Reference for Noam Elkies comments on integral lattices and fundamental parallelotope

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ORIGINAL: I would like to find some more detailed references to explain 2012 comments of Prof. Noam Elkies at https://mathoverflow.net/questions/103152/determinant-of-integer-lattice-basis-of-l-x-1-ldots-x-n-a-1x-1-cdotsa



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enter image description hereenter image description here



The recent questions I answered that got me interested were:



Basis for the kernel of linear map for linear Diophantine equation in three variables



On largest box not containing integer vector solutions



On largest box not containing integer vector solutions-$II$



In case of interest, here is an article on a recent breakthrough: http://www.ams.org/journals/notices/201702/rnoti-p102.pdf







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    up vote
    3
    down vote

    favorite
    1












    ORIGINAL: I would like to find some more detailed references to explain 2012 comments of Prof. Noam Elkies at https://mathoverflow.net/questions/103152/determinant-of-integer-lattice-basis-of-l-x-1-ldots-x-n-a-1x-1-cdotsa



    Here are screen captures
    enter image description hereenter image description here



    The recent questions I answered that got me interested were:



    Basis for the kernel of linear map for linear Diophantine equation in three variables



    On largest box not containing integer vector solutions



    On largest box not containing integer vector solutions-$II$



    In case of interest, here is an article on a recent breakthrough: http://www.ams.org/journals/notices/201702/rnoti-p102.pdf







    share|cite|improve this question
























      up vote
      3
      down vote

      favorite
      1









      up vote
      3
      down vote

      favorite
      1






      1





      ORIGINAL: I would like to find some more detailed references to explain 2012 comments of Prof. Noam Elkies at https://mathoverflow.net/questions/103152/determinant-of-integer-lattice-basis-of-l-x-1-ldots-x-n-a-1x-1-cdotsa



      Here are screen captures
      enter image description hereenter image description here



      The recent questions I answered that got me interested were:



      Basis for the kernel of linear map for linear Diophantine equation in three variables



      On largest box not containing integer vector solutions



      On largest box not containing integer vector solutions-$II$



      In case of interest, here is an article on a recent breakthrough: http://www.ams.org/journals/notices/201702/rnoti-p102.pdf







      share|cite|improve this question














      ORIGINAL: I would like to find some more detailed references to explain 2012 comments of Prof. Noam Elkies at https://mathoverflow.net/questions/103152/determinant-of-integer-lattice-basis-of-l-x-1-ldots-x-n-a-1x-1-cdotsa



      Here are screen captures
      enter image description hereenter image description here



      The recent questions I answered that got me interested were:



      Basis for the kernel of linear map for linear Diophantine equation in three variables



      On largest box not containing integer vector solutions



      On largest box not containing integer vector solutions-$II$



      In case of interest, here is an article on a recent breakthrough: http://www.ams.org/journals/notices/201702/rnoti-p102.pdf









      share|cite|improve this question













      share|cite|improve this question




      share|cite|improve this question








      edited Nov 9 '17 at 21:54

























      asked Oct 30 '17 at 17:47









      Will Jagy

      97.7k595196




      97.7k595196




















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          August 2018: this is also in the section called "The orthogonal lattice" in the article Merkle-Hellman Revisited: A Cryptanalysis of the Qu-Vanstone Cryptosystem Based on Group Factorizations, by P. Nguyen and J. Stern (1997). Link to a ps version



          Found it. I am quite fond of a book by Wolfgang Ebeling called Lattices and Codes. I have the second edition, in which all relevant material is in pages 1-5, and this Proposition 1.2 and its proof are on page 5. In the third edition, the statement of Proposition 1.2 is on page 4, with the proof split on pages 4 and 5.



          Ebeling also points out the proof in Looijenga and Peters(1981). The directly relevant discussion is just pages 153-154, (pdf pages [9],[10]), while this is Lemma (2.3) on page 154. The section devoted to lattices is pages 153-157, pdf [9]-[13]. Oh, well. For some reason the jpegs from the article are not showing properly. Sigh. Or, having tried one pasting the imgur address in a new tab, it is just not appearing here within the first minute...



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            1 Answer
            1






            active

            oldest

            votes








            1 Answer
            1






            active

            oldest

            votes









            active

            oldest

            votes






            active

            oldest

            votes








            up vote
            2
            down vote













            August 2018: this is also in the section called "The orthogonal lattice" in the article Merkle-Hellman Revisited: A Cryptanalysis of the Qu-Vanstone Cryptosystem Based on Group Factorizations, by P. Nguyen and J. Stern (1997). Link to a ps version



            Found it. I am quite fond of a book by Wolfgang Ebeling called Lattices and Codes. I have the second edition, in which all relevant material is in pages 1-5, and this Proposition 1.2 and its proof are on page 5. In the third edition, the statement of Proposition 1.2 is on page 4, with the proof split on pages 4 and 5.



            Ebeling also points out the proof in Looijenga and Peters(1981). The directly relevant discussion is just pages 153-154, (pdf pages [9],[10]), while this is Lemma (2.3) on page 154. The section devoted to lattices is pages 153-157, pdf [9]-[13]. Oh, well. For some reason the jpegs from the article are not showing properly. Sigh. Or, having tried one pasting the imgur address in a new tab, it is just not appearing here within the first minute...



            enter image description hereenter image description here






            share|cite|improve this answer


























              up vote
              2
              down vote













              August 2018: this is also in the section called "The orthogonal lattice" in the article Merkle-Hellman Revisited: A Cryptanalysis of the Qu-Vanstone Cryptosystem Based on Group Factorizations, by P. Nguyen and J. Stern (1997). Link to a ps version



              Found it. I am quite fond of a book by Wolfgang Ebeling called Lattices and Codes. I have the second edition, in which all relevant material is in pages 1-5, and this Proposition 1.2 and its proof are on page 5. In the third edition, the statement of Proposition 1.2 is on page 4, with the proof split on pages 4 and 5.



              Ebeling also points out the proof in Looijenga and Peters(1981). The directly relevant discussion is just pages 153-154, (pdf pages [9],[10]), while this is Lemma (2.3) on page 154. The section devoted to lattices is pages 153-157, pdf [9]-[13]. Oh, well. For some reason the jpegs from the article are not showing properly. Sigh. Or, having tried one pasting the imgur address in a new tab, it is just not appearing here within the first minute...



              enter image description hereenter image description here






              share|cite|improve this answer
























                up vote
                2
                down vote










                up vote
                2
                down vote









                August 2018: this is also in the section called "The orthogonal lattice" in the article Merkle-Hellman Revisited: A Cryptanalysis of the Qu-Vanstone Cryptosystem Based on Group Factorizations, by P. Nguyen and J. Stern (1997). Link to a ps version



                Found it. I am quite fond of a book by Wolfgang Ebeling called Lattices and Codes. I have the second edition, in which all relevant material is in pages 1-5, and this Proposition 1.2 and its proof are on page 5. In the third edition, the statement of Proposition 1.2 is on page 4, with the proof split on pages 4 and 5.



                Ebeling also points out the proof in Looijenga and Peters(1981). The directly relevant discussion is just pages 153-154, (pdf pages [9],[10]), while this is Lemma (2.3) on page 154. The section devoted to lattices is pages 153-157, pdf [9]-[13]. Oh, well. For some reason the jpegs from the article are not showing properly. Sigh. Or, having tried one pasting the imgur address in a new tab, it is just not appearing here within the first minute...



                enter image description hereenter image description here






                share|cite|improve this answer














                August 2018: this is also in the section called "The orthogonal lattice" in the article Merkle-Hellman Revisited: A Cryptanalysis of the Qu-Vanstone Cryptosystem Based on Group Factorizations, by P. Nguyen and J. Stern (1997). Link to a ps version



                Found it. I am quite fond of a book by Wolfgang Ebeling called Lattices and Codes. I have the second edition, in which all relevant material is in pages 1-5, and this Proposition 1.2 and its proof are on page 5. In the third edition, the statement of Proposition 1.2 is on page 4, with the proof split on pages 4 and 5.



                Ebeling also points out the proof in Looijenga and Peters(1981). The directly relevant discussion is just pages 153-154, (pdf pages [9],[10]), while this is Lemma (2.3) on page 154. The section devoted to lattices is pages 153-157, pdf [9]-[13]. Oh, well. For some reason the jpegs from the article are not showing properly. Sigh. Or, having tried one pasting the imgur address in a new tab, it is just not appearing here within the first minute...



                enter image description hereenter image description here







                share|cite|improve this answer














                share|cite|improve this answer



                share|cite|improve this answer








                edited Aug 24 at 1:01

























                answered Nov 5 '17 at 20:58









                Will Jagy

                97.7k595196




                97.7k595196



























                     

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