Kinetic Flame Device Magnetic Pendulum Simulation
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Solution Overview
Problem
Conventional candle flame simulators fail to convincingly replicate the kinetic and random light movement of a real flame, especially at short distances, due to their reliance on controlled motion and energy-intensive methods, which are not only ineffective but also require frequent maintenance and high energy consumption.
Innovation Solution
A kinetic flame device that utilizes a drive mechanism generating a time-varying electromagnetic field to interact with magnets and pendulum members, creating chaotic motion and light patterns that mimic the flickering of a candle flame, without direct modulation of the complex interactions between gravity, mass, electromagnetic fields, and air resistance.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional flame simulation methods are used, then flame effect is produced, but the simulation is not convincing at short distances and requires high energy consumption
Solution Approach 1:
The patent replaces conventional mechanical or electronic flame simulation systems with a magnetic field-based system. A magnet is suspended in a magnetic field generated by a coil assembly, eliminating the need for complex mechanical moving parts or high-energy electronic controls while achieving realistic flame motion through magnetic interaction.
Solution Approach 2:
The patent changes the physical state and interaction parameters by using magnetic field strength and magnet positioning to control flame simulation. The magnetic field parameters (strength, frequency, pattern) are adjusted to produce different flame behaviors, replacing energy-intensive conventional control methods with efficient magnetic parameter modulation.
2Reliability
If conventional flame simulators are used, then flame effect is produced, but maintenance requirements are frequent
Solution Approach 1:
The patent eliminates mechanical moving parts by using a magnet suspended in a magnetic field. This substitution of mechanical systems with magnetic field interactions removes wear and tear components, significantly reducing maintenance requirements and improving long-term reliability of the flame simulation device.
Solution Approach 2:
The magnetic field system is inherently self-regulating and requires no manual intervention for operation or maintenance. The magnet automatically responds to magnetic field changes without requiring mechanical adjustment, lubrication, or replacement of moving parts, enabling long-term autonomous operation.
3Reliability
If controlled motion methods are used to simulate flame, then flame effect is produced, but the motion is not chaotic and random enough
Solution Approach 1:
The patent replaces complex electronic control mechanisms with a simple magnetic field system. The magnet's natural response to magnetic field variations produces chaotic and random motion patterns that closely resemble real flame behavior, eliminating the need for sophisticated control algorithms or mechanical actuation systems.
Solution Approach 2:
The magnetic field acts as an intermediary between the power source and the flame simulation element. Instead of directly controlling the flame shape with complex mechanisms, the magnetic field mediates the interaction, naturally producing realistic chaotic motion through its physical properties and the magnet's response to field variations.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The device produces a convincing and realistic simulation of a flickering flame with reduced maintenance and energy requirements, adaptable to various form factors and applications, while maintaining a robust and long-lasting design.
Implementation Method 1
a drive mechanism that stimulates and/or perturbs a complex interaction between gravity, mass, electromagnetic field strength, magnetic fields, air resistance, and light
Implementation Method 2
A kinetic flame device that utilizes a drive mechanism generating a time-varying electromagnetic field to interact with magnets and pendulum members
Implementation Method 3
creating chaotic motion and light patterns that mimic the flickering of a candle flame, without direct modulation of the complex interactions between gravity, mass, electromagnetic fields, and air resistance
Implementation Method 4
An upper pendulum member with a flame silhouette element that blocks and transmits light from a light source
Data Source
AI summary
An apparatus creating a flickering flame effect. The apparatus includes a housing with an interior space with first and second stages. A drive mechanism generates a time varying electromagnetic field extending into the first stage. A first pendulum member is pivotally mounted in the interior space of the first stage and includes first and second magnets on first and second ends, with the first end proximate to the drive mechanism such that the first magnet interacts with the varying electromagnetic field to cause movement of the pendulum member. The apparatus includes a second pendulum member pivotally mounted in the second stage with a magnet on a first end proximate to the second end of the first pendulum member. A flame silhouette element extends from the second pendulum member, and a light source transmits light onto the flame silhouette, which is moving due to the magnetic coupling of the pendulum members.