Limit $ lim_{ntoinfty} left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}$











up vote
3
down vote

favorite













I'm required to compute the limit of the following sequence:
$$ lim_{ntoinfty} left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}$$




I'm not sure as to how to approach it. I've tried tackling it in a few ways, but none of them led me to a form I know how to tackle.



Let $a_n$ denote the base.



$$ lim_{ntoinfty}(a_n)^{frac{n^2}{1-n}}= left(lim_{ntoinfty}(a_n)^{large frac{1}{1-n}}right)^{n^2}=lim_{ntoinfty} left(sqrt[1-n]{a_n}right)^{n^2}=1^{infty} $$



From there though I don't know how to compute:
$$e^{lim_{ntoinfty} left(sqrt[n-1]{a_n}n^2right)}$$



I tried using the ln function though I couldn't get any further. I'd be glad for help :)










share|cite|improve this question




























    up vote
    3
    down vote

    favorite













    I'm required to compute the limit of the following sequence:
    $$ lim_{ntoinfty} left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}$$




    I'm not sure as to how to approach it. I've tried tackling it in a few ways, but none of them led me to a form I know how to tackle.



    Let $a_n$ denote the base.



    $$ lim_{ntoinfty}(a_n)^{frac{n^2}{1-n}}= left(lim_{ntoinfty}(a_n)^{large frac{1}{1-n}}right)^{n^2}=lim_{ntoinfty} left(sqrt[1-n]{a_n}right)^{n^2}=1^{infty} $$



    From there though I don't know how to compute:
    $$e^{lim_{ntoinfty} left(sqrt[n-1]{a_n}n^2right)}$$



    I tried using the ln function though I couldn't get any further. I'd be glad for help :)










    share|cite|improve this question


























      up vote
      3
      down vote

      favorite









      up vote
      3
      down vote

      favorite












      I'm required to compute the limit of the following sequence:
      $$ lim_{ntoinfty} left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}$$




      I'm not sure as to how to approach it. I've tried tackling it in a few ways, but none of them led me to a form I know how to tackle.



      Let $a_n$ denote the base.



      $$ lim_{ntoinfty}(a_n)^{frac{n^2}{1-n}}= left(lim_{ntoinfty}(a_n)^{large frac{1}{1-n}}right)^{n^2}=lim_{ntoinfty} left(sqrt[1-n]{a_n}right)^{n^2}=1^{infty} $$



      From there though I don't know how to compute:
      $$e^{lim_{ntoinfty} left(sqrt[n-1]{a_n}n^2right)}$$



      I tried using the ln function though I couldn't get any further. I'd be glad for help :)










      share|cite|improve this question
















      I'm required to compute the limit of the following sequence:
      $$ lim_{ntoinfty} left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}$$




      I'm not sure as to how to approach it. I've tried tackling it in a few ways, but none of them led me to a form I know how to tackle.



      Let $a_n$ denote the base.



      $$ lim_{ntoinfty}(a_n)^{frac{n^2}{1-n}}= left(lim_{ntoinfty}(a_n)^{large frac{1}{1-n}}right)^{n^2}=lim_{ntoinfty} left(sqrt[1-n]{a_n}right)^{n^2}=1^{infty} $$



      From there though I don't know how to compute:
      $$e^{lim_{ntoinfty} left(sqrt[n-1]{a_n}n^2right)}$$



      I tried using the ln function though I couldn't get any further. I'd be glad for help :)







      real-analysis calculus limits






      share|cite|improve this question















      share|cite|improve this question













      share|cite|improve this question




      share|cite|improve this question








      edited Dec 5 at 13:26









      Arjang

      5,56662363




      5,56662363










      asked Dec 5 at 10:47









      Moshe

      376




      376






















          3 Answers
          3






          active

          oldest

          votes

















          up vote
          4
          down vote



          accepted










          HINT



          $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}sim ccdot left(frac32right)^{-n}$$



          indeed



          $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac32right)^{-n}left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}$$



          and



          $$left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left[left(1-frac{frac53n+frac13}{2n^2+n+1}right)^{frac{2n^2+n+1}{frac53n+frac13}}right]^{frac{frac53n^3+frac13n^2}{(2n^2+n+1)(1-n)}}toleft(frac1eright)^{-frac56}$$






          share|cite|improve this answer























          • I observed that, it leads to 0 but subtituing larger values in the original form gives me other value
            – Moshe
            Dec 5 at 11:05










          • @Moshe To prove that we can proceed as follows $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac{3n^2}{2n^2}right)^{-frac{n^2}{n-1}}cdot left(frac{1-1/3n+1/3n^2}{1+1/2n+1/2n^2}right)^{-frac{n^2}{n-1}}$$ and the second part on the RHS tends to 1.
            – gimusi
            Dec 5 at 11:16












          • Nice and simple (as usual !). Cheers.
            – Claude Leibovici
            Dec 5 at 11:25










          • @ClaudeLeibovici Thanks Claude! Much appreciative from you! Many cheers :)
            – gimusi
            Dec 5 at 11:28










          • "[T]he second part on the RHS" does not converge to 1 (hence the equivalence sign in the answer is wrong).
            – Did
            Dec 5 at 15:01


















          up vote
          6
          down vote













          You can estimate:
          $$frac{2n^2+n+1}{3n^2-n+1}<frac{3}{4}, n>7;$$



          $$0<left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}=left(frac{2n^2+n+1}{3n^2-n+1}right)^{large frac{n^2}{n-1}}<left(frac34right)^{large frac{n^2}{n-1}}=left(frac34right)^{n+1+large frac{1}{n-1}}to 0.$$






          share|cite|improve this answer





















          • very nice alternative approach (+1).
            – gimusi
            Dec 5 at 12:58










          • Thank you gimusi.
            – farruhota
            Dec 5 at 13:01


















          up vote
          0
          down vote













          You can't reduce this to the limit form of the exponential function, because the limit of the content of the bracket is 3/2. But the exponent becomes more as $-n$ as $ntoinfty$; so you have the the reciprocal of a positive-exponentially increasing number.






          share|cite|improve this answer





















            Your Answer





            StackExchange.ifUsing("editor", function () {
            return StackExchange.using("mathjaxEditing", function () {
            StackExchange.MarkdownEditor.creationCallbacks.add(function (editor, postfix) {
            StackExchange.mathjaxEditing.prepareWmdForMathJax(editor, postfix, [["$", "$"], ["\\(","\\)"]]);
            });
            });
            }, "mathjax-editing");

            StackExchange.ready(function() {
            var channelOptions = {
            tags: "".split(" "),
            id: "69"
            };
            initTagRenderer("".split(" "), "".split(" "), channelOptions);

            StackExchange.using("externalEditor", function() {
            // Have to fire editor after snippets, if snippets enabled
            if (StackExchange.settings.snippets.snippetsEnabled) {
            StackExchange.using("snippets", function() {
            createEditor();
            });
            }
            else {
            createEditor();
            }
            });

            function createEditor() {
            StackExchange.prepareEditor({
            heartbeatType: 'answer',
            convertImagesToLinks: true,
            noModals: true,
            showLowRepImageUploadWarning: true,
            reputationToPostImages: 10,
            bindNavPrevention: true,
            postfix: "",
            imageUploader: {
            brandingHtml: "Powered by u003ca class="icon-imgur-white" href="https://imgur.com/"u003eu003c/au003e",
            contentPolicyHtml: "User contributions licensed under u003ca href="https://creativecommons.org/licenses/by-sa/3.0/"u003ecc by-sa 3.0 with attribution requiredu003c/au003e u003ca href="https://stackoverflow.com/legal/content-policy"u003e(content policy)u003c/au003e",
            allowUrls: true
            },
            noCode: true, onDemand: true,
            discardSelector: ".discard-answer"
            ,immediatelyShowMarkdownHelp:true
            });


            }
            });














            draft saved

            draft discarded


















            StackExchange.ready(
            function () {
            StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2fmath.stackexchange.com%2fquestions%2f3026929%2flimit-lim-n-to-infty-left-frac3n2-n12n2n1-right-large-fracn%23new-answer', 'question_page');
            }
            );

            Post as a guest















            Required, but never shown

























            3 Answers
            3






            active

            oldest

            votes








            3 Answers
            3






            active

            oldest

            votes









            active

            oldest

            votes






            active

            oldest

            votes








            up vote
            4
            down vote



            accepted










            HINT



            $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}sim ccdot left(frac32right)^{-n}$$



            indeed



            $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac32right)^{-n}left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}$$



            and



            $$left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left[left(1-frac{frac53n+frac13}{2n^2+n+1}right)^{frac{2n^2+n+1}{frac53n+frac13}}right]^{frac{frac53n^3+frac13n^2}{(2n^2+n+1)(1-n)}}toleft(frac1eright)^{-frac56}$$






            share|cite|improve this answer























            • I observed that, it leads to 0 but subtituing larger values in the original form gives me other value
              – Moshe
              Dec 5 at 11:05










            • @Moshe To prove that we can proceed as follows $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac{3n^2}{2n^2}right)^{-frac{n^2}{n-1}}cdot left(frac{1-1/3n+1/3n^2}{1+1/2n+1/2n^2}right)^{-frac{n^2}{n-1}}$$ and the second part on the RHS tends to 1.
              – gimusi
              Dec 5 at 11:16












            • Nice and simple (as usual !). Cheers.
              – Claude Leibovici
              Dec 5 at 11:25










            • @ClaudeLeibovici Thanks Claude! Much appreciative from you! Many cheers :)
              – gimusi
              Dec 5 at 11:28










            • "[T]he second part on the RHS" does not converge to 1 (hence the equivalence sign in the answer is wrong).
              – Did
              Dec 5 at 15:01















            up vote
            4
            down vote



            accepted










            HINT



            $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}sim ccdot left(frac32right)^{-n}$$



            indeed



            $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac32right)^{-n}left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}$$



            and



            $$left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left[left(1-frac{frac53n+frac13}{2n^2+n+1}right)^{frac{2n^2+n+1}{frac53n+frac13}}right]^{frac{frac53n^3+frac13n^2}{(2n^2+n+1)(1-n)}}toleft(frac1eright)^{-frac56}$$






            share|cite|improve this answer























            • I observed that, it leads to 0 but subtituing larger values in the original form gives me other value
              – Moshe
              Dec 5 at 11:05










            • @Moshe To prove that we can proceed as follows $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac{3n^2}{2n^2}right)^{-frac{n^2}{n-1}}cdot left(frac{1-1/3n+1/3n^2}{1+1/2n+1/2n^2}right)^{-frac{n^2}{n-1}}$$ and the second part on the RHS tends to 1.
              – gimusi
              Dec 5 at 11:16












            • Nice and simple (as usual !). Cheers.
              – Claude Leibovici
              Dec 5 at 11:25










            • @ClaudeLeibovici Thanks Claude! Much appreciative from you! Many cheers :)
              – gimusi
              Dec 5 at 11:28










            • "[T]he second part on the RHS" does not converge to 1 (hence the equivalence sign in the answer is wrong).
              – Did
              Dec 5 at 15:01













            up vote
            4
            down vote



            accepted







            up vote
            4
            down vote



            accepted






            HINT



            $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}sim ccdot left(frac32right)^{-n}$$



            indeed



            $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac32right)^{-n}left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}$$



            and



            $$left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left[left(1-frac{frac53n+frac13}{2n^2+n+1}right)^{frac{2n^2+n+1}{frac53n+frac13}}right]^{frac{frac53n^3+frac13n^2}{(2n^2+n+1)(1-n)}}toleft(frac1eright)^{-frac56}$$






            share|cite|improve this answer














            HINT



            $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}sim ccdot left(frac32right)^{-n}$$



            indeed



            $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac32right)^{-n}left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}$$



            and



            $$left(frac{2n^2-frac23n+frac23}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left[left(1-frac{frac53n+frac13}{2n^2+n+1}right)^{frac{2n^2+n+1}{frac53n+frac13}}right]^{frac{frac53n^3+frac13n^2}{(2n^2+n+1)(1-n)}}toleft(frac1eright)^{-frac56}$$







            share|cite|improve this answer














            share|cite|improve this answer



            share|cite|improve this answer








            edited Dec 5 at 15:13

























            answered Dec 5 at 10:49









            gimusi

            92.9k94495




            92.9k94495












            • I observed that, it leads to 0 but subtituing larger values in the original form gives me other value
              – Moshe
              Dec 5 at 11:05










            • @Moshe To prove that we can proceed as follows $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac{3n^2}{2n^2}right)^{-frac{n^2}{n-1}}cdot left(frac{1-1/3n+1/3n^2}{1+1/2n+1/2n^2}right)^{-frac{n^2}{n-1}}$$ and the second part on the RHS tends to 1.
              – gimusi
              Dec 5 at 11:16












            • Nice and simple (as usual !). Cheers.
              – Claude Leibovici
              Dec 5 at 11:25










            • @ClaudeLeibovici Thanks Claude! Much appreciative from you! Many cheers :)
              – gimusi
              Dec 5 at 11:28










            • "[T]he second part on the RHS" does not converge to 1 (hence the equivalence sign in the answer is wrong).
              – Did
              Dec 5 at 15:01


















            • I observed that, it leads to 0 but subtituing larger values in the original form gives me other value
              – Moshe
              Dec 5 at 11:05










            • @Moshe To prove that we can proceed as follows $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac{3n^2}{2n^2}right)^{-frac{n^2}{n-1}}cdot left(frac{1-1/3n+1/3n^2}{1+1/2n+1/2n^2}right)^{-frac{n^2}{n-1}}$$ and the second part on the RHS tends to 1.
              – gimusi
              Dec 5 at 11:16












            • Nice and simple (as usual !). Cheers.
              – Claude Leibovici
              Dec 5 at 11:25










            • @ClaudeLeibovici Thanks Claude! Much appreciative from you! Many cheers :)
              – gimusi
              Dec 5 at 11:28










            • "[T]he second part on the RHS" does not converge to 1 (hence the equivalence sign in the answer is wrong).
              – Did
              Dec 5 at 15:01
















            I observed that, it leads to 0 but subtituing larger values in the original form gives me other value
            – Moshe
            Dec 5 at 11:05




            I observed that, it leads to 0 but subtituing larger values in the original form gives me other value
            – Moshe
            Dec 5 at 11:05












            @Moshe To prove that we can proceed as follows $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac{3n^2}{2n^2}right)^{-frac{n^2}{n-1}}cdot left(frac{1-1/3n+1/3n^2}{1+1/2n+1/2n^2}right)^{-frac{n^2}{n-1}}$$ and the second part on the RHS tends to 1.
            – gimusi
            Dec 5 at 11:16






            @Moshe To prove that we can proceed as follows $$left(frac{3n^2-n+1}{2n^2+n+1}right)^{frac{n^2}{1-n}}=left(frac{3n^2}{2n^2}right)^{-frac{n^2}{n-1}}cdot left(frac{1-1/3n+1/3n^2}{1+1/2n+1/2n^2}right)^{-frac{n^2}{n-1}}$$ and the second part on the RHS tends to 1.
            – gimusi
            Dec 5 at 11:16














            Nice and simple (as usual !). Cheers.
            – Claude Leibovici
            Dec 5 at 11:25




            Nice and simple (as usual !). Cheers.
            – Claude Leibovici
            Dec 5 at 11:25












            @ClaudeLeibovici Thanks Claude! Much appreciative from you! Many cheers :)
            – gimusi
            Dec 5 at 11:28




            @ClaudeLeibovici Thanks Claude! Much appreciative from you! Many cheers :)
            – gimusi
            Dec 5 at 11:28












            "[T]he second part on the RHS" does not converge to 1 (hence the equivalence sign in the answer is wrong).
            – Did
            Dec 5 at 15:01




            "[T]he second part on the RHS" does not converge to 1 (hence the equivalence sign in the answer is wrong).
            – Did
            Dec 5 at 15:01










            up vote
            6
            down vote













            You can estimate:
            $$frac{2n^2+n+1}{3n^2-n+1}<frac{3}{4}, n>7;$$



            $$0<left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}=left(frac{2n^2+n+1}{3n^2-n+1}right)^{large frac{n^2}{n-1}}<left(frac34right)^{large frac{n^2}{n-1}}=left(frac34right)^{n+1+large frac{1}{n-1}}to 0.$$






            share|cite|improve this answer





















            • very nice alternative approach (+1).
              – gimusi
              Dec 5 at 12:58










            • Thank you gimusi.
              – farruhota
              Dec 5 at 13:01















            up vote
            6
            down vote













            You can estimate:
            $$frac{2n^2+n+1}{3n^2-n+1}<frac{3}{4}, n>7;$$



            $$0<left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}=left(frac{2n^2+n+1}{3n^2-n+1}right)^{large frac{n^2}{n-1}}<left(frac34right)^{large frac{n^2}{n-1}}=left(frac34right)^{n+1+large frac{1}{n-1}}to 0.$$






            share|cite|improve this answer





















            • very nice alternative approach (+1).
              – gimusi
              Dec 5 at 12:58










            • Thank you gimusi.
              – farruhota
              Dec 5 at 13:01













            up vote
            6
            down vote










            up vote
            6
            down vote









            You can estimate:
            $$frac{2n^2+n+1}{3n^2-n+1}<frac{3}{4}, n>7;$$



            $$0<left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}=left(frac{2n^2+n+1}{3n^2-n+1}right)^{large frac{n^2}{n-1}}<left(frac34right)^{large frac{n^2}{n-1}}=left(frac34right)^{n+1+large frac{1}{n-1}}to 0.$$






            share|cite|improve this answer












            You can estimate:
            $$frac{2n^2+n+1}{3n^2-n+1}<frac{3}{4}, n>7;$$



            $$0<left(frac{3n^2-n+1}{2n^2+n+1}right)^{large frac{n^2}{1-n}}=left(frac{2n^2+n+1}{3n^2-n+1}right)^{large frac{n^2}{n-1}}<left(frac34right)^{large frac{n^2}{n-1}}=left(frac34right)^{n+1+large frac{1}{n-1}}to 0.$$







            share|cite|improve this answer












            share|cite|improve this answer



            share|cite|improve this answer










            answered Dec 5 at 12:15









            farruhota

            18.7k2736




            18.7k2736












            • very nice alternative approach (+1).
              – gimusi
              Dec 5 at 12:58










            • Thank you gimusi.
              – farruhota
              Dec 5 at 13:01


















            • very nice alternative approach (+1).
              – gimusi
              Dec 5 at 12:58










            • Thank you gimusi.
              – farruhota
              Dec 5 at 13:01
















            very nice alternative approach (+1).
            – gimusi
            Dec 5 at 12:58




            very nice alternative approach (+1).
            – gimusi
            Dec 5 at 12:58












            Thank you gimusi.
            – farruhota
            Dec 5 at 13:01




            Thank you gimusi.
            – farruhota
            Dec 5 at 13:01










            up vote
            0
            down vote













            You can't reduce this to the limit form of the exponential function, because the limit of the content of the bracket is 3/2. But the exponent becomes more as $-n$ as $ntoinfty$; so you have the the reciprocal of a positive-exponentially increasing number.






            share|cite|improve this answer

























              up vote
              0
              down vote













              You can't reduce this to the limit form of the exponential function, because the limit of the content of the bracket is 3/2. But the exponent becomes more as $-n$ as $ntoinfty$; so you have the the reciprocal of a positive-exponentially increasing number.






              share|cite|improve this answer























                up vote
                0
                down vote










                up vote
                0
                down vote









                You can't reduce this to the limit form of the exponential function, because the limit of the content of the bracket is 3/2. But the exponent becomes more as $-n$ as $ntoinfty$; so you have the the reciprocal of a positive-exponentially increasing number.






                share|cite|improve this answer












                You can't reduce this to the limit form of the exponential function, because the limit of the content of the bracket is 3/2. But the exponent becomes more as $-n$ as $ntoinfty$; so you have the the reciprocal of a positive-exponentially increasing number.







                share|cite|improve this answer












                share|cite|improve this answer



                share|cite|improve this answer










                answered Dec 5 at 14:14









                AmbretteOrrisey

                54110




                54110






























                    draft saved

                    draft discarded




















































                    Thanks for contributing an answer to Mathematics Stack Exchange!


                    • Please be sure to answer the question. Provide details and share your research!

                    But avoid



                    • Asking for help, clarification, or responding to other answers.

                    • Making statements based on opinion; back them up with references or personal experience.


                    Use MathJax to format equations. MathJax reference.


                    To learn more, see our tips on writing great answers.





                    Some of your past answers have not been well-received, and you're in danger of being blocked from answering.


                    Please pay close attention to the following guidance:


                    • Please be sure to answer the question. Provide details and share your research!

                    But avoid



                    • Asking for help, clarification, or responding to other answers.

                    • Making statements based on opinion; back them up with references or personal experience.


                    To learn more, see our tips on writing great answers.




                    draft saved


                    draft discarded














                    StackExchange.ready(
                    function () {
                    StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2fmath.stackexchange.com%2fquestions%2f3026929%2flimit-lim-n-to-infty-left-frac3n2-n12n2n1-right-large-fracn%23new-answer', 'question_page');
                    }
                    );

                    Post as a guest















                    Required, but never shown





















































                    Required, but never shown














                    Required, but never shown












                    Required, but never shown







                    Required, but never shown

































                    Required, but never shown














                    Required, but never shown












                    Required, but never shown







                    Required, but never shown







                    Popular posts from this blog

                    flock() on closed filehandle LOCK_FILE at /usr/bin/apt-mirror

                    Mangá

                     ⁒  ․,‪⁊‑⁙ ⁖, ⁇‒※‌, †,⁖‗‌⁝    ‾‸⁘,‖⁔⁣,⁂‾
”‑,‥–,‬ ,⁀‹⁋‴⁑ ‒ ,‴⁋”‼ ⁨,‷⁔„ ‰′,‐‚ ‥‡‎“‷⁃⁨⁅⁣,⁔
⁇‘⁔⁡⁏⁌⁡‿‶‏⁨ ⁣⁕⁖⁨⁩⁥‽⁀  ‴‬⁜‟ ⁃‣‧⁕‮ …‍⁨‴ ⁩,⁚⁖‫ ,‵ ⁀,‮⁝‣‣ ⁑  ⁂– ․, ‾‽ ‏⁁“⁗‸ ‾… ‹‡⁌⁎‸‘ ‡⁏⁌‪ ‵⁛ ‎⁨ ―⁦⁤⁄⁕