Comparing optimized and default algorithms on training brains and test brains The green represents nerve fibers detected by injecting a fluorescent tracer at a single point. The red represents nerve fibers detected using a diffusion MRI-based fiber tracking algorithm. Only the nerve fibers that also connected up to the point where the tracer was injected are shown. The yellow represents nerve fibers that were detected using both techniques. The results show that the optimized algorithm performed better than the default algorithm, not only on a brain it was trained on, but on a previously unseen brain. The optimized algorithm detected a higher number of fibers and also fibers that stretched longer distances. The green represents nerve fibers detected by injecting a fluorescent tracer at a single point. The red represents nerve fibers detected using a diffusion MRI-based fiber tracking algorithm. Only the nerve fibers that also connected up to the point where the tracer was injected are shown. The yellow represents nerve fibers that were detected using both techniques. The results show that the optimized algorithm performed better than the default algorithm, not only on a brain it was trained on, but on a previously unseen brain. The optimized algorithm detected a higher number of fibers and also fibers that stretched longer distances. Date: 15 December 2020 Copyright OIST (Okinawa Institute of Science and Technology Graduate University, 沖縄科学技術大学院大学). Creative Commons Attribution 4.0 International License (CC BY 4.0). Download full-resolution image Tags Research Share on: Related Images Professor Masai and Dr. Nishiwaki Dr. Camille Parmesan Speaking in B250 on 27 May 2013 Figure 1. Relationship between corals and Symbiodinium in the supergroups of eukaryotes The Marine Genomics Unit of OIST has decoded the genome of the algae Symbiodinium minutum. The paper was published in the online version of Current Biology on July 11. This is a major advance in understanding the complex ecology of coral reefs. Figure 2. A symbiotic relationship between corals and Symbiodinium The Marine Genomics Unit of OIST has decoded the genome of the algae Symbiodinium minutum. The paper was published in the online version of Current Biology on July 11. This is a major advance in understanding the complex ecology of coral reefs. Winkler Bags Winkler bags are being hung to dry leaf litter. On this trip, bags were hung for 72 hours to dry.
Figure 1. Relationship between corals and Symbiodinium in the supergroups of eukaryotes The Marine Genomics Unit of OIST has decoded the genome of the algae Symbiodinium minutum. The paper was published in the online version of Current Biology on July 11. This is a major advance in understanding the complex ecology of coral reefs.
Figure 1. Relationship between corals and Symbiodinium in the supergroups of eukaryotes The Marine Genomics Unit of OIST has decoded the genome of the algae Symbiodinium minutum. The paper was published in the online version of Current Biology on July 11. This is a major advance in understanding the complex ecology of coral reefs.
Figure 2. A symbiotic relationship between corals and Symbiodinium The Marine Genomics Unit of OIST has decoded the genome of the algae Symbiodinium minutum. The paper was published in the online version of Current Biology on July 11. This is a major advance in understanding the complex ecology of coral reefs.
Figure 2. A symbiotic relationship between corals and Symbiodinium The Marine Genomics Unit of OIST has decoded the genome of the algae Symbiodinium minutum. The paper was published in the online version of Current Biology on July 11. This is a major advance in understanding the complex ecology of coral reefs.
Winkler Bags Winkler bags are being hung to dry leaf litter. On this trip, bags were hung for 72 hours to dry.
Winkler Bags Winkler bags are being hung to dry leaf litter. On this trip, bags were hung for 72 hours to dry.