Answer: There are no "pseudo vectors" there are pseudo "rules". For example the right hand rule for vector multiplication. If you slip in the left hand rule then the vector becomes a pseudo vector under the right hand rule. Answer: A pseudo vector is one that changes direction when it is reflected. This affects all vectors that represent rotations, as well as, in general, vectors that are the result of a cross product.
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Actually The cross product of two vector is a VECTOR product. The direction of a vector product is found by the right hand rule. Consider two vectorsA and B,AxB= CWhere C is the Cross product of A and B, and by right hand rule its direction is opposite to that of BxA that isBxA=-C
The simple rule to follow is that whatever is done on the Left Hand Side of the equation must be repeated on the Right Hand Side of the equation to keep it in 'balance'
The 100 Percent Rule for Simultaneous Changes in Right-Hand Sides: The shadow prices remain valid for predicting the effect of simultaneously changing the right-hand sides of some of the functional constraints as long as the changes are not too large. To check whether the changes are small enough, calculate for each change the percentage of the allowable change (decrease or increase) for that right-hand side to remain within its allowable range. If the sum of the percentage changes does not exceed 100 percent, the shadow prices definitely will still be valid. (If the sum does exceed 100 percent, then we cannot be sure.)
The Answer is yes. the Right hand rule, is a rule that can not be broken & must obey the law of Physics. So therefore the right hand rule does apply.
For conventional flow (plus to minus) FLH rule is for motor action, and FRH rule is for generator action. So you can use FRH rule to determine the direction in which voltages are induced into the rotor by the rotating magnetic field, then use FLH rule to determine the direction in which the resulting forces, due to the rotor-bar currents, will act to rotate the rotor.
The direction of force produced on a current-carrying conductor placed in a magnetic field can be determined by this rule. the thumb, forefinger and middle finger of the left hand mutually at right angles to each other, such that the forefinger is in direction of flux, and the middle finger is in a direction of current flow in the conductor, then the thumb indicates the direction of motion of the conductor.
Here are some practice problems for the right-hand rule: Determine the direction of the magnetic field around a current-carrying wire using the right-hand rule. Use the right-hand rule to find the direction of the force on a charged particle moving through a magnetic field. Apply the right-hand rule to determine the direction of the induced current in a coil when the magnetic field changes. Use the right-hand rule to determine the direction of the magnetic force on a current-carrying conductor in a magnetic field. These practice problems will help you reinforce your understanding of the right-hand rule in various scenarios.
The right-hand rule is used in physics to determine the direction of a magnetic field, current, or force in a moving conductor. To use the right-hand rule, point your right thumb in the direction of the current or movement, your fingers curled in the direction of the magnetic field, then your palm would face the direction of the force. The right-hand rule helps establish the relationship between these three factors in electromagnetism.
There are mainly three types of right hand rules: the right-hand rule for magnetic fields (used to determine the direction of magnetic force on a moving charged particle), the right-hand rule for magnetic fields around a current-carrying wire (used to determine the direction of the magnetic field around a current-carrying wire), and the right-hand rule for rotating systems (used to determine the direction of angular velocity vector in rotating systems).
The right hand rule palm is used in physics to determine the direction of a magnetic field when a current flows through a wire.
The right-hand rule is used to determine the direction of the resulting vector when calculating the vector cross product.
The right-hand rule for cross products is a way to determine the direction of the resulting vector when two vectors are multiplied. To use the right-hand rule, align your right hand's fingers in the direction of the first vector, then curl them towards the second vector. Your thumb will point in the direction of the resulting vector.
Fleming's right hand rule.
The right-hand rule for vectors is a rule used in physics to determine the direction of a vector in a given coordinate system. To use the right-hand rule, align your right hand's thumb with the first vector and curl your fingers towards the second vector. The direction your fingers point in is the direction of the resulting vector. This rule helps in visualizing and determining the direction of vectors in three-dimensional space.
The right hand rule is used to determine the direction of the cross product in mathematics and physics. It helps to find the perpendicular direction to two given vectors by using the orientation of the right hand.