void main(void)
{
int a[6] = {2, 6, 4, 3, 1, 5};
int r[6];
int n = 6;
Rank(a,n,r);
Rearrange(a,n,r);
for (int i = 0; i < n; i++)
cout << a[i] << ' ';
cout << endl;
}
// FORWARD FOURIER TRANSFORM, INPLACE VERSION
// Data - both input data and output
// N - length of input data
bool CFFT::Forward(complex * const Data, const unsigned int N) {
// Check input parameters
if (!Data || N < 1 || (N & (N - 1)))
return false;
// Rearrange
Rearrange(Data, N);
// Call FFT implementation
Perform(Data, N);
// Succeeded
return true;
}
// FORWARD FOURIER TRANSFORM
// Input - input data
// Output - transform result
// N - length of both input data and result
bool FFT::Forward(const complex *const Input, complex *const Output, const unsigned int N)
{
// Check input parameters
if (!Input || !Output || N < 1 || N & (N - 1))
return false;
// Initialize data
Rearrange(Input, Output, N);
// Call FFT implementation
Perform(Output, N);
// Succeeded
return true;
}
// INVERSE FOURIER TRANSFORM, INPLACE VERSION
// Data - both input data and output
// N - length of both input data and result
// Scale - if to scale result
bool FFT::Inverse(complex *const Data, const unsigned int N, const bool Scale /* = true */)
{
// Check input parameters
if (!Data || N < 1 || N & (N - 1))
return false;
// Rearrange
Rearrange(Data, N);
// Call FFT implementation
Perform(Data, N, true);
// Scale if necessary
if (Scale)
FFT::Scale(Data, N);
// Succeeded
return true;
}
// INVERSE FOURIER TRANSFORM
// Input - input data
// Output - transform result
// N - length of both input data and result
// Scale - if to scale result
bool FFT::Inverse(const complex *const Input, complex *const Output, const unsigned int N, const bool Scale /* = true */)
{
// Check input parameters
if (!Input || !Output || N < 1 || N & (N - 1))
return false;
// Initialize data
Rearrange(Input, Output, N);
// Call FFT implementation
Perform(Output, N, true);
// Scale if necessary
if (Scale)
FFT::Scale(Output, N);
// Succeeded
return true;
}
int main()
{
int num=0;
NODE *Head = NULL;
printf("Enter the information in the linked list (Enter -1 to exit):");
scanf("%d",&num);
while(num != -1)
{
Head = New_Node(Head,num);
printf("Enter the information in the linked list (Enter -1 to exit):");
scanf("%d",&num);
}
Print_Nodes(Head) ;
Rearrange(Head);
getch();
}
void Algo10_11_main()
{
RedType d[N]={{278,1},{109,2},{63,3},{930,4},{589,5},{184,6},{505,7},{269,8},{8,9},{83,10}};
SLList l;
int *adr;
InitList(l,d,N);
printf("排序前(next域还没赋值):\n");
print(l);
RadixSort(l);
printf("排序后(静态链表):\n");
print(l);
adr=(int*)malloc((l.recnum)*sizeof(int));
Sort(l,adr);
Rearrange(l,adr);
printf("排序后(重排记录):\n");
print(l);
}
void ProcessVector(float *input)
{
//Add the FFT to the total
for (unsigned int i = 0; i < m_vector_length; i++){
m_buffer[i] += input[i];
}
m_count++; //increment the total
if (m_avg_size == m_count){ //we've averaged over the number we intended to
double freqs[m_vector_length]; //for convenience
float bands0[m_vector_length]; //bands in order of frequency
float bands1[m_vector_length]; //fine window bands
float bands2[m_vector_length]; //coarse window bands
Rearrange(bands0, freqs, m_centre_freq_1, m_bandwidth0); //organise the buffer into a convenient order (saves to bands0)
GetBands(bands0, bands1, m_bandwidth1); //apply the fine window (saves to bands1)
GetBands(bands0, bands2, m_bandwidth2); //apply the coarse window (saves to bands2)
PrintSignals(freqs, bands1, bands2);
m_count = 0; //next time, we're starting from scratch - so note this
ZeroBuffer(); //get ready to start again
m_wait_count++; //we've just done another listen
if (m_time/(m_bandwidth0/(double)(m_vector_length * m_avg_size)) <= m_wait_count){ //if we should move to the next frequency
while (true) { //keep moving to the next frequency until we get to one we can listen on (copes with holes in the tunable range)
if (m_centre_freq_2 <= m_centre_freq_1){ //we reached the end!
//do something to end the scan
fprintf(stderr, "[*] Finished scanning\n"); //say we're exiting
exit(0); //TODO: This probably isn't the right thing, but it'll do for now
}
m_centre_freq_1 += m_step; //calculate the frequency we should change to
double actual = m_source->set_center_freq(m_centre_freq_1); //change frequency
if ((m_centre_freq_1 - actual < 10.0) && (actual - m_centre_freq_1 < 10.0)){ //success
break; //so stop changing frequency
}
}
m_wait_count = 0; //new frequency - we've listenned 0 times on it
}
}
}
void main()
{
RedType d[N]={{49,1},{38,2},{65,3},{97,4},{76,5},{13,6},{27,7},{49,8}};
SLinkListType l1,l2;
int *adr,i;
TableInsert(&l1,d,N);
l2=l1; /* 复制静态链表l2与l1相同 */
printf("排序前:\n");
print(l1);
Arrange(&l1);
printf("l1排序后:\n");
print(l1);
adr=(int*)malloc((l2.length+1)*sizeof(int));
Sort(l2,adr);
for(i=1;i<=l2.length;i++)
printf("adr[%d]=%d ",i,adr[i]);
printf("\n");
Rearrange(&l2,adr);
printf("l2排序后:\n");
print(l2);
}
void CPDF_VariableText::RearrangePart(const CPVT_WordRange& PlaceRange) {
Rearrange(PlaceRange);
}
void CPDF_VariableText::RearrangeAll() {
Rearrange(CPVT_WordRange(GetBeginWordPlace(), GetEndWordPlace()));
}