Garis Besar Rencana Penelitian dan Pengembangan Adsorben untuk Distribusi dan Penyimpanan Bahan Bakar Gas Skala Rendah
Sari
Pengurangan subsidi melalui substitusi minyak tanah sektor rumah tangga oleh Bahan Bakar Gas (BBG) terkendala oleh keterbatasan jaringan pipa distribusi gas. Badan usaha distribusi gas bumi yang berorientasi profit center kurang berminat mengembangkan jaringan pipa gas ke konsumen rumah tangga yang tersebar dan memiliki tingkat konsumsi BBG yang sangat rendah karena alasan keekonomian. Oleh karena itu, PPPTMGB LEMIGAS selalu melakukan penelitian dan pengembangan teknologi alternatif distribusi dan penyimpanan BBG tekanan dan skala rendah guna menanggulangi keterbatasan jaringan pipa distribusi gas untuk mensubstitusi minyak tanah sektor rumah tangga oleh BBG. Salah satu teknologi alternatif distribusi dan penyimpanan BBG tekanan dan skala rendah yang dipertimbangkan PPPTMGB LEMIGAS untuk dikembangkan adalah teknologi adsorben BBG, yang menggunakan bahan baku karbon aktif dari naturally fiber (fiber alami) beserta zat perekat yang dikompres pada tekanan dan temperatur tertentu. Teknologi adsorben BBG ini dipertimbangkan untuk dikembangkan karena bahan baku adsorben dan zat perekat organik tersedia dengan melimpah di Indonesia. Selain itu, proses sintesa adsorben BBG menggunakan teknologi yang relatif sederhana sehingga akan dapat menggunakan kemampuan nasional secara maksimal. Penelitian dan pengembangan teknologi adsorben BBG yang dilaksanakan di PPPTMGB LEMIGAS berfokus pada pembentukan adsorben BBG kinerja tinggi melalui parameter kinerja adsorben yaitu kapasitas adsorsi dan desorpsi BBG yang tinggi, kinetika adsorpsi yang baik, sifat mekanik yang unggul, stabilitas dan durabillitas tinggi, ketersediaaan bahan baku serta sintesa yang efektif dan efisien.
Kata Kunci
Teks Lengkap:
PDF (English)Referensi
Agarwal, R. K., High Pressure Adsorption Of Pure Gases On Activated Carbon: Analysis Of Adsorption Isotherms By Application Of Poten- tial Theory And Determination Of Heats And Entropies Of Adsorption. Ph. D. Dissertation, Syracuse, 1988.
Allen, T., 1997, Particle Size Measurement, 5th ed., Chapman & Hall, London.
Banks, M et.al., 2007, Conversion Of Waste Corncob To Activated Carbon For Use Of Meth- ane Storage, ALLCRAFT, Lincoln University, Columbia
Baker, F.S., U.S. Patent No. 5,710,092, Jan. 20, 1998.
Bandosz T J, et. al. 2003, Chemistry And Phys- ics Of Carbon, Ed. L R Radovic (New York: Marcel Dekker)
Bansal R C, et. al. , 1988, Active Carbon, Marcel Dekker, New York:.
Bourke, J., 2006, Preparation and Properties of Natural, Demineralized, Pure, and Doped Car- bons from Biomass; Model of the Chemical Struc- ture of Carbonized Charcoal, A Master of Sci- ence in Chemistry Thesis submitted to The Uni- versity of Waikato.
Burchell, T.D., et. al., Carbon 1997, 35, 1279.
Burchell, Tim, 2000, Carbon Fiber Composite Adsorbent Media for Low Pressure Natural Gas Storage, Carbon Materials Technology Group, Oak Ridge National Laboratory
Burchell, Tim & Rogers, Mike, 2000, Low Pres- sure Storage of Natural Gas for Vehicular Appli- cations, Sae Technical Paper Series 2000-01- 2205
Carpetis, C. and W. Peschka, A study On Hy- drogen Storage By Use Of Cryoadsorbents, Int. J. Hydrogen Energy,5 (1980), 539554.
Chaffee, A.L. et. al. , Lignite Derived Mono- lithic Carbons For Methane Storage, Monash University, Victoria.
Chang, K. et. al., Behavior And Performance Of Adsorptive Natural Gas Storage Cylinders During Discharge, Appl. Therm. Eng., 16 (1996), 359374.
ChenJinfu Qu, 2004, Adsorbent of Storage
Natural Gas & its Use In ANGV, Environmen- tal Engineering Research & Development Center, University of Petroleum, Beijing
Chen X.S., et. al., Theoretical And Experimental Studies Of Methane Adsorption On Micro Porous Carbons, Carbon, 35 (9): 12511258, 1997
Cheng,H. M. Q. H. Yang and C. Liu ,Hydrogen Storage In Carbon Nanotubes, Int. J. Hydrogen Energy, 27 (2002), 193202.
Cook,T.L. and D.B.Horne, Low Pressure Adsorbed NaturalGas Vehicle Demonstration, 20th World Gas Conference, Copenhagen, 1997
Dash, R. K., 2006, Nanoporous Carbons De- rived from Binary Carbides and their Optimiza- tion for Hydrogen Storage, Ph. D Thesis Sub- mitted to the Faculty of Drexel University.
Deiana, A. C. et. al. , 2004, Use Of Grape Must As A Binder To Obtain Activated Carbon Bri- quettes, Brazilian Journal of Chemical Engineer- ing, Vol. 21, No. 04, pp. 585 -591, October - December 2004
DeGarmo, E.P., et. al., 1988, Materials and Pro- cesses in Manufacturing, Macmillan, New York.
Dubinin M. M., The Potential Theory Of Ad- sorption Of Gases And Vapors For Sorbents With Energetically Nonuniform Surfaces, Chem. Rev., 60 (1960), 235241.
Dullien, F.A.L., 1979, Porous Media, Fluid Transport and Pore Structure , Academic Press, New York.
Ginzburg, Y , 2006, ANG Storage As A Tech- nological Solution For The Chicken-And-Egg Problem Of NGV Refueling Infrastructure De- velopment, 23rd World Gas Conference, Amsterdam
Giunta, P. R., 2005, Fabrication And Character- ization Of Novel Nanocomposite Materials, A Dissertation submitted to the Department of Chemistry and Biochemistry, The Florida State University College Of Arts And Sciences
Harris., P J F, 1999, Carbon Nanotubes And Related Structures. New Materials For The Twenty-First Century, Cambridge University Press, Cambridge.
Hartati, N. S. et.al, Analisis Kadar Pati dan Serat Kasar Tepung beberapa Kultivar Talas (Colocasia esculenta L. Schott), Jurnal Natur Indonesia 6(1): 29-33 (2003).
Hasller, J.W., 1951, Active Carbon, Chemical Publishing Co., Inc., New York.
Herring, C. , 1952, Structure and Properties of Solid Surface , University of Chicago, Chicago.
Hickman, Process For Manufacturing Activated Carbon Honeycomb Structures, US Patent No. 6,372,289 B1, April 16, 2002.
Hiemenz, P.C., 1977, Principles of Colloid and Surface Chemistry, Marcel Dekker, New York.
Hynek Set. Al., Hydrogen Storage By Carbon Sorption, Int. J. Hydrogen Energy, 22 (1997), 601610.
Ikoku, Chi U., Natural Gas Production Engineer- ing, John Willey & Son Inc. Pennsylpania, 1984.
Makogon, Y.F., 1981, Hydrates of Natural Gas, PennWell Books, Tulsa, Oklahoma, USA.
Marsh H. And Yan, D. S. Formation Of Active Carbons From Cokes Using Potassium Hydrox- ide ,Carbon, 22(6), 603611, 1984
Matranga K.R., et al. Storage Of Natural Gas By Adsorption On Activated Carbon. Chemical Engineering Science, 47 (7):15691579, 1992
Pfeifer, Peter, 2006, ALL-CRAFT Technology for Low-Pressure Storage of Methane from Bio- mass, 34th Annual Missouri Waste Management Conference, Lake Ozark, Columbia
Quinn, D. , 2005, Adsorption Storage A Viable Alternative To Compression
For Natural Gas Powered Vehicles ?, All-Craft, Columbia
Schulz, M. J., et. al. , 2006, Nanoengineering of Structural, Functional, and Smart Materials , CRC Press, Washington DC.
Saito, R., et. al., 1998, Physical Properties of Carbon Nanotubes ,Imperial College Press, Lon- don.
Tanaka, K., et. al. , 1999, The Science and Tech- nology of Carbon Nanotubes, Elsevier, Amsterdam.
Theodore, L., 2006, Nanotechnology : Basic Calculations for Engineers and Scientists, Willey- Interscience, New York.
Vasilievi, L. L , et. al., Activated Carbon Fiber Composites For Ammonia, Methane And Hydro- gen Adsorption, International Journal of Low Carbon Technologies 1/2 ,
Vasiliev, L. L., et.al, Solar Gas Solid Sorption Refrigerator, Adsorption, 7 (2001), 149161.
Vasiliev, L. L., et.al, Activated Carbon For Gas Adsorption In 3rd Int. Symposium On Fullerene And Semifullerene Structures In The Condensed Media, Minsk, Belarus, 2225 June, 2004, 110 115.
Vasiliev L. L., et.al., Adsorbed Natural Gas Stor- age And Transportation Vessels, Int. J. Therm. Sci., 39 (2000), 10471055.
Vasiliev, et. al., A New Method Of Methane Storage And Transportation, Int. J. Enviromentally Conscious Design & Manufac- turing, 9 (2000), 3562.
Vasiliev, et. al., Activated Carbon For Gas Ad- sorption In Int. Conference Solid State Hydro- gen Storage Materials And Applications, Hyderabad, India., 2005.
Vasiliev L. L., et. al.,Heat Pipe Applications In Sorption Refrigerators, Low Temperature And Cryogenic Refrigeration, Nano Science Series II, 99 (2003), Kluwer Academic Publishers, 401 414.
DOI: https://doi.org/10.29017/LPMGB.42.3.204