{
"query": {
"display": "$$\\int_{0}^{e}a^{x}dx$$",
"symbolab_question": "BIG_OPERATOR#\\int _{0}^{e}a^{x}dx"
},
"solution": {
"level": "PERFORMED",
"subject": "Calculus",
"topic": "Integrals",
"subTopic": "Definite Integrals",
"default": "\\frac{a^{e}-1}{\\ln(a)}",
"meta": {
"showVerify": true
}
},
"steps": {
"type": "interim",
"title": "$$\\int_{0}^{e}a^{x}dx=\\frac{a^{e}-1}{\\ln\\left(a\\right)}$$",
"input": "\\int_{0}^{e}a^{x}dx",
"steps": [
{
"type": "step",
"primary": "$$\\int{a^x}dx=\\frac{a^x}{\\ln{a}}$$",
"result": "=[\\frac{a^{x}}{\\ln\\left(a\\right)}]_{0}^{e}",
"meta": {
"general_rule": {
"extension": "$$\\int{a^x}dx=\\int{e^{\\ln{a^x}}}=\\int{e^{x\\ln{a}}}=\\frac{e^{x\\ln{a}}}{\\ln{a}}=\\frac{e^{\\ln{a^x}}}{\\ln{a}}=\\frac{a^x}{\\ln{a}}$$"
}
}
},
{
"type": "interim",
"title": "Compute the boundaries:$${\\quad}\\frac{a^{e}}{\\ln\\left(a\\right)}-\\frac{1}{\\ln\\left(a\\right)}$$",
"input": "[\\frac{a^{x}}{\\ln\\left(a\\right)}]_{0}^{e}",
"steps": [
{
"type": "step",
"primary": "$$\\int_{a}^{b}{f\\left(x\\right)dx}=F\\left(b\\right)-F\\left(a\\right)=\\lim_{x\\to\\:b-}\\left(F\\left(x\\right)\\right)-\\lim_{x\\to\\:a+}\\left(F\\left(x\\right)\\right)$$"
},
{
"type": "interim",
"title": "$$\\lim_{x\\to\\:0+}\\left(\\frac{a^{x}}{\\ln\\left(a\\right)}\\right)=\\frac{1}{\\ln\\left(a\\right)}$$",
"input": "\\lim_{x\\to\\:0+}\\left(\\frac{a^{x}}{\\ln\\left(a\\right)}\\right)",
"steps": [
{
"type": "step",
"primary": "Plug in the value $$x=0$$",
"result": "=\\frac{a^{0}}{\\ln\\left(a\\right)}",
"meta": {
"title": {
"extension": "Limit properties - if the limit of f(x), and g(x) exists, then:<br/>$$\\bullet\\quad\\lim_{x\\to\\:a}\\left(x\\right)=a$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}[c\\cdot{f\\left(x\\right)}]=c\\cdot\\lim_{x\\to{a}}{f\\left(x\\right)}$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}[\\left(f\\left(x\\right)\\right)^c]=\\left(\\lim_{x\\to{a}}{f\\left(x\\right)}\\right)^c$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}[f\\left(x\\right)\\pm{g\\left(x\\right)}]=\\lim_{x\\to{a}}{f\\left(x\\right)}\\pm\\lim_{x\\to{a}}{g\\left(x\\right)}$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}[f\\left(x\\right)\\cdot{g\\left(x\\right)}]=\\lim_{x\\to{a}}{f\\left(x\\right)}\\cdot\\lim_{x\\to{a}}{g\\left(x\\right)}$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}\\left(\\frac{f\\left(x\\right)}{g\\left(x\\right)}\\right)=\\frac{\\lim_{x\\to{a}}{f\\left(x\\right)}}{\\lim_{x\\to{a}}{g\\left(x\\right)}},\\:$$where $$\\lim_{x\\to{a}}g\\left(x\\right)\\neq0$$"
}
}
},
{
"type": "step",
"primary": "Simplify",
"result": "=\\frac{1}{\\ln\\left(a\\right)}",
"meta": {
"solvingClass": "Solver"
}
}
],
"meta": {
"solvingClass": "Limits",
"interimType": "Limits"
}
},
{
"type": "interim",
"title": "$$\\lim_{x\\to\\:e-}\\left(\\frac{a^{x}}{\\ln\\left(a\\right)}\\right)=\\frac{a^{e}}{\\ln\\left(a\\right)}$$",
"input": "\\lim_{x\\to\\:e-}\\left(\\frac{a^{x}}{\\ln\\left(a\\right)}\\right)",
"steps": [
{
"type": "step",
"primary": "Plug in the value $$x=e$$",
"result": "=\\frac{a^{e}}{\\ln\\left(a\\right)}",
"meta": {
"title": {
"extension": "Limit properties - if the limit of f(x), and g(x) exists, then:<br/>$$\\bullet\\quad\\lim_{x\\to\\:a}\\left(x\\right)=a$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}[c\\cdot{f\\left(x\\right)}]=c\\cdot\\lim_{x\\to{a}}{f\\left(x\\right)}$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}[\\left(f\\left(x\\right)\\right)^c]=\\left(\\lim_{x\\to{a}}{f\\left(x\\right)}\\right)^c$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}[f\\left(x\\right)\\pm{g\\left(x\\right)}]=\\lim_{x\\to{a}}{f\\left(x\\right)}\\pm\\lim_{x\\to{a}}{g\\left(x\\right)}$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}[f\\left(x\\right)\\cdot{g\\left(x\\right)}]=\\lim_{x\\to{a}}{f\\left(x\\right)}\\cdot\\lim_{x\\to{a}}{g\\left(x\\right)}$$<br/>$$\\bullet\\quad\\lim_{x\\to{a}}\\left(\\frac{f\\left(x\\right)}{g\\left(x\\right)}\\right)=\\frac{\\lim_{x\\to{a}}{f\\left(x\\right)}}{\\lim_{x\\to{a}}{g\\left(x\\right)}},\\:$$where $$\\lim_{x\\to{a}}g\\left(x\\right)\\neq0$$"
}
}
}
],
"meta": {
"solvingClass": "Limits",
"interimType": "Limits"
}
},
{
"type": "step",
"result": "=\\frac{a^{e}}{\\ln\\left(a\\right)}-\\frac{1}{\\ln\\left(a\\right)}"
}
],
"meta": {
"interimType": "Integral Definite Limit Boundaries 0Eq",
"gptData": "pG0PljGlka7rWtIVHz2xymbOTBTIQkBEGSNjyYYsjjDErT97kX84sZPuiUzCW6s7l7+Hp9GxvB/5I+4/5L7s7xTmJPb0/sgLMeTwoEloNBQm9V/Bk1ibjaeyWJhgrw41uQ4kmq/soqHzBZwEaFJcUmEKsnCWXjtKIxhF7fKNxWaoEv4hTSrtIpYubLu7PWpDgQUxJPyUNnGfVirkcwpVO4F9y1KFIeHqjUpV4rro83BWfqQVURCgodkjT0tzNhTj"
}
},
{
"type": "step",
"result": "=\\frac{a^{e}}{\\ln\\left(a\\right)}-\\frac{1}{\\ln\\left(a\\right)}"
},
{
"type": "step",
"primary": "Simplify",
"result": "=\\frac{a^{e}-1}{\\ln\\left(a\\right)}"
}
],
"meta": {
"solvingClass": "Integrals"
}
},
"meta": {
"showVerify": true
}
}
Solution
Solution
Solution steps
Compute the boundaries:
Simplify
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Frequently Asked Questions (FAQ)
What is the integral from 0 to e of a^x ?
The integral from 0 to e of a^x is (a^e-1)/(ln(a))