all these programming paradigms, you can mix and match them in the same programIdentifying code functionally Part 1:Functional Code Categories • Actions • Depend on when or how many times they are called that can create copies lazily or log changes • Bitmapped vector trieThinking Functionally Epilogue:Thinking Functionally • C++ is a multiparadigm language, leverage it! • Separate code into Actions

��������������������������� THINK FUNCTIONALLY THINK FUNCTIONALLY A Sad Story About API disasters THINK FUNCTIONALLY THINK FUNCTIONALLY 是可忍孰不可忍？ THINK FUNCTIONALLY THINK FUNCTIONALLY ⾃⼰写个Promise？ THINK THINK FUNCTIONALLY THINK FUNCTIONALLY 或许，还有更简单的办法！ THINK FUNCTIONALLY THINK FUNCTIONALLY 完⼯之后的样⼦ 看起来棒棒哒！ THINK FUNCTIONALLY THINK FUNCTIONALLY 第⼀步，定义⼀个叫做Async的 东西，将异步过程封装起来 其中⽤到的Result如下： THINK FUNCTIONALLY THINK FUNCTIONALLY 注意到它是⼀个Functor，所以 第⼆步，定义⼀个map函数 THINK FUNCTIONALLY THINK FUNCTIONALLY 注意它也是⼀个Monad，所以 第三步，定义⼀个flatMap函数 THINK FUNCTIONALLY THINK FUNCTIONALLY 第四步，给flatMap改个名字，叫做then

documented. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Import Settings Scale correction Override Scene Information Keyframe File EGM here. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Scale correction This value is used to globally re-scale the input Nif data documented. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Scale correction This value is used to globally re-scale the Blender system

documented. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Import Settings This section explains the import and export settings. Warning: here. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. 1.4. Features 5 Blender NIF Plugin, Release 2.6.0a0.dev4 Scale correction documented. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Scale correction This value is used to globally re-scale the Blender system

documented. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. 1.3. User Interface 5 Blender NIF Plugin Documentation, Release 2.6.0a0.dev4 here. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Scale correction This value is used to globally re-scale the input Nif data documented. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Scale correction This value is used to globally re-scale the Blender system

documented. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Import Settings Scale correction Override Scene Information Keyframe File EGM here. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Scale correction This value is used to globally re-scale the input Nif data documented. This is due to the fact that they are ported directly from the old plugin and as such, will functionally remain the same. Scale correction This value is used to globally re-scale the Blender system

example (p q : Prop) (hp : p) : p ∨ q := by { left, assumption } Here, { left, assumption } is functionally equivalent to a single tactic which first applies left and then applies assumption. In an expression “split on cases as to whether m + 3 * k is zero or the successor of some number.” The result is functionally equivalent to the following: example (hz : p 0) (hs : ∀ n, p (succ n)) (m k : N) : p (m + 3 hypothesis h1 : m < n, and in the second we have the hypothesis h2 : m ≥ n. The proof above is functionally equivalent to the following: example (p : Prop) (m n : N) (h1 : m < n → p) (h2 : m ≥ n → p)

factory ... Since this manual registration step is not convenient, and ApplictionContexts are functionally supersets of BeanFactories, it is generally recommended that ApplicationContext variants are used fashion to any other bean. Since this manual step is not convenient, and ApplictionContexts are functionally supersets of BeanFactories, it is generally recommended that ApplicationContext variants are used to take the class name of any exception that might be thrown and map it to a view name. This is functionally equivalent to the exception mapping feature from the servlet api, but it's also possible to implement

factory ... Since this manual registration step is not convenient, and ApplictionContexts are functionally supersets of BeanFactories, it is generally recommended that ApplicationContext variants are used 3 26 to any other bean. Since this manual step is not convenient, and ApplictionContexts are functionally supersets of BeanFactories, it is generally recommended that ApplicationContext variants are used to take the class name of any exception that might be thrown and map it to a view name. This is functionally equivalent to the exception mapping feature from the servlet api, but it's also possible to implement

factory ... Since this manual registration step is not convenient, and ApplictionContexts are functionally supersets of BeanFactories, it is generally recommended that ApplicationContext variants are used 2 26 to any other bean. Since this manual step is not convenient, and ApplictionContexts are functionally supersets of BeanFactories, it is generally recommended that ApplicationContext variants are used to take the class name of any exception that might be thrown and map it to a view name. This is functionally equivalent to the exception mapping feature from the servlet api, but it's also possible to implement