adding surround and bass enhance controlsdds
return modify(DAP_AVC_CTRL,1,1); | return modify(DAP_AVC_CTRL,1,1); | ||||
} | } | ||||
unsigned short AudioControlSGTL5000::dap_bass_enhance(float lr_lev, float bass_lev) | |||||
{ | |||||
return modify(DAP_BASS_ENHANCE_CTRL,(0x3F-calcVol(lr_lev,0x3F))<<8|0x7F-calcVol(bass_lev,0x7F),0x3F<<8|0x7F); | |||||
} | |||||
unsigned short AudioControlSGTL5000::dap_bass_enhance(float lr_lev, float bass_lev, uint8_t hpf_bypass, uint8_t cutoff) | |||||
{ | |||||
modify(DAP_BASS_ENHANCE,(hpf_bypass&1)<<8|(cutoff&7)<<4,1<<8|7<<4); | |||||
return dap_bass_enhance(lr_lev,bass_lev); | |||||
} | |||||
unsigned short AudioControlSGTL5000::dap_bass_enhance_enable(uint8_t n) | |||||
{ | |||||
return modify(DAP_BASS_ENHANCE,n&1,1); | |||||
} | |||||
unsigned short AudioControlSGTL5000::dap_bass_enhance_enable(void) | |||||
{ | |||||
return dap_bass_enhance_enable(1); | |||||
} | |||||
unsigned short AudioControlSGTL5000::dap_surround(uint8_t width) | |||||
{ | |||||
return modify(DAP_SGTL_SURROUND,(width&7)<<4,7<<4); | |||||
} | |||||
unsigned short AudioControlSGTL5000::dap_surround(uint8_t width, uint8_t select) | |||||
{ | |||||
return modify(DAP_SGTL_SURROUND,(width&7)<<4|select&3,7<<4|3); | |||||
} | |||||
unsigned short AudioControlSGTL5000::dap_surround_enable(uint8_t n) | |||||
{ | |||||
if(n) n=3; | |||||
return modify(DAP_SGTL_SURROUND,n,3); | |||||
} | |||||
unsigned short AudioControlSGTL5000::dap_surround_enable(void) | |||||
{ | |||||
dap_surround_enable(1); | |||||
} | |||||
unsigned char AudioControlSGTL5000::calcVol(float n, unsigned char range) | unsigned char AudioControlSGTL5000::calcVol(float n, unsigned char range) | ||||
{ | { | ||||
n=(n*(((float)range)/100))+0.499; | n=(n*(((float)range)/100))+0.499; |
unsigned short dap_avc(uint8_t maxGain, uint8_t lbiResponse, uint8_t hardLimit, float threshold, float attack, float decay); | unsigned short dap_avc(uint8_t maxGain, uint8_t lbiResponse, uint8_t hardLimit, float threshold, float attack, float decay); | ||||
unsigned short dap_avc_enable(uint8_t n); | unsigned short dap_avc_enable(uint8_t n); | ||||
unsigned short dap_avc_enable(void); | unsigned short dap_avc_enable(void); | ||||
unsigned short dap_bass_enhance(float lr_lev, float bass_lev); | |||||
unsigned short dap_bass_enhance(float lr_lev, float bass_lev, uint8_t hpf_bypass, uint8_t cutoff); | |||||
unsigned short dap_bass_enhance_enable(uint8_t n); | |||||
unsigned short dap_bass_enhance_enable(void); | |||||
unsigned short dap_surround(uint8_t width); | |||||
unsigned short dap_surround(uint8_t width, uint8_t select); | |||||
unsigned short dap_surround_enable(uint8_t n); | |||||
unsigned short dap_surround_enable(void); | |||||
protected: | protected: | ||||
bool muted; | bool muted; |
float tone1=0; | float tone1=0; | ||||
void loop() { | void loop() { | ||||
// every 10 ms, check for adjustment the tone & vol | |||||
if (chgMsec > 10) { // more regular updates for actual changes seems better. | |||||
// every 10 ms, check for adjustment | |||||
if (chgMsec > 10) { | |||||
float tone2=analogRead(15); | float tone2=analogRead(15); | ||||
tone2=floor(((tone2-512)/512)*70)/10; | tone2=floor(((tone2-512)/512)*70)/10; |
float tone1=0; | float tone1=0; | ||||
void loop() { | void loop() { | ||||
// every 10 ms, check for adjustment the tone & vol | |||||
if (chgMsec > 10) { // more regular updates for actual changes seems better. | |||||
// every 10 ms, check for adjustment | |||||
if (chgMsec > 10) { | |||||
float tone2=analogRead(15); | float tone2=analogRead(15); | ||||
tone2=floor(((tone2-512)/512)*70)/10; | tone2=floor(((tone2-512)/512)*70)/10; |
float lastBal=1024; | float lastBal=1024; | ||||
void loop() { | void loop() { | ||||
// every 10 ms, check for adjustment the balance & vol | |||||
if (chgMsec > 10) { // more regular updates for actual changes seems better. | |||||
// every 10 ms, check for adjustment | |||||
if (chgMsec > 10) { | |||||
float bal1=analogRead(15); | float bal1=analogRead(15); | ||||
bal1=((bal1-512)/512)*100; | bal1=((bal1-512)/512)*100; | ||||
bal1=(int)bal1; | bal1=(int)bal1; |
float vol1=75; | float vol1=75; | ||||
void loop() { | void loop() { | ||||
// every 10 ms, check for adjustment the balance & vol | |||||
if (chgMsec > 10) { // more regular updates for actual changes seems better. | |||||
// every 10 ms, check for adjustment | |||||
if (chgMsec > 10) { | |||||
float bal1=analogRead(15); | float bal1=analogRead(15); | ||||
bal1=((bal1-512)/512)*100; | bal1=((bal1-512)/512)*100; | ||||
bal1=(int)bal1; | bal1=(int)bal1; |
float lastVol=1024; | float lastVol=1024; | ||||
void loop() { | void loop() { | ||||
// every 10 ms, check for adjustment the balance & vol | |||||
if (chgMsec > 10) { // more regular updates for actual changes seems better. | |||||
// every 10 ms, check for adjustment | |||||
if (chgMsec > 10) { | |||||
float vol1=analogRead(15)/10.23; | float vol1=analogRead(15)/10.23; | ||||
vol1=(int)vol1; | vol1=(int)vol1; | ||||
if(lastVol!=vol1) | if(lastVol!=vol1) |
/* DAP Bass enhance example SGTL5000 only | |||||
This example code is in the public domain | |||||
*/ | |||||
#include <Audio.h> | |||||
#include <Wire.h> | |||||
#include <SD.h> | |||||
const int myInput = AUDIO_INPUT_LINEIN; | |||||
// const int myInput = AUDIO_INPUT_MIC; | |||||
// Create the Audio components. These should be created in the | |||||
// order data flows, inputs/sources -> processing -> outputs | |||||
// | |||||
AudioInputI2S audioInput; // audio shield: mic or line-in | |||||
AudioOutputI2S audioOutput; // audio shield: headphones & line-out | |||||
// Create Audio connections between the components | |||||
// | |||||
AudioConnection c1(audioInput, 0, audioOutput, 0); // left passing through | |||||
AudioConnection c2(audioInput, 1, audioOutput, 1); // right passing through | |||||
// Create an object to control the audio shield. | |||||
// | |||||
AudioControlSGTL5000 audioShield; | |||||
void setup() { | |||||
// Audio connections require memory to work. For more | |||||
// detailed information, see the MemoryAndCpuUsage example | |||||
AudioMemory(4); | |||||
// Enable the audio shield and set the output volume. | |||||
audioShield.enable(); | |||||
audioShield.inputSelect(myInput); | |||||
audioShield.volume(75); | |||||
audioShield.unmuteLineout(); | |||||
// have to enable DAP to use bass enhance | |||||
audioShield.dap_enable(); | |||||
audioShield.dap_bass_enhance_enable(); // all we need to do for default bass enhancement settings. | |||||
// audioShield.dap_bass_enhance((float)lr_level,(float)bass_level); | |||||
// audioShield.dap_bass_enhance((float)lr_level,(float)bass_level,(uint8_t)hpf_bypass,(uint8_t)cutoff); | |||||
// please see http://www.pjrc.com/teensy/SGTL5000.pdf page 50 for valid values for BYPASS_HPF and CUTOFF | |||||
} | |||||
elapsedMillis chgMsec=0; | |||||
float lastVol=1024; | |||||
void loop() { | |||||
// every 10 ms, check for adjustment | |||||
if (chgMsec > 10) { // more regular updates for actual changes seems better. | |||||
float vol1=analogRead(15)/10.23; | |||||
vol1=(int)vol1; | |||||
if(lastVol!=vol1) | |||||
{ | |||||
audioShield.volume(vol1); | |||||
lastVol=vol1; | |||||
} | |||||
chgMsec = 0; | |||||
} | |||||
} | |||||