non-uniform quantising logarithmic compression - определение. Что такое non-uniform quantising logarithmic compression
Diclib.com
Словарь ChatGPT
Введите слово или словосочетание на любом языке 👆
Язык:

Перевод и анализ слов искусственным интеллектом ChatGPT

На этой странице Вы можете получить подробный анализ слова или словосочетания, произведенный с помощью лучшей на сегодняшний день технологии искусственного интеллекта:

  • как употребляется слово
  • частота употребления
  • используется оно чаще в устной или письменной речи
  • варианты перевода слова
  • примеры употребления (несколько фраз с переводом)
  • этимология

Что (кто) такое non-uniform quantising logarithmic compression - определение

OBJECT MOVEMENT ALONG A CIRCULAR PATH
Uniform circular motion; Uniform Circular Motion; Non-uniform circular motion; Non-Uniform Circular Motion; Uniform circular Motion; Angular motion; Radial motion; Turning motion
  • Figure 3: (Left) Ball in circular motion – rope provides centripetal force to keep ball in circle (Right) Rope is cut and ball continues in straight line with velocity at the time of cutting the rope, in accord with Newton's law of inertia, because centripetal force is no longer there.
  • '''''ω'''''}} representing the rotation is normal to the plane of the orbit.
  • frameless
  • frameless
  • frameless
  • frameless
  • ω}}; the speed is constant, but the velocity is always tangent to the orbit; the acceleration has constant magnitude, but always points toward the center of rotation.
  • Figure 4: Polar coordinates for circular trajectory. On the left is a unit circle showing the changes <math>\mathbf{d\hat\mathbf{u}_R} </math> and <math>\mathbf{d\hat\mathbf{u}_\theta}</math> in the unit vectors <math>\mathbf{\hat\mathbf{u}_R} </math> and <math>\mathbf{\hat\mathbf{u}_\theta}</math> for a small increment <math>d \theta</math> in angle <math>\theta</math>.
  • ''dt'' → 0}}.

non-uniform quantising logarithmic compression      
The kind of compression often applied to a sound waveform. Logarithmic compression is a good match for the human ear's sensitivity but cannot handle zero amplitude (for which the logarithm is negative infinity). There are two standard compression functions which give a smooth transition between the logarithmic function and a linear segment passing through the origin: mu-law (North America) and A-law (ITU-T). (1995-02-21)
Sheaf of logarithmic differential forms         
MEROMORPHIC DIFFERENTIAL FORM WITH POLES OF A CERTAIN KIND
Logarithmic Kähler differentials; Sheaf of logarithmic differential forms; Logarithmic differential form; Logarithmic Kähler differential
In algebraic geometry, the sheaf of logarithmic differential p-forms \Omega^p_X(\log D) on a smooth projective variety X along a smooth divisor D = \sum D_j is defined and fits into the exact sequence of locally free sheaves:
Logarithmic form         
MEROMORPHIC DIFFERENTIAL FORM WITH POLES OF A CERTAIN KIND
Logarithmic Kähler differentials; Sheaf of logarithmic differential forms; Logarithmic differential form; Logarithmic Kähler differential
In contexts including complex manifolds and algebraic geometry, a logarithmic differential form is a meromorphic differential form with poles of a certain kind. The concept was introduced by Deligne.

Википедия

Circular motion

In physics, circular motion is a movement of an object along the circumference of a circle or rotation along a circular path. It can be uniform, with constant angular rate of rotation and constant speed, or non-uniform with a changing rate of rotation. The rotation around a fixed axis of a three-dimensional body involves circular motion of its parts. The equations of motion describe the movement of the center of mass of a body. In circular motion, the distance between the body and a fixed point on the surface remains the same.

Examples of circular motion include: an artificial satellite orbiting the Earth at a constant height, a ceiling fan's blades rotating around a hub, a stone which is tied to a rope and is being swung in circles, a car turning through a curve in a race track, an electron moving perpendicular to a uniform magnetic field, and a gear turning inside a mechanism.

Since the object's velocity vector is constantly changing direction, the moving object is undergoing acceleration by a centripetal force in the direction of the center of rotation. Without this acceleration, the object would move in a straight line, according to Newton's laws of motion.