which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representa�on when a result no longer fits into the size of the problem under the rug by fois�ng all of the same difficul�es onto the C code implemen�ng this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no ma�er how clever a hybrid integer implementa�on one uses, there are always performance traps – situa�ons where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representa�on when a result no longer fits into the size of the problem under the rug by fois�ng all of the same difficul�es onto the C code implemen�ng this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no ma�er how clever a hybrid integer implementa�on one uses, there are always performance traps – situa�ons where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representa�on when a result no longer fits into the size of the problem under the rug by fois�ng all of the same difficul�es onto the C code implemen�ng this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no ma�er how clever a hybrid integer implementa�on one uses, there are always performance traps – situa�ons where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representa�on when a result no longer fits into the size of the problem under the rug by fois�ng all of the same difficul�es onto the C code implemen�ng this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no ma�er how clever a hybrid integer implementa�on one uses, there are always performance traps – situa�ons where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representation when a result no longer fits into the size problem under the rug by foisting all of the same difficulties onto the C code implementing this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no matter how clever a hybrid integer implementation one uses, there are always performance traps – situations where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representation when a result no longer fits into the size problem under the rug by foisting all of the same difficulties onto the C code implementing this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no matter how clever a hybrid integer implementation one uses, there are always performance traps – situations where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representation when a result no longer fits into the size problem under the rug by foisting all of the same difficulties onto the C code implementing this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no matter how clever a hybrid integer implementation one uses, there are always performance traps – situations where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representation when a result no longer fits into the size problem under the rug by foisting all of the same difficulties onto the C code implementing this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no matter how clever a hybrid integer implementation one uses, there are always performance traps – situations where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representation when a result no longer fits into the size problem under the rug by foisting all of the same difficulties onto the C code implementing this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no matter how clever a hybrid integer implementation one uses, there are always performance traps – situations where performance

which avoids the appearance of type instability is to merge the Int and BigInt types into a single hybrid integer type, that internally changes representation when a result no longer fits into the size problem under the rug by foisting all of the same difficulties onto the C code implementing this hybrid integer type. This approach can be made to work and can even be made quite fast in many cases, but values will always require separate heap-allocated storage. And of course, no matter how clever a hybrid integer implementation one uses, there are always performance traps – situations where performance