Shaanxi Yanchang Petroleum Group Co.
Shaanxi Yanchang Petroleum Group Co.
News Article | May 17, 2017
In this brand new report you find 93 in-depth tables, charts and graphs all unavailable elsewhere. The 177 page report provides clear detailed insight into the global Small Scale LNG market. Discover the key drivers and challenges affecting the market. By ordering and reading our brand new report today you stay better informed and ready to act. 1) The report provides CAPEX forecasts and analyses for the small scale LNG market and the five main submarkets from 2017-2027: • Small Scale Regasification Forecast 2017-2027 • Small Scale Liquefaction Forecast 2017-2027 • LNG Bunkering Stations Forecast 2017-2027 • LNG Fuelling Stations Forecast 2017-2027 • LNG Satellite Stations Forecast 2017-2027 2) The report includes CAPEX forecasts and an analysis of the drivers and restraints of 6 key regional/national markets from 2017 to 2027, including submarket breakdowns for each: 3) The report provides insight into the level of development and existing small scale LNG infrastructure in every regional space 4) The analysis in the report is underpinned by our exclusive interview with leading expert. 5) The report concludes with the profiles of a selection of companies and technology providers operating in the market, and lists key companies involved within the respective small scale LNG submarkets. Who should read this report? • Who should read this report? • Anyone within the LNG industry • CEOs • COOs • Business development managers • Project and site managers • Suppliers • Investors • Contractors • Government agencies • Environmental Engineers/Technicians Visiongain's study is intended for anyone requiring commercial analyses for the Small Scale LNG market and leading companies. You find data, trends and predictions. Buy our report today Small Scale Liquefied Natural Gas (LNG) Market Forecast 2017-2027: Liquefaction, Regasification, Satellite Station, Bunkering & Fuelling Station and Small Scale LNG Plus Profiles of Top Companies. Avoid missing out by staying informed - get our report now. To request a report overview of this report please email Sara Peerun at firstname.lastname@example.org or call Tel: +44-(0)-20-7336-6100 Aarhus Havn Adpo AGA Gas AB Air Liquide Air Products and Chemicals Inc. (APCI) Albert Heijn Alpha Natural Resources Anhui Huaqiang Natural Gas Anthony Veder Apache APNG Barents NaturGass Bayernwerk AG Bechtel and Chart Energy & Chemicals BG Group Black & Veatch Blu LNG BOC Bomin Linde LNG BP Buffalo Marine Service Buquebus CCB - Gasnor CETS (CNOOC) Chart Industries, Inc. Cheniere Texas Chesapeake Energy Chevron China LNG Group Limited China National Petroleum Corporation (CNPC) Chinese Construction Bank (CCB) Chinese National Offshore Oil Corp (CNOOC) Chive Fuels Chuo Kaiun CH4 Energy Clean Energy Corp. CME Colony Energy Partners Conferenza GNL ConocoPhillips Conrad Shipyard Consol Energy Copenhagen Malmo Port COSCO Group Cryonorm BV Cryostar Group CSR Daiichi Dalian Inteh Group Danyang Dart Energy Deen Shipping DHL Bawtry DNV GL Donsotank / Jahre Marine AS Dresser Rand Dunkerque LNG DUON Elengy Enagas Encana Energigas Engie (GDF Suez) Eni ENN ENOSLNG Evergas Evol LNG Exmar ExxonMobil Fairbanks Natural Gas Fenosa Reganosa Ferus Finish Gas Association Fjord Line AS Flint Hills Resources Fluxys Fordonsgas Fortis BC Energy Fujian Energy Gas Natural GasEner SLR Gasnor Shell Gasrec Gasum Gasunie Gavle Hamn Gaz Métro LNG Gazprom GE-Energy GNF Golar LNG GoldEnergy GoldEnergy Commercializadora de Energia, S.A GoLNG INDONESIA Gyproc AS HAM Group Harvey Gulf Harvey Gulf International Marine Hawaiian Electric Company Herose Hess Corporation Hiroshima LNG Hogaki Zosen Hokkaido Gas Honeywell I.M. Skaugen InterStream Barging Itochu Jahre Marine Japan Exploration Co. Ltd (Japex) Japan Liquid Gas Jensen Maritime Jereh Group Jiangnan Shipyard Group JX Energy JX Nippon Oil & Energy Klapeidos Nafta Knutsen Kogas Kosan Crisplant Kunlun Energy Company Limited Linde Group Liquefied Natural Gas Limited Liqueline Lloyds Register LNG 24 LNG America LNG Europe B.V. LNG Hybrid LNG Silesia Manga LNG Marubeni MCGC MedoEnergi Meyer Werft GmbH Mitsui Monfort National Grid Naturgass New Times Energy New York City Department of Transportation Nihon Gas Ningbo Xinle Shipbuilding Group Noble Energy Norgas Carriers NYK Ohio Gas Company Okinawa EP Osaka Gas Oy AGA Ab Perbadanan/NYK Pertamina Perusahaan Gas Negara PetroChina Petronet PGNIG Plum Energy ONLG Polish Oil and Gas Co. Polski LNG Polski LNG - Polish Oil and Gas Co. Port of Antwerp - Exmar Portal Gas Group Preem Petroleum Corporation PT Perusahaan Listrik Negara Puget Sound Energy Reola Gaas Repsol Rolande LNG Rolls Royce Marine Royal Bodewes Royal Dutch Shell plc Saga Fjordbase Saibu Gas Sakaide LNG Salof Sendai Municipal Gas SGA: Swedish Gas Association Shaanxi Yanchang Petroleum Group Shell Shinwa Simon Loos Sinopec Skangas Skangass AS SOCAR South Korean Ministry of Trade Spectrum Spectrum LNG Stabilis Energy Statoil/AGA Stobart Group STX Offshore & Shipbuilding Swedegas Tenaska NG Fuels Tenaska NG Fuels - Waller Marine The Linde Group Toho Gas Tokyo Gas Total TOTE Travel Centers of America Tsurumi Sunmarine U.S. Maritime Administration United Shipbuilding Company Universal Shipbuilding Corporation Vanzetti Veka Deen LNG Veka Group Via Augusta Gas VICO Indonesia Vicuna Vopak Vopak - Gasunie Vos Logistics Waller Marine Wartsila Hamworthy Wuchang Shipbuilding Xilan Natural Gas Group To see a report overview please email Sara Peerun on email@example.com
Wang X.,Shaanxi Yanchang Petroleum Group Co.
Interpretation | Year: 2016
The Yanchang Formation in the Ordos Basin in North Central China represents a large, long-lived lacustrine system of the late Triassic Period. The extensive shales within this system provide hydrocarbons (HCs) for conventional and unconventional oil and gas reservoirs. In the formation, the Chang 7 shale is the thickest shale with the best geochemical parameters, and it is the main source rock in this area. In recent years, the discovery of shale gas in the Chang 7 shale has promoted the exploration and development of lacustrine shale gas in China. We have estimated the shale gas resource potential based on the analysis of the geologic conditions of the Chang 7 shale. The average thickness of the Chang 7 shale reaches 42.6 m, and the main organic matter types are types I1 and II2. The average content of organic carbon is more than 3%, and the average HC potential is 11.2∈∈mg/g. However, the thermal maturity of the Chang 7 shale is low with a vitrinite reflectance Ro ranging from 0.83% to 1.10%. The Chang 7 shale lithology consists of shale and sandy laminations or thin sandstones. The shale is characterized by high clay mineral content and poor porosity and permeability, with an average porosity of 1.8% and an average permeability of 0.163×10-3∈∈μm2. The sandy laminations or thin sandstones are characterized by relatively higher brittle mineral content, relatively lower clay mineral content, and higher porosity and permeability. The pores of the Chang 7 shale include primary intergranular and intragranular pores, secondary intragranular and intragranular dissolved pores, fracture pores, and organic-matter-hosted pores. The proportion of adsorbed gas, free gas, and dissolved gas is approximately 52%, 37%, and 11%, respectively, and the shale gas resources of the Chang 7 shale are 5318.27×108∈∈m3. © 2017 Society of Exploration Geophysicists and American Association of Petroleum Geologists.
Mu H.-F.,Shaanxi Yanchang Petroleum Group Co.
Xiandai Huagong/Modern Chemical Industry | Year: 2017
In this paper, the social stability risks of a large-scale coal chemical project in northern Shaanxi region are analyzed and studied. By means of various investigation and research methods, it is found that the main social stability risks in this region contain environmental pollution and water resources utilization of projects, and sustainable income of local residents etc. Some measures such as strictly executing discharge standards of wastes, using closed circulating water system and near zero emission of waste water technology (combining use of natural evaporation and mechanical evaporation is suggested), and increasing sustainable income of local residents by encouraging companies to hire local workers based on the social responsibility are suggested to defuse these main risks. © 2017, China National Chemical Information Center. All right reserved.
Song H.,Shaanxi Yanchang Petroleum Group Co.
Petroleum Processing and Petrochemicals | Year: 2017
The pH of the condensed acidic water of the shift gas from hydrogen plant was on the low side and not qualified after it was steam stripped, resulting waste water and corrosion of equipments. The trial test found that little effect was observed through adjusting steam consumption. The trouble is solved by revamping of the condensation process of the shift gas. After revamping, the pH of condensed water satisfies the quality requirement of the recycling water. A large amount of water is recycled and corrosion of equipment is avoided. The benefit of 2.774 4 million Yuan was produced in first year because the technical renovation cost is one-time investment. Since the second year after revamping, the economic benefits of 3.924 4 million Yuan/a can be obtained. © 2017, Research Institute of Petroleum Processing, SINOPEC. All rights reserved.
Xiao J.,CAS Dalian Institute of Chemical Physics |
Pan X.,CAS Dalian Institute of Chemical Physics |
Guo S.,CAS Dalian Institute of Chemical Physics |
Guo S.,Shaanxi Yanchang Petroleum Group Co. |
And 2 more authors.
Journal of the American Chemical Society | Year: 2015
An increasing number of experimental studies have demonstrated that metal or metal oxide nanoparticles confined inside carbon nanotubes (CNTs) exhibit different catalytic activities with respect to the same metals deposited on the CNT exterior walls, with some reactions enhanced and others hindered. In this article, we describe the concept of confinement energy, which enables prediction of confinement effects on catalytic activities in different reactions. Combining density functional theory calculations and experiments by taking typical transition metals such as Fe, FeCo, RhMn, and Ru as models, we observed stronger strains and deformations within the CNT channels due to different electronic structures and spatial confinement. This leads to downshifted d-band states, and consequently the adsorption of molecules such as CO, N2, and O2 is weakened. Thus, the confined space of CNTs provides essentially a unique microenvironment due to the electronic effects, which shifts the volcano curve of the catalytic activities toward the metals with higher binding energies. The extent of the shift depends on the specific metals and the CNT diameters. This concept generalizes the diverse effects observed in experiments for different reactions, and it is anticipated to be applicable to an even broader range of reactions other than redox of metal species, CO hydrogenation, ammonia synthesis and decomposition discussed here. © 2014 American Chemical Society.
Li J.,Shaanxi Yanchang Petroleum Group Co.
Xiandai Huagong/Modern Chemical Industry | Year: 2016
There is a serious abnormal phenomena (weak reaction) in 200 kt/a polypropylene unit of Yan'an petrochemical plant. The influencing factors, including catalyst, hydrogen source, propylene tail gas recovery system, deactivation system, propylene feedstock, and so on, are analyzed. It is confirmed that relatively higher content of water and CO in propylene feedstock is attributed to the weak reaction phenomena. By strengthening the regeneration of molecular sieve and adjusting the operation of dethanizing column and stripping column, the contents of water and CO in propylene feedstock all can reach the requirements of index. The polymerization reaction is gradually improved and the device is returned to normal conditions. © 2016, China National Chemical Information Center. All right reserved.