Deduce the Component Digits from these three Sets of Symmetric Power Relations

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Deduce the Component Digits from these three Sets of Symmetric Power Relations














2












$begingroup$


Use calculator to the minimum.



Under Logical Deduction, these Daunting Relations will quickly melt away to reveal the constituent digits.



All three sets show beautiful symmetric Relations with first and second part of strings with powers on other side.



A, B, C, D, E, F, G, H are single digits..can vary from 0 to 9.



All other letter combinations are Concatenated Numbers. Leading zeroes allowed in the numbers for symmetry sake.



1st Set:



$ABCC$ = $AB^B$ + $CC^B$



$DDCC$ = $DD^B$ + $CC^B$



2nd Set:



$EAEAEE$ = $EAE^B$ + $AEE^B$



$FFEAEE$ = $FFE^B$ + $AEE^B$



3rd Set:



$EGDDBCGC$ = $EGDD^B$ + $BCGC^B$



$FHABBCGC$ = $FHAB^B$ + $BCGC^B$



Further another relationship exists



$EGDD$ + $FHAB$ = $AE*(EAE+FAE)$ = $(AB+DD)*AE^B$










share|improve this question











$endgroup$











  • $begingroup$
    Is $AB^B$ = $(AB)^B$ or $A(B^B)$? E.g. if $A=1$ and $B=2$, then is $AB^B$ equal to $(12)^2$ or to $10 + 2^2$?
    $endgroup$
    – shoover
    Jun 3 at 5:07











  • $begingroup$
    All letter combinations other than single letter used are concatenated Numbers as stated.
    $endgroup$
    – Uvc
    Jun 3 at 7:01















2












$begingroup$


Use calculator to the minimum.



Under Logical Deduction, these Daunting Relations will quickly melt away to reveal the constituent digits.



All three sets show beautiful symmetric Relations with first and second part of strings with powers on other side.



A, B, C, D, E, F, G, H are single digits..can vary from 0 to 9.



All other letter combinations are Concatenated Numbers. Leading zeroes allowed in the numbers for symmetry sake.



1st Set:



$ABCC$ = $AB^B$ + $CC^B$



$DDCC$ = $DD^B$ + $CC^B$



2nd Set:



$EAEAEE$ = $EAE^B$ + $AEE^B$



$FFEAEE$ = $FFE^B$ + $AEE^B$



3rd Set:



$EGDDBCGC$ = $EGDD^B$ + $BCGC^B$



$FHABBCGC$ = $FHAB^B$ + $BCGC^B$



Further another relationship exists



$EGDD$ + $FHAB$ = $AE*(EAE+FAE)$ = $(AB+DD)*AE^B$










share|improve this question











$endgroup$











  • $begingroup$
    Is $AB^B$ = $(AB)^B$ or $A(B^B)$? E.g. if $A=1$ and $B=2$, then is $AB^B$ equal to $(12)^2$ or to $10 + 2^2$?
    $endgroup$
    – shoover
    Jun 3 at 5:07











  • $begingroup$
    All letter combinations other than single letter used are concatenated Numbers as stated.
    $endgroup$
    – Uvc
    Jun 3 at 7:01













2












2








2





$begingroup$


Use calculator to the minimum.



Under Logical Deduction, these Daunting Relations will quickly melt away to reveal the constituent digits.



All three sets show beautiful symmetric Relations with first and second part of strings with powers on other side.



A, B, C, D, E, F, G, H are single digits..can vary from 0 to 9.



All other letter combinations are Concatenated Numbers. Leading zeroes allowed in the numbers for symmetry sake.



1st Set:



$ABCC$ = $AB^B$ + $CC^B$



$DDCC$ = $DD^B$ + $CC^B$



2nd Set:



$EAEAEE$ = $EAE^B$ + $AEE^B$



$FFEAEE$ = $FFE^B$ + $AEE^B$



3rd Set:



$EGDDBCGC$ = $EGDD^B$ + $BCGC^B$



$FHABBCGC$ = $FHAB^B$ + $BCGC^B$



Further another relationship exists



$EGDD$ + $FHAB$ = $AE*(EAE+FAE)$ = $(AB+DD)*AE^B$










share|improve this question











$endgroup$




Use calculator to the minimum.



Under Logical Deduction, these Daunting Relations will quickly melt away to reveal the constituent digits.



All three sets show beautiful symmetric Relations with first and second part of strings with powers on other side.



A, B, C, D, E, F, G, H are single digits..can vary from 0 to 9.



All other letter combinations are Concatenated Numbers. Leading zeroes allowed in the numbers for symmetry sake.



1st Set:



$ABCC$ = $AB^B$ + $CC^B$



$DDCC$ = $DD^B$ + $CC^B$



2nd Set:



$EAEAEE$ = $EAE^B$ + $AEE^B$



$FFEAEE$ = $FFE^B$ + $AEE^B$



3rd Set:



$EGDDBCGC$ = $EGDD^B$ + $BCGC^B$



$FHABBCGC$ = $FHAB^B$ + $BCGC^B$



Further another relationship exists



$EGDD$ + $FHAB$ = $AE*(EAE+FAE)$ = $(AB+DD)*AE^B$







mathematics no-computers






share|improve this question















share|improve this question













share|improve this question




share|improve this question








edited Jun 3 at 5:43









JonMark Perry

22.3k643103




22.3k643103










asked Jun 3 at 2:58









UvcUvc

1,374221




1,374221











  • $begingroup$
    Is $AB^B$ = $(AB)^B$ or $A(B^B)$? E.g. if $A=1$ and $B=2$, then is $AB^B$ equal to $(12)^2$ or to $10 + 2^2$?
    $endgroup$
    – shoover
    Jun 3 at 5:07











  • $begingroup$
    All letter combinations other than single letter used are concatenated Numbers as stated.
    $endgroup$
    – Uvc
    Jun 3 at 7:01
















  • $begingroup$
    Is $AB^B$ = $(AB)^B$ or $A(B^B)$? E.g. if $A=1$ and $B=2$, then is $AB^B$ equal to $(12)^2$ or to $10 + 2^2$?
    $endgroup$
    – shoover
    Jun 3 at 5:07











  • $begingroup$
    All letter combinations other than single letter used are concatenated Numbers as stated.
    $endgroup$
    – Uvc
    Jun 3 at 7:01















$begingroup$
Is $AB^B$ = $(AB)^B$ or $A(B^B)$? E.g. if $A=1$ and $B=2$, then is $AB^B$ equal to $(12)^2$ or to $10 + 2^2$?
$endgroup$
– shoover
Jun 3 at 5:07





$begingroup$
Is $AB^B$ = $(AB)^B$ or $A(B^B)$? E.g. if $A=1$ and $B=2$, then is $AB^B$ equal to $(12)^2$ or to $10 + 2^2$?
$endgroup$
– shoover
Jun 3 at 5:07













$begingroup$
All letter combinations other than single letter used are concatenated Numbers as stated.
$endgroup$
– Uvc
Jun 3 at 7:01




$begingroup$
All letter combinations other than single letter used are concatenated Numbers as stated.
$endgroup$
– Uvc
Jun 3 at 7:01










1 Answer
1






active

oldest

votes


















3












$begingroup$

Set 1:




$1233 = 12^2 + 33^2$
$8833 = 88^2 + 33^2$




Because:




We can deduce $B=2$. It must be $2$ or $3$ as $11^4gt9999$. If $B=3$, then either $A$ or $C$ is at least $2$, and $22^3>9999$.




I like this bit!




$DDCC-ABCC = 100(DD-AB)$.

But also $DDCC-ABCC=DD^2-AB^2=(DD-AB)(DD+AB)$.

Therefore $DD+AB=100$, and as $B=2$, $D=8$ and $A=1$.




Finally:




Both $1200=12^2$ and $8800-88^2$ equal $1056$. By inspection, we notice $1089$ is the next square, and so $C=3$.




The rest:




$E=0$ ($E=5$ is the only other option, but there is no $F$ that works) AND $F=9$. $G+H=9$, and only $4,5,6,7$ remain, and by inspection $G=5, H=4$.







share|improve this answer











$endgroup$












  • $begingroup$
    Great!!........
    $endgroup$
    – Uvc
    Jun 3 at 7:08











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1 Answer
1






active

oldest

votes








1 Answer
1






active

oldest

votes









active

oldest

votes






active

oldest

votes









3












$begingroup$

Set 1:




$1233 = 12^2 + 33^2$
$8833 = 88^2 + 33^2$




Because:




We can deduce $B=2$. It must be $2$ or $3$ as $11^4gt9999$. If $B=3$, then either $A$ or $C$ is at least $2$, and $22^3>9999$.




I like this bit!




$DDCC-ABCC = 100(DD-AB)$.

But also $DDCC-ABCC=DD^2-AB^2=(DD-AB)(DD+AB)$.

Therefore $DD+AB=100$, and as $B=2$, $D=8$ and $A=1$.




Finally:




Both $1200=12^2$ and $8800-88^2$ equal $1056$. By inspection, we notice $1089$ is the next square, and so $C=3$.




The rest:




$E=0$ ($E=5$ is the only other option, but there is no $F$ that works) AND $F=9$. $G+H=9$, and only $4,5,6,7$ remain, and by inspection $G=5, H=4$.







share|improve this answer











$endgroup$












  • $begingroup$
    Great!!........
    $endgroup$
    – Uvc
    Jun 3 at 7:08















3












$begingroup$

Set 1:




$1233 = 12^2 + 33^2$
$8833 = 88^2 + 33^2$




Because:




We can deduce $B=2$. It must be $2$ or $3$ as $11^4gt9999$. If $B=3$, then either $A$ or $C$ is at least $2$, and $22^3>9999$.




I like this bit!




$DDCC-ABCC = 100(DD-AB)$.

But also $DDCC-ABCC=DD^2-AB^2=(DD-AB)(DD+AB)$.

Therefore $DD+AB=100$, and as $B=2$, $D=8$ and $A=1$.




Finally:




Both $1200=12^2$ and $8800-88^2$ equal $1056$. By inspection, we notice $1089$ is the next square, and so $C=3$.




The rest:




$E=0$ ($E=5$ is the only other option, but there is no $F$ that works) AND $F=9$. $G+H=9$, and only $4,5,6,7$ remain, and by inspection $G=5, H=4$.







share|improve this answer











$endgroup$












  • $begingroup$
    Great!!........
    $endgroup$
    – Uvc
    Jun 3 at 7:08













3












3








3





$begingroup$

Set 1:




$1233 = 12^2 + 33^2$
$8833 = 88^2 + 33^2$




Because:




We can deduce $B=2$. It must be $2$ or $3$ as $11^4gt9999$. If $B=3$, then either $A$ or $C$ is at least $2$, and $22^3>9999$.




I like this bit!




$DDCC-ABCC = 100(DD-AB)$.

But also $DDCC-ABCC=DD^2-AB^2=(DD-AB)(DD+AB)$.

Therefore $DD+AB=100$, and as $B=2$, $D=8$ and $A=1$.




Finally:




Both $1200=12^2$ and $8800-88^2$ equal $1056$. By inspection, we notice $1089$ is the next square, and so $C=3$.




The rest:




$E=0$ ($E=5$ is the only other option, but there is no $F$ that works) AND $F=9$. $G+H=9$, and only $4,5,6,7$ remain, and by inspection $G=5, H=4$.







share|improve this answer











$endgroup$



Set 1:




$1233 = 12^2 + 33^2$
$8833 = 88^2 + 33^2$




Because:




We can deduce $B=2$. It must be $2$ or $3$ as $11^4gt9999$. If $B=3$, then either $A$ or $C$ is at least $2$, and $22^3>9999$.




I like this bit!




$DDCC-ABCC = 100(DD-AB)$.

But also $DDCC-ABCC=DD^2-AB^2=(DD-AB)(DD+AB)$.

Therefore $DD+AB=100$, and as $B=2$, $D=8$ and $A=1$.




Finally:




Both $1200=12^2$ and $8800-88^2$ equal $1056$. By inspection, we notice $1089$ is the next square, and so $C=3$.




The rest:




$E=0$ ($E=5$ is the only other option, but there is no $F$ that works) AND $F=9$. $G+H=9$, and only $4,5,6,7$ remain, and by inspection $G=5, H=4$.








share|improve this answer














share|improve this answer



share|improve this answer








edited Jun 3 at 5:54

























answered Jun 3 at 5:42









JonMark PerryJonMark Perry

22.3k643103




22.3k643103











  • $begingroup$
    Great!!........
    $endgroup$
    – Uvc
    Jun 3 at 7:08
















  • $begingroup$
    Great!!........
    $endgroup$
    – Uvc
    Jun 3 at 7:08















$begingroup$
Great!!........
$endgroup$
– Uvc
Jun 3 at 7:08




$begingroup$
Great!!........
$endgroup$
– Uvc
Jun 3 at 7:08

















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