Kit Miyamoto

Last updated

Dr. Hideki "Kit" Miyamoto
Dr-kit-miyamoto.jpg
Born1963 (age 6061)
Tokyo, Japan
NationalityAmerican, Japanese
EducationPh.D from Tokyo Institute of Technology, [1] MS and BS from California State University [2]
OccupationSeismic safety professional [3]
Known forMiyamoto International, Earthquake disaster response

Dr. Hideki "Kit" Miyamoto (born 1963) [1] is a Japanese American structural engineer known for being the founder-CEO of Miyamoto International, a global structural engineering and disaster risk reduction organization. [4] [5] He is also the chairman of California's Alfred E. Alquist Seismic Safety Commission, which investigates earthquakes and recommends policies for risk reduction. [6] [7]

Contents

Early life and education

Miyamoto was born and raised in Tokyo and studied earthquake engineering at the Tokyo Institute of Technology and California State University. He lives in Los Angeles. [8]

Career

Miyamoto started his career in structural engineering [2] and later focused on disaster resiliency, response, and reconstruction. [9] He provides policy consultation to the World Bank, USAID, UN agencies, governments and private sector. He has led teams of professionals on response and reconstruction projects after the 2008 Sichuan earthquake, [1] 2010 Haiti earthquake, [10] [11] 2011 Japan earthquake, 2015 Nepal earthquake, [12] 2020 Puerto Rico earthquakes [13] and other seismic risk reduction programs along with disaster risk mitigation policy work. [14]

Miyamoto with journalist Anderson Cooper Dr. Kit Miyamoto Of Miyamoto International with journalist Anderson Cooper.jpg
Miyamoto with journalist Anderson Cooper

Miyamoto was elected as a chair of the California Seismic Safety Commission in October 2020. He has formerly served as a seismic safety commissioner for eight years where he has advocated for increased resiliency in California. [15]

Innovations

Dr. Miyamoto was responsible for the seismic retrofit of the Theme Building, an iconic Space Age structure at Los Angeles International Airport (LAX). The innovative retrofit consisted of adding a tuned mass damper (TMD) to the top of the building’s core. The TMD option was selected because it was less expensive, protected the building’s architectural features, and minimized building closure. [16] This was the first time this retrofit had been achieved in the United States. [17]

Awards and recognitions

YearAwardInstitution or PublicationDistinction
2024Award of Excellence [18] Engineering News RecordRecognition of trajectory in engineering, disaster risk reduction, and post-disaster and post-conflict response across the globa.
2022Most Admired CEO [19] Sacramento Business JournalHonorees for this award program were nominated by Business Journal readers and staff and chosen through a vote of their peers.
2015Humanitarian Award [20] American Society of Civil Engineers of Sacramento
2013G. Brooks Earnest (GBE) AwardAmerican Society of Civil Engineers
20131st Annual Business Innovation & Economic Development AwardHaiti Renewal Alliance
2012Allied Professions Honor Award [21] American Institute of Architects California CouncilThe award celebrates a member of an allied profession who is committed to enhancing and contributing to the field of architecture and architectural design.
2012Distinguished AlumniCalifornia State University, Sacramento
2011Distinguished AlumniCalifornia State University, Chico
2011FellowAmerican Society of Civil Engineers
2011Frederick W. Panhorst Structural Engineering AwardAmerican Society of Civil Engineers
2011Top 25 NewsmakersEngineering News Record
2011Alfred E. Alquist California Seismic Safety CommissionerSeismic Safety Commission
2011Community Service Award [22] Sacramento Asian Pacific Chamber of Commerce
2011Jerry Allen Courage in Leadership AwardZweigWhite

Earthquake Travels

Dr. Kit Miyamoto provides aid in major earthquake emergencies.

Publications

Media

Major media such as CNN, [30] LA Times, [31] NY Times [32] and Rolling Stone [33] have mentioned, represented, or interviewed him. He was also featured in the “Designing for Disaster” exhibit at the National Building Museum. [34]

Related Research Articles

<span class="mw-page-title-main">Seismic risk</span> Likelihood of damage to a building or system from an earthquake

Seismic risk or earthquake risk is the potential impact on the built environment and on people's well-being due to future earthquakes. Seismic risk has been defined, for most management purposes, as the potential economic, social and environmental consequences of hazardous events that may occur in a specified period of time. A building located in a region of high seismic hazard is at lower risk if it is built to sound seismic engineering principles. On the other hand, a building located in a region with a history of minor seismicity, in a brick building located on fill subject to liquefaction can be as high or higher risk.

<span class="mw-page-title-main">1994 Northridge earthquake</span> Earthquake in Los Angeles, California

The 1994 Northridge earthquake was a moment magnitude 6.7, blind thrust earthquake that occurred on January 17, 1994, at 4:30:55 a.m. PST in the San Fernando Valley region of the City of Los Angeles. The quake had a duration of approximately 10–20 seconds, and its peak ground acceleration of 1.82 g was the highest ever instrumentally recorded in an urban area in North America. Shaking was felt as far away as San Diego, Turlock, Las Vegas, Richfield, Phoenix, and Ensenada. The peak ground velocity at the Rinaldi Receiving Station was 183 cm/s, the fastest ever recorded.

<span class="mw-page-title-main">Seismic retrofit</span> Modification of existing structures to make them more resistant to seismic activity

Seismic retrofitting is the modification of existing structures to make them more resistant to seismic activity, ground motion, or soil failure due to earthquakes. With better understanding of seismic demand on structures and with recent experiences with large earthquakes near urban centers, the need of seismic retrofitting is well acknowledged. Prior to the introduction of modern seismic codes in the late 1960s for developed countries and late 1970s for many other parts of the world, many structures were designed without adequate detailing and reinforcement for seismic protection. In view of the imminent problem, various research work has been carried out. State-of-the-art technical guidelines for seismic assessment, retrofit and rehabilitation have been published around the world – such as the ASCE-SEI 41 and the New Zealand Society for Earthquake Engineering (NZSEE)'s guidelines. These codes must be regularly updated; the 1994 Northridge earthquake brought to light the brittleness of welded steel frames, for example.

<span class="mw-page-title-main">Seismic analysis</span> Study of the response of buildings and structures to earthquakes

Seismic analysis is a subset of structural analysis and is the calculation of the response of a building structure to earthquakes. It is part of the process of structural design, earthquake engineering or structural assessment and retrofit in regions where earthquakes are prevalent.

Earthquake engineering is an interdisciplinary branch of engineering that designs and analyzes structures, such as buildings and bridges, with earthquakes in mind. Its overall goal is to make such structures more resistant to earthquakes. An earthquake engineer aims to construct structures that will not be damaged in minor shaking and will avoid serious damage or collapse in a major earthquake. A properly engineered structure does not necessarily have to be extremely strong or expensive. It has to be properly designed to withstand the seismic effects while sustaining an acceptable level of damage.

This is an alphabetical list of articles pertaining specifically to structural engineering. For a broad overview of engineering, please see List of engineering topics. For biographies please see List of engineers.

<span class="mw-page-title-main">Pasadena City Hall</span> Historic city hall of Pasadena, California, U.S.

Pasadena City Hall is the historic city hall of Pasadena, California, United States. Completed in 1927, it combines elements of both Mediterranean Revival and Spanish Colonial Revival style architecture, and is a significant architectural example of the City Beautiful movement of the 1920s.

Dr. W. Gene Corley, P.E. was an American structural engineer and "preeminent expert on building collapse investigations and building codes." Corley was the Senior Vice President of CTLGroup from 1987 to 2013, where he led structural engineering projects, including numerous evaluations of buildings and structures damaged by earthquake, explosions, and from terrorist attacks. He led the investigation of structural performance of the Murrah Building following the Oklahoma City bombing in 1995, and the World Trade Center Building Performance Study in 2001–2002 following the September 11, 2001 attacks. He died on March 1, 2013. He was 77.

<span class="mw-page-title-main">Seismic base isolation</span> Means of protecting a structure against earthquake

Seismic base isolation, also known as base isolation, or base isolation system, is one of the most popular means of protecting a structure against earthquake forces. It is a collection of structural elements which should substantially decouple a superstructure from its substructure that is in turn resting on the shaking ground, thus protecting a building or non-building structure's integrity.

<span class="mw-page-title-main">National Center for Research on Earthquake Engineering</span> Research center in Daan, Taipei, Taiwan

National Center for Research on Earthquake Engineering is an organisation in Da'an District, Taipei, Taiwan.

Ground–structure interaction (SSI) consists of the interaction between soil (ground) and a structure built upon it. It is primarily an exchange of mutual stress, whereby the movement of the ground-structure system is influenced by both the type of ground and the type of structure. This is especially applicable to areas of seismic activity. Various combinations of soil and structure can either amplify or diminish movement and subsequent damage. A building on stiff ground rather than deformable ground will tend to suffer greater damage. A second interaction effect, tied to mechanical properties of soil, is the sinking of foundations, worsened by a seismic event. This phenomenon is called soil liquefaction.

<span class="mw-page-title-main">Soft story building</span> Type of structure

A soft story building is a multi-story building in which one or more floors have windows, wide doors, large unobstructed commercial spaces, or other openings in places where a shear wall would normally be required for stability as a matter of earthquake engineering design. A typical soft story building is an apartment building of three or more stories located over a ground level with large openings, such as a parking garage or series of retail businesses with large windows.

An unreinforced masonry building is a type of building where load bearing walls, non-load bearing walls or other structures, such as chimneys, are made of brick, cinderblock, tiles, adobe or other masonry material that is not braced by reinforcing material, such as rebar in a concrete or cinderblock. The term is used in earthquake engineering as a classification of certain structures for earthquake safety purposes, and is subject to minor variation from place to place.

<span class="mw-page-title-main">Earthquake-resistant structures</span> Structures designed to protect buildings from earthquakes

Earthquake-resistant or aseismic structures are designed to protect buildings to some or greater extent from earthquakes. While no structure can be entirely impervious to earthquake damage, the goal of earthquake engineering is to erect structures that fare better during seismic activity than their conventional counterparts. According to building codes, earthquake-resistant structures are intended to withstand the largest earthquake of a certain probability that is likely to occur at their location. This means the loss of life should be minimized by preventing collapse of the buildings for rare earthquakes while the loss of the functionality should be limited for more frequent ones.

<span class="mw-page-title-main">Earthquake Engineering Research Institute</span>

The Earthquake Engineering Research Institute (EERI) is a leading technical society in dissemination of earthquake risk and earthquake engineering research both in the U.S. and globally. EERI members include researchers, geologists, geotechnical engineers, educators, government officials, and building code regulators. Their mission, as stated in their 5-year plan published in 2006, has three points: "Advancing the science and practice of earthquake engineering; Improving understanding of the impact of earthquakes on the physical, social, economic, political, and cultural environment; and Advocating comprehensive and realistic measures for reducing the harmful effects of earthquakes".

Miyamoto International is a global structural engineering and disaster management firm best known for its work in California earthquake design for new and existing buildings as well as in the reconstruction of Port-au-Prince, Haiti and Christchurch, New Zealand following earthquakes in 2010 and 2011. Based in West Sacramento, California, the company has 25 offices in 12 countries worldwide.

<span class="mw-page-title-main">Nigel Priestley</span> New Zealand earthquake engineer

Michael John Nigel Priestley was a New Zealand earthquake engineer. He made significant contributions to the design and retrofit of concrete structures, and developed the first displacement-based method of seismic design.

<span class="mw-page-title-main">Medhat Haroun</span> Egyptian-American expert on earthquake engineering

Medhat Haroun was an Egyptian-American expert on earthquake engineering. He wrote more than 300 technical papers and received the Charles Martin Duke Lifeline Earthquake Engineering Award (2006) and the Walter Huber Civil Engineering Research Prize (1992) from the American Society of Civil Engineers.

Andrew Stuart Whittaker is an American structural engineer who is currently a SUNY Distinguished Professor in the Department of Civil, Structural and Environmental Engineering at the University at Buffalo, State University of New York.

Jack Moehle is the Ed and Diane Wilson Presidential Professor of Structural Engineering at the University of California, Berkeley.

References

  1. 1 2 3 Emblin, Richard (August 14, 2017). "Miyamoto: Making Bogotá seismically more secure". The City Paper Bogotá.
  2. 1 2 van der Meer, Ben (December 5, 2014). "H. Kit Miyamoto: Quake expert picks up the pieces". Sacramento Business Journal.
  3. Lin, Rong-Gong (October 4, 2017). "In this Mexican town broken by an earthquake, hope rises". Los Angeles Times .
  4. Staff (July 17, 2017). "Miyamoto brings its earthquake expertise to seismic Colombia". The City Paper Bogotá.
  5. Ashbrook, Tom (April 19, 2016). "Preparing For The Next Deadly Earthquake". www.wbur.org.
  6. Berardi, Erica (October 29, 2020). "Kit Miyamoto Is Named Chair of California's Seismic Safety Commission". Engineering News-Record .
  7. "Appointed Commissioners & Staff | Seismic Safety Commission" . Retrieved June 6, 2024.
  8. Fountain, Henry (March 25, 2011). "Extent of Damage to Japan's Infrastructure Still Unclear". The New York Times .
  9. Pardo, Daniela (June 4, 2018). "How prepared is Sacramento to receive evacuees after a natural disaster?". American Broadcasting Company 10.
  10. Reitman, Janet (August 4, 2011). "Beyond Relief: How the World Failed Haiti". Rolling Stone .
  11. Kurczy, Stephen (November 4, 2010). "Haiti's tent cities to bear worst of potential hurricane Tomas". Christian Science Monitor .
  12. Staff (November 30, 2015). "Miyamoto stresses on technology, change and modification". The Himalayan Times .
  13. Florido, Adrian (January 17, 2020). "Earthquake-Stricken Puerto Ricans Seek Engineers To Inspect The Safety Of Their Homes". WFAE .
  14. Malkin, Elisabeth (October 5, 2017). "In Mexico City, Pressure to Prepare for the Next Big Earthquake (Published 2017)". The New York Times .
  15. Carothers, Luke (October 27, 2020). "Dr. Kit Miyamoto Elected as a Chair of California Seismic Safety Commission". Civil + Structural Engineer magazine.
  16. (PDF) Seismic Retrofit of a Landmark Structure Using a Mass Damper: (PDF) Seismic Retrofit of a Landmark Structure Using a Mass Damper, accessdate: March 2, 2022
  17. lawa.org/news-releases/2010/news-release-33: lawa.org/news-releases/2010/news-release-33, accessdate: March 2, 2022
  18. "Award of Excellence Winner Kit Miyamoto Travels the Globe to Help Countries Rebuild From Disaster | Engineering News-Record". www.enr.com. Retrieved June 18, 2024.
  19. www.bizjournals.com https://www.bizjournals.com/sacramento/news/2022/01/28/kit-miyamoto-most-admired-ceo-2022-intro.html . Retrieved June 18, 2024.{{cite web}}: Missing or empty |title= (help)
  20. "American Society of Civil Engineers - Sacramento Section - Photo Gallery". asce-sacto.org. Retrieved June 20, 2024.
  21. "Kit Miyamoto wins AIA Honor Award - Civil + Structural Engineer magazine". https://csengineermag.com/ . Retrieved June 20, 2024.{{cite web}}: External link in |website= (help)
  22. Mike Alvarez (February 3, 2012). Sacramento Asian Pacific Chamber of Commerce 2012 Installation & Awards Banquet Highlights . Retrieved June 18, 2024 via YouTube.
  23. Miyamoto, Kit H.; Sechi, Giulia Jole; Victor, Guilaine; St Come, Beverly; Broughton, Mark; Gilani, Amir S. J. (April 17, 2023), Haiti Earthquake 2021: Findings from the Repair and Damage Assessment of 179,800 Buildings (SSRN Scholarly Paper), Rochester, NY, doi:10.2139/ssrn.4421106, SSRN   4421106 , retrieved June 6, 2024{{citation}}: CS1 maint: location missing publisher (link)
  24. Gilani, Amir & Miyamoto, H. Kit & Nifuku, Tsutomu. (2018). Seismic Risk Assessment and Retrofit of School Buildings in Developing Countries.
  25. Gilani, Amir & Miyamoto, H. Kit. (2018). Seismic Collapse Probability of Structures with Viscous Dampers per Asce 7-16: Effect of Large Earthquakes .
  26. Miyamoto, H. Kit & Gilani, Amir. (2018). Damage Assessment and Seismic Retrofit of Heritage and Modern Buildings in the Aftermath of 2015 Nepal Earthquake .
  27. Gilani, Amir & Miyamoto, H. Kit. (2018). Design of Structures with Dampers per ASCE 7-16 and Performance for Large Earthquakes. 1-10. 10.1061/9780784481325.001.
  28. Miyamoto, H. Kit & Gilani, Amir. (2016). Cost-Effective Seismic Isolation Retrofit of Heritage Cathedrals in Haiti . 288-298. 10.1061/9780784479742.024.
  29. Keller, N. & Miyamoto, K. (2013). Transparente Global Earthquake Risk and Loss Estimation.
  30. CNN.com: Haiti trying to avoid past mistakes as rebuilding begins – CNN.com, accessdate: March 2, 2022
  31. Los Angeles Times: Heading inside a quake-damaged hospital in Mexico – Los Angeles Times, accessdate: March 2, 2022
  32. The New York Times: Japan’s Strict Codes and Drills Are Seen as Lifesavers – The New York Times, accessdate: March 2, 2022
  33. Rolling Stone: Beyond Relief: How the World Failed Haiti – Rolling Stone, accessdate: March 2, 2022
  34. Blog: Designing for Disaster – Blog, accessdate: March 2, 2022