What is some good literature to look at for linear forms in logs and $L^3$ B.R.A.












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I am doing some research on solutions to Exponential Diophantine Equations (eDe's), and in a lot of published papers the use of linear forms in logarithms comes up concurrently with lattice basis reduction algorithms. I was wondering what some free to low cost books/papers are out there on this math that would serve as an introduction, and would help me understand how to apply these methods to other eDe's. I found a lot of articles citing examples of equations these methods were used to solve, but no resources on how to apply them to other problems or the mathematics behind them either. I understand the linear forms in logarithms a little more than the reduction algorithms, although more information on both would definitely be more beneficial. For example, I get the part of Baker's Theorem regarding
$$beta_0 + beta_1 log(alpha_1)+ ... + beta_k log(alpha_k) > H^{-C}$$
(Although I'm a little unsure on how to calculate the height H of a an algebraic number). In general, a bookarticle regarding finding the solution set to an eDe would suffice, provided it assumes little to no prior knowledge in the field. If nothing of this sort is realistic, can you refer me to a class or subject that should be studied or looked into before jumping into literature at this level.




Additionally



Here are some of the papers I looked over and found the need for either linear forms in logs andor lattice basis reduction. Linear Forms in Logarithms - a paper detailing many applications of linear forms and lattice basis reduction in specific cases of linear and nonlinear Diophantine equations. Linear Forms in Logarithms and Diophantine Equations - pretty much replicates a lot of the information in the previous document. I also found this paper which proved somewhat more helpful, but only studied particular cases of Diophantine Equations. Again, I am not familiar enough with methods of solutions in order to take the applications to these problems and transfer them into my problems.



Modular Arithmetic is something I have also come across in solving Diophantine Equations, although the ones I am dealing with are considerably too complex to be studied in modular form, so I have ruled this out as a means of determining solutions.










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    $begingroup$


    I am doing some research on solutions to Exponential Diophantine Equations (eDe's), and in a lot of published papers the use of linear forms in logarithms comes up concurrently with lattice basis reduction algorithms. I was wondering what some free to low cost books/papers are out there on this math that would serve as an introduction, and would help me understand how to apply these methods to other eDe's. I found a lot of articles citing examples of equations these methods were used to solve, but no resources on how to apply them to other problems or the mathematics behind them either. I understand the linear forms in logarithms a little more than the reduction algorithms, although more information on both would definitely be more beneficial. For example, I get the part of Baker's Theorem regarding
    $$beta_0 + beta_1 log(alpha_1)+ ... + beta_k log(alpha_k) > H^{-C}$$
    (Although I'm a little unsure on how to calculate the height H of a an algebraic number). In general, a bookarticle regarding finding the solution set to an eDe would suffice, provided it assumes little to no prior knowledge in the field. If nothing of this sort is realistic, can you refer me to a class or subject that should be studied or looked into before jumping into literature at this level.




    Additionally



    Here are some of the papers I looked over and found the need for either linear forms in logs andor lattice basis reduction. Linear Forms in Logarithms - a paper detailing many applications of linear forms and lattice basis reduction in specific cases of linear and nonlinear Diophantine equations. Linear Forms in Logarithms and Diophantine Equations - pretty much replicates a lot of the information in the previous document. I also found this paper which proved somewhat more helpful, but only studied particular cases of Diophantine Equations. Again, I am not familiar enough with methods of solutions in order to take the applications to these problems and transfer them into my problems.



    Modular Arithmetic is something I have also come across in solving Diophantine Equations, although the ones I am dealing with are considerably too complex to be studied in modular form, so I have ruled this out as a means of determining solutions.










    share|cite|improve this question











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      $begingroup$


      I am doing some research on solutions to Exponential Diophantine Equations (eDe's), and in a lot of published papers the use of linear forms in logarithms comes up concurrently with lattice basis reduction algorithms. I was wondering what some free to low cost books/papers are out there on this math that would serve as an introduction, and would help me understand how to apply these methods to other eDe's. I found a lot of articles citing examples of equations these methods were used to solve, but no resources on how to apply them to other problems or the mathematics behind them either. I understand the linear forms in logarithms a little more than the reduction algorithms, although more information on both would definitely be more beneficial. For example, I get the part of Baker's Theorem regarding
      $$beta_0 + beta_1 log(alpha_1)+ ... + beta_k log(alpha_k) > H^{-C}$$
      (Although I'm a little unsure on how to calculate the height H of a an algebraic number). In general, a bookarticle regarding finding the solution set to an eDe would suffice, provided it assumes little to no prior knowledge in the field. If nothing of this sort is realistic, can you refer me to a class or subject that should be studied or looked into before jumping into literature at this level.




      Additionally



      Here are some of the papers I looked over and found the need for either linear forms in logs andor lattice basis reduction. Linear Forms in Logarithms - a paper detailing many applications of linear forms and lattice basis reduction in specific cases of linear and nonlinear Diophantine equations. Linear Forms in Logarithms and Diophantine Equations - pretty much replicates a lot of the information in the previous document. I also found this paper which proved somewhat more helpful, but only studied particular cases of Diophantine Equations. Again, I am not familiar enough with methods of solutions in order to take the applications to these problems and transfer them into my problems.



      Modular Arithmetic is something I have also come across in solving Diophantine Equations, although the ones I am dealing with are considerably too complex to be studied in modular form, so I have ruled this out as a means of determining solutions.










      share|cite|improve this question











      $endgroup$




      I am doing some research on solutions to Exponential Diophantine Equations (eDe's), and in a lot of published papers the use of linear forms in logarithms comes up concurrently with lattice basis reduction algorithms. I was wondering what some free to low cost books/papers are out there on this math that would serve as an introduction, and would help me understand how to apply these methods to other eDe's. I found a lot of articles citing examples of equations these methods were used to solve, but no resources on how to apply them to other problems or the mathematics behind them either. I understand the linear forms in logarithms a little more than the reduction algorithms, although more information on both would definitely be more beneficial. For example, I get the part of Baker's Theorem regarding
      $$beta_0 + beta_1 log(alpha_1)+ ... + beta_k log(alpha_k) > H^{-C}$$
      (Although I'm a little unsure on how to calculate the height H of a an algebraic number). In general, a bookarticle regarding finding the solution set to an eDe would suffice, provided it assumes little to no prior knowledge in the field. If nothing of this sort is realistic, can you refer me to a class or subject that should be studied or looked into before jumping into literature at this level.




      Additionally



      Here are some of the papers I looked over and found the need for either linear forms in logs andor lattice basis reduction. Linear Forms in Logarithms - a paper detailing many applications of linear forms and lattice basis reduction in specific cases of linear and nonlinear Diophantine equations. Linear Forms in Logarithms and Diophantine Equations - pretty much replicates a lot of the information in the previous document. I also found this paper which proved somewhat more helpful, but only studied particular cases of Diophantine Equations. Again, I am not familiar enough with methods of solutions in order to take the applications to these problems and transfer them into my problems.



      Modular Arithmetic is something I have also come across in solving Diophantine Equations, although the ones I am dealing with are considerably too complex to be studied in modular form, so I have ruled this out as a means of determining solutions.







      number-theory reference-request diophantine-equations






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      edited Dec 24 '18 at 1:27







      Ryan Shesler

















      asked Dec 24 '18 at 1:09









      Ryan SheslerRyan Shesler

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