openrowingmonitor/config/rowerProfiles.js

190 lines
8.2 KiB
JavaScript

'use strict'
/*
Open Rowing Monitor, https://github.com/laberning/openrowingmonitor
This file contains the rower specific settings for different models of ergometers.
These have been generated by the community. If your rower is not listed here and you did find
good settings for your rowing device please send them to us (together with a raw recording of
10 strokes) so we can add the device here.
*/
export default {
// The default rower profile
DEFAULT: {
// How many impulses are triggered per revolution of the flywheel
// i.e. the number of magnets if used with a reed sensor
numOfImpulsesPerRevolution: 1,
// NOISE FILTER SETTINGS
// Filter Settings to reduce noise in the measured data
// Minimum and maximum duration between impulses in seconds during active rowing. Measurements outside of this range
// are replaced by a default value.
minimumTimeBetweenImpulses: 0.014,
maximumTimeBetweenImpulses: 0.5,
// Percentage change between successive intervals before measurements are considered invalid
maximumDownwardChange: 0.25, // effectively the maximum acceleration
maximumUpwardChange: 1.75, // effectively the maximum decceleration
// Smoothing determines the length of the running average for certain volatile measurements, 1 effectively turns it off
smoothing: 1,
// STROKE DETECTION SETTINGS
// Flank length determines the minimum number of consecutive increasing/decreasing measuments that are needed before the stroke detection
// considers a drive phase change
// numberOfErrorsAllowed allows for a more noisy approach, but shouldn't be needed
flankLength: 2,
numberOfErrorsAllowed: 0,
// Natural deceleration is used to distinguish between a powered and unpowered flywheel.
// This must be a NEGATIVE number and indicates the level of deceleration required to interpret it as a free spinning
// flywheel. The best way to find the correct value for your rowing machine is a try and error approach.
// You can also set this to zero (or positive), to use the more robust, but not so precise acceleration-based stroke
// detection algorithm.
naturalDeceleration: 0,
// Error reducing settings for the rowing phase detection (in seconds)
maximumImpulseTimeBeforePause: 3.0, // maximum time between impulses before the rowing engine considers it a pause
minimumDriveTime: 0.300, // minimum time of the drive phase
minimumRecoveryTime: 1.200, // minimum time of the recovery phase
// Needed to determine the drag factor of the rowing machine. This value can be measured in the recovery phase
// of the stroke.
// To display it for your rowing machine, set the logging level of the RowingEngine to 'info'. Then start rowing and
// you will see the measured values in the log.
// Just as a frame of reference: the Concept2 can display this factor from the menu, where it is multiplied with 1.000.000
// For a new Concept2 the Drag Factor ranges between 80 (Damper setting 1) and 220 (Damper setting 10). Other rowers are
// in the range of 150 to 450 (NordicTrack).
// Open Rowing Monitor can also automatically adjust this value based on the measured damping. To do so, set the setting
// autoAdjustDragFactor to true (see below).
dragFactor: 1500,
// Set this to true, if you want to automatically update the drag factor based on the measured
// values in the stroke recovery phase. If your rower produces stable damping values, then this could be a good
// option to dynamically adjust your measurements to the damper setting of your rower.
// When your machine's power and speed readings are too volatile it is wise to turn it off
autoAdjustDragFactor: false,
// The moment of inertia of the flywheel kg*m^2, which is ONLY relevant when autoAdjustDragFactor is set to true or when you
// use Force Curves. Otherwise this value isn't relevant to your rower
// A way to measure it is outlined here: https://dvernooy.github.io/projects/ergware/, "Flywheel moment of inertia"
// You could also roughly estimate it by just doing some strokes and the comparing the calculated power values for
// plausibility. Note that the power also depends on the drag factor (see above).
flywheelInertia: 0.5,
// If autoAdjustDragFactor is set to true, it will calculate the drag each recovery phase and update it accordingly to calculate speed,
// distance, etc.. As this calculation that is prone to noise in the measuremnts, it is wise to apply smoothing to prevent this noise
// from throwing off your key metrics. The default value is a running average of the drag factor of 5 strokes
dampingConstantSmoothing: 5,
// Another setting for when autoAdjustDragFactor is set to true: the maximum allowed change from the current value. Spikes usually imply
// measurement errors, so this setting determines the maximum change with respect to the current dragfactor. Please note that this filter
// will prevent large changes, but will still move the dragfactor upward/downward to prevent it from being stuck. The value is in maximum
// allowed change. The default value of 0.10 implies that the maximum upward/downward change is an increase of the drag with 10%.
dampingConstantMaxChange: 0.10,
// A constant that is commonly used to convert flywheel revolutions to a rowed distance
// see here: http://eodg.atm.ox.ac.uk/user/dudhia/rowing/physics/ergometer.html#section9
// Concept2 seems to use 2.8, which they admit is an arbitrary number which came close
// to their expectations. So for your rower, you have to find a plausible distance for your effort.
// Also note that the rowed distance also depends on flywheelInertia, so please calibrate that before changing this constant.
// PLEASE NOTE: Increasing this number decreases your rowed meters
magicConstant: 2.8
},
// Sportstech WRX700
WRX700: {
numOfImpulsesPerRevolution: 2,
naturalDeceleration: -5.0,
flywheelInertia: 0.72,
dragFactor: 32000
},
// DKN R-320 Air Rower
DKNR320: {
numOfImpulsesPerRevolution: 1,
flywheelInertia: 0.94,
dragFactor: 8522
},
// NordicTrack RX800 Air Rower
RX800: {
numOfImpulsesPerRevolution: 4,
/* Damper setting 10
minimumTimeBetweenImpulses: 0.018,
maximumTimeBetweenImpulses: 0.0338,
smoothing: 3,
maximumDownwardChange: 0.88,
maximumUpwardChange: 1.11,
flankLength: 9,
numberOfErrorsAllowed: 2,
naturalDeceleration: -11.5, // perfect runs
minimumDriveTime: 0.40,
minimumRecoveryTime: 0.90,
flywheelInertia: 0.146,
dragFactor: 560
*/
/* Damper setting 8
minimumTimeBetweenImpulses: 0.017,
maximumTimeBetweenImpulses: 0.034,
smoothing: 3,
maximumDownwardChange: 0.8,
maximumUpwardChange: 1.15,
flankLength: 9,
numberOfErrorsAllowed: 2,
naturalDeceleration: -10.25, // perfect runs
minimumDriveTime: 0.30,
minimumRecoveryTime: 0.90,
flywheelInertia: 0.131,
dragFactor: 440
*/
// Damper setting 6
minimumTimeBetweenImpulses: 0.00925,
maximumTimeBetweenImpulses: 0.038,
smoothing: 3,
maximumDownwardChange: 0.86,
maximumUpwardChange: 1.13,
flankLength: 9,
numberOfErrorsAllowed: 2,
// naturalDeceleration: -8.5, // perfect runs IIII
naturalDeceleration: -8.6, // perfect runs IIIXI
minimumDriveTime: 0.28,
minimumRecoveryTime: 0.90,
flywheelInertia: 0.189,
dragFactor: 460
//
/* Damper setting 4
minimumTimeBetweenImpulses: 0.00925,
maximumTimeBetweenImpulses: 0.0335,
smoothing: 3,
maximumDownwardChange: 0.890,
maximumUpwardChange: 1.07,
flankLength: 10,
numberOfErrorsAllowed: 2,
naturalDeceleration: -5.5, // perfect runs I
minimumDriveTime: 0.24,
minimumRecoveryTime: 0.90,
flywheelInertia: 0.140,
dragFactor: 255
*/
/* Damper setting 2
minimumTimeBetweenImpulses: 0.00925,
maximumTimeBetweenImpulses: 0.030,
smoothing: 4,
maximumDownwardChange: 0.962,
maximumUpwardChange: 1.07,
flankLength: 11,
numberOfErrorsAllowed: 2,
naturalDeceleration: -2.45, // perfect runs
minimumDriveTime: 0.28,
minimumRecoveryTime: 0.90,
flywheelInertia: 0.155,
dragFactor: 155,
magicConstant: 2.8
*/
}
}