusive Seismic Bracing Solutions For Fabs

VIE is qualified to provide seismic engineering services for all types of facilities, high-tech facilities like computer chip manufacturers included. Our seismic bracing solutions go beyond meeting code requirements with project-specific designs that improve the safety of structures while reducing seismic damage and downtime following a seismic event.

Our equipment anchorage designs prevent fab equipment from being knocked off of supporting structures and minimize long-term costs through preventing non-structural systems from moving during a seismic event. 

In addition to our seismic bracing and anchorage designs, we are one of the few engineering firms in the United States that provides equipment seismic certification through analysis methods rather than shake-table testing. This use of experience data is approved by multiple review authorities, such as the IBC and ASCE-7, and saves our clients hundreds of thousands of dollars. 

equipment anchorage design VIE Engineers Ogden, UT

Furthermore, VIE was invited to speak at the Fifth International Workshop on the Seismic Performance of Non-Structural Elements (SPONSE). VIE spoke about practical considerations for non-structural bracing design of multiple suspended utilities in congested areas of facilities, relevant to fabs. 

With a total construction value approaching $10 billion in the past 7 years alone, VIE enables our clients to prepare for the future through mitigating risk and preserving the safety of people and property alike. Contact us for more information about our seismic engineering services, the previous projects we have completed, or to request a consultation. 

Filed Under: seismic bracing, seismic bracing company, seismic engineer

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VIE ENGINEERS

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STE 1
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(801) 671-8108
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