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Maths in English
                        An experiment at school…




ΠΡΟΣΤΠΟ ΠΕΙΡΑΜΑΣΙΚΟ ΛΤΚΕΙΟ ΒΑΡΒΑΚΕΙΟ Τ ΢ΥΟΛΗ΢
                 ΢χ. Έτος 2011-2012
ΣΟ ΠΕΙΡΑΜΑ ΜΑ΢


 Μϋςα ςτην τϊξη του Β2 μύα ομϊδα μαθητών/τριών αποφαςύςαμε να
  κϊνουμε ϋνα πεύραμα με τύτλο «Μαθηματικϊ ςτα Αγγλικϊ». Επιλϋξαμε
  το κεφϊλαιο των Μαθηματικών «Πολυώνυμα», το οπούο διδαςκόμαςτε
  εκεύνο το διϊςτημα, το μεταφρϊςαμε ςτα Αγγλικϊ και το παρουςιϊςαμε
  ςτην τϊξη ςτα Αγγλικϊ. Βοηθούσ ςτο πεύραμϊ μασ εύχαμε τον καθηγητό
  των Μαθηματικών Δρ Γ. Κόςςυβα και την καθηγότρια των Αγγλικών Δρ
  Λ. Νιτςοπούλου. Βοηθητικό υλικό εύχαμε ϋνα βιβλύο Μαθηματικών ςτα
  Αγγλικϊ, που διδϊςκεται ςε Αμερικανικϊ κολλϋγια μϋςησ εκπαύδευςησ
  και ϋνα γλωςςϊρι μαθηματικών όρων που ϋφτιαξε η καθηγότρια κ.
  Νιτςοπούλου. Στη ςυνϋχεια, μαζύ με ομϊδα μαθητών/τριών από το Β4
  προχωρόςαμε ςε ςύγκριςη των δύο ςχολικών βιβλύων (Ελληνικό και
  Αμερικανικό) και παραθϋςαμε τα αποτελϋςματα τησ ςύγκριςησ.
ΣΚΟΠΟΙ
 Η ανϊπτυξη και η ενθϊρρυνςη τησ ομαδοςυνεργατικόσ
  προςϋγγιςη τησ μαθηςιακόσ διδαςκαλύασ.
 Η μελϋτη τησ διαθεματικότητασ (Μαθηματικϊ- Αγγλικϊ ).
 Η βιωματικό μϊθηςη με την λύςη αςκόςεων ςτα αγγλικϊ.
 Η ενθϊρρυνςη τησ δημιουργικότητασ των μαθητών ςτην
  ψηφιακό τεχνολογύα.
 Μια πρώτη προςϋγγιςη τησ ερευνητικόσ εργαςύασ(project)
  ςτο πλαύςιο του αναλυτικού προγρϊμματοσ.
Η διερευνητικό προςϋγγιςη τησ μϊθηςησ.
Η διαπολιτιςμικό ςκϋψη και προςϋγγιςη των
 μαθητών/τριών με την ςύγκριςη Αμερικανικού-
 Ελληνικού ςχολικού βιβλύου Μαθηματικών .
ΣΤΟΧΟΙ
 Η ανϊπτυξη τησ διαμεςολαβητικόσ ικανότητασ των
  μαθητών /τριών
 Η διαπολιτιςμικό προςϋγγιςη του μαθόματοσ μϋςα από
  τη ςύγκριςη Ελληνικού – Αμερικανικού βιβλύου
  μαθηματικών.
USABILITY OF POLYNOMIALS
Polynomials are also used to model
the trajectory of a cannonball
TAYLOR SERIES
 In mathematics, a Taylor series is a representation of a function as an infinite
  sum of terms that are calculated from the values of the function's derivatives at
  a single point.
 The concept of a Taylor series was formally introduced by the English
  mathematician Brook Taylor in 1715. If the Taylor series is centered at zero, then
  that series is also called a Maclaurin series, named after the Scottish
  mathematician Colin Maclaurin, who made extensive use of this special case of
  Taylor series in the 18th century.
 It is common practice to approximate a function by using a finite number of
  terms of its Taylor series. Taylor's theorem gives quantitative estimates on the
  error in this approximation. Any finite number of initial terms of the Taylor
  series of a function is called a Taylor polynomial. The Taylor series of a function
  is the limit of that function's Taylor polynomials, provided that the limit exists.
  A function may not be equal to its Taylor series, even if its Taylor series
  converges at every point. A function that is equal to its Taylor series in an open
  interval (or a disc in the complex plane) is known as an analytic function.
Degrees of Polynomials
 (x
      3
                3x
                            2
                                        1)        ( x
                                                        3
                                                                3x
                                                                     2
                                                                              1)        x
                                                                                            3
                                                                                                     x
                                                                                                         3
                                                                                                                 3x
                                                                                                                         2
                                                                                                                                 3x
                                                                                                                                         2
                                                                                                                                                 1 1          0        (zero Polynomial)


                2                                               2                                    2                                       2
   (5 x                     2x               1)    ( 5x                  3x        2)           5x               2x          1       5x               3x      2            5x       3


                                                                                                                                                                                (Polynomial of degree 1)
        3               2                               3                                       3                                    3                                 2
 (2 x               x               1)        ( 2x              2x           3)         2x               x2          1       2x                  2x       3       x         2x          2


                                                                                                                                                          (Polynomial of degree 2)


            3                       2                                    3          2                            3               2                                 3            2
   (x                   2x                   5x     7)          (4 x           5x               3)           x           2x              5x           7       4x           5x           3
                                3                           2                                                3               2
   (1           4) x                     (2        5) x             5x        (7        3)           5x              3x              5x           10
            3                       2                                    3          2                            3               2                                 3            2
   (x                   2x                   5x     7)          (4 x           5x               3)           x           2x              5x           7       4x           5x           3
                                3                           2                                                3               2
   (1           4) x                     (2        5) x             5x        (7        3)           5x              3x              5x           10


                                                                                                                      (Polynomial of degree 3)
DEFINITIONS
     Definition of a monomial
     A monomial x is an algebraic expression in the form of ax n , where a
     is any real number and n is a non-negative integer

     Definition of a polynomial in x (polynomial)
     A polynomial in x is an algebraic expression of the form
            n           n 1                2          1
     an x       an 1x         ...   a2 x       a1 x       a 0 , where a n   0
EQUATION BETWEEN 2
POLYNOMIALS         Two polynomials

                                                n                 n 1                          2          1
                                         an x           an 1x                 ...       a2 x       a1 x       a0
                                                m                 m 1                          2          1
                                        bm x            bm 1 x                 ... b 2 x           b1 x       a0

                                                                        m           n

                    are equal whenever


  a0   b 0 , a1   b1 , ..., a n   b n και a n       1
                                                         an   2
                                                                        ...         am         0
NUMERICAL VALUE OF A
POLYNOMIAL
   In order to      The
   find the value   expression
   of the           that forms is
   polynomial ,     called
   we replace the   numerical
   X with a         value of the
   certain real     polynomial
   number r         for X=r
ARITHMETICAL PRICE OF THE
POLYNOMIAL                                                           3                   2
 Let a polynomial P ( 1)                                    ( 1)              2 ( 1)            4 ( 1)     1   0
                     n                         n   1
  P ( x)   an x              an           Ix               ......a 1 x            a0

 If we put in the place of X a real number ρ , then the real number
                         n                         n   1
  P(   )     n                        n
                                              1                ...       a1              0
                                                                                             this result,is called arithmetic price,or simpler
 price of the polynomial for x=ρ



 Then the ρ symbol is called root of the polynomial.For example, the price of the polynomial
                 3                2
  P ( x)    x                2x               4x       1


 For x=1  P (1)                          3
                                          1        2 1
                                                           2
                                                                 4 1              1     6 but


 For x=-1  P ( 1)                            ( 1)
                                                       3
                                                                2 ( 1)
                                                                              2
                                                                                       4 ( 1)     1      0 which means that

 -1 is the root of the polynomial P(x)
In order to find X(x) and U(x) we
follow a certain procedure
 1.Make the shape of the division and write the 2
  polynomials
 2.Find the first term of the quotient by finding the
 first term of the dividend with the first term X of the
 division
 3. Multiply with x-3 and subtract the product from
  the dividend. So we find the first partial difference
 4.Repeat 2 and 3 with a new dividend we find the
  second partial difference -4x-1
Adding      • Simply combine like
                terms
polynomials
Subtracting   • Same as adding just
                change same signs
polynomials
              • Use the distributive
Multiplying     property
William George Horner
 William George Horner (1786 – 22 September 1837)
 was a British mathematician and schoolmaster. The
 invention of the zoetrope, in 1834 and under a different
 name (Daedaleum), has been attributed to him.
Horner’s Work
 Horner published a mode of solving numerical equations of any degree, now
  known as Horner's method. According to Augustus De Morgan, he first made it
  known in a paper read before the Royal Society, 1st July 1819, by Davies Gilbert,
  headed A New Method of Solving Numerical Equations of all Orders by
  Continuous Approximation, and published in the Philosophical Transactions
  for the same year. But this version of the history is comprehensively denied by
  later historians. De Morgan's advocacy of Horner's priority in discovery led to
  "Horner's method" being so called in textbooks, but this is a misnomer. Not
  only did the 1819 paper not contain that method, but it also appeared in an 1820
  paper by Theodore Holdred, being published by Horner only in 1830; and the
  method was by no means novel, having appeared in the work of the Chinese
  mathematician Zhu Shijie centuries before, and also in the work of Paolo
  Ruffini.[4]
 The method was republished by Horner in the Ladies' Diary for 1838, and a
  simpler and more extended version appeared in vol. i. of the Mathematician,
  1843
CONSTRUCTION OF HORNER’S
TABLE
  For the construction of the table we follow the next steps:

         We fill the first line with the coefficients of the polynomial P x and the first
         place of the third line with the first coefficient of P x .
   Afterwards the table is completed as following:
         Every item on the second line results by multiplying the immediate past item
         of the third line with p .
         Every other item of the third line results by adding the corresponding items
         from the first and second lines.
         The last item of the third line is the difference of the division between P x
  and x p , namely the price of the polynomial P x for x p . The other items of
  the third line are the coefficients of the quotient of the said division.
          Let’s work right now on the Horner Configuration to find the quotient and the
                                             5    4
  difference of the division of P x       3x   3x     6 x 13 to x 2 .
THE HORNER CONFIGURATION
 Let’s say we have P x          3x
                                     3
                                         8x
                                              2
                                                  7x    2 . Consequently, we define the division
 P   x : x    p .


 The Horner Configuration is a different way of performing the operation of dividing
 polynomials and can be visually depicted by the following board:

                                         Coefficients of P x
        3                    -8                             7                             2                           p
                            3p                         3p       8   p        3p       8       p       7       p
        3                  3p     8                3p       8   p       7   3p    8   p           7       p       2


             Coefficients of the quotient                                   Difference
Abilities
 The degree of the product of the 2 non-zero polynomials
  is equal to the total of the degrees of the Z polynomials.

 For every pair of polynomial D(x) and δ(x) with δ(x) 0
  there are 2unique polynomials X(x) and U(x),so as:

 D(x)=δ(x)X(x)+U(x)

 Where U(x) is either the zero polynomial or is of less
  degree than the δ(x)
Just like the division of natural
numbers

D(x)    •Is called dividend

 δ(x)   •Is called divisor

X(x)    •Is called quotient
COMPARISON AND CONTRAST
BETWEEN THE AMERICAN AND THE
GREEK MATHS BOOK

                       Differences

The English book includes                          It also shows the goals and
 more thorough examples It includes more exercises     reasons for learning
  thus making it much      and a wider variety of     polynomials and their
 easier for the student to        them.              practical application in
       understand .                                          real life.
More differences…
  It contains useful tips    It combines both algebra
       for study and          and geometry, revealing
        technology.          all polynomial’s aspects.




  It is easier on the eyes     It is more interesting
 since it contains images      making mathematics
     that make it more          more approachable
         attractive.           towards the students.
Similarities between the American and
the Greek Maths book
 They have the same terminology.
 The difficulty of the exercises is gradually increasing.
 They both provide students with the answers of the
  exercises.
 They also contain examples that show how to solve the
  exercises step by step.
Bibliography :, Άλγεβρα β’ λυκεύου, Larson’s algebra for
college students, www.wikipedia.org
Foundations, Cambridge University Press, 1991
Edit&presentation Supervisor:Κωνςταντύνοσ Ζόκοσ

Project made by:Βαςύλησ Zωγόπουλοσ ,Νεοκλόσ
Καςιμἀτησ , Γεωργύα Θεοδωρακοπούλου ,Γιϊννησ
Έξαρχοσ, του Β2 τμόματοσ του Προτύπου Πειραματικού
ΓΕΛ τησ Βαρβακεύου Σχολόσ

Many thanks to Our teachers Dr Λύλιαν Νιτςοπούλου
και Dr Γεώργιο Κόςςυβα who helped us in this project

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Maths in English: An experiment at school

  • 1. Maths in English An experiment at school… ΠΡΟΣΤΠΟ ΠΕΙΡΑΜΑΣΙΚΟ ΛΤΚΕΙΟ ΒΑΡΒΑΚΕΙΟ Τ ΢ΥΟΛΗ΢ ΢χ. Έτος 2011-2012
  • 2. ΣΟ ΠΕΙΡΑΜΑ ΜΑ΢  Μϋςα ςτην τϊξη του Β2 μύα ομϊδα μαθητών/τριών αποφαςύςαμε να κϊνουμε ϋνα πεύραμα με τύτλο «Μαθηματικϊ ςτα Αγγλικϊ». Επιλϋξαμε το κεφϊλαιο των Μαθηματικών «Πολυώνυμα», το οπούο διδαςκόμαςτε εκεύνο το διϊςτημα, το μεταφρϊςαμε ςτα Αγγλικϊ και το παρουςιϊςαμε ςτην τϊξη ςτα Αγγλικϊ. Βοηθούσ ςτο πεύραμϊ μασ εύχαμε τον καθηγητό των Μαθηματικών Δρ Γ. Κόςςυβα και την καθηγότρια των Αγγλικών Δρ Λ. Νιτςοπούλου. Βοηθητικό υλικό εύχαμε ϋνα βιβλύο Μαθηματικών ςτα Αγγλικϊ, που διδϊςκεται ςε Αμερικανικϊ κολλϋγια μϋςησ εκπαύδευςησ και ϋνα γλωςςϊρι μαθηματικών όρων που ϋφτιαξε η καθηγότρια κ. Νιτςοπούλου. Στη ςυνϋχεια, μαζύ με ομϊδα μαθητών/τριών από το Β4 προχωρόςαμε ςε ςύγκριςη των δύο ςχολικών βιβλύων (Ελληνικό και Αμερικανικό) και παραθϋςαμε τα αποτελϋςματα τησ ςύγκριςησ.
  • 3. ΣΚΟΠΟΙ  Η ανϊπτυξη και η ενθϊρρυνςη τησ ομαδοςυνεργατικόσ προςϋγγιςη τησ μαθηςιακόσ διδαςκαλύασ.  Η μελϋτη τησ διαθεματικότητασ (Μαθηματικϊ- Αγγλικϊ ).  Η βιωματικό μϊθηςη με την λύςη αςκόςεων ςτα αγγλικϊ.  Η ενθϊρρυνςη τησ δημιουργικότητασ των μαθητών ςτην ψηφιακό τεχνολογύα.  Μια πρώτη προςϋγγιςη τησ ερευνητικόσ εργαςύασ(project) ςτο πλαύςιο του αναλυτικού προγρϊμματοσ. Η διερευνητικό προςϋγγιςη τησ μϊθηςησ. Η διαπολιτιςμικό ςκϋψη και προςϋγγιςη των μαθητών/τριών με την ςύγκριςη Αμερικανικού- Ελληνικού ςχολικού βιβλύου Μαθηματικών .
  • 4. ΣΤΟΧΟΙ  Η ανϊπτυξη τησ διαμεςολαβητικόσ ικανότητασ των μαθητών /τριών  Η διαπολιτιςμικό προςϋγγιςη του μαθόματοσ μϋςα από τη ςύγκριςη Ελληνικού – Αμερικανικού βιβλύου μαθηματικών.
  • 6. Polynomials are also used to model the trajectory of a cannonball
  • 7. TAYLOR SERIES  In mathematics, a Taylor series is a representation of a function as an infinite sum of terms that are calculated from the values of the function's derivatives at a single point.  The concept of a Taylor series was formally introduced by the English mathematician Brook Taylor in 1715. If the Taylor series is centered at zero, then that series is also called a Maclaurin series, named after the Scottish mathematician Colin Maclaurin, who made extensive use of this special case of Taylor series in the 18th century.  It is common practice to approximate a function by using a finite number of terms of its Taylor series. Taylor's theorem gives quantitative estimates on the error in this approximation. Any finite number of initial terms of the Taylor series of a function is called a Taylor polynomial. The Taylor series of a function is the limit of that function's Taylor polynomials, provided that the limit exists. A function may not be equal to its Taylor series, even if its Taylor series converges at every point. A function that is equal to its Taylor series in an open interval (or a disc in the complex plane) is known as an analytic function.
  • 8. Degrees of Polynomials (x 3 3x 2 1) ( x 3 3x 2 1) x 3 x 3 3x 2 3x 2 1 1 0 (zero Polynomial) 2 2 2 2 (5 x 2x 1) ( 5x 3x 2) 5x 2x 1 5x 3x 2 5x 3 (Polynomial of degree 1) 3 2 3 3 3 2 (2 x x 1) ( 2x 2x 3) 2x x2 1 2x 2x 3 x 2x 2 (Polynomial of degree 2) 3 2 3 2 3 2 3 2 (x 2x 5x 7) (4 x 5x 3) x 2x 5x 7 4x 5x 3 3 2 3 2 (1 4) x (2 5) x 5x (7 3) 5x 3x 5x 10 3 2 3 2 3 2 3 2 (x 2x 5x 7) (4 x 5x 3) x 2x 5x 7 4x 5x 3 3 2 3 2 (1 4) x (2 5) x 5x (7 3) 5x 3x 5x 10 (Polynomial of degree 3)
  • 9. DEFINITIONS Definition of a monomial A monomial x is an algebraic expression in the form of ax n , where a is any real number and n is a non-negative integer Definition of a polynomial in x (polynomial) A polynomial in x is an algebraic expression of the form n n 1 2 1 an x an 1x ... a2 x a1 x a 0 , where a n 0
  • 10. EQUATION BETWEEN 2 POLYNOMIALS Two polynomials n n 1 2 1 an x an 1x ... a2 x a1 x a0 m m 1 2 1 bm x bm 1 x ... b 2 x b1 x a0 m n are equal whenever a0 b 0 , a1 b1 , ..., a n b n και a n 1 an 2 ... am 0
  • 11. NUMERICAL VALUE OF A POLYNOMIAL In order to The find the value expression of the that forms is polynomial , called we replace the numerical X with a value of the certain real polynomial number r for X=r
  • 12. ARITHMETICAL PRICE OF THE POLYNOMIAL 3 2 Let a polynomial P ( 1) ( 1) 2 ( 1) 4 ( 1) 1 0 n n 1 P ( x) an x an Ix ......a 1 x a0 If we put in the place of X a real number ρ , then the real number n n 1 P( ) n n 1 ... a1 0 this result,is called arithmetic price,or simpler price of the polynomial for x=ρ Then the ρ symbol is called root of the polynomial.For example, the price of the polynomial 3 2 P ( x) x 2x 4x 1 For x=1  P (1) 3 1 2 1 2 4 1 1 6 but For x=-1  P ( 1) ( 1) 3 2 ( 1) 2 4 ( 1) 1 0 which means that -1 is the root of the polynomial P(x)
  • 13. In order to find X(x) and U(x) we follow a certain procedure  1.Make the shape of the division and write the 2 polynomials  2.Find the first term of the quotient by finding the first term of the dividend with the first term X of the division  3. Multiply with x-3 and subtract the product from the dividend. So we find the first partial difference  4.Repeat 2 and 3 with a new dividend we find the second partial difference -4x-1
  • 14. Adding • Simply combine like terms polynomials Subtracting • Same as adding just change same signs polynomials • Use the distributive Multiplying property
  • 15. William George Horner  William George Horner (1786 – 22 September 1837) was a British mathematician and schoolmaster. The invention of the zoetrope, in 1834 and under a different name (Daedaleum), has been attributed to him.
  • 16. Horner’s Work  Horner published a mode of solving numerical equations of any degree, now known as Horner's method. According to Augustus De Morgan, he first made it known in a paper read before the Royal Society, 1st July 1819, by Davies Gilbert, headed A New Method of Solving Numerical Equations of all Orders by Continuous Approximation, and published in the Philosophical Transactions for the same year. But this version of the history is comprehensively denied by later historians. De Morgan's advocacy of Horner's priority in discovery led to "Horner's method" being so called in textbooks, but this is a misnomer. Not only did the 1819 paper not contain that method, but it also appeared in an 1820 paper by Theodore Holdred, being published by Horner only in 1830; and the method was by no means novel, having appeared in the work of the Chinese mathematician Zhu Shijie centuries before, and also in the work of Paolo Ruffini.[4]  The method was republished by Horner in the Ladies' Diary for 1838, and a simpler and more extended version appeared in vol. i. of the Mathematician, 1843
  • 17. CONSTRUCTION OF HORNER’S TABLE For the construction of the table we follow the next steps: We fill the first line with the coefficients of the polynomial P x and the first place of the third line with the first coefficient of P x . Afterwards the table is completed as following: Every item on the second line results by multiplying the immediate past item of the third line with p . Every other item of the third line results by adding the corresponding items from the first and second lines. The last item of the third line is the difference of the division between P x and x p , namely the price of the polynomial P x for x p . The other items of the third line are the coefficients of the quotient of the said division. Let’s work right now on the Horner Configuration to find the quotient and the 5 4 difference of the division of P x 3x 3x 6 x 13 to x 2 .
  • 18. THE HORNER CONFIGURATION Let’s say we have P x 3x 3 8x 2 7x 2 . Consequently, we define the division P x : x p . The Horner Configuration is a different way of performing the operation of dividing polynomials and can be visually depicted by the following board: Coefficients of P x 3 -8 7 2 p 3p 3p 8 p 3p 8 p 7 p 3 3p 8 3p 8 p 7 3p 8 p 7 p 2 Coefficients of the quotient Difference
  • 19. Abilities  The degree of the product of the 2 non-zero polynomials is equal to the total of the degrees of the Z polynomials.  For every pair of polynomial D(x) and δ(x) with δ(x) 0 there are 2unique polynomials X(x) and U(x),so as:  D(x)=δ(x)X(x)+U(x)  Where U(x) is either the zero polynomial or is of less degree than the δ(x)
  • 20. Just like the division of natural numbers D(x) •Is called dividend δ(x) •Is called divisor X(x) •Is called quotient
  • 21. COMPARISON AND CONTRAST BETWEEN THE AMERICAN AND THE GREEK MATHS BOOK Differences The English book includes It also shows the goals and more thorough examples It includes more exercises reasons for learning thus making it much and a wider variety of polynomials and their easier for the student to them. practical application in understand . real life.
  • 22. More differences… It contains useful tips It combines both algebra for study and and geometry, revealing technology. all polynomial’s aspects. It is easier on the eyes It is more interesting since it contains images making mathematics that make it more more approachable attractive. towards the students.
  • 23. Similarities between the American and the Greek Maths book  They have the same terminology.  The difficulty of the exercises is gradually increasing.  They both provide students with the answers of the exercises.  They also contain examples that show how to solve the exercises step by step.
  • 24. Bibliography :, Άλγεβρα β’ λυκεύου, Larson’s algebra for college students, www.wikipedia.org Foundations, Cambridge University Press, 1991 Edit&presentation Supervisor:Κωνςταντύνοσ Ζόκοσ Project made by:Βαςύλησ Zωγόπουλοσ ,Νεοκλόσ Καςιμἀτησ , Γεωργύα Θεοδωρακοπούλου ,Γιϊννησ Έξαρχοσ, του Β2 τμόματοσ του Προτύπου Πειραματικού ΓΕΛ τησ Βαρβακεύου Σχολόσ Many thanks to Our teachers Dr Λύλιαν Νιτςοπούλου και Dr Γεώργιο Κόςςυβα who helped us in this project