After conversions and summ<strong>in</strong>g of similar items:1 2 1 4 1 6u( x, y) = a0,0(1 − x + x − x + ...) +2 24 7201 2 1 4 1 6+ a0,1y(1 − x + x − x + ...) +2 24 7201 2 1 4 1 6+ a1,0x(1 − x + x − x + ...) +6 120 50402 1 2 1 4 1 6 2 1 2 1 4+ a0,2[ y (1 − x + x − x + ...) − x (1 − x + x − ...)] +2 24 720 6 1201 2 1 4 1 6+ a1,1xy(1 − x + x − x + ...) +6 120 50403 1 2 1 4 2 1 2 1 4+ a0,3[ y (1 − x + x −...) − 3 x y(1 − x + x − ...)] +2 24 6 1202 1 2 1 4 1 3 1 2 1 4 1 6+ a1,2[ xy (1 − x + x −...) − x (1 − x + x − x + ...)] +6 120 3 10 280 151204 1 2 2 2 1 2 4 1 2+ a0,4[ y (1 − x + ...) − 6 x y (1 − x + ...) + x (1 − x + ...)] +2 6 103 1 2 1 4 3 1 2 1 4+ a1,3[ xy (1 − x + x −...) − x y(1 − x + x − ...)] + ...6 120 10 280The f<strong>in</strong>al form of the solution is:∞∑( 0, k 0, k 1, k 1, k )( , ) = ⋅ ( , ) + ⋅ ( , )u x y a Mag x y a Mag x yk = 0(13), where a0,kand a1,kfree variables.Then formulas for the functionsMag0, k ( x,y)and Mag1, k ( x,y)aremade for more general equation (10), and not (11).Next for the certa<strong>in</strong>ty, it will be agreed to name theMag0, k ( x,y)type of function andMag1, k ( , )x yas maternal functions or as thefunctions of Mary, and one-dimensional functions of2the type Ge( n,wx )as paternal functions or asthe functions of Herman. For example: the function ofMary for the three-dimensional equation of thermalconductivity, function of Mary for the fourdimensionalequation of Kle<strong>in</strong>-Gordon, etc.The functions Mag0, k ( x,y)and( )Mag1, kx,y are determ<strong>in</strong>ed from thefollow<strong>in</strong>g expressions, which almost completelycorrespond to the analogous expressions for Laplace'sequation:( )Mag x y Ge wx20,0, = (0, ),Annual <strong>Proceed<strong>in</strong>gs</strong> of Vidzeme University College “ICTE <strong>in</strong> Regional Development”, 2006136
0,10,20,30,4( )Mag x y y Ge wx2, = × (0, ),( )Mag x y y Ge wx x Ge wx2 2 2 2, = × (0, )- × (1, ),( )3 2 2 2, = × (0, )- 3 × × (1, ),Mag x y y Ge wx y x Ge wx( )Mag x y = y × Ge wx - y × x × Ge wx + x × Ge wx4 2 2 2 2 4 2, (0, ) 6 (1, ) (2, ),------------------------------------------------------------------------------------------------------------------k / 2 m 2mk −2m2( −1)× x × y × Ge(m,wx )Mag 0, k ( x,y)= k!∑(14).m=0 (2m)!(k − 2m)!The recurrent form of the record is:k / 2mm=0Mag0 , ( x,y)= ∑ a Ge(m,wx )akk0 = y ; am= −am−11,3( )( k − 2m+ 2)( k − 2m+ 1) x×2m(2m− 1) y1Mag1,2( x y)= y × x × Ge wx - x × Ge wx3Mag x y = y × x × Ge wx - y × x × Ge wx222The second part of the function is:2Mag1,0( x, y)= x×Ge(1, wx ),1,1( )2 2 3 2, (1, ) (2, ),3 2 3 2, (1, ) (2, ),Mag x y = y× x×Ge wx2, (1, ),1Mag1,4( x y)= y × x × Ge wx - y × x × Ge wx + x × Ge wx54 2 2 3 2 5 2, (1, ) 2 (2, ) (3, )-------------------------------------------------------------------------------------------------------------------------------------------k / 2 m 2m+1 k −2m2( −1)× x × y × Ge(m + 1, wx )Mag 1, k ( x,y)= k!∑(15).m=0 (2m+ 1)!( k − 2m)!In this case the recurrent form of the record is:k / 2mm=0Mag1 , ( x,y)= ∑ a Ge(m + 1, wx )akk0 = y x;am= −am−1( k − 2m+ 2)( k − 2m+ 1) x×(2m+ 1)2myThe one-dimensional functions of Herman<strong>in</strong>corporated <strong>in</strong>to these two-dimensional functionsMary are determ<strong>in</strong>ed from the follow<strong>in</strong>g formulas.222w >Ge wx x wThe first version – if 020, = cos( ) and for n >0( )( , )Ge n wx(16).(2n −1)! ( − w) ( i + n −1)!= ∑x( n − 1)! (2i + 2n −1)! i!∞ i2 2ii=0w 0Annual <strong>Proceed<strong>in</strong>gs</strong> of Vidzeme University College “ICTE <strong>in</strong> Regional Development”, 2006137
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ISBN 9984-633-03-9Annual Proceeding
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“Development of Creative Human -
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TABLE OF CONTENTSINTELLIGENT SYSTEM
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INTELLIGENT SYSTEM FOR LEARNERS’
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LEARNER 1GROUP OF HUMAN AGENTSLEARN
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QuantityQuantityFigure 6. Distribut
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LEARNERStructure of theconcept mapL
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WEB-BASED INTELLIGENT TUTORING SYST
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materials to be presented and which
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INFORMATION TECHNOLOGIES AND E-LEAR
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correspondence with the course aim
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projects and through IT. Hence, it
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APPLICATION OF MODELING METHODS IN
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can support configuration managemen
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The EKD is one of the Enterprise mo
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CHANGES TO TRAINING AND PERSPECTIVE
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or an end, yet none of these attitu
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make decisions. It cannot be volunt
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logs), data and video conferencing
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Ability to follow user’s multi-ta
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CONCLUSIONSEDUSA method gives us a
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in successful SD. Given this situat
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SPATIAL INFORMATIONFor the visualis
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MOBILE TECHNOLOGIES USE IN SERVICES
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learning environment (Learning Mana
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ago only some curricula on Logistic
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The Web-based version can be access
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Web-portal, which incorporates diff
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DO INTELLIGENT OBJECTS AUTOMATICALL
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Table 1. Examples for introducing R
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workable influencing of the process
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are handed over to the objects and
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• Basic processes, such as wareho
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THE ECR E-COACH: A VIRTUAL COACHING
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participating in the workshops and
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• Assessment modules enable indiv
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with pictures and illustrated graph
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ECR Question Banknumber category su
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educational programme that follows
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DEVELOPMENT OF WEB BASED GRAVITY MO
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These results of a model require a
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CONCLUSIONSThe main goal of work ha
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dimension and included within any o
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• Resources sharing by providing
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Pursuant to the guidelines of elect
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- Page 107 and 108: • The data obtained by the resear
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- Page 117 and 118: would be a promising extension. Cur
- Page 119 and 120: AN OVERVIEW OF THE AGENT − BASED
- Page 121 and 122: Suitability for social system simul
- Page 123 and 124: 6. MASONDescription:MASON is a fast
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- Page 139 and 140: ∂ u∂x∂ u∂y2 2+ b = 02 2wher
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- Page 155: CONCLUSIONSThe basic content of thi