The graph would be translated upwards by 2 units.
If you mean y = 12x -2 and y = 12x then both slopes will be parallel but with the changed function having its slope passing through the origin (0, 0)
The graph is a region of the space on one side or another of the related function. If the inequality is strict then the related function itself is not part of the solution; otherwise it is.
The straight line in the graph goes 'uphill' from left to right
To accurately compare the function shown on the graph with the function ( y = 5x + 5 ), one would need to analyze the graph's slope and y-intercept. If the graph has a slope of 5 and a y-intercept of 5, then it is identical to the function ( y = 5x + 5 ). If either the slope or the y-intercept differs, then the graph represents a different linear function. Without seeing the specific graph, it's impossible to make a definitive comparison.
The answer will depend on what was changed to what!
The graph would be translated upwards by 2 units.
It would be less steep.
It would be less steep
If you mean y = 12x -2 and y = 12x then both slopes will be parallel but with the changed function having its slope passing through the origin (0, 0)
If you mean y = x+5 changed to y = x+9 then the lines will be parallel to each other but with different y intercepts.
The graph is a region of the space on one side or another of the related function. If the inequality is strict then the related function itself is not part of the solution; otherwise it is.
The graphs of y = 5x - 2 and y = x - 2 will have different slopes but with the same y intercepts.
Both lines would be parallel to each but the y intercept would change from 5 to 9
The straight line in the graph goes 'uphill' from left to right
A line. The derivative of a function is its slope. If the slope is a constant then the graph is a line.
If you mean y = x+5 and y = x+9 then both slopes will be parallel but with different y intercepts