do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one

do not expect their use to diminish. Fortunately, modern language design and compiler techniques make it possible to mostly eliminate the performance trade-off and provide a single environment productive rich language of types for constructing and describing objects, that can also optionally be used to make type declarations • The ability to define function behavior across many combinations of argument a are names for the same array! 3-element Vector{Int64}: 1 2 3 Here, the line b = a does not make a copy of the array a, it simply binds the name b to the same array a: both b and a "point" to one