Civil Engineering Committee Table of Content
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Grand Bauhinia Medal (GBM)
Appendix Grand Bauhinia Medal (GBM) The Honourable Chief Justice CHEUNG Kui-nung, Andrew Chief Justice CHEUNG is awarded GBM in recognition of his dedicated and distinguished public service to the Judiciary and the Hong Kong community, as well as his tremendous contribution to upholding the rule of law. With his outstanding ability, leadership and experience in the operation of the judicial system, he has made significant contribution to leading the Judiciary to move with the times, adjudicating cases in accordance with the law, safeguarding the interests of the Hong Kong community, and maintaining efficient operation of courts and tribunals at all levels. He has also made exemplary efforts in commanding public confidence in the judicial system of Hong Kong. The Honourable CHENG Yeuk-wah, Teresa, GBS, SC, JP Ms CHENG is awarded GBM in recognition of her dedicated and distinguished public service to the Government and the Hong Kong community, particularly in her capacity as the Secretary for Justice since 2018. With her outstanding ability and strong commitment to Hong Kong’s legal profession, Ms CHENG has led the Department of Justice in performing its various functions and provided comprehensive legal advice to the Chief Executive and the Government. She has also made significant contribution to upholding the rule of law, ensuring a fair and effective administration of justice and protecting public interest, as well as promoting the development of Hong Kong as a centre of arbitration services worldwide and consolidating Hong Kong's status as an international legal hub for dispute resolution services. The Honourable CHOW Chung-kong, GBS, JP Over the years, Mr CHOW has served the community with a distinguished record of public service. -
Tunnel from Wikipedia, the Free Encyclopedia This Article Is About Underground Passages
Tunnel From Wikipedia, the free encyclopedia This article is about underground passages. For other uses, see Tunnel (disambiguation). "Underpass" redirects here. For the John Foxx song, see Underpass (song). Entrance to a road tunnel inGuanajuato, Mexico. Utility tunnel for heating pipes between Rigshospitalet and Amagerværket in Copenhagen,Denmark Tunnel on the Taipei Metro inTaiwan Southern portal of the 421 m long (1,381 ft) Chirk canal tunnel A tunnel is an underground or underwater passageway, dug through the surrounding soil/earth/rock and enclosed except for entrance and exit, commonly at each end. A pipeline is not a tunnel, though some recent tunnels have used immersed tube construction techniques rather than traditional tunnel boring methods. A tunnel may be for foot or vehicular road traffic, for rail traffic, or for a canal. The central portions of a rapid transit network are usually in tunnel. Some tunnels are aqueducts to supply water for consumption or for hydroelectric stations or are sewers. Utility tunnels are used for routing steam, chilled water, electrical power or telecommunication cables, as well as connecting buildings for convenient passage of people and equipment. Secret tunnels are built for military purposes, or by civilians for smuggling of weapons, contraband, or people. Special tunnels, such aswildlife crossings, are built to allow wildlife to cross human-made barriers safely. Contents [hide] 1 Terminology 2 History o 2.1 Clay-kicking 3 Geotechnical investigation and design o 3.1 Choice of tunnels vs. -
Hong Kong Country Overview
HONG KONG COUNTRY OVERVIEW INTRODUCTION Electric, eclectic, energizing, nonstop, traditional, cosmopolitan, international; there are so many words to describe Hong Kong, one simply has to visit to experience it all. Hong Kong was a British colony from the mid-19th century until 1997 when China resumed sovereignty. The city now operates as a Special Administrative Region (SAR) under China’s ‘one country – two rule system.’ A haven for consumerists, Hong Kong offers some of the best shopping anywhere in the world. The infrastructure is modern and developed which makes getting around easy. On top of that, because of the city’s long history with the western world, English is spoken everywhere making Hong Kong a relatively easy destination to visit compared to other parts of China. 2 ABOUT HONG KONG LANDSCAPE Hong Kong is located at the delta of the Pearl River on China’s Southeast coast. The city is made up of Hong Kong island, and several areas on the mainland peninsula known as Kowloon and the New Territories. In total, the land area is over 1100 km2. CLIMATE Hong Kong enjoys a humid subtropical climate with hot, humid summers and relatively mild winters. It is most likely to rain during the summer months (June, July, August) and this is, therefore, the low travel season. The most popular seasons to visit are Spring with mild temperatures and only occasional rain and autumn which is usually sunny and dry. PEOPLE There are approximately 7.3 million people living in Hong Kong, 95% of whom are of Chinese descent (Mainly Canton people). -
List of Recognized Villages Under the New Territories Small House Policy
LIST OF RECOGNIZED VILLAGES UNDER THE NEW TERRITORIES SMALL HOUSE POLICY Islands North Sai Kung Sha Tin Tuen Mun Tai Po Tsuen Wan Kwai Tsing Yuen Long Village Improvement Section Lands Department September 2009 Edition 1 RECOGNIZED VILLAGES IN ISLANDS DISTRICT Village Name District 1 KO LONG LAMMA NORTH 2 LO TIK WAN LAMMA NORTH 3 PAK KOK KAU TSUEN LAMMA NORTH 4 PAK KOK SAN TSUEN LAMMA NORTH 5 SHA PO LAMMA NORTH 6 TAI PENG LAMMA NORTH 7 TAI WAN KAU TSUEN LAMMA NORTH 8 TAI WAN SAN TSUEN LAMMA NORTH 9 TAI YUEN LAMMA NORTH 10 WANG LONG LAMMA NORTH 11 YUNG SHUE LONG LAMMA NORTH 12 YUNG SHUE WAN LAMMA NORTH 13 LO SO SHING LAMMA SOUTH 14 LUK CHAU LAMMA SOUTH 15 MO TAT LAMMA SOUTH 16 MO TAT WAN LAMMA SOUTH 17 PO TOI LAMMA SOUTH 18 SOK KWU WAN LAMMA SOUTH 19 TUNG O LAMMA SOUTH 20 YUNG SHUE HA LAMMA SOUTH 21 CHUNG HAU MUI WO 2 22 LUK TEI TONG MUI WO 23 MAN KOK TSUI MUI WO 24 MANG TONG MUI WO 25 MUI WO KAU TSUEN MUI WO 26 NGAU KWU LONG MUI WO 27 PAK MONG MUI WO 28 PAK NGAN HEUNG MUI WO 29 TAI HO MUI WO 30 TAI TEI TONG MUI WO 31 TUNG WAN TAU MUI WO 32 WONG FUNG TIN MUI WO 33 CHEUNG SHA LOWER VILLAGE SOUTH LANTAU 34 CHEUNG SHA UPPER VILLAGE SOUTH LANTAU 35 HAM TIN SOUTH LANTAU 36 LO UK SOUTH LANTAU 37 MONG TUNG WAN SOUTH LANTAU 38 PUI O KAU TSUEN (LO WAI) SOUTH LANTAU 39 PUI O SAN TSUEN (SAN WAI) SOUTH LANTAU 40 SHAN SHEK WAN SOUTH LANTAU 41 SHAP LONG SOUTH LANTAU 42 SHUI HAU SOUTH LANTAU 43 SIU A CHAU SOUTH LANTAU 44 TAI A CHAU SOUTH LANTAU 3 45 TAI LONG SOUTH LANTAU 46 TONG FUK SOUTH LANTAU 47 FAN LAU TAI O 48 KEUNG SHAN, LOWER TAI O 49 KEUNG SHAN, -
PWSC(2002-03)20 on 8 May 2002
For discussion PWSC(2002-03)20 on 8 May 2002 ITEM FOR PUBLIC WORKS SUBCOMMITTEE OF FINANCE COMMITTEE HEAD 705 – CIVIL ENGINEERING Civil Engineering – Land Development 660CL – Site formation, construction of associated infrastructure and provision of government, institution and community facilities for an international theme park on Lantau Island Members are invited to recommend to Finance Committee – (a) the upgrading of part of 660CL, entitled “Infrastructure for Penny’s Bay Development, Package 3 and Penny’s Bay Reclamation Stage 2”, to Category A at an estimated cost of $2,375.9 million in money-of-the-day prices; and (b) the retention of the remainder of 660CL in Category B. PROBLEM We need to provide the necessary infrastructure and government, institution and community (GIC) facilities to support the development of Hong Kong Disneyland (HKD) Phase 1 at Penny’s Bay on Lantau Island. We also need to provide land for the future development of HKD Phase 2. /PROPOSAL ..... PWSC(2002-03)20 Page 2 PROPOSAL 2. The Director of Civil Engineering (DCE), with the support of the Secretary for Economic Services, proposes to upgrade part of 660CL to Category A at an estimated cost of $2,375.9 million in money-of-the-day (MOD) prices for the construction of infrastructure and GIC facilities to serve HKD Phase 1 and the reclamation works for the future development of HKD Phase 2. PROJECT SCOPE AND NATURE 3. The scope of the part of 660CL which we now propose to upgrade to Category A comprises - (a) construction of a section of Road P2 about 1.8 kilometres -
Legislative Council
立法會 Legislative Council LC Paper No. CB(4)1409/16-17(04) Ref. : CB4/PL/TP Panel on Transport Meeting on 21 July 2017 Background brief on replacement of traffic control and surveillance system in Tsing Ma Control Area Purpose This paper provides background information on the replacement of the traffic control and surveillance system ("TCSS") in Tsing Ma Control Area ("TMCA"). It also summarizes the major discussions by Legislative Council ("LegCo") Members on financial proposals on the replacement of TCSSs in TMCA and other tunnels in the past. Background Tsing Ma Control Area 2. TMCA, opened for public use in May 1997, covers a key section of the highway route to North-West Lantau, Ma Wan and the Hong Kong International Airport at Chek Lap Kok. It comprises a 21-kilometre expressway network including Tsing Kwai Highway, Cheung Tsing Tunnel, Cheung Tsing Highway, Northwest Tsing Yi Interchange, Ting Kau Bridge, Tsing Yi North Coastal Road, Lantau Link, Ma Wan Road and North Lantau Highway (up to Sunny Bay Interchange). The Government enacted the Tsing Ma Control Area Ordinance (Cap. 498) to provide for the control and regulation of vehicular and pedestrian traffic within TMCA and related matters. As with other Government tunnels and control areas, the Administration has selected through open tender an operator to undertake the management, operation and maintenance of the tunnel and control area.1 3. At present, the Lantau Link provides the only vehicular access to Lantau, Chek Lap Kok and Ma Wan. According to the Administration in May 2016, Lantau Link is used by 84 000 vehicles daily on average. -
Numerical Study on the Longitudinal Response Characteristics of Utility Tunnel Under Strong Earthquake: a Case Study
Hindawi Advances in Civil Engineering Volume 2020, Article ID 8813303, 12 pages https://doi.org/10.1155/2020/8813303 Research Article Numerical Study on the Longitudinal Response Characteristics of Utility Tunnel under Strong Earthquake: A Case Study Guoyi Tang,1 Yumei Fang,1 Yi Zhong,2 Jie Yuan ,3 Bin Ruan,2 Yi Fang,3 and Qi Wu4 1 e 1st Geological Brigade of Jiangsu Geology and Mineral Exploration Bureau, Nanjing 210009, China 2School of Civil Engineering and Mechanics, Huazhong University of Science and Technology, Wuhan 430074, China 3Institute of Crustal Dynamics, China Earthquake Administration, Beijing 100085, China 4Institute of Geotechnical Engineering, Nanjing Tech University, Nanjing 210009, China Correspondence should be addressed to Jie Yuan; [email protected] Received 24 May 2020; Revised 23 July 2020; Accepted 31 July 2020; Published 20 August 2020 Academic Editor: Peixin Shi Copyright © 2020 Guoyi Tang et al. +is is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited. In this paper, the longitudinal seismic response characteristics of utility tunnel subjected to strong earthquake was investigated based on a practical utility tunnel project and numerical method. Firstly, the generalized response displacement method (GRDM) that was used to conduct this study was reviewed briefly. Secondly, the information of the referenced engineering and the finite element model was introduced in detail, where a novel method to model the joints between utility tunnel segments was presented. +irdly, a series of seismic response of the utility tunnel were provided, including inner force and intersegment opening width. -
Replacement of Traffic Control and Surveillance System in the Tsing Ma Control Area”
For discussion FCR(2017-18)59 on 2 February 2018 ITEM FOR FINANCE COMMITTEE CAPITAL WORKS RESERVE FUND HEAD 708 – CAPITAL SUBVENTIONS AND MAJOR SYSTEMS AND EQUIPMENT Transport Department New Subhead “Replacement of Traffic Control and Surveillance System in the Tsing Ma Control Area” Members are invited to approve a new commitment of $298,910,000 for the replacement of traffic control and surveillance system in the Tsing Ma Control Area. PROBLEM The Transport Department (TD) needs to replace the traffic control and surveillance system (TCSS) in the Tsing Ma Control Area (TMCA) to maintain the safe, reliable and efficient operation of the control area. PROPOSAL 2. The Commissioner for Transport, on the advice of the Director of Electrical and Mechanical Services, proposes to replace the TCSS in TMCA at an estimated cost of $298,910,000. The Secretary for Transport and Housing supports the proposal. /JUSTIFICATION ….. FCR(2017-18)59 Page 2 JUSTIFICATION 3. The TCSS in TMCA1 is for ensuring the safe and effective operation of the control area. The existing TCSS commenced operation when TMCA was commissioned in 1997, and has already been in use for more than 20 years. According to the Electrical and Mechanical Services Trading Fund (EMSTF), it is increasingly difficult and not cost effective to carry out repairs for the TCSS. For example, the existing multimode optical fibre cables2 in the system can only provide limited bandwidth. The telecommunication industry has long been replaced them by single-mode optical fibre cables. Other relevant equipment such as prismatic variable message signs, closed circuit television (CCTV) system and emergency telephone system are also beyond their economical serviceable life. -
Funds for Disabled Students Misused
- PAR N DAILY 9; Nu 64 Published for San lose State University since 1934 Wednesday, December 4, 1991 Funds for disabled students misused By Nicholas D. Smith campuses) allocated," said Kurt needed services, according to Sjoberg. Schutter said that it can take two There are 770 disabled students in Sjoberg said he had visited four of Daily staff svnter Sjoberg, acting state auditor general. Upon hearing about the review, months or longer to get disability test- the department currently, Schutter the 20 CSU campuses to determine the The use of the money by the cam- CSU officials said that CSU would ing at SJSU. said. Last year there were 689, and extent of the needs. More than half a million dollars puses was found to be inappropriate follow the review's recommended At another campus, despite a direc- 526 two years ago. "There were unmet needs at all the destined for California State because the needs of the CSU's 8,000 action to initiate a better monitoring tive from the CSU not to cut funding, The number of people who read for locations we visited," he said. Sjoberg University disabled student services disabled students were not satisfied system, according Boyd Home, CSU the budget for disabled students was disabled students has been cut to a did not visit SJSU. was spent inappropriately on other before using the money on other assistant vice chancellor of manage- reduced by S50,000. minimum, Tamer said. He also said he While federal and state law states items, according to a government audit things. -
Growth Momentum
MTR Corporation Limited Annual Report 2010 Report Annual Limited Corporation MTR ANNUAL REPORT 2010 GROWTH MOMENTUM MTR Corporation Limited MTR Headquarters Building, Telford Plaza Kowloon Bay, Kowloon, Hong Kong GPO Box 9916, Hong Kong Telephone : (852) 2993 2111 Facsimile : (852) 2798 8822 www.mtr.com.hk Stock Code: 66 GROWTH MOMENTUM In 2010, the Company has ridden the economic recovery to post a strong set of results, with increases in revenue and profit. Looking ahead, our growth momentum continues, with our five major expansion projects in Hong Kong on track, and further progress in our growing portfolio of businesses in the Mainland of China and overseas. As a builder and operator of infrastructure assets, we try to ensure that our expansion plans benefit present and future generations, and our aim is to become a global leader in sustainable transportation. CONTENTS 2 MTR Corporation in Numbers – 2010 4 Hong Kong Operating Network with Future Extensions 6 MTR Corporation at a Glance 22 8 Chairman’s Letter Hong Kong Passenger 12 CEO’s Review of Operations Services and Outlook 19 Key Figures 20 Key Events in 2010 22 Executive Management’s Report 22 – Hong Kong Passenger Services 36 36 – Station Commercial and Station Commercial Rail Related Businesses and Rail Related 42 – Property and Other Businesses Businesses 54 – Hong Kong Network Expansion 60 – Mainland and Overseas Growth 66 – Human Resources 42 71 Financial Review Property 78 Ten-Year Statistics and Other Businesses 80 Investor Relations 82 Sustainability 83 Corporate Responsibility -
Seismic Response Characteristics of Shallow-Buried Utility Tunnel Systems 1,2 3 2 4 2 A.P
th The 14 World Conference on Earthquake Engineering October 12-17, 2008, Beijing, China SEISMIC RESPONSE CHARACTERISTICS OF SHALLOW-BURIED UTILITY TUNNEL SYSTEMS 1,2 3 2 4 2 A.P. Tang , R.C.Feng , X.Y. Zhou , L.F.Wang and W.M.Yan 1 Professor, School. of Civil Engineering , Harbin Institute of Technology, Harbin, China 2 Professor, College of Architecture and Civil Engineering, Beijing University of Technology , Beijing, China 3 Assistant Engineering, China Communication Group Bridge Technology (CCGBT), Beijing, China 4 PHD student, School. of Civil Engineering , Harbin Institute of Technology, Harbin. China Email:[email protected] ABSTRACT : Utility tunnel(UT) is an integration system containing many sub-lifeline systems like water transmitting, power, telecommunication, gas-supply system, etc, so, UT is key factor to sustain the healthy development of society and economy. To improve its anti-seismic capacity, the paper studies the performance characteristics of utility tunnel system under seismic loads based on a shaking-table experiment. Herein, two models of two-span UT with rectangular section are set up, one is used to simulate the main utility tunnel, and the other is for branch utility tunnel. Three kinds of pipeline are installed in UT to model the water-supply system, cable and power-line system respectively. This research is used to identify and explore seismic performance of utility tunnel body and its inner pipeline. Anti-seismic performance of pipeline abutment and joints based on passive control device is also experimented to check their capacity of resisting earthquake damage. The experiment is done on the 3m X 3 m shaking-table; three selected seismic records are input. -
Utility Tunnels – Proven Sustainability Above and Below Ground Axel Laistner, Hermann Laistner (Dipl.-Ing
Utility Tunnels – Proven Sustainability Above and Below Ground Axel Laistner, Hermann Laistner (Dipl.-Ing. Dr. techn. Axel Laistner, axel laistner consulting UG(hb), Rosenstr. 6 – 73466 Lauchheim, [email protected]) (Dipl.-Ing(FH) Dipl.-Ing.(FH) Hermann Laistner, Hardtsteige 29 – 73466 Lauchheim) 1 ABSTRACT Utility tunnels have been elements of urban supply systems for almost two centuries now. However, their use and implementation is still less determined by urban planning and urban needs – and more by the qualities, preconceptions and determination of the urban managers in question. During the 1990s in the course of the German reunification process the fluidity of the urban management situation created opportunities for new approaches to this old technology. In conjunction with landmark urban development projects on the path to urben sustainability, utility tunnels were used as one of the many instruments and approaches to achieve sustainable developments. Now – almost 20 years later we can look at these developments and the utility tunnels and have a first discussion on their sustainability success. At present a new relevance developes in regard of this technology. The current urban development schemes in China, India and many other places of the world are of such scale, that questions of doing it right while doing it timely are of prime significance. At the same time, we are facing a situation, in which – within the coming 40 years – the whole energy supply and distribution system of the world – including China and India – will need to be 100% restructured and reworked. We need a whole new quality of system flexibility and reaction capacity in urban engineering to achieve the path to urban sustainability.