Resistance is usually thought of as a scaler, since we usually measure it on wires that have effectively one dimension. However, there are materials that conduct in one direction but not another, so in fact we would need what is commonly called a tensor to properly describe it.
Any "scalar" quantity, such as speed, temperature, frequency, cost, etc.
Electrical charge is a fundamental dimension all by itself, and is not derived fromany other fundamental units. The unit of charge is the Coulomb, which is definedas 1 ampere-second.
Thermal resistivity of soils is a measure of how well a soil can conduct heat. It is the reciprocal of thermal conductivity and is used to quantify the ability of a soil to resist the flow of heat through it. Thermal resistivity is an important parameter in geotechnical and geothermal engineering applications.
Several factors influence water resistivity. Some of the most important are 1) the concentration of ions in the water; 2) the mobility of the ions in the water (smaller ionic radius ions tend to decrease water resistivity more than larger ionic radius ions); 3) the oxidation state of the ions; and 4) the temperature of the water.
The resistivity of sand can vary widely, but generally ranges from 1,000 to 10,000 ohm-meters. Sandstone typically has a resistivity of around 1 to 100 ohm-meters. Shale generally has a resistivity of 0.1 to 10 ohm-meters.
Resistivity is a scalar quantity. It is a measure of how strongly a material opposes the flow of electric current through it.
True. A vector quantity has both magnitude and direction, while a scalar quantity only has magnitude.
temperature is a scalar quantity................
length is a scalar quantity buddy . but displacement is vector quantity. Length is a vector quantity If it is associated with direction.. Because having direction make it vector... S0 being vector or scalar depends upon how and where it is used..
vector quantity is magnitute and direction scalar is magnitute only
A scalar quantity added to a vector quantity is a complex quantity. An example is a complex number z = a + ib, a is the scalar and ib is the vector quantity.If the vector quantity is 3 dimensional, ib + jc + kd, then the scalar and vector forms a quaternion quantity.
A vector quantity.
No, a vector quantity and a scalar quantity are different. A vector has both magnitude and direction, while a scalar has only magnitude. Velocity and force are examples of vector quantities, while speed and temperature are examples of scalar quantities.
Work is a scalar quantity.
A vector quantity includes a direction; a scalar does not.A vector quantity includes a direction; a scalar does not.A vector quantity includes a direction; a scalar does not.A vector quantity includes a direction; a scalar does not.
A vector
A scalar quantity is a non-vector quantity. In a vector quantity, direction is relevant. In a scalar quantity, it is not. For example, mass (measured in kg.) is a scalar; force is usually indicated as a vector (magnitude in Newton, but the direction is also relevant).A scalar quantity is a non-vector quantity. In a vector quantity, direction is relevant. In a scalar quantity, it is not. For example, mass (measured in kg.) is a scalar; force is usually indicated as a vector (magnitude in Newton, but the direction is also relevant).A scalar quantity is a non-vector quantity. In a vector quantity, direction is relevant. In a scalar quantity, it is not. For example, mass (measured in kg.) is a scalar; force is usually indicated as a vector (magnitude in Newton, but the direction is also relevant).A scalar quantity is a non-vector quantity. In a vector quantity, direction is relevant. In a scalar quantity, it is not. For example, mass (measured in kg.) is a scalar; force is usually indicated as a vector (magnitude in Newton, but the direction is also relevant).