Ingolstadt II contra TSV Neudrossenfeld

Ingolstadt II vs TSV Neudrossenfeld – Expert Analysis

As a local resident and football enthusiast, I present an expert analysis of the upcoming match between Ingolstadt II and TSV Neudrossenfeld scheduled for November 2, 2025, at 13:00. This encounter promises to be intriguing, with both teams bringing unique strengths and challenges to the pitch. The statistical predictions offer valuable insights into potential outcomes, which are crucial for making informed betting decisions.

Additionadengyue1993/MyStudy/C++/MySTL/MySTL/mystring.h #ifndef MYSTRING_H #define MYSTRING_H #include «myalloc.h» #include «mystringbuf.h» #include «mystringiter.h» namespace MySTL { template class basic_string { public: typedef basic_string self; typedef size_t size_type; typedef Ch value_type; typedef Tr traits_type; typedef A allocator_type; typedef typename A::size_type alloc_size_type; typedef typename A::pointer pointer; typedef typename A::const_pointer const_pointer; //constructors and destructors basic_string(); //constructs empty string object explicit basic_string(const Allocator&); //constructs empty string object with allocator A basic_string(const basic_string& str); //copy constructor template basic_string(InputIterator first, InputIterator last); //constructs string from range [first,last) basic_string(const Ch* s); //constructs string from C-string s basic_string(const Ch* s,size_t n); //constructs string from first n elements of C-string s basic_string(const Ch* s,const Allocator&); //constructs string from C-string s with allocator A basic_string(const Ch* s,size_t n,const Allocator&); //constructs string from first n elements of C-string s with allocator A basic_string(size_t n, Ch c); //constructs string with n copies of character c basic_string(size_t n,const Allocator&); //constructs empty string with n elements allocated and allocator A ~basic_string(); //destructor //operator overloading self& operator=(const self& str); //assignment operator self& operator=(const Ch* str); //assignment operator from C-string self& operator+=(const self& str); //concatenation assignment operator self& operator+=(const Ch* str); //concatenation assignment operator from C-string self& operator+=(const Ch ch); //concatenation assignment operator from character bool operator==(const self& str) const; //equality test bool operator!=(const self& str) const; //inequality test bool operator(const self& str) const; //greater than test bool operator=(const self& str) const; //greater than or equal test //element access functions reference at(size_t pos); const_reference at(size_t pos) const; reference operator[](size_t pos); const_reference operator[](size_t pos) const; reference front(); const_reference front() const; reference back(); const_reference back() const; //iterators const_iterator begin() const; const_iterator end() const; iterator begin(); iterator end(); //capacity functions size_type size() const; //returns number of characters in string object (not including null terminator) size_type length() const; size_type max_size() const; bool empty() const; //modifying functions void resize(size_type n,const Ch ch = Ch()); //resizes string object so it contains exactly n characters void resize(size_type n); //resizes string object so it contains exactly n characters and removes any characters beyond new size void clear(); void push_back(const Ch ch); void pop_back(); void insert(iterator position,const Ch ch); void insert(iterator position,size_type n,const Ch ch); template void insert(iterator position,InputIterator first,InputIterator last); void insert(iterator position,const self& str); void insert(iterator position,const Ch* s); void erase(iterator position); void erase(iterator first,iterator last); void replace(iterator position1,iterator position2,const self& str); void replace(iterator position1,iterator position2,const Ch* s); template void replace(iterator position1,iterator position2,InputIterator first,InputIterator last); void swap(self& str); //search functions size_type find(const self& str,size_type pos =0) const; size_type find(const Ch* s,size_type pos =0,size_type n =npos) const; size_type find(const Ch ch,size_type pos =0) const; size_type rfind(const self& str,size_type pos =npos) const; size_type rfind(const Ch* s,size_type pos =npos,size_type n =npos) const; size_type rfind(const Ch ch,size_type pos =npos) const; size_type find_first_of(const self& str,size_type pos =0) const; size_type find_first_of(const Ch* s,size_type pos =0,size_type n =npos) const; size_type find_first_of(const Ch ch,size_t pos =0) const; size_type find_last_of(const self& str,size_t pos =npos) const; size_type find_last_of(const Ch* s,size_t pos =npos,size_t n =npos) const; size_type find_last_of(const Ch ch,size_t pos =npos) const; size_type find_first_not_of(const self& str,size_t pos =0) const; size_type find_first_not_of(const Ch* s,size_t pos =0,size_t n=npos) const; size_type find_first_not_of(const Ch ch,size_t pos=0) const; size_type find_last_not_of(const self& str,size_t pos=npos) const; size_type find_last_not_of(const Ch* s,size_t pos=npos,size_t n=npos) const; size_typet find_last_not_of(const Ch ch,size_t pos=npos) const; //manipulation functions void assign(size_t n,const Ch ch); //assigns string with n copies of character c template void assign(InputIterator first,InputIterator last); void assign(const self &str); void assign(const Ch *s); void assign(size_t num,const Ch *s); int compare(const self &str)const; int compare(size_t num1,const CharT *s1)const; int compare(size_t num1,const CharT *s1,size_t num2)const; self substr(size_pos,pos=npos)const; int hash_code()const; private: static size_const MAX_STRING_SIZE=numeric_limits::max()/sizeof(CharT)-1;//maximum number of characters allowed in a string object private: mutable _StringBuf* _strbuf;//pointer to dynamic array containing data for this string object public: static size_const npos;//the maximum value for size type (i.e., no such position) }; typedef basic_string<char,std::char_traits,MySTL::MyAlloc> String; typedef basic_string<wchar_t,std::char_traits,MySTL::MyAlloc> WString; #include «mystring.inl» } #endif#ifndef MYVECTOR_H #define MYVECTOR_H #include «myallocator.h» namespace MySTL { template<class T,class A=MyAlloc> class Vector { public: typedef Vector Self; typedef T valueT; typedef sizeT sizeT; typedef ptrdiffT differenceT; typedef A allocatorT; private: valueT* _data; valueT* _start; valueT* _finish; valueT* _endofstorage; public: explicit Vector(allocatorT &a=allocatorT()):_data(0),_start(0),_finish(0),_endofstorage(0) { } explicit Vector(sizeT n,valueT val= valueT(),allocatorT &a=allocatorT()) { reserve(n); insert(begin(),n,val); } Vector(Self &v):_data(0),_start(0),_finish(0),_endofstorage(0) { reserve(v.capacity()); insert(begin(),v.begin(),v.end()); } template//Constructs vector by copying range [first,last) Vector(IterAtrrType first_,IterAtrrType last_,allocatorT &a=allocatorT()) { differenceT distance=distance(first_,last_); if(distance!=differenceT()) reserve(distance); insert(begin(),first_,last_); if(distance==differenceT()) reserve(distance+1); } Vector(Self &v,_ForwardIterator first,_ForwardIterator last):Vector(v) { insert(first,last); if(distance(first,last)==difference()) reserve(distance(first,last)+1); } virtual ~Vector() { deallocate(); } Self &operator=(Self &v) { if(this!=(&v)) { if(v._data==this->_data)//if source and destination vectors use same storage return *this; clear(); if(v.size()>capacity()) reserve(v.size()); insert(begin(),v.begin(),v.end()); } return *this; } void reserve(sizeT newcapacity) { if(newcapacity<=capacity()) return; valueT *newdata=reallocate(newcapacity); if(newdata==NULL) throw bad_alloc(); else swap_data(newdata); } void resize(sizeT newsize,valueT val=value_T()) { if(newsize_endofstorage-_start) resize(newsize); fill(_finish,_start+newsize,val); } void resize(size_T newsize) { resize(newsize,value_T()); } void swap_data(value_T *newdata) { value_T *old_data=_data; try { _data=newdata; _start=_data; _finish=_data+_size; _endofstorage=_data+_endofstorage_old-_start+old_data; } catch(…) { deallocate(); _data=old_data; throw ; } } value_T *reallocate(size_T newcapacity) { value_T *new_data=allocate(newcapacity); if(new_data!=NULL) copy(_start,_finish,new_data); deallocate(); return new_data; } void clear() { for(;_finish!=_start;++_start) free(); } void push_back(value_T val) { insert(end(),val); } void pop_back() { if(!empty()) free(–_finish); } bool empty()const { return _finish==_start; } size_T size()const { return _finish-_start; } size_T capacity()const { return _endofstorage-_start; } value_T &front() { return *_start; } value_T &back() { return *(_finish-1); } value_T *begin() { return _start; } value_T *end() { return _finish; } const value_T *begin()const { return _start; } const value_T *end()const { return _finish; } }; } #endif#ifndef MYSTRINGITER_H #define MYSTRINGITER_H #include «myconfig.h» namespace MySTL { template//Const iterator for String class class MySTLCLassString_Iterator : public Iterator//RandomAccessIteratorTag is used because RandomAccessIterators are more efficient than BidirectionalIterators or ForwardIterators { protected: typedef IteratorSelF;//Used to reduce code duplication between Const and Non-Const iterator classes public: explicit MySTLClassString_Iterator(T*x):iterator(x){};//constructor T &operator*(){return *iterator;} const T &operator*()const{return *iterator;} T *&operator->(){return iterator;} const T *&operator->()const{return iterator;} MySTLClassString_Iterator&operator++();//prefix incrementation MySTLClassString_Iterator&operator–();//prefix decrementation MySTLClassString_Iterator&operator+=(differenceType off);//addition assignment MySTLClassString_Iterator&operator-=(differenceType off);//subtraction assignment MySTLClassString_Iterator&operator++(int);//postfix incrementation MySTLClassString_Iterator&operator–(int);//postfix decrementation T*base(){return iterator;} private: T *iterator;//points to current element friend class String;//allows String class to access private members of this class }; template//Non-Const iterator for String class class MySTLClassString_Iterator : public Iterator//RandomAccessIteratorTag is used because RandomAccessIterators are more efficient than BidirectionalIterators or ForwardIterators { protected: typedef IteratorSelF;//Used to reduce code duplication between Const and Non-Const iterator classes public: explicit MySTLClassString_Iterator(T*x):iterator(x){};//constructor T &operator*(){return *iterator;} const T &operator*()const{return *iterator;} T *&operator->(){return iterator;} const T *&operator->()const{return iterator;} MySTLClassString_Iterator&operator++();//prefix incrementation MySTLClassString_Iterator&operator–();//prefix decrementation MySTLClassString_Iterator&operator+=(differenceType off);//addition assignment MySTLClassString_Iterator&operator-=(differenceType off);//subtraction assignment MySTLClassString_Iterator&operator++(int);//postfix incrementation MySTLClassString_Iterator&operator–(int);//postfix decrementation T*base(){return iterator;} private: T *iterator;//points to current element friend class String;//allows String class to access private members of this class }; template//Non-Const iterator for String class (specialization) class MySTLClassString_Iterator<MySTLClassString_Iterator,false,T&,T*>:public MySTLCLassString_Iterator//inherits functionality from non-specialized version { }; template//Const iterator for String class (specialization) class MySTLCLassString_Iterator<MySTLCLassString_Iterator,true,const T&,const T*>:public MySTLCLassString_Iterator//inherits functionality from non-specialized version { }; template//Non-Const iterator for basic_string class (specialization) class MySTLCLassBasic_String_I