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List of generated methods in project: ProcessorExpert

THIS TEXT DESCRIPTION IS GENERATED BY THE TOOL. DO NOT MODIFY IT.
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Module "CyclicADC" (component CyclicADC)
   - CyclicADC_Init -This method initializes registers of the ADC module according to this Peripheral Initialization settings. 
                Call this method in the user code to initialize the module. By default, the method is called by PE 
                automatically; see "Call Init method" property of the component for more details.

Module "COP1"      (component COP1)
   - COP1_Init -This method initializes registers of the COP module according to the Peripheral Initialization settings. Call 
                this method in user code to initialize the module. By default, the method is called by PE automatically; see 
                "Call Init method" property of the component for more details.

Module "FMSTR1"    (component FMSTR1)
   - FMSTR1_Poll -In the poll-driven or short interrupt modes, this function handles the protocol decoding and execution. In 
                the poll-driven mode, this function also handles the SCI communication. In the long interrupt mode, this 
                function compiles as an empty function and may still be called.

Module "ForADC12Atrigger" (component ForADC12Atrigger)
   - ForADC12Atrigger_Init -This method initializes registers of the XBAR module according to the Peripheral Initialization 
                settings. Call this method in user code to initialize the module. By default, the method is called by PE 
                automatically; see "Call Init method" property of the component for more details.

Module "IdleLamp"  (component IdleLamp)
   - IdleLamp_Init -This method initializes registers of the GPIO module according to this Peripheral Initialization settings.  
                Call this method in the user code to initialize the module. By default, the initialization is made in 
                initialization code; see "Call Init method" property of the component for more details.

Module "LEDs0to7"  (component LEDs0to7)
   - LEDs0to7_Init -This method initializes registers of the GPIO module according to this Peripheral Initialization settings.  
                Call this method in the user code to initialize the module. By default, the initialization is made in 
                initialization code; see "Call Init method" property of the component for more details.

Module "TMR1"      (component TMR1)
   - TMR1_Init -This method initializes registers of the TMR module according to this Peripheral Initialization settings.    
                Call this method in the user code to initialize the module. By default, the method is called by PE 
                automatically; see "Call Init method" property of the component for more details.

Module "DFR1"      (component DFR1)
   - DFR1_dfr16FIR -The method computes a Finite Impulse Response, (FIR), filter for a vector of fractional data values.   
                Prior to any call to fir, the FIR filter data structure referred to by the first parameter pFIR must be 
                allocated and initialized. This allocation and initialization can be done either statically by declaring a 
                dfr16_tFirStruct data structure and then initializing it with a call to dfr16FIRInit, or dynamically by calling 
                dfr16FIRCreate.
   - DFR1_dfr16FIRHistory -The method reinitializes the Finite Impulse Response, (FIR), filter history buffer data values. 
                Prior to any call to firHistory, the FIR filter must be initialized via a call to firCreate. The firHistory 
                function uses the private data structure established by firCreate to establish the past history of data 
                elements required by the FIR filter computation. The argument pX must point to n fractional data elements, 
                where n is the number of coefficients used to establish the FIR filter in the call to firCreate.
   - DFR1_dfr16FIRInit -The method initializes the fir filter function from a previously allocated dfr16_tFirStruct data 
                structure. Typically, this dfr16_tFirStruct data structure is allocated statically by the caller prior to the 
                firInit call. However, firCreate also uses firInit to initialize the dfr16_tFirStruct that it dynamically 
                allocates. This method cannot be disabled if Memory management property is enabled.
   - DFR1_dfr16FIRs -The method computes a Finite Impulse Response (FIR) filter for a single fractional data value.   Prior to 
                any call to fir, the FIR filter data structure referred to by the first parameter pFIR must be allocated and 
                initialized. This allocation and initialization can be done either statically by declaring a dfr16_tFirStruct 
                data structure and then initializing it with a call to dfr16FIRInit, or dynamically by calling dfr16FIRCreate.
   - DFR1_dfr16FIRInt -The method computes an interpolating Finite Impulse Response, (FIR), filter for a vector of fractional 
                data values.   Prior to any call to firint, the FIR filter data structure referred to by the first parameter 
                pFIRINT must be allocated and initialized. This allocation and initialization can be done either statically by 
                declaring a dfr16_tFirIntStruct data structure and then initializing it with a call to dfr16FIRIntInit, or 
                dynamically by calling dfr16FIRIntCreate.
   - DFR1_dfr16FIRIntInit -The method initializes the firint filter function from a previously allocated dfr16_tFirIntStruct 
                data structure. Typically, this dfr16_tFirIntStruct data structure is allocated statically by the caller prior 
                to the firintInit call. However, firintCreate also uses firintInit to initialize the dfr16_tFirIntStruct that 
                it dynamically allocates. This method cannot be disabled if Memory management property is enabled.
   - DFR1_dfr16FIRDec -The method computes a decimating Finite Impulse Response, (FIR), filter for a vector of fractional data 
                values.   Prior to any call to firdec, the FIR filter data structure referred to by the first parameter pFIRDEC 
                must be allocated and initialized. This allocation and initialization can be done either statically by 
                declaring a dfr16_tFirDecStruct data structure and then initializing it with a call to dfr16FIRDecInit, or 
                dynamically by calling dfr16FIRDecCreate.
   - DFR1_dfr16FIRDecInit -The method initializes the firdec filter function from a previously allocated dfr16_tFirDecStruct 
                data structure. Typically, this dfr16_tFirDecStruct data structure is allocated statically by the caller prior 
                to the firdecInit call. However, firdecCreate also uses firdecInit to initialize the dfr16_tFirDecStruct that 
                it dynamically allocates. This method cannot be disabled if Memory management property is enabled.
   - DFR1_dfr16IIR -The method computes an Infinite Impulse Response, (IIR), filter for a vector of fractional data values 
                using a cascade filter of biquad coefficients.   Prior to any call to iir, the IIR filter data structure 
                referred to by the first parameter pIIR must be allocated and initialized. This allocation and initialization 
                can be done either statically by declaring a dfr16_tIirStruct data structure and then initializing it with a 
                call to dfr16IIRInit, or dynamically by calling dfr16IIRCreate.
   - DFR1_dfr16IIRInit -The method performs the initialization for the cascade iir filter function and initializes the function 
                from a previously-allocated dfr16_tIirStruct data structure. Typically, the dfr16_tIirStruct data structure is 
                allocated statically by the caller prior to the iirInit call. The iirCreate function also uses iirInit to 
                initialize the dfr16_tIirStruct that it dynamically allocates. This method cannot be disabled if Memory 
                management property is enabled.
   - DFR1_dfr16AutoCorr -The method computes the first nz points of auto-correlation of a vector of fractional data values.
   - DFR1_dfr16Corr -The method computes the full length correlation of two vectors of fractional data values.
   - DFR1_dfr16CFFT -The method computes an in place, radix-2, complex, decimation-in-time, (DIT), forward Fast Fourier 
                Transform function for a vector of complex fractional data values.   Prior to any call to cfft, the CFFT data 
                structure referred to by the first parameter pCFFT must be allocated and initialized. This allocation and 
                initialization can be done either statically by declaring a dfr16_tCFFTStruct data structure and then 
                initializing it with a call to dfr16CFFTInit, or dynamically by calling dfr16CFFTCreate.
   - DFR1_dfr16CFFTInit -The method performs the initialization for an in place, radix-2, complex, decimation-in-time (DIT), 
                forward Fast Fourier Transform (FFT) function, cfft, using complex fractional data values. Initializes the 
                function from a previously-allocated dfr16_tCFFTStruct data structure. Typically, the dfr16_tCFFTStruct data 
                structure is allocated statically by the caller prior to the cfftInit call. The cfftCreate function also uses 
                cfftInit to initialize the dfr16_tCFFTStruct that it dynamically allocates. This method cannot be disabled if 
                Memory management property is enabled.
   - DFR1_dfr16CIFFT -The method computes an in place, radix-2, complex, decimation-in-time (DIT), inverse Fast Fourier 
                Transform function for a vector of complex fractional data values.   Prior to any call to cifft, the CFFT data 
                structure referred to by the first parameter pCIFFT must be allocated and initialized. This allocation and 
                initialization can be done either statically by declaring a dfr16_tCFFTStruct data structure and then 
                initializing it with a call to dfr16CIFFTInit, or dynamically by calling dfr16CIFFTCreate.
   - DFR1_dfr16CIFFTInit -The method performs the initialization for an in place, radix-2, complex, decimation-in-time (DIT), 
                inverse Fast Fourier Transform, (IFFT), using complex fractional data values. Initializes the function from a 
                previously-allocated dfr16_tCFFTStruct data structure. Typically, the dfr16_tCFFTStruct data structure is 
                allocated statically by the caller prior to the cifftInit call. The cifftCreate function also uses cifftInit to 
                initialize allocate the dfr16_tCFFTStruct dynamically. This method cannot be disabled if Memory management 
                property is enabled.
   - DFR1_dfr16RFFT -The method computes an in place, radix-2, real, decimation-in-time (DIT) forward Fast Fourier Transform 
                function for a vector of fractional data values.   Prior to any call to rfft, the RFFT data structure referred 
                to by the first parameter pRFFT must be allocated and initialized. This allocation and initialization can be 
                done either statically by declaring a dfr16_tRFFTStruct data structure and then initializing it with a call to 
                dfr16RFFTInit, or dynamically by calling dfr16RFFTCreate.
   - DFR1_dfr16RFFTInit -The method performs the initialization for an in place, radix-2, real, decimation-in-time (DIT), 
                forward Fast Fourier Transform (FFT) function, rfft, using complex fractional data values. Initializes the 
                function from a previously allocated dfr16_tRFFTStruct data structure. Typically, the dfr16_tRFFTStruct data 
                structure is allocated statically by the caller prior to the rfftInit call. The rfftCreate function also uses 
                rfftInit to initialize the dfr16_tRFFTStruct that it dynamically allocates. This method cannot be disabled if 
                Memory management property is enabled.
   - DFR1_dfr16RIFFT -The method computes an in place, radix-2, decimation-in-time, (DIT), inverse Fast Fourier Transform 
                function for a structure of complex data values.   Prior to any call to rifft, the RFFT data structure referred 
                to by the first parameter pRIFFT must be allocated and initialized. This allocation and initialization can be 
                done either statically by declaring a dfr16_tRFFTStruct data structure and then initializing it with a call to 
                dfr16RIFFTInit, or dynamically by calling dfr16RIFFTCreate.
   - DFR1_dfr16RIFFTInit -The method performs the initialization for an in place, radix-2, real, decimation-in-time (DIT), 
                forward Fast Fourier Transform (FFT) function, rifft, using complex fractional data values. Initializes the 
                function from a previously allocated dfr16_tRIFFTStruct data structure. Typically, the dfr16_tRIFFTStruct data 
                structure is allocated statically by the caller prior to the rifftInit call. The rifftCreate function also uses 
                rifftInit to initialize the dfr16_tRIFFTStruct that it dynamically allocates. This method cannot be disabled if 
                Memory management property is enabled.
   - DFR1_dfr16Cbitrev -The method bit-reverses the position of n complex data elements in the input vector, pointed to by pX. 
                The cbitrev function is used to convert normal, (linear), order complex vectors to bit-reversed complex vectors,
                and vice-versa, for use in Fast Fourier Transform functions.

Module "Cpu"       (component MC56F84789VLL)
   - Cpu_EnableInt -Enables all maskable interrupts
   - Cpu_DisableInt -Disables all maskable interrupts
   - Cpu_SetWaitMode -Sets low power mode - Wait mode.   For more information about the wait mode see this CPU documentation.   
                Release from wait mode: Reset or interrupt
   - Cpu_SetStopMode -Sets low power mode - Stop mode.   For more information about the stop mode see this CPU documentation.

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