Recently Published
Lateral Reservoir Drainage in Some Indonesia\u0027s Sedimentary Basins and Its Implication to Hydrodynamic Trapping Image
Journal article

Lateral Reservoir Drainage in Some Indonesia's Sedimentary Basins and Its Implication to Hydrodynamic Trapping

Audio\u002DMagnetotelluric Modeling of Cimandiri Fault Zone at Cibeber, Cianjur Image
Journal article

Audio-Magnetotelluric Modeling of Cimandiri Fault Zone at Cibeber, Cianjur

Seismic Anisotropy Analysis Beneath Sumatra Revealed by Shear\u002DWave Splitting Image
Journal article

Seismic Anisotropy Analysis Beneath Sumatra Revealed by Shear-Wave Splitting

Lateral Reservoir Drainage in Some Indonesia\u0027s Sedimentary Basins and Its Implication to Hydrodynamic Trapping Image
Lateral Reservoir Drainage in Some Indonesia\u0027s Sedimentary Basins and Its Implication to Hydrodynamic Trapping Image
Journal article

Lateral Reservoir Drainage in Some Indonesia's Sedimentary Basins and Its Implication to Hydrodynamic Trapping

Audio\u002DMagnetotelluric Modeling of Cimandiri Fault Zone at Cibeber, Cianjur Image
Audio\u002DMagnetotelluric Modeling of Cimandiri Fault Zone at Cibeber, Cianjur Image
Journal article

Audio-Magnetotelluric Modeling of Cimandiri Fault Zone at Cibeber, Cianjur

Seismic Anisotropy Analysis Beneath Sumatra Revealed by Shear\u002DWave Splitting Image
Seismic Anisotropy Analysis Beneath Sumatra Revealed by Shear\u002DWave Splitting Image
Journal article

Seismic Anisotropy Analysis Beneath Sumatra Revealed by Shear-Wave Splitting

Most Viewed
Menelusuri Kebenaran Letusan Gunung Merapi 1006 Image
Journal article

Menelusuri Kebenaran Letusan Gunung Merapi 1006

Http://dx.doi.org/10.17014/ijog.vol1no4.20064Until now, the large eruption of Merapi in 1006 is believed to take place although the truth is still debatable. Previous investigation proposed that the ”pralaya” of the Ancient Mataram Kingdom in 928 Saka (1006) was due to a volcanic activity. Bemmelen also inferred that impact of the eruption had destroyed and covered the Mendut and Borobudur Temples and dammed the Progo River. However, if the “pralaya” was caused by Merapi eruption, why the deposit that correlates to the the eruption is not recognized. If so, the eruption that covered the temples should have been very large, and left deposits around Merapi and of course easy to find. Historically, the “pralaya“ mentioned in the Pucangan Inscription did not happen in 1006, but in 1016 or 1017. However the “pralaya“ was caused by the attack of King Wurawari, not by the Merapi eruption. According to the history of Merapi eruptions, 11 large eruptions have occurred since 3000 years ago. However, none of those fi t with 1006 eruption. Except the large eruption (VEI 3-4), that produced Selo tephra, dated 1112 ± 73 years BP (765-911).
Klasifikasi Gunung Api Aktif Indonesia, Studi Kasus Dari Beberapa Letusan Gunung Api Dalam Sejarah Image
Journal article

Klasifikasi Gunung Api Aktif Indonesia, Studi Kasus Dari Beberapa Letusan Gunung Api Dalam Sejarah

Http://dx.doi.org/10.17014/ijog.vol1no4.20065Indonesia is well known as a volcanic country, where more than 30% out of all the world volcanoes occupied this region. Volcanic region is generally densely populated, because of their soil fertility and other land use. Based on their historical eruptions noted since and before 1600 A.D., the Indonesian active volcanoes are regrouped in to A type (79 volcanoes), which were defi ned as volcanoes erupted since 1600 A.D., B type (29 volcanoes) erupted before 1600 A.D., and C type (21 volcanoes) are solfatar fi elds (Bemmelen, 1949; van Padang 1951; Kusumadinata, 1979). Studies on parts of the Indonesian active volcanoes, show different eruptive characters, which are generally related to hazard potentials. A new classifi cation of Indonesian active volcanoes was proposed based on the combination of their physical properties, morphology, volcanic structure and eruptive styles to the eight differents types, those are Tambora (caldera formation), Merapi (lava dome), Agung (open crater), Papandayan (sector failure), Batur (post-caldera activities), Sangeangapi (lava fl ows) and Anak Krakatau types (volcano islands and submarine volcano). This classification would be make a better understanding to different characteristics of Indonesian active volcanoes, for the volcanic hazard and mitigation and also for the applied volcanological researches.
Suggested For You
Atoll Reef Geomorphology of Sagori Island, SE Sulawesi: a Reconnaissance Study Image
Journal article

Atoll Reef Geomorphology of Sagori Island, SE Sulawesi: a Reconnaissance Study

The Sagori Atoll of the Kabaena Island, SE Sulawesi is one of Indonesia's remote tropical reefs and such has received little attention from reef researchers. Non of early scientific expeditions reported either geomorphology or ecology of the Sagori Atoll in detail. This study is the first investigation of the reef geomorphology and associated habitats of Sagori Atoll within a biodiversity of “Coral reef Triangle Initiative - CTI” region, using data from satellite imagery and on ground observation. The Sagori Atoll environment consists of reef-island, atoll rim, and lagoon in which six habitats are associated, including: sand cay, coralgal pavement, sand sheet (intertidal and subtidal), sand-hardground striation, and outer atoll rim and lagoon (shallow and deep). The reef-island is built from sediments that are entirely calcareous, resting on a platform of lithified coral conglomerate. The atoll rim is dominated by coralgal pavement consisting mainly of both encrusting and living coralline algae. The lagoon which is a semi-enclosed pool and opens to the eastern side, consists of sand and scattered corals. The atoll formation is considered to be of nonvolcanic origin, but is rising from the depth of due to anticlinal island subsidence.
Vulkanisme Kompleks Gunung Patiayam Di Kecamatan Jekulo, Kabupaten Kudus, Provinsi Jawa Tengah Image
Journal article

Vulkanisme Kompleks Gunung Patiayam Di Kecamatan Jekulo, Kabupaten Kudus, Provinsi Jawa Tengah

Characteristics of Paleotsunami Sediments, a Case Study in Cilacap and Pangandaran Coastal Areas, Jawa, Indonesia Image
Journal article

Characteristics of Paleotsunami Sediments, a Case Study in Cilacap and Pangandaran Coastal Areas, Jawa, Indonesia

Vulkanisme Kompleks Gunung Patiayam Di Kecamatan Jekulo, Kabupaten Kudus, Provinsi Jawa Tengah Image
Vulkanisme Kompleks Gunung Patiayam Di Kecamatan Jekulo, Kabupaten Kudus, Provinsi Jawa Tengah Image
Journal article

Vulkanisme Kompleks Gunung Patiayam Di Kecamatan Jekulo, Kabupaten Kudus, Provinsi Jawa Tengah

Characteristics of Paleotsunami Sediments, a Case Study in Cilacap and Pangandaran Coastal Areas, Jawa, Indonesia Image
Characteristics of Paleotsunami Sediments, a Case Study in Cilacap and Pangandaran Coastal Areas, Jawa, Indonesia Image
Journal article

Characteristics of Paleotsunami Sediments, a Case Study in Cilacap and Pangandaran Coastal Areas, Jawa, Indonesia

Journal article

An Overview on the Possibility of Scandium and REE Occurrence in Sulawesi, Indonesia

An Overview on the Possibility of Scandium and REE Occurrence in Sulawesi, Indonesia Image
Journal article

Supergene Enriched, Intrusion Related Low Suphidation Deposit, Binebase-Bawone, North Sulawesi, Indonesia

Supergene Enriched, Intrusion Related Low Suphidation Deposit, Binebase\u002DBawone, North Sulawesi, Indonesia Image
Journal article

Gumuk Gunung Api Purba Bawah Laut Di Tawangsari - Jomboran, Sukoharjo - Wonogiri, Jawa Tengah

Gumuk Gunung Api Purba Bawah Laut Di Tawangsari \u002D Jomboran, Sukoharjo \u002D Wonogiri, Jawa Tengah Image
Read more articles