Files
esp8266-weather-clock-opens…/firmware/clock_ntp_ota_v1.9/config.h
T
Alex PetrochenkoandClaude Opus 4.5 4a7e889052 refactor: split monolithic .ino into modular structure + improve boot UX
## Code Structure
- Split 2172-line .ino into 7 modules:
  - config.h - structs, enums, constants
  - globals.h - extern declarations, function prototypes
  - display.cpp - OLED display functions, Thanos dissolve effect
  - ntp_client.cpp - NTP sync, DST calculation
  - wifi_manager.cpp - WiFi connection management
  - weather.cpp - Open-Meteo API (async)
  - web_server.cpp - Web interface handlers
  - clock_ntp_ota_v1.9.ino - setup/loop, EEPROM, OTA (153 lines)

## Boot UX Improvements
- Remove meaningless "READY" screen
- Replace cryptic counter (0-7) with "WiFi..." + animated dots
- Show SSID + IP on connected screen
- Use yellow zone (Y 48-63) for status text
- Fix text centering on all boot screens
- Initialize lastBlinkTime/lastModeSwitch to prevent first-frame glitch

## Layout (dual-color display)
- Blue zone (Y 0-47): main content
- Yellow zone (Y 48-63): status/version
- Centering formula: width = n×5 + (n-1)×1 for size 1

🤖 Generated with [Claude Code](https://claude.com/claude-code)

Co-Authored-By: Claude Opus 4.5 <noreply@anthropic.com>
2026-01-07 09:05:45 +00:00

169 lines
4.6 KiB
C

/*
* config.h - Configuration structures and constants
* TJ-56-654 Weather Clock v1.9.2
*/
#ifndef CONFIG_H
#define CONFIG_H
#include <Arduino.h>
// Firmware version
#define FIRMWARE_VERSION "1.9.2"
// OLED I2C Configuration
#define I2C_SDA 0 // GPIO0 (I2C Data) - SWAPPED!
#define I2C_SCL 2 // GPIO2 (I2C Clock) - SWAPPED!
#define SCREEN_WIDTH 128
#define SCREEN_HEIGHT 64
#define OLED_RESET -1 // No reset pin
#define OLED_ADDRESS 0x3C
// Configuration structure with validation
#define CONFIG_MAGIC 0xC10CC10C // Magic number to validate EEPROM data
struct Config {
uint32_t magic = CONFIG_MAGIC; // Magic number for validation
char ssid[32] = ""; // Empty - configured via WiFiManager captive portal
char password[64] = ""; // Empty - configured via WiFiManager captive portal
long timezone_offset = 0; // Base UTC offset in seconds (0=Lisbon/London, 3600=Paris/Berlin)
bool dst_enabled = true; // Auto DST: +1 hour during summer (European rules: last Sun Mar-Oct)
int brightness = 4; // 0-7
char ntp_server[64] = "pool.ntp.org";
unsigned long ntp_interval = 3600; // NTP update interval in seconds (default: 1 hour)
bool hour_format_24 = true; // true=24h, false=12h
char hostname[32] = "tj56654-clock";
// Weather settings
float latitude = 37.19; // Portimao, Portugal
float longitude = -8.54;
char city_name[32] = "Portimao";
bool weather_enabled = true;
unsigned long weather_interval = 1800; // 30 minutes in seconds
// Display settings
uint8_t display_rotation_sec = 5; // Seconds per screen
bool show_weather = true;
bool show_sunrise_sunset = true;
uint8_t display_orientation = 2; // 0=0°, 1=90°, 2=180°, 3=270°
};
// Exponential backoff retry configuration (for NTP/Weather)
struct RetryConfig {
uint8_t maxRetries = 3; // Give up after 3 tries
uint8_t currentRetry = 0;
unsigned long nextRetryTime = 0;
unsigned long maxBackoffMs = 8000; // Max backoff 8 seconds
unsigned long getBackoffDelay() {
unsigned long delay = 1000UL * (1UL << currentRetry); // 1s, 2s, 4s, 8s...
return (delay > maxBackoffMs) ? maxBackoffMs : delay;
}
void scheduleRetry() {
if (currentRetry < maxRetries) {
nextRetryTime = millis() + getBackoffDelay();
currentRetry++;
} else {
nextRetryTime = 0; // Max retries reached, stop
}
}
bool isRetryTime() {
return nextRetryTime > 0 && millis() >= nextRetryTime;
}
void reset() {
currentRetry = 0;
nextRetryTime = 0;
}
bool maxRetriesReached() {
return currentRetry >= maxRetries;
}
};
// WiFi retry configuration - infinite retries with longer backoff
struct WiFiRetryConfig {
uint8_t currentRetry = 0;
unsigned long nextRetryTime = 0;
static const unsigned long MAX_BACKOFF_MS = 300000; // Max 5 minutes between retries
unsigned long getBackoffDelay() {
// 5s, 10s, 20s, 40s, 80s, 160s, 300s (max)
unsigned long delay = 5000UL * (1UL << currentRetry);
return (delay > MAX_BACKOFF_MS) ? MAX_BACKOFF_MS : delay;
}
void scheduleRetry() {
nextRetryTime = millis() + getBackoffDelay();
if (currentRetry < 10) currentRetry++; // Cap at 10 to prevent overflow
}
bool isRetryTime() {
return nextRetryTime > 0 && millis() >= nextRetryTime;
}
void reset() {
currentRetry = 0;
nextRetryTime = 0;
}
};
// Weather fetch state machine
enum WeatherState {
WEATHER_IDLE,
WEATHER_REQUESTING,
WEATHER_SUCCESS,
WEATHER_FAILED
};
// Async NTP state machine
enum NTPState {
NTP_IDLE,
NTP_REQUEST_SENT,
NTP_WAITING,
NTP_SUCCESS,
NTP_FAILED
};
// Async WiFi state machine
enum WiFiConnectionState {
WIFI_CONN_IDLE,
WIFI_CONN_CONNECTING,
WIFI_CONN_CONNECTED,
WIFI_CONN_FAILED,
WIFI_CONN_SKIP_ASYNC // Skip async, go straight to WiFiManager
};
// Weather data cache
struct WeatherData {
float temperature = 0.0;
int weathercode = -1; // WMO weather code
int humidity = 0;
float windspeed = 0.0;
unsigned long lastUpdate = 0;
bool valid = false;
};
// Sunrise/Sunset cache
struct SunTimes {
int sunriseMinutes = 0; // Minutes since midnight
int sunsetMinutes = 0;
int lastDay = -1; // Day of year
char sunrise[6] = "--:--"; // HH:MM format
char sunset[6] = "--:--";
};
// Dissolve transition constants
const unsigned long DISSOLVE_DURATION = 2000; // 2 sec total (1s dissolve out + 1s dissolve in)
const unsigned long DISSOLVE_FRAME_INTERVAL = 100; // 100ms per frame
// NTP timeout
const unsigned long NTP_TIMEOUT_MS = 5000; // 5 second timeout
// WiFi timeout
const unsigned long WIFI_TIMEOUT_MS = 10000; // 10 second timeout
#endif // CONFIG_H