https://ph04.tci-thaijo.org/index.php/abe/issue/feedAgricultural and Biological Engineering2025-01-04T21:13:39+07:00Somchai Chuan-Udomabe@kku.ac.thOpen Journal Systems<div> <p><strong>Agricultural and Biological Engineering (ABE)</strong> is a peer-reviewed open-access journal. The journal aims to publish high quality research in <strong>engineering</strong> and the physical sciences that represent advances in <strong>agriculture</strong> and<strong> biological systems</strong>. </p> </div> <table border="0"> <tbody> <tr> <td><strong>Journal Abbreviation:</strong> Agr Biol Eng</td> </tr> <tr> <td><strong>ISSN:</strong> 3056-932X (Online)</td> </tr> <tr> <td><strong>Start year:</strong> 2024</td> </tr> <tr> <td><span style="font-weight: bolder;">Language:</span> English</td> </tr> <tr> <td><span style="font-weight: bolder;">Publication fee:</span> free of charge</td> </tr> <tr> <td> <span style="font-weight: bolder;">Issues per year:</span> 4 Issues</td> </tr> <tr> <td> </td> </tr> <tr> <td> </td> </tr> </tbody> </table> <p> <strong>Focus and Scope</strong></p> <p><strong>Agricultural and Biological Engineering (ABE)</strong> publishes research in <strong>engineering</strong> and <strong>the physical sciences</strong> that represent advances in <strong>agriculture</strong> and<strong> biological systems</strong> for sustainable developments in soil and water, land use, bioproduction processes and processing, machines and mechanization system, equipment and buildings, and logistics. Papers may report the results of experiments, theoretical analyses, development, design, innovations, analytical techniques, and instrumentation.</p> <p> </p> <p><a href="https://ph04.tci-thaijo.org/index.php/abe/issue/view/84">Download ABE Template</a></p>https://ph04.tci-thaijo.org/index.php/abe/article/view/6903Soil salinization risk assessments under future climate conditions: The case of central Huai Luang River Basin, Northeast, Thailand2024-10-16T10:47:50+07:00Kewaree Pholkernkewaph@kku.ac.thKriengsak Srisukkriengsk@kku.ac.thPhayom Saraphirompayosa@kku.ac.th<p>Salt-affected soil is one of the main problems decreasing the productivity of agriculture in Northeast Thailand. The Central Huai Luang Basin is the important rice producing areas of Udon Thani Province that is affected by saline soil. Regional and local groundwater flow systems are the major mechanisms responsible for spreading saline groundwater, waterlogging and the consequences of saline soils in this basin. Climate change may have an impact on groundwater recharge, on water table depth and the consequences of waterlogging, and on the distribution of soil salinity in this basin. A simulation model, in combination with groundwater models and the Geographical Information System (GISs), could be used to evaluate the risk of salinization. Five data, including soil salinity, soil group, irrigation area, groundwater salinity and waterlogging were used to input criteria data into a soil salinity risk model, which then calibrates the soil salinity simulation using field data. Three future climate conditions of RCPs from the CanESM2 models were downscaled to investigate the impact of future climate conditions on soil salinity risk. The impact of climate change was investigated by using a set of groundwater numerical models, namely HELP3 and SEAWAT, to estimate groundwater recharge and flow, and salt transport of the groundwater simulation, respectively. The results revealed that within the next 30 years (2045) the future average annual temperature and precipitation are projected to increase by 1.79<sup>o</sup>C and 7.56% from current figures, respectively. The results showed that the impact of climate change on soil salinity distribution is projected to increase in every climate condition. By 2045 the salinity risk area will increase by about 216.90 km<sup>2</sup>, or 23.62% from the current salt-affected area. The projected soil salinity assessment presented here is useful for targeting critical areas that may require special management for preventing or controlling soil salinization.</p>2025-01-04T00:00:00+07:00Copyright (c) 2025 Journalhttps://ph04.tci-thaijo.org/index.php/abe/article/view/6376Research and development of strawberry quality sorting machine with image processing2024-10-25T11:04:03+07:00Sanong Amaroekosanonga13@gmail.comManop Rakyatosanonga13@gmail.comPongrawee Namwongosanonga13@gmail.comKittisak Kitiratosanonga13@gmail.comNiti Pookjitosanonga13@gmail.comSorawit Chanchenchobosanonga13@gmail.comSupattanakij Posawangosanonga13@gmail.com<p>The objective of this research was to research and develop a strawberry quality sorting machine with image processing. The machine size is 1.60 x 4.0 x 1.5 meters. The prototype sorting strawberry fruit sizes into 5 grades according to the fruit grade standards of the Royal Project Foundation and sorting misshapen fruits, bruised, over ripe. This research wrote an image processing program using LabVIEW version 2018, taking pictures of strawberries while sorting, uses a webcam with a resolution of 640 x 320 pixels. The mechanism for sorting strawberries into baskets uses air blowing. The sorting system is automatically operated by PLC programmed control. The test was done at 0.08, 0.10 and 0.13 m s-1 of belt conveyor speed, the result showed the good condition for strawberry grading at 0.08 m s-1. The average of sorting accuracy was 93.78 %, average working capacity was 3,273 fruits hour-1, comparing with manual grading it is 2.17 times faster. Sorted strawberries by machine and manual labor showed no damage to the fruit. The machine cost is 250,000 baht, the operation time is 7 years and the break-even point is 1.94 years.</p> <p> </p>2025-01-04T00:00:00+07:00Copyright (c) 2024 Agricultural and Biological Engineeringhttps://ph04.tci-thaijo.org/index.php/abe/article/view/7179Suitable vegetation indices for predicting sugarcane Brix content in the field2024-10-25T11:09:29+07:00Kritsana Tungvanitchakapongchatchaib@kkumail.comChatchai Boodthepchatchaib@kkumail.comPattaraporn Maksongengineerging@gmail.comKhwantri Seangprachathanarugkhwantri@kku.ac.thSeree Wongpichetserwon@kku.ac.thJetsada Posomjetspo@kku.ac.th<p style="text-align: justify; text-indent: 14.2pt;"><span style="font-size: 14.0pt; font-family: 'TH SarabunPSK',sans-serif; color: black;">The goal of this research was to search for the optimal vegetation indices to predict the Brix content of sugarcane<span lang="TH">. </span>The sugarcane of Khon Kaen 3 at age of 10 to 13 months was investigated<span lang="TH">. </span>The models were optimized using regression equation by generating the relationship between four vegetation index<span lang="TH"> (</span>i<span lang="TH">.</span>e NDVI GNDVI PVR and RVI<span lang="TH">) </span>taken from multispectral image and measured °Brix content from ground sampling<span lang="TH">. </span>The calibration model was developed using the sugarcane sample obtained from Sugarcane Breeding Institute, Khon Kaen university, while validation sets were the sugarcane sample from Bahn Phai Distric, Khon Kaen Province, and Saraburi province<span lang="TH">. </span>The result showed that the overall °Brix content ranged between 16<span lang="TH">.</span>8 and 24<span lang="TH">.</span>8 <sup>o</sup>Brix<span lang="TH">. </span>The vegetation index of GNDVI gave the best performance to be used as calibration model, providing the linear relationship of Y <span lang="TH">= -</span>22<span lang="TH">.</span>482x<span lang="TH">+</span>31<span lang="TH">.</span>832, where Y is predicted °Brix, x is GNDVI index<span lang="TH">. </span>For the validation results, sugarcane in Bahn Phai Distric, Khon Kaen Province had the Bias value of 0<span lang="TH">.</span>40 <sup>o</sup>Brix, and SEP value of 1<span lang="TH">.</span>64<sup> o</sup>Brix, meanwhile Saraburi province plant provided the Bias value of 2<span lang="TH">.</span>80 <sup>o</sup>Brix, and SEP <span lang="TH">(</span>standard error of prediction<span lang="TH">) </span>value of 0<span lang="TH">.</span>80 <sup>o</sup>Brix<span lang="TH">. </span>The result indicated that multispectral imaging across the GNDVI index could be used as a real monitoring of cane quality in the field<span lang="TH">.</span></span></p>2025-01-04T00:00:00+07:00Copyright (c) 2025 Journalhttps://ph04.tci-thaijo.org/index.php/abe/article/view/7574Development of a Jerusalem artichoke washing machine2024-12-01T19:55:38+07:00Waree Srisonwaree.sr@rmuti.ac.thPonthap Vengsungnlewaree.sr@rmuti.ac.thKhanittha Chaibanditkhanittha.ca@rmuti.ac.thJarinee JongpluempitiJarinee.jo@rmuti.ac.thSawitree Prapakarnwaree.sr@rmuti.ac.thPeeranat Ansureewaree.sr@rmuti.ac.th<p>The objectives of this research were to design and performance assessment of a Jerusalem artichoke washing machine. The expectation of this research was to raise production of Jerusalem artichoke to higher performance and safe work-times due to the shortage of labor in the agricultural sector. Due to the decline in agricultural labor caused by migration to urban areas, the use of machinery can compensate for the labor shortage and enable the remaining farmers to continue their operations. The components of Jerusalem artichoke washing machine are basin, barrel washing, water purifier, and water pump. Performance was evaluated from capacity, percentage of cleaning, percentage of damage and electric power. Three levels of barrel speed (17, 27 and 37 rpm) and two levels of time (5 and 10 min). The result showed that barrel speed significantly impacts all indicators. Time significantly impacts only electric power. The barrel speed was 27 rpm with time about 5-10 min were suitable operating factors of the Jerusalem artichoke washing machine, providing capacity, percentage of cleaning, percentage of damage and electric power about 4.93 kg/h, 57.20%, 9.47%, and 6.93 kwh, respectively.</p>2025-01-04T00:00:00+07:00Copyright (c) 2025 Journal