Translation is the process of "reading" the bases of mRNA - in respect of Triplet-Codons - and converting these into the [amino acid] primary structure of a protein.
The substance with the greatest amount of translational energy will typically be a gas at a high temperature, as gases have particles that move freely and rapidly. The kinetic energy associated with this motion is directly related to the temperature of the gas, with higher temperatures resulting in increased translational energy. Among different substances, lighter gases at elevated temperatures will generally have more translational energy due to their higher average speeds.
Yes, it is possible to change the translational kinetic energy of an object without changing its rotational energy. Translational kinetic energy depends on an object's linear velocity, while rotational energy depends on its angular velocity. By adjusting the linear velocity without changing the angular velocity, you can change the object's translational kinetic energy without affecting its rotational energy.
A rotational landslide involves a block of material sliding along a concave surface, often forming a curved failure plane, while a translational landslide involves movement along a planar surface without rotation. Rotational landslides typically have a more complex movement pattern compared to translational landslides.
Shells can have both rotational and translational movements. Rotational movements include spinning on its axis or tumbling in the water. Translational movements involve the shell moving through the water in a certain direction, either propelled by currents or by the organism inside.
If a magnetic dipole placed in a magnetic field exhibits both rotational and translational motion, it suggests that the magnetic field is not uniform. A non-uniform magnetic field will exert torque on the magnetic dipole, causing it to rotate, and may also impart a force causing translational motion. These observations can help characterize the spatial variation of the magnetic field.
Science Translational Medicine was created in 2009.
American Journal of Translational Research was created in 2009.
No, the motion of a body along a curved path is not translational, as translational motion refers to straight-line motion. The motion of a body along a curved path involves a combination of translational and rotational motion due to changes in direction.
Eukaryotes exhibit control mechanisms at all levels, including transcriptional, transcript processing, translational, and post-translational regulation. These mechanisms work together to finely regulate gene expression and protein production in response to various internal and external signals.
Translational symmetry means to "slide" the shape. It is like moving the shape over and it is exactly the same the whole time. It just repeats and repeats.
Translational research transforms scientific discoveries arising from laboratory, clinical, or population studies into clinical applications to reduce cancer incidence, morbidity, and mortality
Temperature is a measure of the average translational kinetic energy per molecule in an object. It represents the average energy of motion of individual molecules within the object.
The substance with the greatest amount of translational energy will typically be a gas at a high temperature, as gases have particles that move freely and rapidly. The kinetic energy associated with this motion is directly related to the temperature of the gas, with higher temperatures resulting in increased translational energy. Among different substances, lighter gases at elevated temperatures will generally have more translational energy due to their higher average speeds.
Post translational activation of the proteins
The translational speed of a particle at a point is the magnitude of the particle's velocity vector at that point. It is given by the derivative of the position vector with respect to time evaluated at that point.
The three types of translational motion are rectilinear motion (in a straight line), curvilinear motion (in a curved path), and circular motion (along a circular path).
Yes, it is possible to change the translational kinetic energy of an object without changing its rotational energy. Translational kinetic energy depends on an object's linear velocity, while rotational energy depends on its angular velocity. By adjusting the linear velocity without changing the angular velocity, you can change the object's translational kinetic energy without affecting its rotational energy.