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Geometric Series
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T
          r 2
               a
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T
          r 2
               a
               T
              3
               T2
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T
          r 2
               a
               T
              3
               T2
                Tn
           r
               Tn1
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                      T1  a
          r 2
               a
               T
              3
               T2
                Tn
           r
               Tn1
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                      T1  a
          r 2
               a                     T2  ar
               T
              3
               T2
                Tn
           r
               Tn1
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                      T1  a
          r 2
               a                     T2  ar
             
               T3                    T3  ar 2
               T2
                Tn
           r
               Tn1
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                      T1  a
          r 2
               a                     T2  ar
             
               T3                    T3  ar 2
               T2                    Tn  ar n1
                Tn
           r
               Tn1
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                         T1  a
          r 2
               a                        T2  ar
             
               T3                       T3  ar 2
               T2                       Tn  ar n1
                Tn
           r
               Tn1    e.g.i  Find r and the general term of 2, 8, 32, 
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                         T1  a
          r 2
               a                        T2  ar
             
               T3                       T3  ar 2
               T2                       Tn  ar n1
                Tn
           r
               Tn1    e.g.i  Find r and the general term of 2, 8, 32, 
                                          a  2, r  4
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                         T1  a
          r 2
               a                        T2  ar
             
               T3                       T3  ar 2
               T2                       Tn  ar n1
                Tn
           r
               Tn1    e.g.i  Find r and the general term of 2, 8, 32, 
            Tn  ar n1                   a  2, r  4
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                         T1  a
          r 2
               a                        T2  ar
             
               T3                       T3  ar 2
               T2                       Tn  ar n1
                Tn
           r
               Tn1    e.g.i  Find r and the general term of 2, 8, 32, 
            Tn  ar n1                   a  2, r  4
                24
                       n1
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                         T1  a
          r 2
               a                        T2  ar
             
               T3                       T3  ar 2
               T2                       Tn  ar n1
                Tn
           r
               Tn1    e.g.i  Find r and the general term of 2, 8, 32, 
            Tn  ar n1                   a  2, r  4
                24
                       n1


                22     
                       2 n 1


                22 
                        2 n2
Geometric Series
An geometric series is a sequence of numbers in which each term after
the first is found by multiplying a constant amount to the previous
term.
The constant amount is called the common ratio, symbolised, r.
              T                         T1  a
          r 2
               a                        T2  ar
             
               T3                       T3  ar 2
               T2                       Tn  ar n1
                Tn
           r
               Tn1    e.g.i  Find r and the general term of 2, 8, 32, 
            Tn  ar n1                   a  2, r  4
                24
                       n1


                22     
                       2 n 1
                                           Tn  22 n1
                22 
                        2 n2
ii  If T2  7 and T4  49, find r
ii  If T2  7 and T4  49, find r
           ar  7
ii  If T2  7 and T4  49, find r
           ar  7
          ar 3  49
ii  If T2  7 and T4  49, find r
           ar  7
          ar 3  49
            r2  7
ii  If T2  7 and T4  49, find r
           ar  7
          ar 3  49
            r2  7
             r 7
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
          ar 3  49
           r2  7
            r 7
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
          ar 3  49                  a  1, r  4
           r2  7
            r 7
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
                                                        Tn  14
                                                                 n1
          ar 3  49                  a  1, r  4
           r2  7
            r 7
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
                                                          Tn  14
                                                                   n1
          ar 3  49                  a  1, r  4
           r2  7                                 Tn  500
            r 7
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
                                                          Tn  14
                                                                   n1
          ar 3  49                  a  1, r  4
           r2  7                                 Tn  500
            r 7                               4n1  500
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
                                                          Tn  14
                                                                   n1
          ar 3  49                  a  1, r  4
           r2  7                                 Tn  500
            r 7                               4n1  500
                                            log 4n1  log 500
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
                                                          Tn  14
                                                                   n1
          ar 3  49                  a  1, r  4
           r2  7                                 Tn  500
            r 7                               4n1  500
                                            log 4n1  log 500
                                       n  1log 4  log 500
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
                                                          Tn  14
                                                                   n1
          ar 3  49                  a  1, r  4
           r2  7                                 Tn  500
            r 7                               4n1  500
                                            log 4n1  log 500
                                       n  1log 4  log 500
                                               n  1  4.48
                                                  n  5.48
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
                                                          Tn  14
                                                                   n1
          ar 3  49                  a  1, r  4
           r2  7                                 Tn  500
            r 7                               4n1  500
                                            log 4n1  log 500
                                       n  1log 4  log 500
                                               n  1  4.48
                                                  n  5.48
                                     T6  1024, is the first term  500
ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to
           ar  7                  be greater than 500.
                                                          Tn  14
                                                                   n1
          ar 3  49                  a  1, r  4
           r2  7                                 Tn  500
            r 7                               4n1  500
                                            log 4n1  log 500
                                       n  1log 4  log 500
                                               n  1  4.48
                                                  n  5.48
                                     T6  1024, is the first term  500


    Exercise 6E; 1be, 2cf, 3ad, 5ac, 6c, 8bd, 9ac, 10ac, 15, 17,
                             18ab, 20a

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12 x1 t01 02 differentiating logs (2013)
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11X1 T14 02 geometric series (2011)

  • 2. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term.
  • 3. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r.
  • 4. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T r 2 a
  • 5. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T r 2 a T  3 T2
  • 6. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T r 2 a T  3 T2 Tn r Tn1
  • 7. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T  3 T2 Tn r Tn1
  • 8. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar T  3 T2 Tn r Tn1
  • 9. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar  T3 T3  ar 2 T2 Tn r Tn1
  • 10. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar  T3 T3  ar 2 T2 Tn  ar n1 Tn r Tn1
  • 11. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar  T3 T3  ar 2 T2 Tn  ar n1 Tn r Tn1 e.g.i  Find r and the general term of 2, 8, 32, 
  • 12. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar  T3 T3  ar 2 T2 Tn  ar n1 Tn r Tn1 e.g.i  Find r and the general term of 2, 8, 32,  a  2, r  4
  • 13. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar  T3 T3  ar 2 T2 Tn  ar n1 Tn r Tn1 e.g.i  Find r and the general term of 2, 8, 32,  Tn  ar n1 a  2, r  4
  • 14. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar  T3 T3  ar 2 T2 Tn  ar n1 Tn r Tn1 e.g.i  Find r and the general term of 2, 8, 32,  Tn  ar n1 a  2, r  4  24 n1
  • 15. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar  T3 T3  ar 2 T2 Tn  ar n1 Tn r Tn1 e.g.i  Find r and the general term of 2, 8, 32,  Tn  ar n1 a  2, r  4  24 n1  22  2 n 1  22  2 n2
  • 16. Geometric Series An geometric series is a sequence of numbers in which each term after the first is found by multiplying a constant amount to the previous term. The constant amount is called the common ratio, symbolised, r. T T1  a r 2 a T2  ar  T3 T3  ar 2 T2 Tn  ar n1 Tn r Tn1 e.g.i  Find r and the general term of 2, 8, 32,  Tn  ar n1 a  2, r  4  24 n1  22  2 n 1 Tn  22 n1  22  2 n2
  • 17. ii  If T2  7 and T4  49, find r
  • 18. ii  If T2  7 and T4  49, find r ar  7
  • 19. ii  If T2  7 and T4  49, find r ar  7 ar 3  49
  • 20. ii  If T2  7 and T4  49, find r ar  7 ar 3  49 r2  7
  • 21. ii  If T2  7 and T4  49, find r ar  7 ar 3  49 r2  7 r 7
  • 22. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. ar 3  49 r2  7 r 7
  • 23. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. ar 3  49 a  1, r  4 r2  7 r 7
  • 24. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. Tn  14 n1 ar 3  49 a  1, r  4 r2  7 r 7
  • 25. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. Tn  14 n1 ar 3  49 a  1, r  4 r2  7 Tn  500 r 7
  • 26. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. Tn  14 n1 ar 3  49 a  1, r  4 r2  7 Tn  500 r 7 4n1  500
  • 27. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. Tn  14 n1 ar 3  49 a  1, r  4 r2  7 Tn  500 r 7 4n1  500 log 4n1  log 500
  • 28. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. Tn  14 n1 ar 3  49 a  1, r  4 r2  7 Tn  500 r 7 4n1  500 log 4n1  log 500 n  1log 4  log 500
  • 29. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. Tn  14 n1 ar 3  49 a  1, r  4 r2  7 Tn  500 r 7 4n1  500 log 4n1  log 500 n  1log 4  log 500 n  1  4.48 n  5.48
  • 30. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. Tn  14 n1 ar 3  49 a  1, r  4 r2  7 Tn  500 r 7 4n1  500 log 4n1  log 500 n  1log 4  log 500 n  1  4.48 n  5.48 T6  1024, is the first term  500
  • 31. ii  If T2  7 and T4  49, find r (iii) find the first term of 1, 4, 16, … to ar  7 be greater than 500. Tn  14 n1 ar 3  49 a  1, r  4 r2  7 Tn  500 r 7 4n1  500 log 4n1  log 500 n  1log 4  log 500 n  1  4.48 n  5.48 T6  1024, is the first term  500 Exercise 6E; 1be, 2cf, 3ad, 5ac, 6c, 8bd, 9ac, 10ac, 15, 17, 18ab, 20a