Is there any references on the tensor product of presentable (1-)categories?
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Is there any references on the tensor product of (locally) presentable categories ?
All I know about this is Lurie's book that deals with the $infty$-categorical version, and a few references that deals with special cases (Grothendieck abelian categories, toposes etc...)
Is there any references that defines it properly and proves the basic properties ?
reference-request ct.category-theory locally-presentable-categories
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add a comment |
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Is there any references on the tensor product of (locally) presentable categories ?
All I know about this is Lurie's book that deals with the $infty$-categorical version, and a few references that deals with special cases (Grothendieck abelian categories, toposes etc...)
Is there any references that defines it properly and proves the basic properties ?
reference-request ct.category-theory locally-presentable-categories
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2
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It's certainly not what you have in mind, but I think it might be worth mentioning that Lurie's work does cover this example too (although I don't think he works out the details in his book): $mathrm{Set}$ is an idempotent algebra in $mathrm{Pr}^L$ and modules over it are precisely presentable 1-categories.
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– Denis Nardin
Mar 24 at 7:08
1
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Yes of course ! I know. But as you suspected, I was hopping for more elementary references that could also be read by people only familiar with ordinary category theory.
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– Simon Henry
Mar 24 at 7:45
add a comment |
$begingroup$
Is there any references on the tensor product of (locally) presentable categories ?
All I know about this is Lurie's book that deals with the $infty$-categorical version, and a few references that deals with special cases (Grothendieck abelian categories, toposes etc...)
Is there any references that defines it properly and proves the basic properties ?
reference-request ct.category-theory locally-presentable-categories
$endgroup$
Is there any references on the tensor product of (locally) presentable categories ?
All I know about this is Lurie's book that deals with the $infty$-categorical version, and a few references that deals with special cases (Grothendieck abelian categories, toposes etc...)
Is there any references that defines it properly and proves the basic properties ?
reference-request ct.category-theory locally-presentable-categories
reference-request ct.category-theory locally-presentable-categories
edited Mar 23 at 15:02
Simon Henry
asked Mar 23 at 11:56
Simon HenrySimon Henry
15.6k14991
15.6k14991
2
$begingroup$
It's certainly not what you have in mind, but I think it might be worth mentioning that Lurie's work does cover this example too (although I don't think he works out the details in his book): $mathrm{Set}$ is an idempotent algebra in $mathrm{Pr}^L$ and modules over it are precisely presentable 1-categories.
$endgroup$
– Denis Nardin
Mar 24 at 7:08
1
$begingroup$
Yes of course ! I know. But as you suspected, I was hopping for more elementary references that could also be read by people only familiar with ordinary category theory.
$endgroup$
– Simon Henry
Mar 24 at 7:45
add a comment |
2
$begingroup$
It's certainly not what you have in mind, but I think it might be worth mentioning that Lurie's work does cover this example too (although I don't think he works out the details in his book): $mathrm{Set}$ is an idempotent algebra in $mathrm{Pr}^L$ and modules over it are precisely presentable 1-categories.
$endgroup$
– Denis Nardin
Mar 24 at 7:08
1
$begingroup$
Yes of course ! I know. But as you suspected, I was hopping for more elementary references that could also be read by people only familiar with ordinary category theory.
$endgroup$
– Simon Henry
Mar 24 at 7:45
2
2
$begingroup$
It's certainly not what you have in mind, but I think it might be worth mentioning that Lurie's work does cover this example too (although I don't think he works out the details in his book): $mathrm{Set}$ is an idempotent algebra in $mathrm{Pr}^L$ and modules over it are precisely presentable 1-categories.
$endgroup$
– Denis Nardin
Mar 24 at 7:08
$begingroup$
It's certainly not what you have in mind, but I think it might be worth mentioning that Lurie's work does cover this example too (although I don't think he works out the details in his book): $mathrm{Set}$ is an idempotent algebra in $mathrm{Pr}^L$ and modules over it are precisely presentable 1-categories.
$endgroup$
– Denis Nardin
Mar 24 at 7:08
1
1
$begingroup$
Yes of course ! I know. But as you suspected, I was hopping for more elementary references that could also be read by people only familiar with ordinary category theory.
$endgroup$
– Simon Henry
Mar 24 at 7:45
$begingroup$
Yes of course ! I know. But as you suspected, I was hopping for more elementary references that could also be read by people only familiar with ordinary category theory.
$endgroup$
– Simon Henry
Mar 24 at 7:45
add a comment |
1 Answer
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The canonical reference is Chapter 5 of Greg Bird's thesis.
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1 Answer
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$begingroup$
The canonical reference is Chapter 5 of Greg Bird's thesis.
$endgroup$
add a comment |
$begingroup$
The canonical reference is Chapter 5 of Greg Bird's thesis.
$endgroup$
add a comment |
$begingroup$
The canonical reference is Chapter 5 of Greg Bird's thesis.
$endgroup$
The canonical reference is Chapter 5 of Greg Bird's thesis.
answered Mar 23 at 13:51
Alexander CampbellAlexander Campbell
2,33111316
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$begingroup$
It's certainly not what you have in mind, but I think it might be worth mentioning that Lurie's work does cover this example too (although I don't think he works out the details in his book): $mathrm{Set}$ is an idempotent algebra in $mathrm{Pr}^L$ and modules over it are precisely presentable 1-categories.
$endgroup$
– Denis Nardin
Mar 24 at 7:08
1
$begingroup$
Yes of course ! I know. But as you suspected, I was hopping for more elementary references that could also be read by people only familiar with ordinary category theory.
$endgroup$
– Simon Henry
Mar 24 at 7:45