If you mean a straight path, rather than a strait path, then it is a ray.
The depth of a lake at a center point is a function of the distance of that point from shore.
A rational function is the quotient of two polynomial functions.
Typically, functions are graphed on x-y coordinates. A function of x means that for every x point, there must be a single y point. You can also many properties by graphing a function, such as the minimum and maximum points, slopes and inflection points, and the inverse of the function (y values plotted on x coordinate, and x values on y coordinate).
The shortest path is a line perpendicular to the given line that passes through the given point.
state function did not depend on the path , it depends on the initial and final point of the system where as path function depends on the path of the reaction.
A point function is a function whose value depends only on the state of a system at a single point, regardless of the path taken to reach that state. Examples include pressure, temperature, and density. In contrast, a path function depends on the path taken to reach a particular state and not just the initial and final states of a system. Examples include work and heat.
A path function in thermodynamics depends on the path taken to reach a particular state, such as work and heat, while a point function depends only on the state of the system, like temperature, pressure, and internal energy. Path functions are not uniquely determined by the initial and final states, while point functions are determined by the state variables of the system at a specific moment regardless of how the system reached that state.
The path of a moving point is the trajectory or route that the point follows as it travels through space or along a surface. The path can be straight, curved, circular, or any other shape, depending on the motion of the point. It is typically described by its position coordinates as a function of time.
a function whose magnitude depends on the path followed by the function and on the end points.
A path function in thermodynamics is a function whose value depends on the path taken to reach a particular state. Examples include work and heat. These functions are not solely determined by the initial and final states but also by the process followed.
First, understand it. Electricity is an energy source that can be at levels far higher that what your body can absorb. Understand that commercial power runs through a current path, typically through wires from from point to point, usually from hot to neutral, but if your body provides a path to ground, you become a part of that "point to point" current path. You need to be aware when any part of your body can become part of that current path. Knowing the laws of nature that govern electricity is the best way to avoid electrical hazards. As an energy source, electricity can cause devices to overheat, resulting in fire danger. Electrical sparks can ignite explosive gasses. As with any potentially dangerous activity, you should understand what you're doing before you work with something with that much power.
Its a path function......but DISPLACEMENT is a state function.Distance depends on the path we followed from one state to another but displacement is a straight distance so it depends upon the states.
The function of a switch is to open or close a path for electricity.
The shortest path from a starting point to an endpoint regardless of the path taken is called the "optimal path" or "minimum path." This path minimizes the distance, time, or cost required to reach the endpoint.
Distance traveled is a path function, as it depends on the specific path taken between two points. State functions, on the other hand, depend only on the initial and final states of a system, such as temperature, pressure, or internal energy.
A point function in thermodynamics is a property that depends only on the current state of a system and not on how the system arrived at that state. Examples include temperature, pressure, and internal energy. These functions can be uniquely defined by specifying the state of the system, making them useful for analyzing thermodynamic processes.