STORAGE DESIGN OF HARVESTED DRY GRAIN AND RICE WITH PASSIVE ENERGY BUILDING
Abstract
DOI:
https://doi.org/10.35261/barometer.v9i2.11233Abstract
Passive design is a way to save energy through the passive use of solar energy, that is, without converting solar energy into electrical energy. the passive design relies more on the ability of engineers how the design of the building itself can "anticipate" external climate problems. In Indonesia as a tropical region, cooling systems and lighting systems are the largest contributors to building energy consumption, accounting for 24.7% and 16% respectively of the total building energy consumption. The purpose of this research is to do storage modeling using the passive energy method. The procedure is carried out with a combination of energy calculations around storage and CAD. CAD software is used to create 3D solid surface drawings and shapes. Then draw several options for the air openings that will be used. The results showed that based on the month of observation, the value of heat energy that occurred in the storage of dry harvested grain and rice with passive energy buildings was lower and heat energy was higher in June. Therefore, the solution for choosing the type of opening in January is required an opening percentage of 25% and for June, an opening with a percentage of 50% is required).
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References
B. iSiswanto, “Pengaruh ipenambahan imaterial iorganik iterhadap isuhu ikoridor ilingkunga”, iTesis, iDepartemen iArsitektur, iUniversitas iIndonesia, i2010.
Anonim, iClimate iresilient icities: iA iprimer ion ireducing ivulnerabilities ito iclimate ichange iimpacts iand istrengthening idisaster irisk imanagement iin ieast iAsian icities, iWashington: iWorld iBank, ilobal iFacility ifor iDisaster iReduction iand iRecovery, iInternational iStrategy ifor iDisaster iReduction, i2008, iHal. i141.
ESDM, iPanduan iPenggunaan iUntuk iSektor iRumah iTangga: iIndonesia i2050 iPathway iCalculator, i2010.
R. iLapisa, idkk, “Pemanfaatan iteknik ipendingin ipasif iuntuk imeningkatkan iperforma itermal ibangunan iresidensial idi iIndonesia,” idalam iSeminar iNasional iVokasi idan iTeknologi i(SEMNASVOKTEK), iBali, i2017, ihal. i2541-3058.
M. iSantamouris, idkk, iAdvances iin ipassive icooling, iEarthscan, iLondon, i2007.
S. iUmar, idan iT. iAlihamsyah, iMekanisme iPertanian (Untuk iProduksi iPada idi iLahan iRawa iPasang iSurut), iIAARD iPRESS, iLitbang iPertanian, i2014, ihal. i130-137.
A. iW. iAnggara, idan iSudarmaji, “Hama ipascapanen ipadi idan ipengendaliannya,” iBBPADI, iKementrian iPertanian, i2008, ihal. i441-472.
E. iSeptianingrum, idan iB. iKusbiantoro, “Upaya imemperpanjang iumur isimpan (shelf ilife) igabah iatau iberas imelalui ipengendalian iterhadap ifactor-faktor ipenyimpanan idan imetode ipenyimpanannya,” iBBPADI, iKementrian iPertanian, i2015, ihal. i336-346.
T. iH. iKaryono, “Bangunan ihemat ienergi: irancangan ipasif idan iaktif,” iKompas, iUniversitas iTarumanagara, iOct. i2004.
H. iRosenlund, “Climatic idesign iof ibuildings iusing ipassive itechniques,” iBuilding iIssues, ivol. i10, ino. i1. i2000.
Y. iCui, idkk, “Experimental iand iTheoretical iStudy ion ithe iHeat iTransfer iCoefficients iof iBuilding iExternal iSurfaces iin ithe iTropical iIsland iRegion,” iApplied iSciences, ivol. i9, ino.6, iMar. i2019.
L. iM. iF. iPurmwanto, idan iK. Tichelmann, “Solar iheat itransfer iin iarchitectural iglass ifacade iin iSemarang iIndonesia,” iITU iA/Z iJournal iof ithe iFaculty iof iArchitecture, ivol. i15, ino. i2, iJul. i2018.
B. iGivoni, iMan, iClimate iand iArchitecture, iApplied iScience iPublishers, iLondon, i1976.
F. iP. iIncropera, idkk, iFundamentals iof iHeat iand iMass iTransfer i6th iEdition, iJohn iWiley i& iSons, iInc. iUnited iStates iof iAmerica, i2007, ihal. i2.
F. iP. iIncropera, idkk, iFundamentals iof iHeat iand iMass iTransfer i7th iEdition, iJohn iWiley i& iSons, iInc. iUnited iStates iof iAmerica, i2011, ihal. i3.
NASA, iPOWER i| iData iAccess iViewer, i2021, iTersedia: ihttps://power.larc.nasa.gov/data-access-viewer/.
