Parabolic cylinder function
Concept in mathematics
In mathematics, the parabolic cylinder functions are special functions defined as solutions to the differential equation This equation is found when the technique of separation of variables is used on Laplace's equation when expressed in parabolic cylindrical coordinates. The above equation may be brought into two distinct forms (A) and (B) by completing the square and rescaling z, called H. F. Weber's equations: and If f ( a , z ) {\displaystyle f(a,z)} is a solution, then so are f ( a , − z ) , f ( − a , i z ) and f ( − a , − i z ) . {\displa...
Nº Q3754582 ★
Comum · Saberes
Parabolic cylinder function
Concept in mathematics
In mathematics, the parabolic cylinder functions are special functions defined as solutions to the differential equation This equation is found when the technique of separation of variables is used on Laplace's equation when expressed in parabolic cylindrical coordinates. The above equation may be brought into two distinct forms (A) and (B) by completing the square and rescaling z, called H. F. Weber's equations: and If f ( a , z ) {\displaystyle f(a,z)} is a solution, then so are f ( a , − z ) , f ( − a , i z ) and f ( − a , − i z ) . {\displa...
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Texto em inglês Ainda não há artigo no seu idioma: trecho em inglês.
In mathematics, the parabolic cylinder functions are special functions defined as solutions to the differential equation This equation is found when the technique of separation of variables is used on Laplace's equation when expressed in parabolic cylindrical coordinates. The above equation may be brought into two distinct forms (A) and (B) by completing the square and rescaling z, called H. F. Weber's equations: and If f ( a , z ) {\displaystyle f(a,z)} is a solution, then so are f ( a , − z ) , f ( − a , i z ) and f ( − a , − i z ) . {\displaystyle f(a,-z),f(-a,iz){\text{ and }}f(-a,-iz).} If f ( a , z ) {\displaystyle f(a,z)\,} is a solution of equation (A), then f ( − i a , z e ( 1 / 4 ) π i ) {\displaystyle f(-ia,ze^{(1/4)\pi i})} is a solution of (B), and, by symmetry, f ( − i a , − z e ( 1 / 4 ) π i ) , f ( i a , − z e − ( 1 / 4 ) π i ) and f ( i a , z e − ( 1 / 4 ) π i ) {\displaystyle f(-ia,-ze^{(1/4)\pi i}),f(ia,-ze^{-(1/4)\pi i}){\text{ and }}f(ia,ze^{-(1/4)\pi i})} are also solutions of (B).
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