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/*
* Copyright (C) 2025 Linux Studio Plugins Project <https://lsp-plug.in/>
* (C) 2025 Vladimir Sadovnikov <sadko4u@gmail.com>
*
* This file is part of lsp-plugins-mb-dyna-processor
* Created on: 25 нояб. 2020 г.
*
* lsp-plugins-mb-dyna-processor is free software: you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* any later version.
*
* lsp-plugins-mb-dyna-processor is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public License
* along with lsp-plugins-mb-dyna-processor. If not, see <https://www.gnu.org/licenses/>.
*/
#ifndef PRIVATE_PLUGINS_MB_DYNA_PROCESSOR_H_
#define PRIVATE_PLUGINS_MB_DYNA_PROCESSOR_H_
#include <lsp-plug.in/dsp-units/ctl/Bypass.h>
#include <lsp-plug.in/dsp-units/ctl/Counter.h>
#include <lsp-plug.in/dsp-units/dynamics/DynamicProcessor.h>
#include <lsp-plug.in/dsp-units/filters/DynamicFilters.h>
#include <lsp-plug.in/dsp-units/filters/Equalizer.h>
#include <lsp-plug.in/dsp-units/util/Analyzer.h>
#include <lsp-plug.in/dsp-units/util/Delay.h>
#include <lsp-plug.in/dsp-units/util/FFTCrossover.h>
#include <lsp-plug.in/dsp-units/util/Sidechain.h>
#include <lsp-plug.in/plug-fw/core/IDBuffer.h>
#include <lsp-plug.in/plug-fw/plug.h>
#include <private/meta/mb_dyna_processor.h>
namespace lsp
{
namespace plugins
{
/**
* Base class for the latency compensation delay
*/
class mb_dyna_processor: public plug::Module
{
public:
enum dp_mode_t
{
MBDP_MONO,
MBDP_STEREO,
MBDP_LR,
MBDP_MS
};
enum xover_mode_t
{
XOVER_CLASSIC, // Classic mode
XOVER_MODERN, // Modern mode
XOVER_LINEAR_PHASE // Linear phase mode
};
protected:
enum sync_t
{
S_DP_CURVE = 1 << 0,
S_DP_MODEL = 1 << 1,
S_EQ_CURVE = 1 << 2,
S_BAND_CURVE = 1 << 3,
S_ALL = S_DP_CURVE | S_DP_MODEL | S_EQ_CURVE | S_BAND_CURVE
};
enum sc_type_t
{
SCT_INTERNAL,
SCT_EXTERNAL,
SCT_LINK,
};
typedef struct premix_t
{
float fInToSc; // Input -> Sidechain mix
float fInToLink; // Input -> Link mix
float fLinkToIn; // Link -> Input mix
float fLinkToSc; // Link -> Sidechain mix
float fScToIn; // Sidechain -> Input mix
float fScToLink; // Sidechain -> Link mix
float *vIn[2]; // Input buffer
float *vOut[2]; // Output buffer
float *vSc[2]; // Sidechain buffer
float *vLink[2]; // Link buffer
float *vTmpIn[2]; // Replacement buffer for input
float *vTmpLink[2]; // Replacement buffer for link
float *vTmpSc[2]; // Replacement buffer for sidechain
plug::IPort *pInToSc; // Input -> Sidechain mix
plug::IPort *pInToLink; // Input -> Link mix
plug::IPort *pLinkToIn; // Link -> Input mix
plug::IPort *pLinkToSc; // Link -> Sidechain mix
plug::IPort *pScToIn; // Sidechain -> Input mix
plug::IPort *pScToLink; // Sidechain -> Link mix
} premix_t;
typedef struct dyna_band_t
{
dspu::Sidechain sSC; // Sidechain module
dspu::Equalizer sEQ[2]; // Sidechain equalizers
dspu::DynamicProcessor sProc; // Dynamic Processor
dspu::Filter sPassFilter; // Passing filter for 'classic' mode
dspu::Filter sRejFilter; // Rejection filter for 'classic' mode
dspu::Filter sAllFilter; // All-pass filter for phase compensation
dspu::Delay sScDelay; // Sidechain delay for lookahead purpose
float *vBuffer; // Crossover band data
float *vSc; // Transfer function for sidechain
float *vTr; // Transfer function for band
float *vVCA; // Voltage-controlled amplification value for each band
float fScPreamp; // Sidechain preamp
float fFreqStart;
float fFreqEnd;
float fFreqHCF; // Cutoff frequency for low-pass filter
float fFreqLCF; // Cutoff frequency for high-pass filter
float fMakeup; // Makeup gain
float fGainLevel; // Gain adjustment level
uint32_t nLookahead; // Lookahead amount
bool bEnabled; // Enabled flag
bool bCustHCF; // Custom frequency for high-cut filter
bool bCustLCF; // Custom frequency for low-cut filter
bool bMute; // Mute channel
bool bSolo; // Solo channel
uint32_t nScType; // Sidechain type
uint32_t nSync; // Synchronize output data flags
uint32_t nFilterID; // Identifier of the filter
plug::IPort *pScType; // Sidechain type
plug::IPort *pScSource; // Sidechain source
plug::IPort *pScSpSource; // Sidechain split source
plug::IPort *pScMode; // Sidechain mode
plug::IPort *pScLook; // Sidechain lookahead
plug::IPort *pScReact; // Sidechain reactivity
plug::IPort *pScPreamp; // Sidechain preamp
plug::IPort *pScLpfOn; // Sidechain low-pass on
plug::IPort *pScHpfOn; // Sidechain hi-pass on
plug::IPort *pScLcfFreq; // Sidechain low-cut frequency
plug::IPort *pScHcfFreq; // Sidechain hi-cut frequency
plug::IPort *pScFreqChart; // Sidechain band frequency chart
plug::IPort *pEnable; // Enable processor
plug::IPort *pSolo; // Soloing
plug::IPort *pMute; // Muting
plug::IPort *pDotOn[meta::mb_dyna_processor::DOTS]; // Dot enable
plug::IPort *pThreshold[meta::mb_dyna_processor::DOTS]; // Threshold levels
plug::IPort *pGain[meta::mb_dyna_processor::DOTS]; // Gain levels
plug::IPort *pKnee[meta::mb_dyna_processor::DOTS]; // Knees levels
plug::IPort *pAttackOn[meta::mb_dyna_processor::DOTS]; // Attack enable
plug::IPort *pAttackLvl[meta::mb_dyna_processor::DOTS]; // Attack levels
plug::IPort *pAttackTime[meta::mb_dyna_processor::RANGES]; // Attack time
plug::IPort *pReleaseOn[meta::mb_dyna_processor::DOTS]; // Release enable
plug::IPort *pReleaseLvl[meta::mb_dyna_processor::DOTS]; // Release levels
plug::IPort *pReleaseTime[meta::mb_dyna_processor::RANGES]; // Release time
plug::IPort *pHold; // Hold time
plug::IPort *pLowRatio; // Low Ratio
plug::IPort *pHighRatio; // High Ratio
plug::IPort *pMakeup; // Overall Makeup gain
plug::IPort *pFreqEnd; // Frequency range end
plug::IPort *pModelGraph; // Processor curve modelling graph
plug::IPort *pCurveGraph; // Processor curve graph
plug::IPort *pEnvLvl; // Envelope level meter
plug::IPort *pCurveLvl; // Reduction curve level meter
plug::IPort *pMeterGain; // Reduction gain meter
} dyna_band_t;
typedef struct split_t
{
bool bEnabled; // Split band is enabled
float fFreq; // Split band frequency
plug::IPort *pEnabled; // Enable port
plug::IPort *pFreq; // Split frequency
} split_t;
typedef struct channel_t
{
dspu::Bypass sBypass; // Bypass
dspu::Filter sEnvBoost[3]; // Envelope boost filter
dspu::Delay sDelay; // Delay for lookahead compensation purpose
dspu::Delay sDryDelay; // Delay for dry signal
dspu::Delay sXOverDelay; // Delay for crossover
dspu::Equalizer sDryEq; // Dry equalizer
dspu::FFTCrossover sFFTXOver; // FFT crossover for linear phase
dyna_band_t vBands[meta::mb_dyna_processor::BANDS_MAX]; // Processor bands
split_t vSplit[meta::mb_dyna_processor::BANDS_MAX-1]; // Split bands
dyna_band_t *vPlan[meta::mb_dyna_processor::BANDS_MAX]; // Execution plan (band indexes)
uint32_t nPlanSize; // Plan size
float *vIn; // Input data buffer
float *vOut; // Output data buffer
float *vScIn; // Sidechain data buffer (if present)
float *vShmIn; // Shared memory link buffer (if present)
float *vInAnalyze; // Input signal analysis
float *vInBuffer; // Input buffer
float *vBuffer; // Common data processing buffer
float *vScBuffer; // Sidechain buffer
float *vExtScBuffer; // External sidechain buffer
float *vShmBuffer; // Shared memory link buffer
float *vTr; // Transfer function
float *vTrMem; // Transfer buffer (memory)
uint32_t nAnInChannel; // Analyzer channel used for input signal analysis
uint32_t nAnOutChannel; // Analyzer channel used for output signal analysis
bool bInFft; // Input signal FFT enabled
bool bOutFft; // Output signal FFT enabled
plug::IPort *pIn; // Input
plug::IPort *pOut; // Output
plug::IPort *pScIn; // Sidechain
plug::IPort *pShmIn; // Shared memory link input
plug::IPort *pFftIn; // Pre-processing FFT analysis data
plug::IPort *pFftInSw; // Pre-processing FFT analysis control port
plug::IPort *pFftOut; // Post-processing FFT analysis data
plug::IPort *pFftOutSw; // Post-processing FFT analysis controlport
plug::IPort *pAmpGraph; // Processor's amplitude graph
plug::IPort *pInLvl; // Input level meter
plug::IPort *pOutLvl; // Output level meter
} channel_t;
protected:
dspu::Analyzer sAnalyzer; // Analyzer
dspu::DynamicFilters sFilters; // Dynamic filters for each band in 'modern' mode
dspu::Counter sCounter; // Sync counter
uint32_t nMode; // Processor mode
bool bSidechain; // External side chain
bool bEnvUpdate; // Envelope filter update
bool bUseShmLink; // Shared memory link is in use
xover_mode_t enXOver; // Crossover mode
bool bStereoSplit; // Stereo split mode
uint32_t nEnvBoost; // Envelope boost
channel_t *vChannels; // Processor channels
float fInGain; // Input gain
float fDryGain; // Dry gain
float fWetGain; // Wet gain
float fZoom; // Zoom
uint8_t *pData; // Aligned data pointer
float *vSc[2]; // Sidechain signal data
float *vAnalyze[4]; // Analysis buffer
float *vBuffer; // Temporary buffer
float *vEnv; // Processor envelope buffer
float *vTr; // Transfer buffer
float *vPFc; // Pass filter characteristics buffer
float *vRFc; // Reject filter characteristics buffer
float *vFreqs; // Analyzer FFT frequencies
float *vCurve; // Curve
uint32_t *vIndexes; // Analyzer FFT indexes
core::IDBuffer *pIDisplay; // Inline display buffer
premix_t sPremix; // Premix
plug::IPort *pBypass; // Bypass port
plug::IPort *pMode; // Global mode
plug::IPort *pInGain; // Input gain port
plug::IPort *pOutGain; // Output gain port
plug::IPort *pDryGain; // Dry gain port
plug::IPort *pWetGain; // Wet gain port
plug::IPort *pDryWet; // Dry/Wet gain balance port
plug::IPort *pReactivity; // Reactivity
plug::IPort *pShiftGain; // Shift gain port
plug::IPort *pZoom; // Zoom port
plug::IPort *pEnvBoost; // Envelope adjust
plug::IPort *pStereoSplit; // Split left/right independently
protected:
static bool compare_bands_for_sort(const dyna_band_t *b1, const dyna_band_t *b2);
static dspu::sidechain_source_t decode_sidechain_source(int source, bool split, size_t channel);
static size_t select_fft_rank(size_t sample_rate);
static void process_band(void *object, void *subject, size_t band, const float *data, size_t sample, size_t count);
protected:
void do_destroy();
void preprocess_channel_input(size_t count);
void update_premix();
void premix_channel(uint32_t channel, size_t count);
uint32_t decode_sidechain_type(uint32_t sc) const;
void process_input_mono(float *out, const float *in, size_t count);
void process_input_stereo(float *l_out, float *r_out, const float *l_in, const float *r_in, size_t count);
const float *select_buffer(const dyna_band_t *band, const channel_t *channel);
public:
explicit mb_dyna_processor(const meta::plugin_t *metadata, bool sc, size_t mode);
mb_dyna_processor(const mb_dyna_processor &) = delete;
mb_dyna_processor(mb_dyna_processor &&) = delete;
virtual ~mb_dyna_processor() override;
mb_dyna_processor & operator = (const mb_dyna_processor &) = delete;
mb_dyna_processor & operator = (mb_dyna_processor &&) = delete;
virtual void init(plug::IWrapper *wrapper, plug::IPort **ports) override;
virtual void destroy() override;
public:
virtual void update_settings() override;
virtual void update_sample_rate(long sr) override;
virtual void ui_activated() override;
virtual void process(size_t samples) override;
virtual bool inline_display(plug::ICanvas *cv, size_t width, size_t height) override;
virtual void dump(dspu::IStateDumper *v) const override;
};
} /* namespace plugins */
} /* namespace lsp */
#endif /* PRIVATE_PLUGINS_MB_DYNA_PROCESSOR_H_ */
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