Bowling Lane Bumper Lighting Units and Optical Sensors
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Solution Overview
Problem
Traditional bowling centers lack innovative features to enhance player engagement and experience, with bumpers primarily serving to prevent balls from falling into gutters, offering limited interactive elements beyond the standard game format.
Innovation Solution
Integration of an electronic control system that manages lighting and scoring, allowing for customizable lighting effects and interactive bumper systems with sensors and RGB LED lighting, enabling dynamic game sequences and enhanced player interaction.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If traditional bumpers are used solely to prevent balls from falling into gutters, then the basic bowling function is maintained, but player engagement and interactive experience are limited
Solution Approach 1:
The bumper is transformed from a single-function protective barrier into a multi-functional interactive element by integrating optical sensors, lighting systems, and electronic control capabilities. The bumper now serves both its traditional ball-deflection function and new functions including ball detection, visual feedback provision, and game rule enforcement, thereby increasing adaptability without requiring separate dedicated devices for each function.
Solution Approach 2:
Multiple functional components (sensors, lighting units, control electronics) are merged into the bumper structure itself. The optical sensors are positioned within or adjacent to the bumper, lighting units are integrated into the bumper housing, and all components are coordinated through a unified electronic control system, creating a compact multi-functional assembly that enhances interactivity while managing system complexity.
2Adaptability or versatility
If individual lighting units are integrated into each bumper section, then customizable lighting effects and enhanced player engagement are achieved, but device complexity and manufacturing costs increase
Solution Approach 1:
The lighting system is divided into multiple independently controllable lighting units, with each unit corresponding to a specific bumper section. This segmentation allows individual lighting units to be controlled separately to provide localized visual feedback about ball position, bumper contact, and game status, enabling customizable lighting effects while maintaining manageable system complexity through modular control architecture.
Solution Approach 2:
Different lighting units can display different colors, intensities, or patterns based on local conditions such as ball proximity to that specific bumper section, actual contact with the bumper, or game-specific requirements. This local quality approach allows customized lighting feedback tailored to each bumper zone's functional state, enhancing player engagement without requiring uniform complex control of all lighting units.
3Extent of automation
If optical sensors are integrated into the bumpers to detect ball contact and position, then automated scoring and game management are improved, but manufacturing complexity and maintenance requirements increase
Solution Approach 1:
The optical sensors integrated into the bumpers enable the system to automatically detect ball contact and position, providing self-service ball detection capabilities without requiring external manual observation or additional separate detection systems. The sensors automatically feed data to the electronic control system for automated scoring and game management, reducing the need for human intervention while managing manufacturing complexity through standardized sensor integration protocols.
4Adaptability or versatility
If the electronic control system manages each lighting unit individually, then dynamic light effects and game sequences are enhanced, but energy consumption and system complexity increase
Solution Approach 1:
The individually controllable lighting units can be activated in periodic sequences or patterns rather than continuously, with lighting effects synchronized to game events such as ball release, ball-bumper contact, and scoring moments. This periodic activation provides dynamic light effects and enhanced game sequences while reducing overall energy consumption compared to continuous illumination of all lighting units.
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 solution creates a more engaging and interactive bowling experience by using customizable lighting and sensor-activated bumpers, allowing for varied game modes and scoring systems, increasing player engagement and facility appeal.
Implementation Method 1
a first optical sensor (50) for detecting a position of the bowl (13)
Data Source
AI summary
A bowling centre includes at least one bowling lane along which the bowl is rolled and having a rolling surface at one end of which are positioned the pins to be knocked down and at the opposite, longitudinal end of which is located the bowler's bay from where the bowl is thrown, the at least one lane including a side bumper running along each side of the lane and movable between a lowered position which allows the bowl to roll freely off the lane into a gutter which channels the bowl out of the lane, and a raised position for keeping the bowl on the bowling lane; an electronic control system configured to manage the at least one lane to implement a scoring program which calculates the score of the game played on the at least one lane; a lighting system includes a plurality of lighting units mounted on each side bumper, the lighting system being connected to the electronic control system which is configured to individually control each lighting unit in such a way as to light respective zones of each bumper in a differentiated manner.