Cancer Profile in West Jakarta
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1 Urban Risk Assessment Jakarta, Indonesia Map City
CITY SNAPSHOT URBAN RISK ASSESSMENT (From Global City Indicators) JAKARTA, INDONESIA Total City Population in yr: 9.6 million in 2010 MAP Population Growth (% annual): 2.6% Land Area (Km2): 651 Km2 Population density (per Km2): 14,465 Country's per capita GDP (US$): $2329 % of country's pop: 4% Total number of households (based on registered Kartu Keluarga): 2,325,973 Administrative map of Jakarta1 Dwelling density (per Km2): N.A. CITY PROFILE GRDP (US$) 10,222 Jakarta is located on the north coast of the island of Java in the Indonesian archipelago in Southeast Asia. It is the country’s largest city and the political and economic hub of % of Country's GDP: 20% Indonesia. The city’s built environment is characterized physically by numerous skyscrapers, concentrated in the central business district but also built ad hoc throughout the city, especially in the past 20 years. The rest of Jakarta generally comprises low‐lying, Total Budget (US$) $3.1 Billion densely populated neighborhoods, which are highly diverse in terms of income levels and uses, and many of these neighborhoods are home to varied informal economic activities. The population of Jakarta is considered wealthy relative to neighboring provinces and Date of last Urban Master Plan: 2010 1 Source: DKI Jakarta 1 other islands, and indeed its Gross Domestic Product (GDP) per capita is more than four times the national average. Jakarta is located in a deltaic plain crisscrossed by 13 natural rivers and more than 1,400 kilometers of man‐ made waterways. About 40% of the city, mainly the area furthest north near the Java Sea, is below sea level. -
Situation Update Response to COVID-19 in Indonesia As of 18 January 2021
Situation Update Response to COVID-19 in Indonesia As of 18 January 2021 As of 18 January, the Indonesian Government has announced 917,015 confirmed cases of COVID-19 in all 34 provinces in Indonesia, with 144,798 active cases, 26,282 deaths, and 745,935 people that have recovered from the illness. The government has also reported 77,579 suspected cases. The number of confirmed daily positive cases of COVID-19 in Indonesia reached a new high during four consecutive days on 13-16 January since the first positive coronavirus case was announced by the Government in early March 2020. Total daily numbers were 11,278 confirmed cases on 13 January, 11,557 cases on 14 January, 12,818 cases on 15 January, and 14,224 cases on 16 January. The Indonesian Ulema Council (MUI) has declared the COVID-19 Vaccine by Sinovac as halal. The declaration was stipulated in a fatwa that was issued on 8 January. On 11 January, the Food and Drug Administration (BPOM) issued the emergency use authorization for the vaccine. Following these two decisions, the COVID-19 vaccination program in Indonesia began on 13 January, with the President of the Republic of Indonesia being first to be vaccinated. To control the increase in the number of cases of COVID-19, the Government has imposed restrictions on community activities from January 11 to 25. The restrictions are carried out for areas in Java and Bali that meet predetermined parameters, namely rates of deaths, recovered cases, active cases and hospitals occupancy. The regions are determined by the governors in seven provinces: 1. -
Only Yesterday in Jakarta: Property Boom and Consumptive Trends in the Late New Order Metropolitan City
Southeast Asian Studies, Vol. 38, No.4, March 2001 Only Yesterday in Jakarta: Property Boom and Consumptive Trends in the Late New Order Metropolitan City ARAI Kenichiro* Abstract The development of the property industry in and around Jakarta during the last decade was really conspicuous. Various skyscrapers, shopping malls, luxurious housing estates, condominiums, hotels and golf courses have significantly changed both the outlook and the spatial order of the metropolitan area. Behind the development was the government's policy of deregulation, which encouraged the active involvement of the private sector in urban development. The change was accompanied by various consumptive trends such as the golf and cafe boom, shopping in gor geous shopping centers, and so on. The dominant values of ruling elites became extremely con sumptive, and this had a pervasive influence on general society. In line with this change, the emergence of a middle class attracted the attention of many observers. The salient feature of this new "middle class" was their consumptive lifestyle that parallels that of middle class as in developed countries. Thus it was the various new consumer goods and services mentioned above, and the new places of consumption that made their presence visible. After widespread land speculation and enormous oversupply of property products, the property boom turned to bust, leaving massive non-performing loans. Although the boom was not sustainable and it largely alienated urban lower strata, the boom and resulting bust represented one of the most dynamic aspect of the late New Order Indonesian society. I Introduction In 1998, Indonesia's "New Order" ended. -
Inclusive Development of Urban Water Services in Jakarta: the Role of Groundwater
Habitat International xxx (2016) 1e10 Contents lists available at ScienceDirect Habitat International journal homepage: www.elsevier.com/locate/habitatint Inclusive development of urban water services in Jakarta: The role of groundwater * Michelle Kooy a, b, , Carolin Tina Walter c, Indrawan Prabaharyaka d a UNESCO-IHE Institute for Water Education, Westvest 7, 2611 AX, Delft, The Netherlands b Department of Geography, Planning, and International Development, University of Amsterdam, Nieuwe Achtergracht 166, 1018 WV, Amsterdam, The Netherlands c Department of Geography, Planning, and International Development, University of Amsterdam, Nieuwe Achtergracht 166, 1018 WV, Amsterdam, The Netherlands d Munich Center for Technology in Society, Technische Universitat€ München, Arcisstraße 21, 80333 München, Germany article info abstract Article history: This paper applies the perspective of inclusive development to the development goals e past and present Received 9 August 2016 e for increasing access to urban water supply. We do so in order to call attention to the importance of Received in revised form ecological sustainability in meeting targets related to equity of access in cities of the global south. We 16 September 2016 argue that in cities where the majority of urban water circulates outside a formally operated centralized Accepted 18 October 2016 piped systems, inequities in access are grounded in conditions of deep ecological vulnerability. We Available online xxx examine this relationship between environment and equity of access in -
Reconnaissance Study Of
NO. RECONNAISSANCE STUDY OF THE INSTITUTIONAL REVITALIZATION PROJECT FOR MANAGEMENT OF FLOOD, EROSION AND INNER WATER CONTROL IN JABOTABEK WATERSHED FINAL REPORT JANUARY 2006 JAPAN INTERNATIONAL COOPERATION AGENCY YACHIYO ENGINEERING CO., LTD GE JR 05-060 RECONNAISSANCE STUDY OF THE INSTITUTIONAL REVITALIZATION PROJECT FOR MANAGEMENT OF FLOOD, EROSION AND INNER WATER CONTROL IN JABOTABEK WATERSHED FINAL REPORT JANUARY 2006 JAPAN INTERNATIONAL COOPERATION AGENCY YACHIYO ENGINEERING CO., LTD RECONNAISSANCE STUDY OF THE INSTITUTIONAL REVITALIZATION PROJECT FOR MANAGEMENT OF FLOOD, EROSION AND INNER WATER CONTROL IN JABOTABEK WATERSHED FINAL REPORT TABLE OF CONTENTS 1. INTRODUCTION .............................................................. 1 1.1 BACKGROUND ................................................................ 1 1.2 OBJECTIVES....................................................................... 1 1.3 STUDY AREA..................................................................... 2 2. PRESENT CONDITIONS................................................. 3 2.1 SOCIO-ECONOMIC CONDITIONS.................................. 3 2.1.1 Administration........................................................ 3 2.1.2 Population and Households.................................... 6 2.2 NATURAL CONDITIONS.................................................. 7 2.2.1 Topography and Geology ....................................... 7 2.2.2 Climate ................................................................... 7 2.2.3 River Systems........................................................ -
Air Quality Monitoring
AIR QUALITY MONITORING DEVELOPING AN AIR QUALITY MONITORING PROGRAM SETTING THE OBJECTIVES Air quality monitoring is an important component of an effective air quality management system carried out to have a better understanding of the status of air quality in a certain location (ADB & Clean Air Asia, 2014). The design and purpose of an air quality monitoring activity will determine: size and sophistication of the monitoring network (including equipment); location and number of sampling stations; duration and frequency of sampling; and, most importantly, the financial and manpower resources needed to operate and sustain the network (Clean Air Asia, 2016). IDENTIFYING PARAMETERS FOR MONITORING Pollutants for which standards or guideline values have been established are prioritized in monitoring. However, it is ideal to conduct a study to screen the pollutants that are relevant to the area (Schwela, 2010). DKI Jakarta Air Quality Monitoring Sites (as of May 2015) Pollutants Ave Operation Station Location Station Type Sampling Frequency Monitored Days (per year) DKI 1 Bundaran HI, Central Jakarta 30 minutes 356 days DKI 2 Kelapa Gading, North Jakarta 30 minutes 356 days DKI 3 Jagakarsa, South Jakarta 30 minutes 356 days Continuous, PM10, CO, O3, Museum Lubang Buaya, East DKI 4 fixed SO2, NO2, Met 30 minutes 356 days Jakarta Perumahan Kebon Jeruk, DKI 5 30 minutes 356 days West Jakarta PM10, CO, O3, JMS BPLHD Office/ mobile Mobile SO2, NO2 JIEP Pt. Jiep, East Jakarta 24hrs/every 14 days 24 days Ciracas Ciracas, East Jakarta 24hrs/every 14 -
Indonesia 12
©Lonely Planet Publications Pty Ltd Indonesia Sumatra Kalimantan p509 p606 Sulawesi Maluku p659 p420 Papua p464 Java p58 Nusa Tenggara p320 Bali p212 David Eimer, Paul Harding, Ashley Harrell, Trent Holden, Mark Johanson, MaSovaida Morgan, Jenny Walker, Ray Bartlett, Loren Bell, Jade Bremner, Stuart Butler, Sofia Levin, Virginia Maxwell PLAN YOUR TRIP ON THE ROAD Welcome to Indonesia . 6 JAVA . 58 Malang . 184 Indonesia Map . 8 Jakarta . 62 Around Malang . 189 Purwodadi . 190 Indonesia’s Top 20 . 10 Thousand Islands . 85 West Java . 86 Gunung Arjuna-Lalijiwo Need to Know . 20 Reserve . 190 Banten . 86 Gunung Penanggungan . 191 First Time Indonesia . 22 Merak . 88 Batu . 191 What’s New . 24 Carita . 88 South-Coast Beaches . 192 Labuan . 89 If You Like . 25 Blitar . 193 Ujung Kulon Month by Month . 27 National Park . 89 Panataran . 193 Pacitan . 194 Itineraries . 30 Bogor . 91 Around Bogor . 95 Watu Karang . 195 Outdoor Adventures . 36 Cimaja . 96 Probolinggo . 195 Travel with Children . 52 Cibodas . 97 Gunung Bromo & Bromo-Tengger-Semeru Regions at a Glance . 55 Gede Pangrango National Park . 197 National Park . 97 Bondowoso . 201 Cianjur . 98 Ijen Plateau . 201 Bandung . 99 VANY BRANDS/SHUTTERSTOCK © BRANDS/SHUTTERSTOCK VANY Kalibaru . 204 North of Bandung . 105 Jember . 205 Ciwidey & Around . 105 Meru Betiri Bandung to National Park . 205 Pangandaran . 107 Alas Purwo Pangandaran . 108 National Park . 206 Around Pangandaran . 113 Banyuwangi . 209 Central Java . 115 Baluran National Park . 210 Wonosobo . 117 Dieng Plateau . 118 BALI . 212 Borobudur . 120 BARONG DANCE (P275), Kuta & Southwest BALI Yogyakarta . 124 Beaches . 222 South Coast . 142 Kuta & Legian . 222 Kaliurang & Kaliadem . 144 Seminyak . -
Characteristic of Rainfall in the Flood Period in DKI Jakarta in 1996, 2002, and 2007
MATEC Web of Conferences 229, 02012 (2018) https://doi.org/10.1051/matecconf/201822902012 ICDM 2018 Characteristic of rainfall in the flood period in DKI Jakarta in 1996, 2002, and 2007 Mangapul Parlindungan Tambunan1,* 1Department of Geography, University of Indonesia, Depok, 16424, Indonesia Abstract. Spatial and temporal studies of rain characteristics were carried out in DKI Jakarta. This study aims to: assess the rain characteristic as the cause of flood in DKI Jakarta. Flood is studied from geography using a spatial approach. The data collection of the physical condition of the landform is obtained through interpretation of Topographic Map, Geological Map, and RBI Map. Data on flood areas (area, depth, and length) were obtained from survey and flood incident data obtained from Kimpraswil (PU) of DKI Jakarta, and West Java, rain data obtained from BMKG. The analysis of spreading and spatial distribution is done spatially and temporally using Geographic Information System (GIS) tools, while rain analysis is done descriptively on a scale of 1: 50,000. The results of the research suggest that there are differences and similarities of rainy anomalies in the prone areas of flooding in DKI Jakarta. 1 Introduction From the perspective of fluvial geomorphology in the mainland of DKI Jakarta, interesting to be studied is Natural factors of flooding are high-intensity rainfall and spatial and temporal distributed flood areas. Distribution not balanced with good water absorption. Naturally, the of areas targeted by floods can be approached with units rain will absorb into the soil and then tied up by the roots of landform. The spatial approach of the flooded area in of the trees and flowed again through the flow of water the form of land can be used to understand the flood like a river that ultimately empties into the ocean. -
Floods in North Sumatera, West Java, Bengkulu and DKI Jakarta Provinces
Information bulletin Indonesia: Floods in North Sumatera, West Java, Bengkulu and DKI Jakarta provinces Glide n° FL-2019-000182-IDN Date of issue: 2 January 2020 Date of disaster: 28 December 2019 – now Point of contact: Arifin M. Hadi, PMI Head of Disaster Management Heather Fehr, IFRC Disaster Risk Management Delegate Operation start date: 28 December 2019 Category of disaster: Yellow Host National Society: Indonesian Red Cross (Palang Merah Indonesia) Number of people affected: approximately Number of people to be assisted: TBC (assessment is 10,000,000 affected, 31,232 IDP and 16 deaths ongoing) This bulletin is issued for information only and reflects the current situation and details available at this time. The Indonesian Red Cross – Palang Merah Indonesia (PMI), with the support of the International Federation of Red Cross and Red Crescent Societies (IFRC), are continuing to monitor and respond to the situation with local and national resources. If required, additional financial resources will be sought via the relevant IFRC international disaster response mechanism. The situation Torrential rainfall from Tuesday, 31 December 2019, until Wednesday, 1 January 2020 morning triggered floods in Jakarta (all five municipalities: North, West, East, Central and South), West Java (districts of West Bandung, Karawang, Bogor, Bekasi and Bekasi City) and Banten Province (district of Lebak, South Tangerang, and Tangerang City). The Indonesian National Board for Disaster Management, locally known as Badan Nasional Penanggulangan Bencana (BNPB), reported that the flooding spots has reached 268, while in Jakarta alone 158 flooding spots are identified. The most affected area in Jakarta is East Jakarta with 65 flood spots. -
Land Subsidence of Jakarta Metropolitan Area
Land Subsidence of Jakarta Metropolitan Area Rochman DJAJA, Jacub RAIS, Hasanuddin Z ABIDIN and Kuntjoro WEDYANTO, Indonesia Key words: spatial planning, land subsidence, groundwater SUMMARY Land subsidence is one of vertical deformation of the earth’s crust as a consequence of crustal dynamics. Land subsidence changes the vertical position (height/elevation) of the ground control points as reference points for all engineering works, and which also influence the structure of all infrastructures and other related activities in the area. The GPS land subsidence monitoring network was established in Jakarta metropolitan area and the observations were held in December 1997, June 1999, June 2000, June 2001 and October 2001 respectively. The rate of land subsidence at each location of GPS monitoring points shown the average variations from 7.5 cm to 32.8 cm within four years period. This means that the land subsidence is influenced by the characteristic of local area where the points are located. The heights obtained by GPS satellite observation periodically has been used to figure out the trend of land subsidence and shown the largest rate of 84 mm/year at Pantai Indah Kapuk (North Jakarta). Moreover, comparing the land subsidence trend and the groundwater level trend at the wells located close to GPS monitoring points, a positive correlation between the two phenomena is shown. This can be concluded that the land subsidence is also influenced by groundwater extraction. Considering the land subsidence effect, the investigation of land subsidence in Jakarta metropolitan area and other cities is essential in support of spatial planning at present as well as in the future and of monitoring the established physical facilities. -
From Waste Management to Circular Economy in Indonesian Context
From Waste Management to Circular Economy in Indonesian context Moderator: Martin van Nieuwenhoven Jakarta, October 26, 2018 HOLLAND CIRCULAR HOTSPOT Dutch circular solutions for global challenges Companies CIRCULAR PRODUCTS AND SERVICES Knowledge Institutes EXCHANGE KNOWLEDGE AND INNOVATION Government GOVERNMENT2GOVERNMENT COLLABORATION SHARING INNOVATION PROGRAMME • 09:45 - 09:50 Introductory remarks • Mr. Roald Lapperre, Vice Minister of the Dutch Ministry of Infrastructure and Water Management • 09:50 - 10:00 Waste management in Indonesian context • Mr. Novrizal Tahar, Director Waste Management, Ministry of Environment and forestry • 10:00 - 10:10 Findings of the Danish Jakarta study • Mr. Per Rasmussen, Natl Programme Adviser Danida Environmental Support Programme, phase 3 (ESP3) • 10:10 - 10:25 Inspiring ideas for Indonesia: European examples for Integrated Solid Waste Management • Mr. Herman Huisman, senior advisor international cooperation • 10:25 - 10:40 Inspiring ideas for Indonesia: Experiences from global cooperation projects • Mr. Herman Huisman, • 10:40 - 11:10 Panel: how to make it actionable and scale-up • Mr. Novrisan, Director Management of Waste and Dangerous Substances in Indonesia • Mrs. Retno Hapsari, Director of XS Project • Mrs. Wilda Yanti, Director of PT Xaviera Global Synergy • 11.10 – 11.15 Wrap-up by • Mr. Herman Huisman SHARING INNOVATION SPEAKERS SHARING INNOVATION REPUBLIC OF INDONESIA MINISTRY OF ENVIRONMENT AND FORESTRY SOLID WASTE MANAGEMENT IN INDONESIA NOVRIZAL TAHAR DIRECTOR OF SOLID WASTE MANAGEMENT -
Cadastral Systems in Jakarta: Building the Spirit of the Road to a Spatial Data Infrastructure
Cadastral Systems in Jakarta: Building the Spirit of the Road to a Spatial Data Infrastructure M Tony S HAROEN, Embun SARI, Kalvin SEMBIRING, BUDIYONO and Ketut Ari SUCAYA, Indonesia Key words: SDI, cadastre, BPN, LOC SUMMARY The Spirit of the road towards the development of an SDI (Spatial Data Infrastructure) is now under construction, performed by cadastral systems in Land Offices all over the city of Jakarta, through the exercise of the Land Office Computerization (LOC) Project. The exercise deals with efforts to strengthen institutional arrangements for good governance; to reform law and regulation frameworks for sustainable development; to develop technical standards and specifications of cadastral systems for future SDI; to enhance human resources development for mastering challenges. It is hoped that the paper achieves its objectives of presenting a wide range of experiences from the West Jakarta and Central Jakarta Land Offices, the two locations of pilot project, to make a contribution for the development of an SDI in the years ahead. The implementation of an IT in modernizing cadastral systems like in the case of the LOC project requires many resources. In this manner, the brain ware of the project is the Hamburger model, which builds the spirit of the road towards the development of modern cadastral systems and at the same time the basis for further development of an SDI. The benefits of the LOC project are numerous ranging from institutional up to human being. The completeness datasets sustain the decision making process and the request by the courts in a case of land disputes. The level of self-confidence of the staff members lifts up as their skill and knowledge increase.