Computer Animation
Computer Animation - Related Videos
26:43
Computer-Generated Animal Model Stimuli
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Cited by 8 •
2007
Computer-generated stimuli using the Jacky dragon as a model.
06:57
Animal Diversity - Student Protocol
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2019
Form and Function of Crickets and Crayfish ExpandNOTE: To observe the relationship between form and function in animals, you will be examining and dissecting a cricket and a crayfish. Each pair of students will receive one of each of these organisms. When dissecting, be sure to wear gloves, closed-toed shoes, and safety goggles. Take care when handling dissecting tools, as they may be sharp. HYPOTHESES: In this experiment, the experimental hypothesis could be that the cricket and crayfish have...
06:08
Animal Diversity - Concepts
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2019
Kingdom Animalia is composed of a range of organisms united by a set of common characteristics. Barring a few exceptions, animals are multicellular eukaryotes that move, consume organic matter, and reproduce sexually. Although these attributes are shared, species within this kingdom are also extremely diverse. This diversity is due to adaptation of each species to a different niche. The niche of a species includes the area, function, and interrelationship of that species with other biotic and...
03:05
Animal Behavior - Concepts
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2019
Drosophila as a Model Organism The common fruit fly, Drosophila melanogaster, is a widely used model organism in biology, though it may be more commonly recognized as a fruit-loving pest. There are multiple reasons that make D. melanogaster an excellent experimental organism: their roughly two-week generation time allows studying multiple generations, they are easily maintained in very small tubes, and their sexual dimorphism enables investigators to easily distinguish between males that have...
06:58
Animal Behavior - Student Protocol
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2019
Making Choice Chambers ExpandBefore beginning the experiments, use one of the Sharpies from the lab table to trace a line around the circumference of the bottom of both bottles. One line should be 1 cm from the base of the bottle and the other should be 1.5 cm from the base of the bottle. Use a razor blade to make a small cut in each bottle at the mark. Then, insert the scissors and carefully cut along the line until the bottoms of the bottles are removed completely. Fit one bottle bottom into...
FAQs
Keyframes establish the state of a digital model at selected points in time, including its position, shape, or orientation. Interpolation then calculates the intermediate states between those points, allowing a sequence to show a controlled transition rather than isolated snapshots. In biological visualization, this mechanism can organize changes in a molecular structure, cell, anatomical form, or developing organism.
Position, shape, and orientation describe different kinds of biological change that a viewer may need to distinguish. Position can show movement or relocation, shape can show structural change, and orientation can show turning or reorientation. Specifying these properties at keyframes gives the software concrete states to connect, helping the final visualization emphasize the mechanism or structure under study.
Adjusting the temporal spacing between keyframes changes how biological events are represented across time, while changing model scale supports visualization from molecular structures to anatomical forms and organisms. Computer Animation therefore helps place processes with different spatial and temporal characteristics into a single interpretive framework for analysis, teaching, and scientific communication.
Building a biological sequence begins with selecting the structure or process to represent, creating its digital model, and assigning relevant properties such as position, shape, and orientation. The animator chooses keyframes that mark important states. Software computes the intervening states through interpolation, after which the sequence is rendered as moving images for inspection, teaching, communication, or analysis.
Biological computer animations can portray molecular interactions, cellular dynamics, anatomical structures, and organismal development. These applications address situations in which complex structures or processes are difficult to observe directly. The same visual approach can support classroom teaching, scientific communication, hypothesis generation, and analysis, allowing different biological questions to be represented at appropriate spatial and temporal scales.
Animated sequences can make relationships and changes easier to interpret by organizing model states into an observable progression. In research, the visuals can help communicate a proposed mechanism or generate hypotheses. In education and scientific communication, they can present complex structures and processes in a form that supports discussion, interpretation, and comparison across biological systems.