Rising Trends in Tall Building Design: Environmental Sustainability Through Renewable Energy Technologies
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Case Study: Pearl River Tower, Guangzhou, China
ctbuh.org/papers Title: Case Study: Pearl River Tower, Guangzhou, China Authors: Roger Frechette, Director of Sustainable Engineering, Skidmore, Owings & Merrill Russell Gilchrist, Director of Technical Architecture, Skidmore, Owings & Merrill Subjects: Architectural/Design Building Case Study Sustainability/Green/Energy Keywords: Embodied Energy Energy Consumption Façade Sustainability Publication Date: 2008 Original Publication: CTBUH 2008 8th World Congress, Dubai Paper Type: 1. Book chapter/Part chapter 2. Journal paper 3. Conference proceeding 4. Unpublished conference paper 5. Magazine article 6. Unpublished © Council on Tall Buildings and Urban Habitat / Roger Frechette; Russell Gilchrist ‘Towards Zero Energy’ A Case Study of the Pearl River Tower, Guangzhou, China Roger E. Frechette III, PE, LEED-AP1 and Russell Gilchrist, RIBA2 1Director of Sustainable Engineering, 2Director of Technical Architecture, Skidmore, Owings & Merrill, LLP, Chicago, IL, USA Abstract Architects and engineers have a significant responsibility to ensure that the design and execution of all new construction projects be of the ‘lightest touch’ in both energy consumption, real and embodied, to ensure the longevity of the precious natural resources remain on this planet. The goal to achieve ‘carbon neutrality’ is quite possibly the single most important issue facing architects and engineers today, given the empirical evidence that construction projects far outstrip both industry and transportation as the largest contributors to carbon emissions in the world. This paper will attempt to both define what is meant by ‘carbon neutral’ in the context of building design as well as using the case study to demonstrate how such an approach might be achieved it examines the challenges of achieving a net zero energy building, both from an energy consumption perspective as well as the embodied energy of the construction. -
SOM/CHICAGO Sustainability Review
SOM/CHICAGO Sustainability Review RECENT & UPCOMING ProJects | Issue 1 SKIDMORE, OWINGS & MERRILL LLP 224 SOUTH MICHIG AN AVENUE CHICAGO, ILLINOIS 60 60 4 Sustainable_brochure_v2_12.indd 1 10/24/07 4:12:09 PM SOM/CHICAGO SUSTAINABILITY REVIEW | IssUE 1 For additional information, please contact: SOM/CHICAGO Skidmore, Owings & Merrill LLP 224 South Michigan Avenue Suite 1000 Sustainability Review Chicago, Illinois 60604 T: +1 (312) 554 9090 F: +1 (312) 360 4554 E: [email protected] www.som.com PUBLISHED BY Skidmore, Owings & Merrill LLP Copyright © 2007 by Skidmore, Owings & Merrill LLP All rights reserved. No part of this publication may be reproduced, stored in a retrieval system or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording or otherwise, without the “Civilizations leave marks on the earth by which written permission of Skidmore, Owings & Merrill LLP. they are known and judged. In large measure the Printed on 100% post-consumer paper, Processed Chlorine Free (PCF), FSC Recycled nature of their immortality is gauged by how well and manufactured using biogas energy. their builders made peace with the environment.” Nathaniel Owings T H E Am E R I C A N A E S THETI C ( 1 9 6 9 ) SOM/Chicago Sustainable History 1958 1979 1981 1986 1997 2002 Warren Petroleum Banco de Occidente King Abdulaziz International The Terraces at Apollo Office Building Millennium Park Master Plan Headquarters Guatemala City, Guatemala Airport - Haj Terminal Perimeter Center Amsterdam, The Netherlands Chicago, Illinois, USA Tulsa, Oklahoma, USA Jeddah, Saudi Arabia Atlanta, Georgia, USA Local materials such as The five-story Apollo Office The Millennium Park Master To provide protection from stucco, mahogany and Using indigenous archetypes The 11-story twin atrium office Building is located in the Plan completes Daniel Tulsa’s extreme sun conditions, volcanic stone pavers, and and case studies, SOM buildings were designed with historic center of Amsterdam. -
Technical Considerations for Akhmat Tower
ctbuh.org/papers Title: Technical Considerations for Akhmat Tower Authors: Alejandro Stochetti, Director, Adrian Smith + Gordon Gill Architecture Sara Beardsley, Senior Architect, Adrian Smith + Gordon Gill Architecture John Peronto, Vice President, Thornton Tomasetti Marc Cerone, Director, Adrian Smith + Gordon Gill Architecture Subjects: Architectural/Design Façade Design Seismic Structural Engineering Keywords: BIM Façade Seismic Structural Engineering Publication Date: 2018 Original Publication: CTBUH Journal, 2018 Issue II Paper Type: 1. Book chapter/Part chapter 2. Journal paper 3. Conference proceeding 4. Unpublished conference paper 5. Magazine article 6. Unpublished © Council on Tall Buildings and Urban Habitat / Alejandro Stochetti; Sara Beardsley; John Peronto; Marc Cerone Architecture/Design Technical Considerations for Akhmat Tower Abstract The 435-meter Akhmat Tower in Grozny, Chechnya, Russia, will be shaped to refer to the Nakh tower, a traditional watchtower typology in the region. A four-sided, pyramidal shape interacts gracefully with an eight-sided geometry at the base. The mixed program, complex geometry, and high seismic and wind conditions of the region demand a sophisticated design response, particularly in terms of the façade Alejandro Stochetti Marc Cerone and the structural engineering, in order to achieve a coherent, crystalline form. Keywords: Structural Engineering, BIM, Façades, Seismic Design Design Concept ground plan, formed by two intersecting squares, also has a strong cultural reference In 2014, Adrian Smith + Gordon Gill to traditional geometric patterns found in Architecture (AS+GG) was commissioned to the region (see Figure 2). design a signature tower in Grozny, Sara Beardsley John Peronto Chechnya, a Republic of Russia located in the North Caucasus region, near the Caspian Sea. -
The Design of Akhmat Tower
E3S Web of Conferences 33, 01022 (2018) https://doi.org/10.1051/e3sconf/20183301022 HRC 2017 The Design of Akhmat Tower Sara Beardsley1, Alejandro Stochetti1, and Marc Cerone1 1Adrian Smith + Gordon Gill Architecture, 111 West Monroe, Suite 2300, Chicago, Illinois 60603, USA Abstract. Akhmat Tower is a 435m supertall building designed by Adrian Smith + Gordon Gill Architecture. It is currently under construction in the city of Grozny, in the Chechen Republic, in the North Caucasus region of Russia. The design of the tower was done during a collaborative process by a multi-disciplinary architectural and engineering team, based primarily in the United States and Russia. During this process, the designers considered many factors including, most primarily, the cultural and historical context, the structural requirements given the high seismicity of the region, and the client’s programmatic needs. The resulting crystalline-shaped tower is both an aesthetic statement and a performative architectural solution which will be a new landmark for Chechnya. “The Design of Akhmat Tower” describes in detail the design process including structural considerations, exterior wall design, building program, interior design, the tuned mass damper, and the use of building information modeling. 1 Introduction In 2014, Adrian Smith + Gordon Gill Architecture (AS+GG) was commissioned to design a signature tower adjacent to the Suzha river in Grozny, Chechnya - a Republic of Russia located in the north Caucasus region near the Caspian Sea. This tower is to be a new icon specifically for the region – and is named after the first President of Chechen Republic, Akh- mat Haji Kadyrov [1]. The design was done by a team of over one hundred people, based primarily in the United States and Russia, and utilized expertise from architects and engineers with vast experience in super-tall building design. -
China Megastructures: Learning by Experience
AC 2009-131: CHINA MEGASTRUCTURES: LEARNING BY EXPERIENCE Richard Balling, Brigham Young University Page 14.320.1 Page © American Society for Engineering Education, 2009 CHINA MEGA-STRUCTURES: LEARNING BY EXPERIENCE Abstract A study abroad program for senior and graduate civil engineering students is described. The program provides an opportunity for students to learn by experience. The program includes a two-week trip to China to study mega-structures such as skyscrapers, bridges, and complexes (stadiums, airports, etc). The program objectives and the methods for achieving those objectives are described. The relationships between the program objectives and the college educational emphases and the ABET outcomes are also presented. Student comments are included from the first offering of the program in 2008. Introduction This paper summarizes the development of a study abroad program to China where civil engineering students learn by experience. Consider some of the benefits of learning by experience. Experiential learning increases retention, creates passion, and develops perspective. Some things can only be learned by experience. Once, while the author was lecturing his teenage son for a foolish misdeed, his son interrupted him with a surprisingly profound statement, "Dad, leave me alone....sometimes you just got to be young and stupid before you can be old and wise". As parents, it's difficult to patiently let our children learn by experience. The author traveled to China for the first time in 2007. He was blindsided by the rapid pace of change in that country, and by the remarkable new mega-structures. More than half of the world's tallest skyscrapers, longest bridges, and biggest complexes (stadiums, airports, etc) are in China, and most of these have been constructed in the past decade. -
List of World's Tallest Buildings in the World
Height Height Rank Building City Country Floors Built (m) (ft) 1 Burj Khalifa Dubai UAE 828 m 2,717 ft 163 2010 2 Shanghai Tower Shanghai China 632 m 2,073 ft 121 2014 Saudi 3 Makkah Royal Clock Tower Hotel Mecca 601 m 1,971 ft 120 2012 Arabia 4 One World Trade Center New York City USA 541.3 m 1,776 ft 104 2013 5 Taipei 101 Taipei Taiwan 509 m 1,670 ft 101 2004 6 Shanghai World Financial Center Shanghai China 492 m 1,614 ft 101 2008 7 International Commerce Centre Hong Kong Hong Kong 484 m 1,588 ft 118 2010 8 Petronas Tower 1 Kuala Lumpur Malaysia 452 m 1,483 ft 88 1998 8 Petronas Tower 2 Kuala Lumpur Malaysia 452 m 1,483 ft 88 1998 10 Zifeng Tower Nanjing China 450 m 1,476 ft 89 2010 11 Willis Tower (Formerly Sears Tower) Chicago USA 442 m 1,450 ft 108 1973 12 Kingkey 100 Shenzhen China 442 m 1,449 ft 100 2011 13 Guangzhou International Finance Center Guangzhou China 440 m 1,440 ft 103 2010 14 Dream Dubai Marina Dubai UAE 432 m 1,417 ft 101 2014 15 Trump International Hotel and Tower Chicago USA 423 m 1,389 ft 98 2009 16 Jin Mao Tower Shanghai China 421 m 1,380 ft 88 1999 17 Princess Tower Dubai UAE 414 m 1,358 ft 101 2012 18 Al Hamra Firdous Tower Kuwait City Kuwait 413 m 1,354 ft 77 2011 19 2 International Finance Centre Hong Kong Hong Kong 412 m 1,352 ft 88 2003 20 23 Marina Dubai UAE 395 m 1,296 ft 89 2012 21 CITIC Plaza Guangzhou China 391 m 1,283 ft 80 1997 22 Shun Hing Square Shenzhen China 384 m 1,260 ft 69 1996 23 Central Market Project Abu Dhabi UAE 381 m 1,251 ft 88 2012 24 Empire State Building New York City USA 381 m 1,250 -
Thomas Kerwin Thomas Kerwin Biography
THOMAS KERWIN THOMAS KERWIN BIOGRAPHY Before founding bKL Architecture, Thomas Kerwin was a Partner at Skidmore, Owings & Merrill (SOM) in Chicago, where he began his architecture career in 1986. At SOM, Kerwin developed a special expertise in the management of highly complex, large-scale urban projects across the globe. He lived and worked in Manila, Philippines, during the mid-1990s. Kerwin has BIOGRAPHY participated in the design and construction of significant commercial and civic buildings around the world over the past two decades, including the Greenland Financial Center in Nanjing, China; Pearl River Tower in Guangzhou, China; White Magnolia Plaza and Chongming Island Master Plan in Shanghai, China; Rockwell Center in Manila, Philippines; and the Broadgate Development Exchange House in London, England. These projects have led to numerous awards and worldwide recognition in the industry. Along with more than two decades of international experience, Kerwin is committed to civic endeavors and projects in the Midwest and at home in Chicago. Kerwin’s tireless efforts as a member of the Chicago 2016 Committee and as the Managing Partner of SOM’s Olympic team have earned him universal praise from the architectural community, city government, and business and civic leaders. His concern for the well being of urban and regional communities can be seen in his determination to positively shape their future. Kerwin is a Fellow of the American Institute of Architects (AIA) and a past President of AIA Chicago. He is on the Board of Directors of the Chicago Sports Commission. He is an active member of The Commercial Club of Chicago, The Economic Club of Chicago, Chicago Sister Cities International, The Chicago Council on Global Affairs, Urban Land Institute and Executives Club of Chicago. -
Tall Buildings Tall Building Projects Worldwide
Tall buildings Safe, comfortable and sustainable solutions for skyscrapers ©China Resources Shenzhen Bay Development Co., Ltd ©China Resources Tall building projects worldwide Drawing upon our diverse skillset, Arup has helped define the skylines of our cities and the quality of urban living and working environments. 20 2 6 13 9 1 7 8 16 5 11 19 3 15 10 17 4 12 18 14 2 No. Project name Location Height (m) 1 Raffles City Chongqing 350 ©Safdie Architect 2 Burj Al Alam Dubai 510 ©The Fortune Group/Nikken Sekkei 3 UOB Plaza Singapore 274 4 Kompleks Tan Abdul Razak Penang 232 5 Kerry Centre Tianjin 333 ©Skidmore Owings & Merrill 6 CRC Headquarters Shenzhen 525 ©China Resources Shenzhen Bay Development Co Ltd 7 Central Plaza Hong Kong 374 8 The Shard London 310 9 Two International Finance Centre Hong Kong 420 10 Shenzhen Stock Exchange Shenzhen 246 ©Marcel Lam Photography 11 Wheelock Square Shanghai 270 ©Kingkay Architectural Photography 12 Riviera TwinStar Square Shanghai 216 ©Kingkay Architectural Photography 13 China Zun (Z15) Beijing 528 ©Kohn Pederson Fox Associates PC 14 HSBC Main Building Hong Kong 180 ©Vanwork Photography 15 East Pacific Centre Shenzhen 300 ©Shenzhen East Pacific Real Estate Development Co Ltd 16 China World Tower Beijing 330 ©Skidmore, Owings & Merrill 17 Commerzbank Frankfurt 260 ©Ian Lambot 18 CCTV Headquarters Beijing 234 ©OMA/Ole Scheeren & Rem Koolhaas 19 Aspire Tower Doha 300 ©Midmac-Six Construct 20 Landmark Tower Yongsan 620 ©Renzo Piano Building Workshop 21 Northeast Asia Trade Tower New Songdo City 305 ©Kohn Pedersen Fox Associates PC 22 Guangzhou International Finance Centre Guangzhou 432 ©Wilkinson Eyre 23 Torre Reforma Mexico 244 ©L Benjamin Romano Architects 24 Chow Tai Fook Centre Guangzhou 530 ©Kohn Pederson Fox Associates PC 25 Forum 66 Shenyang 384 ©Kohn Pedersen Fox Associates PC 26 Canton Tower Guangzhou 600 ©Information Based Architecture 27 30 St. -
Vanity Height: the Empty Space in Today's Tallest
Tall Buildings in Numbers Vanity Height: the Empty Space in Today’s Tallest Vanity Height Non-occupiable Space 39% We noticed in Journal 2013 Issue I’s case study on Kingdom Tower, Jeddah, that a fair non-occupiable amount of the top of the building seemed to be an unoccupied spire. This prompted height us to explore the notion of “vanity height ” in supertall1 buildings, i.e., the distance Highest Occupied between a skyscraper’s highest occupiable fl oor and its architectural top, as Floor: 198 meters determined by CTBUH Height Criteria.2 Note: 1Historically there have been 74 completed supertalls (300+ m) in the world, including the now-demolished 61% One and Two World Trade Center in New York. occupiable 2 For more information on the CTBUH Height Criteria, visit http://criteria.ctbuh.org height Occupiable Space World’s Ten Tallest Vanity Heights (as of July 2013 data) Top Architectural to Height Below are the ten tallest “Vanity Heights” in today’s completed supertalls. Burj Al Arab With a vanity height of nearly 124 meters within its architectural height of 321 244 m | 29% meters, the Burj Al Arab has the highest non-occupiable * The highest occupied fl oor height as datum line. height ** The highest occupied fl oor height. non-occupiable-to-occupiable height ratio among completed supertalls. 39% of its height is non-occupiable. 133 m | 30% 200 m non-occupiable 131 m | 36% height non-occupiable 124 m | 39% height non-occupiable 113 m | 32% height non-occupiable 99 m | 31% height 150 m non-occupiable height 97 m | 31% 96 m | 29% non-occupiable -
Signature Redacted Department of Civil and Environmental Engineering May 21, 2015
TRENDS AND INNOVATIONS IN HIGH-RISE BUILDINGS OVER THE PAST DECADE ARCHIVES 1 by MASSACM I 1TT;r OF 1*KCHN0L0LGY Wenjia Gu JUL 02 2015 B.S. Civil Engineering University of Illinois at Urbana-Champaign, 2014 LIBRAR IES SUBMITTED TO THE DEPARTMENT OF CIVIL AND ENVIRONMENTAL ENGINEERING IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE DEGREE OF MASTER OF ENGINEERING IN CIVIL ENGINEERING AT THE MASSACHUSETTS INSTITUTE OF TECHNOLOGY JUNE 2015 C2015 Wenjia Gu. All rights reserved. The author hereby grants to MIT permission to reproduce and to distribute publicly paper and electronic copies of this thesis document in whole or in part in any medium now known of hereafter created. Signature of Author: Signature redacted Department of Civil and Environmental Engineering May 21, 2015 Certified by: Signature redacted ( Jerome Connor Professor of Civil and Environmental Engineering Thesis Supervisor Accepted bv: Signature redacted ?'Hei4 Nepf Donald and Martha Harleman Professor of Civil and Environmental Engineering Chair, Departmental Committee for Graduate Students TRENDS AND INNOVATIONS IN HIGH-RISE BUILDINGS OVER THE PAST DECADE by Wenjia Gu Submitted to the Department of Civil and Environmental Engineering on May 21, 2015 in Partial Fulfillment of the Degree Requirements for Master of Engineering in Civil and Environmental Engineering ABSTRACT Over the past decade, high-rise buildings in the world are both booming in quantity and expanding in height. One of the most important reasons driven the achievement is the continuously evolvement of structural systems. In this paper, previous classifications of structural systems are summarized and different types of structural systems are introduced. Besides the structural systems, innovations in other aspects of today's design of high-rise buildings including damping systems, construction techniques, elevator systems as well as sustainability are presented and discussed. -
University of Cincinnati
UNIVERSITY OF CINCINNATI Date:___________________ I, _________________________________________________________, hereby submit this work as part of the requirements for the degree of: in: It is entitled: This work and its defense approved by: Chair: _______________________________ _______________________________ _______________________________ _______________________________ _______________________________ Sustainable Skyscraper - Energy from Immediate Surrounding and Within A Thesis submitted to the Division of Research and Advanced Studies of the University of Cincinnati In partial fulfillment of requirements for the degree of MASTER OF ARCHITECTURE In the School of Architecture and Interior Design Of the College of Design, Architecture, Art, and Planning 2008 By Minnu Srinivasan Bachelors in Mechanical Engineering College of Engineering Trivandrum, India 1997 School of Architecture and Interior Design, DAAP Committee Chair: Professor Tom Bible Professor Elizabeth Riorden Professor Gerald Larson ii Abstract The early dwelling was a direct response to natural elements. As time elapsed, with technological advances and emergence of global culture, the gap between the relationships of nature with the human race widened. Can a large-scale building be designed that is evolved out of the relationship with the immediate environment and the environment within? Can it increase the awareness of the user about the relationship of the building and our actions on the environment to enable a paradigm shift in reacting in a more responsible manner? The exploration and pursuit for a sustainable skyscraper was a response to technology and social aspects in macro and micro scale. Since almost all of the evolution in nature takes place in the molecular level, an in depth analysis of incorporating nanotechnology need to be done. This thesis looks at how these three levels can be interrelated to work as a unified whole, can this incorporation help the building evolve and adapt to the changing requirement of users and the environment. -
Supertall Asia/Middle East: Technological Responses and Contextual Impacts
Buildings 2015, 5, 814-833; doi:10.3390/buildings5030814 OPEN ACCESS buildings ISSN 2075-5309 www.mdpi.com/journal/buildings/ Article Supertall Asia/Middle East: Technological Responses and Contextual Impacts Kyoung Sun Moon School of Architecture, Yale University, P.O. Box 208242, New Haven, CT 06520, USA; E-Mail: [email protected]; Tel: +1-203-436-8983; Fax: +1-203-432-7175 Academic Editor: Kheir Al-Kodmany Received: 3 June 2015 / Accepted: 24 July 2015 / Published: 31 July 2015 Abstract: Supported by rapid economic growth, major cities in Asia and the Middle East have been rising as new centers for tall buildings. This article reviews the state of tall building developments in Asian and Middle Eastern countries with an emphasis on supertall buildings, with their greater urban and global impacts. Focusing primarily on physical construction, this article examines technological responses for building tall in Asian and Middle Eastern contexts. The architectural transformation and globalization of what was once called the “American Building Type” in Asian and Middle Eastern countries is studied. Sustainable design technology transfer and adjustment in Asian and Middle Eastern climates are presented. Further, future prospects on supertall design in Asian and Middle Eastern contexts are discussed. Keywords: supertall buildings; tall building technology; sustainable design 1. Introduction Tall buildings emerged in the United States in the late nineteenth century as a way of using dense urban land more efficiently. Breakthrough technology made this new architectural phenomenon possible. Traditional load-bearing masonry wall structures, due to their great thickness, were seriously limited in their functionality for tall buildings.