The Experts below are selected from a list of 294 Experts worldwide ranked by ideXlab platform
Saad M Bhamla - One of the best experts on this subject based on the ideXlab platform.
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a 3d printed hand powered Centrifuge for molecular biology
PLOS Biology, 2019Co-Authors: Gaurav Byagathvalli, Aaron Pomerantz, Soham Sinha, Janet Standeven, Saad M BhamlaAbstract:The Centrifuge is an essential tool for many aspects of research and medical diagnostics. However, conventional Centrifuges are often inaccessible outside of standard laboratory settings, such as remote field sites, because they require a constant external power source and can be prohibitively costly in resource-limited settings and Science, technology, engineering, and mathematics (STEM)-focused programs. Here we present the 3D-Fuge, a 3D-printed hand-powered Centrifuge, as a novel alternative to standard benchtop Centrifuges. Based on the design principles of a paper-based Centrifuge, this 3D-printed instrument increases the volume capacity to 2 mL and can reach hand-powered centrifugation speeds up to 6,000 rpm. The 3D-Fuge devices presented here are capable of centrifugation of a wide variety of different solutions such as spinning down samples for biomarker applications and performing nucleotide extractions as part of a portable molecular lab setup. We introduce the design and proof-of-principle trials that demonstrate the utility of low-cost 3D-printed Centrifuges for use in remote field biology and educational settings.
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a 3d printed hand powered Centrifuge for molecular biology
bioRxiv, 2019Co-Authors: Gaurav Byagathvalli, Aaron Pomerantz, Soham Sinha, Janet Standeven, Saad M BhamlaAbstract:The Centrifuge is an essential tool for many aspects of research and medical diagnostics. However, conventional Centrifuges are often inaccessible outside of conventional laboratory settings, such as remote field sites, require a constant external power source, and can be prohibitively costly in resource-limited settings and STEM-focused programs. Here we present the 3D-Fuge, a 3D-printed hand-powered Centrifuge, as a novel alternative to standard benchtop Centrifuges. Based on the design principles of a paper-based Centrifuge, this 3D-printed instrument increases the volume capacity to 2 mL and can reach hand-powered centrifugation speeds up to 6,000 rpm. The 3D-Fuge devices presented here are capable of centrifugation of a wide variety of different solutions such as spinning down samples for biomarker applications and performing nucleotide extractions as part of a portable molecular lab setup. We introduce the design and proof-of-principle trials that demonstrate the utility of low-cost 3D printed Centrifuges for use in remote and educational settings.
Gaurav Byagathvalli - One of the best experts on this subject based on the ideXlab platform.
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a 3d printed hand powered Centrifuge for molecular biology
PLOS Biology, 2019Co-Authors: Gaurav Byagathvalli, Aaron Pomerantz, Soham Sinha, Janet Standeven, Saad M BhamlaAbstract:The Centrifuge is an essential tool for many aspects of research and medical diagnostics. However, conventional Centrifuges are often inaccessible outside of standard laboratory settings, such as remote field sites, because they require a constant external power source and can be prohibitively costly in resource-limited settings and Science, technology, engineering, and mathematics (STEM)-focused programs. Here we present the 3D-Fuge, a 3D-printed hand-powered Centrifuge, as a novel alternative to standard benchtop Centrifuges. Based on the design principles of a paper-based Centrifuge, this 3D-printed instrument increases the volume capacity to 2 mL and can reach hand-powered centrifugation speeds up to 6,000 rpm. The 3D-Fuge devices presented here are capable of centrifugation of a wide variety of different solutions such as spinning down samples for biomarker applications and performing nucleotide extractions as part of a portable molecular lab setup. We introduce the design and proof-of-principle trials that demonstrate the utility of low-cost 3D-printed Centrifuges for use in remote field biology and educational settings.
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a 3d printed hand powered Centrifuge for molecular biology
bioRxiv, 2019Co-Authors: Gaurav Byagathvalli, Aaron Pomerantz, Soham Sinha, Janet Standeven, Saad M BhamlaAbstract:The Centrifuge is an essential tool for many aspects of research and medical diagnostics. However, conventional Centrifuges are often inaccessible outside of conventional laboratory settings, such as remote field sites, require a constant external power source, and can be prohibitively costly in resource-limited settings and STEM-focused programs. Here we present the 3D-Fuge, a 3D-printed hand-powered Centrifuge, as a novel alternative to standard benchtop Centrifuges. Based on the design principles of a paper-based Centrifuge, this 3D-printed instrument increases the volume capacity to 2 mL and can reach hand-powered centrifugation speeds up to 6,000 rpm. The 3D-Fuge devices presented here are capable of centrifugation of a wide variety of different solutions such as spinning down samples for biomarker applications and performing nucleotide extractions as part of a portable molecular lab setup. We introduce the design and proof-of-principle trials that demonstrate the utility of low-cost 3D printed Centrifuges for use in remote and educational settings.
Tjatoer Welasih - One of the best experts on this subject based on the ideXlab platform.
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PEMBUATAN VIRGIN COCONUT OIL (VCO) DENGAN METODE SENTRIFUGASI
2013Co-Authors: Nur Hapsari, Tjatoer WelasihAbstract:Virgin Coconut Oil (VCO) is the oil produced from fresh coconuts. Unlike the ordinary coconut oil, Virgin Coconut Oil (VCO) is produced not by the addition of chemicals or processes that use high heat. Virgin Coconut Oil (VCO) beneficial to health, this is because Virgin Coconut Oil (VCO) contains many medium chain fatty acids (Medium Chain Fatty Acid / MCFA). MCFA are most in the Virgin Coconut Oil (VCO) is Lauric acid (Lauric Acid). Properties that is easily absorbed MCFA will increase metabolism. The addition of energy produced by the metabolism of this produces stimulating effects in the human body thereby increasing the level of energy produced. Core processes in the manufacture of Virgin Coconut Oil (VCO) is located on the separation of oil from water and protein. Many obstacles must be faced for separating oil from water and proteins, such as in the fermentation process, the separation process takes a long time to get the Virgin Coconut Oil (VCO). While the centrifugation, the separation is done by utilizing the weight of the lighter oil. Although I do not require centrifugation long time but the way it has in the purity of the product constraints. This research was conducted by using coconut cream from coconut milk is silenced for 3 hours. Then the cream is incorporated into the instrument with speed Centrifuges spin 600,700,800,900 and 1000 rpm with vaiasion times very; 30, 45, 60.75 and 90 minutes after that coconut cream layer divided into 3 layers of oil that is, the middle layer of protein (blondo) and next underwater layer silenced for 8,10,12,14, and 16 hours . The results of virgin coconut oil (VCO) is obtained and then analyzed with the parameters water content, protein content, Lauric acid, color and odor. From the research, obtained the best conditions of rotational speed Centrifuges at 1000 rpm and Centrifuges turnaround time 90 minutes and 8 hours stagnand time with the quality of Virgin Coconut Oil (VCO) which produced yield: Lauric acid yield of 36.67% and 52.23% results. Keywords: sentrifuge, coconut cream,,% yield results, VCO
Nurhapsari - One of the best experts on this subject based on the ideXlab platform.
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PEMBUATAN VIRGIN COCONUT OIL (VCO) DENGAN MENGGUNAKANMETODE SENTRIFUGASI
2009Co-Authors: Wilasih Catur, NurhapsariAbstract:Virgin Coconut Oil (VCO) is the oil produced from fresh coconuts. Unlike the ordinarycoconut oil, Virgin Coconut Oil (VCO) is produced not by the addition of chemicals orprocesses that use high heat. Virgin Coconut Oil (VCO) beneficial to health, this is because Virgin Coconut Oil (VCO) contains many medium chain fatty acids (Medium Chain Fatty Acid / MCFA). MCFA are most in the Virgin Coconut Oil (VCO) is Lauric acid (Lauric Acid). Properties that is easily absorbed MCFA will increase metabolism. The addition of energy produced by the metabolism of this produces stimulating effects in the human body thereby increasing the level of energy produced. Core processes in the manufacture of Virgin Coconut Oil (VCO) is located on the separation of oil from water and protein. Many obstacles must be faced for separating oil from water and proteins, such as in the fermentation process, the separation process takes a long time to get the Virgin Coconut Oil (VCO). While the centrifugation, the separation is done by utilizing the weight of the lighter oil. Although I do not require centrifugation long time but the way it has in the purity of the product constraints. This research was conducted by using coconut cream from coconut milk is silenced for 3 hours. Then the cream is incorporated into the instrument with speed Centrifuges spin 600,700,800,900 and 1000 rpm with Centrifuges turnaround times vary; 30, 45, 60.75 and 90 minutes after that coconut cream layer divided into 3 layers of oil that is, themiddle layer of protein (blondo) and next underwater layer silenced for 8,10,12,14, and 16 hours . The results of virgin coconut oil (VCO) is obtained and then analyzed with the parameters water content, protein content, Lauric acid, color and odor. From the research, obtained the best conditions of rotational speed Centrifuges at 1000 rpm and Centrifuges turnaround time 90 minutes and 8 hours stagnand time with the quality of Virgin Coconut Oil (VCO) which produced yield: Lauric acid yield of 36.67% and 52.23% results. Keywords: sentrifuge, coconut cream,,% yield results, VCO
Aaron Pomerantz - One of the best experts on this subject based on the ideXlab platform.
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a 3d printed hand powered Centrifuge for molecular biology
PLOS Biology, 2019Co-Authors: Gaurav Byagathvalli, Aaron Pomerantz, Soham Sinha, Janet Standeven, Saad M BhamlaAbstract:The Centrifuge is an essential tool for many aspects of research and medical diagnostics. However, conventional Centrifuges are often inaccessible outside of standard laboratory settings, such as remote field sites, because they require a constant external power source and can be prohibitively costly in resource-limited settings and Science, technology, engineering, and mathematics (STEM)-focused programs. Here we present the 3D-Fuge, a 3D-printed hand-powered Centrifuge, as a novel alternative to standard benchtop Centrifuges. Based on the design principles of a paper-based Centrifuge, this 3D-printed instrument increases the volume capacity to 2 mL and can reach hand-powered centrifugation speeds up to 6,000 rpm. The 3D-Fuge devices presented here are capable of centrifugation of a wide variety of different solutions such as spinning down samples for biomarker applications and performing nucleotide extractions as part of a portable molecular lab setup. We introduce the design and proof-of-principle trials that demonstrate the utility of low-cost 3D-printed Centrifuges for use in remote field biology and educational settings.
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a 3d printed hand powered Centrifuge for molecular biology
bioRxiv, 2019Co-Authors: Gaurav Byagathvalli, Aaron Pomerantz, Soham Sinha, Janet Standeven, Saad M BhamlaAbstract:The Centrifuge is an essential tool for many aspects of research and medical diagnostics. However, conventional Centrifuges are often inaccessible outside of conventional laboratory settings, such as remote field sites, require a constant external power source, and can be prohibitively costly in resource-limited settings and STEM-focused programs. Here we present the 3D-Fuge, a 3D-printed hand-powered Centrifuge, as a novel alternative to standard benchtop Centrifuges. Based on the design principles of a paper-based Centrifuge, this 3D-printed instrument increases the volume capacity to 2 mL and can reach hand-powered centrifugation speeds up to 6,000 rpm. The 3D-Fuge devices presented here are capable of centrifugation of a wide variety of different solutions such as spinning down samples for biomarker applications and performing nucleotide extractions as part of a portable molecular lab setup. We introduce the design and proof-of-principle trials that demonstrate the utility of low-cost 3D printed Centrifuges for use in remote and educational settings.