Are all constant fields conservative? [closed]
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Are all constant fields conservative? Can there be some constant vector fields which are not conservative?
multivariable-calculus vector-analysis vector-fields constants
closed as off-topic by Jendrik Stelzner, Theoretical Economist, Adrian Keister, Gibbs, Strants Aug 29 at 14:52
This question appears to be off-topic. The users who voted to close gave this specific reason:
- "This question is missing context or other details: Please improve the question by providing additional context, which ideally includes your thoughts on the problem and any attempts you have made to solve it. This information helps others identify where you have difficulties and helps them write answers appropriate to your experience level." â Jendrik Stelzner, Theoretical Economist, Adrian Keister, Gibbs, Strants
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Are all constant fields conservative? Can there be some constant vector fields which are not conservative?
multivariable-calculus vector-analysis vector-fields constants
closed as off-topic by Jendrik Stelzner, Theoretical Economist, Adrian Keister, Gibbs, Strants Aug 29 at 14:52
This question appears to be off-topic. The users who voted to close gave this specific reason:
- "This question is missing context or other details: Please improve the question by providing additional context, which ideally includes your thoughts on the problem and any attempts you have made to solve it. This information helps others identify where you have difficulties and helps them write answers appropriate to your experience level." â Jendrik Stelzner, Theoretical Economist, Adrian Keister, Gibbs, Strants
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up vote
1
down vote
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up vote
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down vote
favorite
Are all constant fields conservative? Can there be some constant vector fields which are not conservative?
multivariable-calculus vector-analysis vector-fields constants
Are all constant fields conservative? Can there be some constant vector fields which are not conservative?
multivariable-calculus vector-analysis vector-fields constants
asked Aug 29 at 8:47
Joe
402113
402113
closed as off-topic by Jendrik Stelzner, Theoretical Economist, Adrian Keister, Gibbs, Strants Aug 29 at 14:52
This question appears to be off-topic. The users who voted to close gave this specific reason:
- "This question is missing context or other details: Please improve the question by providing additional context, which ideally includes your thoughts on the problem and any attempts you have made to solve it. This information helps others identify where you have difficulties and helps them write answers appropriate to your experience level." â Jendrik Stelzner, Theoretical Economist, Adrian Keister, Gibbs, Strants
closed as off-topic by Jendrik Stelzner, Theoretical Economist, Adrian Keister, Gibbs, Strants Aug 29 at 14:52
This question appears to be off-topic. The users who voted to close gave this specific reason:
- "This question is missing context or other details: Please improve the question by providing additional context, which ideally includes your thoughts on the problem and any attempts you have made to solve it. This information helps others identify where you have difficulties and helps them write answers appropriate to your experience level." â Jendrik Stelzner, Theoretical Economist, Adrian Keister, Gibbs, Strants
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1 Answer
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The answer is affirmative. A conservative field is a vector field which is the gradient of some function. So, if $mathbf v$ is a constant vector field, that is $mathbfv(x_1,ldots,x_n)=(a_1,ldots,a_n)$, you can take$$F(x_1,ldots,x_n)=a_1x_1+cdots+a_nx_n.$$Then $mathbfv=nabla F$.
I do not understand what $x_1$ and $a_1$ means? Can you please give a proof of it in three dimensions, so that a high school student (like me) can understand easily?
â Joe
Aug 29 at 9:06
@Joe If you want a $3$-dimensional proof, just take $n=3$. You wrote that $mathbf v$ is constant and so I took $mathbfv(x,y,z)=(a,b,c)$. Then $mathbfv=nabla f$, where $f(x,y,z)=ax+by+cz$.
â José Carlos Santos
Aug 29 at 9:08
Thanks.... I understand.
â Joe
Aug 29 at 9:11
@Joe I'm glad I could help.
â José Carlos Santos
Aug 29 at 9:11
add a comment |Â
1 Answer
1
active
oldest
votes
1 Answer
1
active
oldest
votes
active
oldest
votes
active
oldest
votes
up vote
3
down vote
accepted
The answer is affirmative. A conservative field is a vector field which is the gradient of some function. So, if $mathbf v$ is a constant vector field, that is $mathbfv(x_1,ldots,x_n)=(a_1,ldots,a_n)$, you can take$$F(x_1,ldots,x_n)=a_1x_1+cdots+a_nx_n.$$Then $mathbfv=nabla F$.
I do not understand what $x_1$ and $a_1$ means? Can you please give a proof of it in three dimensions, so that a high school student (like me) can understand easily?
â Joe
Aug 29 at 9:06
@Joe If you want a $3$-dimensional proof, just take $n=3$. You wrote that $mathbf v$ is constant and so I took $mathbfv(x,y,z)=(a,b,c)$. Then $mathbfv=nabla f$, where $f(x,y,z)=ax+by+cz$.
â José Carlos Santos
Aug 29 at 9:08
Thanks.... I understand.
â Joe
Aug 29 at 9:11
@Joe I'm glad I could help.
â José Carlos Santos
Aug 29 at 9:11
add a comment |Â
up vote
3
down vote
accepted
The answer is affirmative. A conservative field is a vector field which is the gradient of some function. So, if $mathbf v$ is a constant vector field, that is $mathbfv(x_1,ldots,x_n)=(a_1,ldots,a_n)$, you can take$$F(x_1,ldots,x_n)=a_1x_1+cdots+a_nx_n.$$Then $mathbfv=nabla F$.
I do not understand what $x_1$ and $a_1$ means? Can you please give a proof of it in three dimensions, so that a high school student (like me) can understand easily?
â Joe
Aug 29 at 9:06
@Joe If you want a $3$-dimensional proof, just take $n=3$. You wrote that $mathbf v$ is constant and so I took $mathbfv(x,y,z)=(a,b,c)$. Then $mathbfv=nabla f$, where $f(x,y,z)=ax+by+cz$.
â José Carlos Santos
Aug 29 at 9:08
Thanks.... I understand.
â Joe
Aug 29 at 9:11
@Joe I'm glad I could help.
â José Carlos Santos
Aug 29 at 9:11
add a comment |Â
up vote
3
down vote
accepted
up vote
3
down vote
accepted
The answer is affirmative. A conservative field is a vector field which is the gradient of some function. So, if $mathbf v$ is a constant vector field, that is $mathbfv(x_1,ldots,x_n)=(a_1,ldots,a_n)$, you can take$$F(x_1,ldots,x_n)=a_1x_1+cdots+a_nx_n.$$Then $mathbfv=nabla F$.
The answer is affirmative. A conservative field is a vector field which is the gradient of some function. So, if $mathbf v$ is a constant vector field, that is $mathbfv(x_1,ldots,x_n)=(a_1,ldots,a_n)$, you can take$$F(x_1,ldots,x_n)=a_1x_1+cdots+a_nx_n.$$Then $mathbfv=nabla F$.
answered Aug 29 at 8:51
José Carlos Santos
120k16101182
120k16101182
I do not understand what $x_1$ and $a_1$ means? Can you please give a proof of it in three dimensions, so that a high school student (like me) can understand easily?
â Joe
Aug 29 at 9:06
@Joe If you want a $3$-dimensional proof, just take $n=3$. You wrote that $mathbf v$ is constant and so I took $mathbfv(x,y,z)=(a,b,c)$. Then $mathbfv=nabla f$, where $f(x,y,z)=ax+by+cz$.
â José Carlos Santos
Aug 29 at 9:08
Thanks.... I understand.
â Joe
Aug 29 at 9:11
@Joe I'm glad I could help.
â José Carlos Santos
Aug 29 at 9:11
add a comment |Â
I do not understand what $x_1$ and $a_1$ means? Can you please give a proof of it in three dimensions, so that a high school student (like me) can understand easily?
â Joe
Aug 29 at 9:06
@Joe If you want a $3$-dimensional proof, just take $n=3$. You wrote that $mathbf v$ is constant and so I took $mathbfv(x,y,z)=(a,b,c)$. Then $mathbfv=nabla f$, where $f(x,y,z)=ax+by+cz$.
â José Carlos Santos
Aug 29 at 9:08
Thanks.... I understand.
â Joe
Aug 29 at 9:11
@Joe I'm glad I could help.
â José Carlos Santos
Aug 29 at 9:11
I do not understand what $x_1$ and $a_1$ means? Can you please give a proof of it in three dimensions, so that a high school student (like me) can understand easily?
â Joe
Aug 29 at 9:06
I do not understand what $x_1$ and $a_1$ means? Can you please give a proof of it in three dimensions, so that a high school student (like me) can understand easily?
â Joe
Aug 29 at 9:06
@Joe If you want a $3$-dimensional proof, just take $n=3$. You wrote that $mathbf v$ is constant and so I took $mathbfv(x,y,z)=(a,b,c)$. Then $mathbfv=nabla f$, where $f(x,y,z)=ax+by+cz$.
â José Carlos Santos
Aug 29 at 9:08
@Joe If you want a $3$-dimensional proof, just take $n=3$. You wrote that $mathbf v$ is constant and so I took $mathbfv(x,y,z)=(a,b,c)$. Then $mathbfv=nabla f$, where $f(x,y,z)=ax+by+cz$.
â José Carlos Santos
Aug 29 at 9:08
Thanks.... I understand.
â Joe
Aug 29 at 9:11
Thanks.... I understand.
â Joe
Aug 29 at 9:11
@Joe I'm glad I could help.
â José Carlos Santos
Aug 29 at 9:11
@Joe I'm glad I could help.
â José Carlos Santos
Aug 29 at 9:11
add a comment |Â