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FrEE-FIFO

  • Microphone Arrays : A Tutorial

    This report presents a tutorial of fundamental array processing and beamforming theory relevant to microphone array speech processing. A microphone array consists of multiple microphones placed at different spatial locations. Built upon a knowledge of sound propagation principles, the multiple inputs can be manipulated to enhance or attenuate signals emanating from particular directions. In this way, microphone arrays provide a means of enhancing a desired signal in the presence of corrupting noise sources. Moreover, this enhancement is based purely on knowledge of the source location, and so microphone array techniques are applicable to a wide variety of noise types. Microphone arrays have great potential in practical applications of speech processing, due to their ability to provide both noise robustness and hands-free signal acquisition.

    标签: Microphone array Tutorial Array Signal Processing

    上传时间: 2016-06-12

    上传用户:halias

  • 32feet.NET 3.5 Bluetooth coding

    32feet.NET is a shared-source project to make personal area networking technologies such as Bluetooth, Infrared (IrDA) and more, easily accessible from .NET code. Supports desktop, mobile or embedded systems. 32feet.NET is free for commercial or non-commercial use. If you use the binaries you can just use the library as-is, if you make modifications to the source you need to include the 32feet.NET License.txt document and ensure the file headers are not modified/removed. The project currently consists of the following libraries:- Bluetooth IrDA Object Exchange Bluetooth support requires a device with either the Microsoft, Widcomm, BlueSoleil, or Stonestreet One Bluetopia Bluetooth stack. Requires .NET Compact Framework v3.5 or above and Windows CE.NET 4.2 or above, or .NET Framework v3.5 for desktop Windows XP, Vista, 7 and 8. A subset of functionality is available for Windows Phone 8 and Windows Embedded Handheld 8 in the InTheHand.Phone.Bluetooth.dll library.

    标签: feet 3.5 NET 32

    上传时间: 2016-07-06

    上传用户:magister2016

  • FREE BARAM TONGFILE SERVER

    BARA SERVER FILE

    标签: TONGFILE SERVER BARAM FREE

    上传时间: 2016-12-11

    上传用户:wks1222

  • 虚拟页面管理

    虚拟页面管理,FIFO和LRU算法的C++完整代码,一般编译器即可直接运行。

    标签: FIFO算法 LRU算法

    上传时间: 2016-12-14

    上传用户:huahuaH

  • 操作系统页面置换源码

    操作系统课设页面置换源码,OPT,FIFO,LRU,LFU,算法实现

    标签: 操作系统 页面置换 源码

    上传时间: 2017-01-11

    上传用户:675656854

  • mcp2make 1.0.2

    The version of CodeWarrior used in the ARM Development Suite cannot export projects in makefile format. Manually producing makefiles from CodeWarrior projects is not an easy task. The aim of mcp2make is to make the conversion simpler and to require substantially less effort. mcp2make is supplied as a free-of-charge, unsupported utility.

    标签: mcp2make

    上传时间: 2017-01-19

    上传用户:zbxinu

  • 3D Localization by UWB

    Simple 3D Localization of Tag-Free Moving Targets by UWB Radar UWB定位

    标签: Localization Tag-Free Targets Simple Moving Radar UWB 3D of by

    上传时间: 2017-02-19

    上传用户:lujingyu

  • 数据结构实验

    #include <stdio.h>   #include <stdlib.h> ///链式栈      typedef struct node   {       int data;       struct node *next;   }Node,*Linklist;      Linklist Createlist()   {       Linklist p;       Linklist h;       int data1;       scanf("%d",&data1);       if(data1 != 0)       {           h = (Node *)malloc(sizeof(Node));           h->data = data1;           h->next = NULL;       }       else if(data1 == 0)       return NULL;       scanf("%d",&data1);       while(data1 != 0)       {           p = (Node *)malloc(sizeof(Node));           p -> data = data1;           p -> next = h;           h = p;           scanf("%d",&data1);       }       return h;   }      void Outputlist(Node *head)   {       Linklist p;       p = head;       while(p != NULL )       {           printf("%d ",p->data);           p = p->next;       }       printf("\n");   }      void Freelist(Node *head)   {       Node *p;       Node *q = NULL;       p = head;       while(p != NULL)       {           q = p;           p = p->next;           free(q);       }   }      int main()   {       Node *head;       head = Createlist();          Outputlist(head);          Freelist(head);          return 0;   }   2.顺序栈 [cpp] view plain copy #include <iostream>   #include <stdio.h>   #include <stdlib.h> ///顺序栈   #define MaxSize 100      using namespace std;      typedef

    标签: 数据结构 实验

    上传时间: 2018-05-09

    上传用户:123456..

  • 数据结构实验

    #include <iostream> #include <stdio.head> #include <stdlib.head> #include <string.head> #define ElemType int #define max 100 using namespace std; typedef struct node1 { ElemType data; struct node1 *next; }Node1,*LinkList;//链栈 typedef struct { ElemType *base; int top; }SqStack;//顺序栈 typedef struct node2 { ElemType data; struct node2 *next; }Node2,*LinkQueue; typedef struct node22 { LinkQueue front; LinkQueue rear; }*LinkList;//链队列 typedef struct { ElemType *base; int front,rear; }SqQueue;//顺序队列 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 //1.采用链式存储实现栈的初始化、入栈、出栈操作。 LinkList CreateStack()//创建栈 { LinkList top; top=NULL; return top; } bool StackEmpty(LinkList s)//判断栈是否为空,0代表空 { if(s==NULL) return 0; else return 1; } LinkList Pushead(LinkList s,int x)//入栈 { LinkList q,top=s; q=(LinkList)malloc(sizeof(Node1)); q->data=x; q->next=top; top=q; return top; } LinkList Pop(LinkList s,int &e)//出栈 { if(!StackEmpty(s)) { printf("栈为空。"); } else { e=s->data; LinkList p=s; s=s->next; free(p); } return s; } void DisplayStack(LinkList s)//遍历输出栈中元素 { if(!StackEmpty(s)) printf("栈为空。"); else { wheadile(s!=NULL) { cout<<s->data<<" "; s=s->next; } cout<<endl; } } 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 //2.采用顺序存储实现栈的初始化、入栈、出栈操作。 int StackEmpty(int t)//判断栈S是否为空 { SqStack.top=t; if (SqStack.top==0) return 0; else return 1; } int InitStack() { SqStack.top=0; return SqStack.top; } int pushead(int t,int e) { SqStack.top=t; SqStack.base[++SqStack.top]=e; return SqStack.top; } int pop(int t,int *e)//出栈 { SqStack.top=t; if(!StackEmpty(SqStack.top)) { printf("栈为空."); return SqStack.top; } *e=SqStack.base[s.top]; SqStack.top--; return SqStack.top; } 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 //3.采用链式存储实现队列的初始化、入队、出队操作。 LinkList InitQueue()//创建 { LinkList head; head->rear=(LinkQueue)malloc(sizeof(Node)); head->front=head->rear; head->front->next=NULL; return head; } void deleteEle(LinkList head,int &e)//出队 { LinkQueue p; p=head->front->next; e=p->data; head->front->next=p->next; if(head->rear==p) head->rear=head->front; free(p); } void EnQueue(LinkList head,int e)//入队 { LinkQueue p=(LinkQueue)malloc(sizeof(Node)); p->data=e; p->next=NULL; head->rear->next=p; head->rear=p; } 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 //4.采用顺序存储实现循环队列的初始化、入队、出队操作。 bool InitQueue(SqQueue &head)//创建队列 { head.data=(int *)malloc(sizeof(int)); head.front=head.rear=0; return 1; } bool EnQueue(SqQueue &head,int e)//入队 { if((head.rear+1)%MAXQSIZE==head.front) { printf("队列已满\n"); return 0; } head.data[head.rear]=e; head.rear=(head.rear+1)%MAXQSIZE; return 1; } int QueueLengthead(SqQueue &head)//返回队列长度 { return (head.rear-head.front+MAXQSIZE)%MAXQSIZE; } bool deleteEle(SqQueue &head,int &e)//出队 { if(head.front==head.rear) { cout<<"队列为空!"<<endl; return 0; } e=head.data[head.front]; head.front=(head.front+1)%MAXQSIZE; return 1; } int gethead(SqQueue head)//得到队列头元素 { return head.data[head.front]; } int QueueEmpty(SqQueue head)//判断队列是否为空 { if (head.front==head.rear) return 1; else return 0; } void travelQueue(SqQueue head)//遍历输出 { wheadile(head.front!=head.rear) { printf("%d ",head.data[head.front]); head.front=(head.front+1)%MAXQSIZE; } cout<<endl; } 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 //5.在主函数中设计一个简单的菜单,分别测试上述算法。 int main() { LinkList top=CreateStack(); int x; wheadile(scanf("%d",&x)!=-1) { top=Pushead(top,x); } int e; wheadile(StackEmpty(top)) { top=Pop(top,e); printf("%d ",e); }//以上是链栈的测试 int top=InitStack(); int x; wheadile(cin>>x) top=pushead(top,x); int e; wheadile(StackEmpty(top)) { top=pop(top,&e); printf("%d ",e); }//以上是顺序栈的测试 LinkList Q; Q=InitQueue(); int x; wheadile(scanf("%d",&x)!=-1) { EnQueue(Q,x); } int e; wheadile(Q) { deleteEle(Q,e); printf("%d ",e); }//以上是链队列的测试 SqQueue Q1; InitQueue(Q1); int x; wheadile(scanf("%d",&x)!=-1) { EnQueue(Q1,x); } int e; wheadile(QueueEmpty(Q1)) { deleteEle(Q1,e); printf("%d ",e); } return 0; }

    标签: 数据结构 实验

    上传时间: 2018-05-09

    上传用户:123456..

  • 操作系统课设

    设计虚拟存储区和内存工作区,编程序演示下述算法的具体实现过程,并计算访问命中率: 要求设计主界面以灵活选择某算法,以下算法任选两种实现: 1) 先进先出算法(FIFO) 2) 最近最久未使用算法(LRU) 3) 最佳置换算法(OPT)

    标签: 操作系统

    上传时间: 2019-06-24

    上传用户:aoye