Articles tagged with Three Dimensional Modeling
Researchers develop a 3D model of amoeba swimming, showcasing the role of pseudopods in propulsion. The study provides new insights into cell locomotion mechanisms and their relevance to various biological processes.
A study published in Evolutionary Psychological Science found that small changes in a woman's back angle influence attractiveness ratings. The results suggest an arching of the back signals female receptivity, which may explain why high heels are considered attractive.
The National Institutes of Health has awarded $15 million to support the development of 3-D microphysiological system platforms, called 'tissue chips,' that model human disease. These platforms will enable scientists to better understand disease mechanisms and predict how patients respond to specific drugs.
Researchers at OIST Graduate University have created 3D avatars of three new ant species named after key figures in African biodiversity conservation. The ants' virtual reconstructions allow for detailed study of their biology without damaging physical specimens.
Researchers from UNH developed a novel method to estimate the extent of small particles in 3D models, enabling more accurate assessments of their properties. This innovation has practical applications in modeling volcanic ash clouds, sediment transport, and blood test development.
Researchers at Nemours Biomedical Research and University of Delaware have developed a patent-pending process to bridge the gap between 3D cell cultures and high throughput screening techniques. This allows for greater predictability of drug effectiveness and toxicity, leading to lower attrition rates in new medicine development.
Bernd Bickel, an Assistant Professor at IST Austria, will receive the Significant New Researcher Award for his contributions to computer graphics and facial modeling. His research has introduced new techniques for capturing and reproducing facial structure and motion in 3D digital models.
A global team of computer scientists and engineers developed an innovative technique for reconstructing complex objects using water displacement. The method accurately captures hidden parts of an object, previously inaccessible to laser scanners.
A new computational method called GRASS uses machine-learning techniques and artificial intelligence to automate the creation of plausible 3D shapes. The research paper showcases a generative recursive autoencoder for shape structures that can generate novel shapes without manual input.
Plesiosaurs' long necks may have been a hydrodynamic advantage, allowing them to move slowly and float comfortably. The location of the bend in their necks could also impact drag, leading to more patient hunting styles like modern crocodiles.
A study published in PLOS ONE found that a successful smile may contradict the 'more is always better' principle, with a bigger smile showing more teeth being perceived less well. The researchers also discovered that smiles developed symmetrically are rated as more successful.
A new computer model predicts optimal planting designs for specific environments, reducing yield losses up to 10% with double-row spacing. The model incorporates biochemical and biophysical processes to simulate 3D plant growth, enabling farmers to make data-driven decisions.
Researchers at the University of Missouri developed 3D models of the American alligator's skull using cutting-edge imaging tools. The models accurately predict bite forces, enabling scientists to study the origins and movements of extinct species.
VarCity technology uses machine learning to analyze images and videos, creating precise 3D models of cities. The platform can recognize buildings, streets, and traffic patterns in real-time, making it useful for urban planning and management.
Researchers at Dartmouth College replicated popular outdoor rock climbing routes on an indoor climbing wall using 3D modeling and digital fabrication. The study found a close visual match between climbers' poses on the original and replica routes, with climbers agreeing that the movement felt similar.
Scientists at the University of Bonn have created a realistic 3D model of a fish's lateral line system, allowing them to simulate precise current conditions. The results show that anatomical adaptations minimize background noise, enabling fishes to navigate and identify prey with high accuracy.
The Digital Life project has released 15 three-dimensional models of live frogs, including several endangered species, to raise awareness about their vulnerability to ecological threats. The project aims to promote conservation, education, and science by showcasing the extraordinary beauty and diversity of these animals.
A new training simulation model using 3D printing and special effects has been developed to teach minimally invasive neurosurgical procedures. The model closely mimics the head and brain structures of an adolescent human patient, providing realistic visual and tactile feedback during simulated surgery.
Researchers found that bat ear movements can pack extra information into ultrasonic pulses, improving echolocation accuracy. Combining data from different configurations increased a sensor's ability to localize sound waves by a factor of 100 to 1000.
Berkeley Lab researchers develop first 3-D atomic-scale model of P22 virus that identifies critical protein interactions crucial for its stability. The successful rendering allows peeking inside the virus' protein coats at resolution.
Researchers have developed more realistic 3-D co-culture models of intestinal tissue, incorporating immune cells like macrophages, to study Salmonella infections. The models better recapitulate the natural infection process and offer a powerful new tool for understanding enteric pathogenesis.
The Colorado School of Mines and Virginia Tech are teaming up to develop an integrated approach to locating, characterizing, and visualizing mineral resources. The consortium aims to boost exploration success rates, advance mining operations, and cut costs while minimizing financial risk and environmental impact.
Researchers developed a new theory describing the deformation and breakup of nanosized droplets when they strike a surface, enabling improved nanoscale printing and spraying. The model is ready for use in applications but has limitations, such as only applying to nanoscale droplets and Newtonian fluids.
The automotive industry is shifting towards more frequent model changes and smaller volumes, requiring increased flexibility in production. Researchers are using 3D scans to generate virtual three-dimensional images of production facilities, simulating how to convert lines for new models.
Scientists at the Salk Institute have developed a 3D mini-brain model grown from human stem cells, which is structurally and functionally more similar to real brains than existing 2D models. This breakthrough model may help understand brain development and neurological diseases like Alzheimer's or schizophrenia.
The Journal of Creative Music Systems features research on artificial intelligence in music, including harmonisation and vocal synthesis. The first issue has received an overwhelming response from contributors worldwide.
Researchers in Brazil have created 3-D virtual reality models of unborn babies using fetal MRI results. The technology allows doctors to visualize the fetus's internal structure, including the respiratory tract, which can aid in assessing abnormalities.
Researchers have developed an integrated model that connects atmospheric and lake body interactions, enabling feedback between variables. This two-way coupling approach simulates hydrodynamics of the Great Lakes region with high resolution, providing a more nuanced view of regional climate change.
The 'Digital Life' initiative aims to preserve the digital heritage of all life on Earth by creating 3D models of living organisms. Using the Beastcam Array, a rapid-capture system, scientists have already created models of sharks, scorpions, and other animals.
Michigan State University researchers created a life-size 3D model of a human hand complete with fingerprints to test the accuracy of fingerprint scanners. The study highlights the limitations of existing technology, revealing potential security loopholes that could be exploited by crooks.
Advances in biomolecular modeling and understanding life at the molecular level are paving the way for a three-dimensional computer model of a cell. This could provide fundamental insight into how cells work and improve disease diagnosis and drug design.
A new toolkit has been developed to simulate, analyze and visualize particle accelerator studies using advanced visualization tools and supercomputers. This enables faster and more efficient simulations, reducing memory usage and saving computer time.
Researchers from MIT's CSAIL have developed an imaging technique called Interactive Dynamic Video (IDV) that lets users reach in and interact with objects in videos. By analyzing video clips for 'vibration modes,' the team can predict how objects will move in new situations, enabling realistic simulations.
Researchers at Princeton University have developed a new method to transform individual selfies by adjusting angles and distances, creating more realistic portraits. The tool can also alter poses and generate 3-D head shots, with potential applications including 'live' photos that seem to move uncannily.
The use of virtual rocks can archive samples for destructive testing, aid peer-review, and provide access to geological materials for disabled students. Virtual explorers can also enhance learning and retention after field trips.
Researchers at Princeton University have developed a new method to transform individual selfies by adjusting angles and distances, creating more realistic images. The tool can also be used to generate 3-D head shots and potentially even create 'live' photos that seem to move.
Researchers create a biomechanical model of pregnant women using 3D motion capture, verifying the 'pregnancy waddle' and enabling safer daily tasks. The study aims to improve comfort and reduce falls during pregnancy.
Researchers at Carnegie Mellon University developed a method that incorporates the robot's arm as a sensor to improve the accuracy of environmental mapping. This approach enables robots to precisely locate their hands, which is crucial for tasks like inspection and manipulation.
Researchers developed a method to replicate complex, colored 3D models quickly and cheaply using an industrial production technique and accessible software. The technique has been tested with various objects, including a Chinese mask and car body shells, producing high-quality replicas.
A new low-cost approach uses 3D printing to create a knee model with femur, tibia, patella, and navigation system. The model simulates patella movement observed in cadaver models, enabling study of knee pain and impaired mobility.
The University of Illinois team has developed a predictive visual data analytics tool called Flying Superintendent to streamline construction progress monitoring. This technology utilizes drone-based images and 4D BIM to quickly identify performance problems, allowing project stakeholders to prioritize issues and take corrective actions.
The study introduces a super element modeling method for petroleum reservoir simulation, which speeds up calculations by hundreds of times. This allows for rapid development of oil fields with improved accuracy.
ETH Zurich scientists develop software that uses optical means to create 3D models of entire buildings in just 10 minutes, outperforming infrared technology in sunlight. The method allows for detailed architectural features and potential applications include augmented reality, city tours, and self-parking cars.
A combination of detailed CT imaging and 3-D printing technology has been used to plan the surgical separation of conjoined twins. The 3-D models were designed so that they could be assembled together or separated during the surgical planning process, with a high level of concordance between the models and the twins' actual anatomy.
BitDrones allows users to explore virtual 3D information by interacting with physical self-levitating building blocks, enabling a 'Real Reality' interface. The system has numerous applications, including real-reality 3D modeling, gaming, and medical imaging.
Researchers at Disney Research have developed an automated method called AutoConnect that can design custom connectors for 3D-printable objects. The tool allows users to input the dimensions and weight of two objects, as well as how they should be aligned when connected.
Researchers at the University of Utah have developed software to create detailed 3-D models of animal brains, allowing for a more complete understanding of brain connectivity. This new tool can aid in studying mental and neurological conditions such as schizophrenia, depression, anxiety, and autism.
Researchers found that 3D-printed tracheobronchial tree models compare favorably to traditional ones in training pulmonary physicians. The models were praised for their realism, accuracy, and usefulness as teaching tools.
A 3D printed model of a fetus's face helped doctors at the University of Michigan determine the severity of a life-threatening airway mass in a baby. The model was created using an MRI and allowed doctors to visualize the soft tissue mass, ultimately leading to a scheduled C-section instead of a risky lifesaving procedure.
The researchers developed a new algorithm using geometric matching and machine learning to analyze style similarity in 3D objects. They achieved an agreement rate of 90% with human evaluations, making it a valuable tool for computer graphics applications.
Researchers at Michigan State University have developed a new 3-D model of a giant star's last moments, which could help explain how these stars explode. The model addresses previous limitations, including the shape of the star and the lack of fuel source, paving the way for a deeper understanding of supernova mechanisms.
Researchers at the University of Michigan have developed a groundbreaking 3D computer model to study pelvic organ prolapse, a condition affecting millions of women worldwide. The model aims to better understand the intricacies of the pelvic floor and help personalize treatment options for individual patients.
Researchers reconstructed dinosaur tracks at a 154-million-year-old quarry site, suggesting carnivorous dinosaurs hunted herbivorous island-dwelling dinosaurs. The digital model reveals that the predators could have immigrated via a land bridge as sea levels dropped.
Researchers at Duke University Medical Center have created a high-resolution map of the human brain stem using MRI technology, providing unprecedented detail of deep brain pathways. This new model can guide surgeons in implanting electrodes more accurately, potentially eliminating trial-and-error methods and making surgery safer.
A study published in PLOS ONE created a 3D model of the Chinese giant salamander's bite, revealing its feeding mechanism involves capturing prey in front and biting quickly to the side when approaching. The analysis shows the salamander's unique skull architecture may be related to this ability.
Scientists at Disney Research and Université Laval have developed a method to automatically estimate illumination conditions depicted in a collection of photographs. This enables the realistic insertion of 3D objects into images, simplifying photo editing tasks.
New 3D printing technology could reduce the number of heart surgeries in children with congenital heart disease from up to four to one or two. Doctors can now plan and practice procedures on a detailed, beating heart model before surgery.
A study by researchers at Brigham and Women's Hospital found that using 3D printed models of the recipient's head improved pre-operative data, allowing surgeons to better appreciate complex anatomy and bony defects. This reduction in procedure time led to improved overall patient outcomes.
Researchers used 3D printing to create detailed heart models of three patients with complex congenital heart defects. Surgeons successfully repaired severe abnormalities in all three patients, potentially extending their lifespan by decades. This emerging technology has the potential to revolutionize surgical planning and treatment.
David Mayerich aims to create three-dimensional models of tissue and whole organ microstructures using his NIH grant. This will help diagnose and treat diseases closely tied to microvascular structure, including cancers and neurodegenerative diseases.