jimmy
8345b31caf
- Updated n_chase to support bidirectional movement with n3 and n4 parameters - n3 controls forward steps per direction change - n4 controls backward steps per direction change - Pattern alternates between moving forward n3 steps and backward n4 steps - Each direction repeats for the specified number of steps before switching - Added test/9.py with n1=20, n2=20, n3=20, n4=-5 parameters - Updated to run as a thread-based pattern similar to other patterns
739 lines
29 KiB
Python
739 lines
29 KiB
Python
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import utime
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import random
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import math
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from patterns_base import PatternBase # Import PatternBase
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import _thread
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from machine import WDT
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class Patterns(PatternBase): # Inherit from PatternBase
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def __init__(self, pin, num_leds, color1=(0,0,0), color2=(0,0,0), brightness=127, selected="rainbow_cycle", delay=100):
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super().__init__(pin, num_leds, color1, color2, brightness, selected, delay) # Call parent constructor
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# Pattern-specific initializations
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self.on_width = 1 # Default on width
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self.off_width = 2 # Default off width (so total segment is 3, matching original behavior)
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self.n1 = 0 # Default start of fill range
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self.n2 = self.num_leds - 1 # Default end of fill range
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self.n3 = 1 # Default step factor
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self.n4 = 0
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self.oneshot = False # New: One-shot flag for patterns like fill_range
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self.patterns = {
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# Shortened pattern names for optimized JSON payloads
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"o": self.off,
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"on": self.on,
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"bl": self.blink,
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"cl": self.circle_loading,
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"sb": self.sine_brightness,
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"rb": self.rainbow,
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"fl": self.flicker,
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"nc": self.n_chase,
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}
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self.step = 0
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self.run = True
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self.running = False
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self.wdt = WDT(timeout=10000)
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def select(self, pattern):
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self.selected = pattern
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self.run = False
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if pattern not in self.patterns:
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return False
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while self.running:
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utime.sleep_ms(1)
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self.running = True
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_thread.start_new_thread(self.patterns[pattern], ())
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def on(self):
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"""Turn on all LEDs with current color"""
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self.fill(self.apply_brightness(self.colors[0]))
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def off(self):
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"""Turn off all LEDs"""
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self.fill((0, 0, 0))
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def blink(self):
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self.run = True
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start = utime.ticks_ms()
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while self.run:
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self.wdt.feed()
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diff = utime.ticks_diff(utime.ticks_ms(), start)
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if diff >= self.delay:
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self.fill((0, 0, 0))
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start = utime.ticks_ms()
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elif diff >= self.delay/2:
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self.fill(self.apply_brightness(self.colors[0]))
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self.run = False
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self.running = False
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def circle_loading(self):
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"""Circle loading pattern - grows to n2, then tail moves forward at n3 until min length n4"""
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self.run = True
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head = 0
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tail = 0
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# Calculate timing
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head_rate = max(1, int(self.n1)) # n1 = head moves per second
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tail_rate = max(1, int(self.n3)) # n3 = tail moves per second
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max_length = max(1, int(self.n2)) # n2 = max length
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min_length = max(0, int(self.n4)) # n4 = min length
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head_delay = 1000 // head_rate # ms between head movements
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tail_delay = 1000 // tail_rate # ms between tail movements
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last_head_move = utime.ticks_ms()
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last_tail_move = utime.ticks_ms()
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phase = "growing" # "growing", "shrinking", or "off"
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while self.run:
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self.wdt.feed()
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current_time = utime.ticks_ms()
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# Clear all LEDs
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self.n.fill((0, 0, 0))
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# Calculate segment length
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segment_length = (head - tail) % self.num_leds
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if segment_length == 0 and head != tail:
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segment_length = self.num_leds
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# Draw segment from tail to head
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color = self.apply_brightness(self.colors[0])
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for i in range(segment_length + 1):
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led_pos = (tail + i) % self.num_leds
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self.n[led_pos] = color
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# Move head continuously at n1 LEDs per second
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if utime.ticks_diff(current_time, last_head_move) >= head_delay:
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head = (head + 1) % self.num_leds
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last_head_move = current_time
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# Tail behavior based on phase
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if phase == "growing":
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# Growing phase: tail stays at 0 until max length reached
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if segment_length >= max_length:
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phase = "shrinking"
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elif phase == "shrinking":
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# Shrinking phase: move tail forward at n3 LEDs per second
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if utime.ticks_diff(current_time, last_tail_move) >= tail_delay:
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tail = (tail + 1) % self.num_leds
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last_tail_move = current_time
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# Check if we've reached min length
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current_length = (head - tail) % self.num_leds
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if current_length == 0 and head != tail:
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current_length = self.num_leds
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# For min_length = 0, we need at least 1 LED (the head)
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if min_length == 0 and current_length <= 1:
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phase = "off" # All LEDs off for 1 step
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elif min_length > 0 and current_length <= min_length:
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phase = "growing" # Cycle repeats
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else: # phase == "off"
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# Off phase: all LEDs off for 1 step, then restart
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phase = "growing"
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self.n.write()
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self.run = False
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self.running = False
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def sine_brightness(self):
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"""Sine wave brightness pattern - n1=min brightness, brightness=max brightness, wavelength=delay"""
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self.run = True
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# Calculate sine wave parameters
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min_brightness = max(0, int(self.n1)) # n1 = minimum brightness
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max_brightness = self.brightness # brightness = maximum brightness
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amplitude = max_brightness - min_brightness # Range between min and max
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wavelength = max(1, self.delay) # Wavelength = delay in ms
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# Convert wavelength to frequency (cycles per second)
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frequency = 1000.0 / wavelength # Hz
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start_time = utime.ticks_ms()
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while self.run:
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self.wdt.feed()
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current_time = utime.ticks_ms()
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# Calculate time elapsed in seconds
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elapsed_ms = utime.ticks_diff(current_time, start_time)
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elapsed_seconds = elapsed_ms / 1000.0
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# Calculate sine wave value (-1 to 1)
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sine_value = math.sin(2 * math.pi * frequency * elapsed_seconds)
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# Convert to brightness (min_brightness to max_brightness)
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current_brightness = int(min_brightness + (sine_value + 1) * amplitude / 2)
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current_brightness = max(0, min(255, current_brightness))
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# Apply brightness to all LEDs
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color = self.apply_brightness(self.colors[0])
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# Override brightness with calculated value
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adjusted_color = (
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int(color[0] * current_brightness / 255),
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int(color[1] * current_brightness / 255),
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int(color[2] * current_brightness / 255)
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)
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self.fill(adjusted_color)
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self.n.write()
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self.run = False
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self.running = False
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def rainbow(self):
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"""Rainbow pattern - delay = cycle time, n1 = number of nodes"""
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self.run = True
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# Calculate timing
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cycle_time = max(100, self.delay) # delay = total cycle time in ms
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num_nodes = max(1, int(self.n1)) # n1 = number of rainbow nodes/segments
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steps_per_cycle = 360 # 360 steps for full cycle
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step_delay = cycle_time // steps_per_cycle # ms per step
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last_update = utime.ticks_ms()
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while self.run:
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self.wdt.feed()
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current_time = utime.ticks_ms()
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# Update rainbow every step_delay ms
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if utime.ticks_diff(current_time, last_update) >= step_delay:
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# Clear all LEDs
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self.n.fill((0, 0, 0))
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# Rainbow travels along the length - distribute colors along the strip
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for i in range(self.num_leds):
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# Calculate hue based on LED position along the strip
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# Distribute full 360 degrees across the strip, repeat num_nodes times
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# Position along the strip (0.0 to 1.0)
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position = i / self.num_leds
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# Hue cycles based on position and number of nodes
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hue = int((position * 360 * num_nodes + self.step) % 360)
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# Convert HSV to RGB
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rgb = self.hsv_to_rgb(hue, 255, self.brightness)
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self.n[i] = rgb
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self.n.write()
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self.step = (self.step + 1) % 360 # Increment step for animation
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last_update = current_time
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self.run = False
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self.running = False
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def hsv_to_rgb(self, h, s, v):
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"""Convert HSV to RGB"""
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h = h % 360
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s = min(255, max(0, s))
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v = min(255, max(0, v))
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c = v * s // 255
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x = c * (60 - abs((h % 120) - 60)) // 60
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m = v - c
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if h < 60:
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r, g, b = c, x, 0
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elif h < 120:
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r, g, b = x, c, 0
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elif h < 180:
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r, g, b = 0, c, x
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elif h < 240:
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r, g, b = 0, x, c
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elif h < 300:
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r, g, b = x, 0, c
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else:
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r, g, b = c, 0, x
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return (r + m, g + m, b + m)
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def flicker(self):
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"""Flicker pattern - random brightness variation on base color"""
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self.run = True
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base_color = self.colors[0]
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# n1 = minimum brightness (default to 10 if not set)
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min_brightness = max(0, int(self.n1)) if hasattr(self, 'n1') and self.n1 > 0 else 10
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# Calculate update rate from delay (n3 is not used, delay controls speed)
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update_delay = max(10, int(self.delay)) # At least 10ms to avoid too fast updates
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last_update = utime.ticks_ms()
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while self.run:
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self.wdt.feed()
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current_time = utime.ticks_ms()
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# Update flicker every update_delay ms
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if utime.ticks_diff(current_time, last_update) >= update_delay:
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# Calculate random brightness variation
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# Flicker between min_brightness and full brightness
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max_flicker = self.brightness - min_brightness
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flicker_offset = random.randint(0, max(max_flicker, 1))
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flicker_brightness = min_brightness + flicker_offset
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# Apply brightness to color
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flicker_color = (
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int(base_color[0] * flicker_brightness / 255),
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int(base_color[1] * flicker_brightness / 255),
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int(base_color[2] * flicker_brightness / 255)
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)
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self.fill(flicker_color)
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self.n.write()
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last_update = current_time
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utime.sleep_ms(1)
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self.run = False
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self.running = False
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# def flicker(self):
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# current_time = utime.ticks_ms()
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# base_color = self.colors[0]
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# # Use fixed minimum brightness of 10, flicker between 10 and full brightness
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# # Use n3 as step rate multiplier to control how fast patterns step
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# min_brightness = 10
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# step_rate = max(1, int(self.n3))
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# flicker_brightness_offset = random.randint(-int(self.brightness // 1.5), int(self.brightness // 1.5))
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# flicker_brightness = max(min_brightness, min(255, self.brightness + flicker_brightness_offset))
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# flicker_color = self.apply_brightness(base_color, brightness_override=flicker_brightness)
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# self.fill(flicker_color)
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# self.last_update = current_time
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# return max(1, int(self.delay // (5 * step_rate)))
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# def fill_range(self):
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# """
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# Fills a range of LEDs from n1 to n2 with a solid color.
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# If self.oneshot is True, it fills once and then turns off the LEDs.
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# """
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# current_time = utime.ticks_ms()
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# if self.oneshot and self.pattern_step >= 1:
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# self.fill((0, 0, 0)) # Turn off LEDs if one-shot already happened
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# else:
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# color = self.apply_brightness(self.colors[0])
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# for i in range(self.n1, self.n2 + 1):
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# self.n[i] = color
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# self.n.write()
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# self.last_update = current_time
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# return self.delay
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# self.last_update = current_time
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# return self.delay
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def n_chase(self):
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"""Chase pattern - n1 LEDs on, n2 LEDs off, bidirectional movement"""
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self.run = True
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# n1 = on width, n2 = off width
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on_width = max(1, int(self.n1))
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off_width = max(0, int(self.n2))
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segment_length = on_width + off_width
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if segment_length == 0:
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segment_length = 1
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# n3 = forward steps per move, n4 = backward steps per move
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forward_steps = max(1, abs(int(self.n3)))
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backward_steps = max(1, abs(int(self.n4)))
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# Calculate timing from delay
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step_delay = max(10, int(self.delay)) # At least 10ms
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position = 0 # Current position of the chase head
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phase = "forward" # "forward" or "backward"
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steps_remaining = forward_steps
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total_steps = 0 # Track total steps for wrapping
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last_update = utime.ticks_ms()
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color = self.apply_brightness(self.colors[0])
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while self.run:
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self.wdt.feed()
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current_time = utime.ticks_ms()
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# Check if it's time to move
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if utime.ticks_diff(current_time, last_update) >= step_delay:
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# Move position based on current phase
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if phase == "forward":
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total_steps = (total_steps + 1) % (self.num_leds * segment_length)
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position = total_steps % segment_length
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steps_remaining -= 1
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if steps_remaining == 0:
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phase = "backward"
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steps_remaining = backward_steps
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else: # backward
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total_steps = (total_steps - 1) % (self.num_leds * segment_length)
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position = total_steps % segment_length
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steps_remaining -= 1
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if steps_remaining == 0:
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phase = "forward"
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steps_remaining = forward_steps
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# Clear all LEDs
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self.n.fill((0, 0, 0))
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# Draw the chase pattern - repeating segments across all LEDs
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# Position determines where to start drawing on the strip
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for i in range(self.num_leds):
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# Create repeating pattern of on_width on, off_width off
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pos_in_segment = ((i + position) % segment_length)
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if pos_in_segment < on_width:
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self.n[i] = color
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self.n.write()
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last_update = current_time
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utime.sleep_ms(1)
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self.run = False
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self.running = False
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# def alternating(self):
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# # Use n1 as ON width and n2 as OFF width
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# segment_on = max(0, int(self.n1))
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# segment_off = max(0, int(self.n2))
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# total_segment_length = segment_on + segment_off
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# if total_segment_length <= 0:
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# self.fill((0, 0, 0))
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# self.n.write()
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# return self.delay
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# current_phase = self.step % 2
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# active_color = self.apply_brightness(self.colors[0])
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# for i in range(self.num_leds):
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# pos_in_segment = i % total_segment_length
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# if current_phase == 0:
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# # ON then OFF
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# if pos_in_segment < segment_on:
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# self.n[i] = active_color
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# else:
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# self.n[i] = (0, 0, 0)
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# else:
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# # OFF then ON
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# if pos_in_segment < segment_on:
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# self.n[i] = (0, 0, 0)
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# else:
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# self.n[i] = active_color
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# self.n.write()
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# # Don't update step - use the step value sent from controller for synchronization
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# return max(1, int(self.delay // 2))
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# def pulse(self):
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# # Envelope: attack=n1 ms, hold=delay ms, decay=n2 ms
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# attack_ms = max(0, int(self.n1))
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# hold_ms = max(0, int(self.delay))
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# decay_ms = max(0, int(self.n2))
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# base = self.colors[0] if len(self.colors) > 0 else (255, 255, 255)
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# full_brightness = max(0, min(255, int(self.brightness)))
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# # Attack phase (0 -> full)
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# if attack_ms > 0:
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# start = utime.ticks_ms()
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# while utime.ticks_diff(utime.ticks_ms(), start) < attack_ms:
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# elapsed = utime.ticks_diff(utime.ticks_ms(), start)
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# frac = elapsed / attack_ms if attack_ms > 0 else 1.0
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# b = int(full_brightness * frac)
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# self.fill(self.apply_brightness(base, brightness_override=b))
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# else:
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# self.fill(self.apply_brightness(base, brightness_override=full_brightness))
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# # Hold phase
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# if hold_ms > 0:
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# start = utime.ticks_ms()
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# while utime.ticks_diff(utime.ticks_ms(), start) < hold_ms:
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# pass
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# # Decay phase (full -> 0)
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# if decay_ms > 0:
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# start = utime.ticks_ms()
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# while utime.ticks_diff(utime.ticks_ms(), start) < decay_ms:
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# elapsed = utime.ticks_diff(utime.ticks_ms(), start)
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# frac = 1.0 - (elapsed / decay_ms if decay_ms > 0 else 1.0)
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# if frac < 0:
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# frac = 0
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# b = int(full_brightness * frac)
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# self.fill(self.apply_brightness(base, brightness_override=b))
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# # Ensure off at the end and stop auto-run
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# self.fill((0, 0, 0))
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# self.run = False
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# return self.delay
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# def rainbow(self):
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# # Wheel function to map 0-255 to RGB
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# def wheel(pos):
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# if pos < 85:
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# return (pos * 3, 255 - pos * 3, 0)
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# elif pos < 170:
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|
# pos -= 85
|
|
# return (255 - pos * 3, 0, pos * 3)
|
|
# else:
|
|
# pos -= 170
|
|
# return (0, pos * 3, 255 - pos * 3)
|
|
|
|
# step_rate = max(1, int(self.n3))
|
|
# # Use controller's step for synchronization, scaled for rainbow cycling
|
|
# rainbow_step = (self.step * step_rate) % 256
|
|
|
|
# for i in range(self.num_leds):
|
|
# rc_index = (i * 256 // max(1, self.num_leds)) + rainbow_step
|
|
# self.n[i] = self.apply_brightness(wheel(rc_index & 255))
|
|
# self.n.write()
|
|
|
|
# # Don't update internal step - use controller's step for sync
|
|
# return max(1, int(self.delay // 5))
|
|
|
|
# def specto(self):
|
|
# # Light up LEDs from 0 up to n1 (exclusive) and turn the rest off
|
|
# count = int(self.n1)
|
|
# if count < 0:
|
|
# count = 0
|
|
# if count > self.num_leds:
|
|
# count = self.num_leds
|
|
# color = self.apply_brightness(self.colors[0] if len(self.colors) > 0 else (255, 255, 255))
|
|
# for i in range(self.num_leds):
|
|
# self.n[i] = color if i < count else (0, 0, 0)
|
|
# self.n.write()
|
|
# return self.delay
|
|
|
|
# def radiate(self):
|
|
# # Radiate outward from origins spaced every n1 LEDs, stepping each ring by self.delay
|
|
# sep = max(1, int(self.n1) if self.n1 else 1)
|
|
# color = self.apply_brightness(self.colors[0] if len(self.colors) > 0 else (255, 255, 255))
|
|
|
|
# # Start with strip off
|
|
# self.fill((0, 0, 0))
|
|
|
|
# origins = list(range(0, self.num_leds, sep))
|
|
# radius = 0
|
|
# lit_total = 0
|
|
# while True:
|
|
# drew_any = False
|
|
# for o in origins:
|
|
# left = o - radius
|
|
# right = o + radius
|
|
# if 0 <= left < self.num_leds:
|
|
# if self.n[left] == (0, 0, 0):
|
|
# lit_total += 1
|
|
# self.n[left] = color
|
|
# drew_any = True
|
|
# if 0 <= right < self.num_leds:
|
|
# if self.n[right] == (0, 0, 0):
|
|
# lit_total += 1
|
|
# self.n[right] = color
|
|
# drew_any = True
|
|
# self.n.write()
|
|
|
|
# # If we didn't draw anything new, we've reached beyond edges
|
|
# if not drew_any:
|
|
# break
|
|
# # If all LEDs are now lit, immediately proceed to dark sweep
|
|
# if lit_total >= self.num_leds:
|
|
# break
|
|
# # wait self.delay ms before next ring
|
|
# start = utime.ticks_us()
|
|
# while utime.ticks_diff(utime.ticks_us(), start) < self.delay:
|
|
# pass
|
|
# radius += 1
|
|
|
|
# # Radiate back out (darkness outward): turn off from center to edges
|
|
# last_radius = max(0, radius - 1)
|
|
# for r in range(0, last_radius + 1):
|
|
# for o in origins:
|
|
# left = o - r
|
|
# right = o + r
|
|
# if 0 <= left < self.num_leds:
|
|
# self.n[left] = (0, 0, 0)
|
|
# if 0 <= right < self.num_leds:
|
|
# self.n[right] = (0, 0, 0)
|
|
# self.n.write()
|
|
# start = utime.ticks_us()
|
|
# while utime.ticks_diff(utime.ticks_us(), start) < self.delay:
|
|
# pass
|
|
|
|
# # ensure all LEDs are off at completion
|
|
# self.fill((0, 0, 0))
|
|
# # mark complete so scheduler won't auto-run again until re-selected
|
|
# self.run = False
|
|
# return self.delay
|
|
|
|
# def segmented_movement(self):
|
|
# """
|
|
# Segmented movement pattern that alternates forward and backward.
|
|
|
|
# Parameters:
|
|
# n1: Number of LEDs per segment
|
|
# n2: Spacing between segments (currently unused)
|
|
# n3: Forward movement steps per beat
|
|
# n4: Backward movement steps per beat
|
|
|
|
# Movement: Alternates between moving forward n3 steps and backward n4 steps each beat.
|
|
# """
|
|
# try:
|
|
# # Get parameters
|
|
# segment_length = max(1, int(self.n1)) if hasattr(self, 'n1') else 3
|
|
# segment_spacing = max(0, int(self.n2)) if hasattr(self, 'n2') else 2
|
|
# forward_step = max(0, int(self.n3)) if hasattr(self, 'n3') else 1
|
|
# backward_step = max(0, int(self.n4)) if hasattr(self, 'n4') else 0
|
|
|
|
# # Initialize position tracking if not exists
|
|
# if not hasattr(self, '_sm_position'):
|
|
# self._sm_position = 0
|
|
# self._sm_last_step = -1
|
|
|
|
# # Check if this is a new beat (step changed)
|
|
# if self.step != self._sm_last_step:
|
|
# # Alternate between forward and backward movement
|
|
# if self.step % 2 == 0:
|
|
# # Even steps: move forward (if n3 > 0)
|
|
# if forward_step > 0:
|
|
# self._sm_position += forward_step
|
|
# direction = "FWD"
|
|
# elif backward_step > 0:
|
|
# # If no forward, still move backward
|
|
# self._sm_position -= backward_step
|
|
# direction = "BWD"
|
|
# else:
|
|
# direction = "NONE"
|
|
# else:
|
|
# # Odd steps: move backward (if n4 > 0)
|
|
# if backward_step > 0:
|
|
# self._sm_position -= backward_step
|
|
# direction = "BWD"
|
|
# elif forward_step > 0:
|
|
# # If no backward, still move forward
|
|
# self._sm_position += forward_step
|
|
# direction = "FWD"
|
|
# else:
|
|
# direction = "NONE"
|
|
|
|
# # Wrap position around strip length
|
|
# strip_length = self.num_leds + segment_length
|
|
# self._sm_position = self._sm_position % strip_length
|
|
|
|
# # Update last step
|
|
# self._sm_last_step = self.step
|
|
|
|
# # DEBUG: Print every beat
|
|
# if self.step % 5 == 0:
|
|
# print(f"SM: step={self.step}, dir={direction}, n3={forward_step}, n4={backward_step}, pos={self._sm_position}")
|
|
|
|
# # Clear all LEDs
|
|
# self.fill((0, 0, 0))
|
|
|
|
# # Get color
|
|
# color = self.apply_brightness(self.colors[0])
|
|
|
|
# # Calculate segment width (segment + spacing)
|
|
# segment_width = segment_length + segment_spacing
|
|
|
|
# # Draw multiple segments across the strip
|
|
# if segment_width > 0:
|
|
# base_position = int(self._sm_position) % segment_width
|
|
|
|
# # Draw segments starting from base_position
|
|
# current_pos = base_position
|
|
# while current_pos < self.num_leds:
|
|
# # Draw segment from current_pos to current_pos + segment_length
|
|
# segment_end = min(current_pos + segment_length, self.num_leds)
|
|
# for i in range(max(0, current_pos), segment_end):
|
|
# self.n[i] = color
|
|
|
|
# # Move to next segment position
|
|
# current_pos += segment_width
|
|
|
|
# # Handle wrap-around: draw segments that start before 0
|
|
# wrap_position = base_position - segment_width
|
|
# while wrap_position > -segment_length:
|
|
# if wrap_position < 0:
|
|
# # Partial segment at start
|
|
# segment_end = min(wrap_position + segment_length, self.num_leds)
|
|
# for i in range(0, segment_end):
|
|
# self.n[i] = color
|
|
# wrap_position -= segment_width
|
|
|
|
# self.n.write()
|
|
# return self.delay
|
|
|
|
# except Exception as e:
|
|
# # DEBUG: Print error
|
|
# print(f"SM Error: {e}")
|
|
# # If anything goes wrong, turn off LEDs and return
|
|
# self.fill((0, 0, 0))
|
|
# self.n.write()
|
|
# return self.delay
|
|
|
|
|
|
# if __name__ == "__main__":
|
|
# import time
|
|
# from machine import WDT
|
|
# wdt = WDT(timeout=2000) # Enable watchdog with a 2 second timeout
|
|
# p = Patterns(pin=4, num_leds=60, color1=(255,0,0), color2=(0,0,255), brightness=127, selected="off", delay=100)
|
|
|
|
# print(p.colors, p.brightness)
|
|
|
|
# tests = [
|
|
# ("off", {"duration_ms": 500}),
|
|
# ("on", {"duration_ms": 500}),
|
|
# ("color_wipe", {"delay": 200, "duration_ms": 1000}),
|
|
# ("rainbow_cycle", {"delay": 100, "duration_ms": 2500}),
|
|
# ("theater_chase", {"on_width": 3, "off_width": 3, "delay": 1000, "duration_ms": 2500}),
|
|
# ("blink", {"delay": 500, "duration_ms": 2000}),
|
|
# ("color_transition", {"delay": 150, "colors": [(255,0,0),(0,255,0),(0,0,255)], "duration_ms": 5000}),
|
|
# ("flicker", {"delay": 100, "duration_ms": 2000}),
|
|
# ("scanner", {"delay": 150, "duration_ms": 2500}),
|
|
# ("bidirectional_scanner", {"delay": 50, "duration_ms": 2500}),
|
|
# ("fill_range", {"n1": 10, "n2": 20, "delay": 500, "duration_ms": 2000}),
|
|
# ("n_chase", {"n1": 5, "n2": 5, "delay": 2000, "duration_ms": 2500}),
|
|
# ("alternating", {"n1": 5, "n2": 5, "delay": 500, "duration_ms": 2500}),
|
|
# ("pulse", {"delay": 100, "duration_ms": 700}),
|
|
# ]
|
|
|
|
|
|
# print("\n--- Running pattern self-test ---")
|
|
# for name, cfg in tests:
|
|
# print(f"\nPattern: {name}")
|
|
# # apply simple config helpers
|
|
# if "delay" in cfg:
|
|
# p.set_delay(cfg["delay"])
|
|
# if "on_width" in cfg:
|
|
# p.set_on_width(cfg["on_width"])
|
|
# if "off_width" in cfg:
|
|
# p.set_off_width(cfg["off_width"])
|
|
# if "n1" in cfg and "n2" in cfg:
|
|
# p.set_fill_range(cfg["n1"], cfg["n2"])
|
|
# if "colors" in cfg:
|
|
# p.set_colors(cfg["colors"])
|
|
|
|
# p.select(name)
|
|
|
|
# # run per configured duration using absolute-scheduled tick(next_due_ms)
|
|
# start = utime.ticks_ms()
|
|
# duration_ms = cfg["duration_ms"]
|
|
# delay = cfg.get("delay", 0)
|
|
# next_due = utime.ticks_ms() - 1 # force immediate first call
|
|
# while utime.ticks_diff(utime.ticks_ms(), start) < duration_ms:
|
|
# delay = p.tick(delay)
|
|
# wdt.feed()
|
|
|
|
# print("\n--- Test routine finished ---")
|
|
|
|
|