Path lines in transitional flow are not well-defined as the flow constantly fluctuates between laminar and turbulent states. This results in path lines that may change unpredictably over time, making it challenging to track individual fluid particles. Transitional flow is characterized by a mix of laminar and turbulent characteristics, leading to complex and irregular path line behavior.
Path lines in laminar flow are smooth, steady, and well-defined, with fluid particles following a predictable trajectory as they move through the flow field. The path lines do not intersect or cross each other in laminar flow, and the flow remains orderly and organized.
In turbulent flow, path lines are constantly changing and will exhibit erratic and unpredictable behavior due to the chaotic nature of turbulence. Path lines may twist, curl, and fold upon themselves, making it difficult to predict the trajectory of individual fluid particles over time.
Birds do not get electrocuted when sitting on power lines because they are not completing a circuit for electricity to flow through. The electricity in power lines travels in a closed loop, and birds are not grounded so there is no path for the electricity to flow through them. Additionally, most power lines are insulated to prevent electricity from leaking out.
Birds perching on power lines do not get electrocuted because they are not completing a circuit by touching another conductor. The power lines are insulated and the birds' legs are not close enough together to create a path for electricity to flow through their bodies.
Yes, electricity can flow through air if the voltage is high enough to ionize the air and create a conductive path. This is known as electrical arcing and can occur during lightning strikes or in high-voltage transmission lines.
Path lines in laminar flow are smooth, steady, and well-defined, with fluid particles following a predictable trajectory as they move through the flow field. The path lines do not intersect or cross each other in laminar flow, and the flow remains orderly and organized.
In turbulent flow, path lines are constantly changing and will exhibit erratic and unpredictable behavior due to the chaotic nature of turbulence. Path lines may twist, curl, and fold upon themselves, making it difficult to predict the trajectory of individual fluid particles over time.
Lines of equal velocity are called "streamlines." They represent the path that a fluid element would follow as it moves through a flow field at a constant velocity.
Streamlines represent the instantaneous velocity field at a given moment, while pathlines show the actual path that individual particles follow over time. Streamlines provide information about the flow pattern at a specific instant, while pathlines depict the trajectory of individual particles as they move through a flow field.
The path of least resistance.
Birds do not get electrocuted when sitting on power lines because they are not completing a circuit for electricity to flow through. The electricity in power lines travels in a closed loop, and birds are not grounded so there is no path for the electricity to flow through them. Additionally, most power lines are insulated to prevent electricity from leaking out.
Electricity is the flow of electrons.Hence it requires a path containing free electrons in order to flow.
Birds perching on power lines do not get electrocuted because they are not completing a circuit by touching another conductor. The power lines are insulated and the birds' legs are not close enough together to create a path for electricity to flow through their bodies.
Yes, electricity can flow through air if the voltage is high enough to ionize the air and create a conductive path. This is known as electrical arcing and can occur during lightning strikes or in high-voltage transmission lines.
"Circuit."
like water it follows the path of least resistance
A path that an electric current follows is typically a closed loop circuit, which allows the flow of electrons from the power source (e.g., battery or generator) through a conductive material or wire, and back to the source completing the circuit. The components in the circuit (e.g., resistors, capacitors, and switches) regulate the flow of current and determine the behavior of the circuit.