Intelligent golf club recommendation technology

Abstract

Examples relate to golf assistance systems for providing environmentally-adjusted club recommendations during golf play. An example system includes a communication-enabled laser range finder with distance measurement circuitry, wireless communication circuitry, wind direction input controls, and a display interface. A networked processing device comprises a processor and memory configured to execute software storing golfer-specific shot performance data normalized to baseline atmospheric conditions. The networked processing device establishes wireless communication with the communication-enabled laser range finder to receive target distance and slope measurements, obtains real-time atmospheric data including air density, temperature, humidity, and wind conditions, and calculates effective shot distances for multiple golf clubs by processing the atmospheric data with the golfer-specific shot performance data. The networked processing device determines club recommendations and transmits them to the communication-enabled laser range finder, which displays the recommendations filtered according to wind direction input.

Description

TECHNICAL FIELD

[0001] The present disclosures relate to sports equipment technology and environmental data processing systems and, in some examples, to systems and methods to integrate real-time atmospheric data with golf equipment performance measurements for providing environmentally-adjusted club selection recommendations during golf play.BACKGROUND

[0002] Golf is an outdoor sport that presents unique challenges due to the variability of environmental conditions. The flight of a golf ball is significantly influenced by atmospheric conditions, wind, and landing height when shots are played. These conditions can vary widely due to natural changes in weather, seasons, and local weather systems.

[0003] Golfers often play on courses in different locations where the climate and associated weather conditions differ from their usual experience. This can be particularly noticeable in areas with large temperature fluctuations, such as before sunrise or after sunset. Air density, which is primarily governed by air temperature, local air pressure, and relative humidity, can play a crucial role in determining the drag and lift forces experienced by a flying golf ball.

[0004] The performance of a golf shot is often determined by the ball's launch parameters, including speed, spin, and launch angle. These parameters may be unique to each golfer and each club, meaning that environmental conditions can affect each golfer's shot differently, or at least to a different extent. As a result, golfers may often face uncertainty regarding the outcome of their shots.

[0005] Various technologies have been developed to assist golfers in improving their game and adapting to different conditions. These include GPS tracking devices, golf launch monitors, laser range finders, and golf software applications. However, the integration and application of these technologies to address the challenges posed by varying environmental conditions remain an area of ongoing development in the field of golf equipment and technology.

[0006] Current golf range finder systems operate as isolated measurement devices that cannot dynamically integrate real-time atmospheric data with personalized performance metrics.

[0007] Existing range finders may measure distance and slope but lack the computational capability and connectivity to process complex environmental variables (such as air density, kinematic viscosity, wind vector components) in conjunction with golfer-specific launch parameters (such as ball speed, spin rate, launch angle). This technical limitation prevents golfers from receiving accurate shot recommendations that account for varying atmospheric conditions that significantly affect ball flight physics.

[0008] The technical challenge of simultaneously processing multiple environmental variables—including temperature-dependent air density calculations, humidity-based kinematic viscosity determinations, and three-dimensional wind vector analysis—requires computational resources and algorithms not available in conventional range finder hardware. Current systems cannot perform the complex physics calculations necessary to determine how atmospheric conditions affect individual golfer performance data normalized to baseline conditions.

[0009] Existing golf equipment lacks the technical infrastructure for real-time bidirectional data communication between measurement devices and processing systems. Current range finders cannot transmit measurement data to external processing units or receive calculated recommendations, creating a technical gap in data flow that prevents integration of environmental analysis with distance measurements.

[0010] Conventional range finder displays are technically limited to showing basic measurement data and cannot present complex calculated information such as club recommendations for multiple wind directions or environmentally-adjusted effective distances. The technical challenge involves creating display interfaces that can present real-time calculated data while maintaining the compact form factor and usability required for golf course applications.BRIEF SUMMARY

[0011] Some described examples herein relate to systems and methods for adapting golf equipment recommendations to environmental conditions during play. A golfer may possess knowledge of carry distances achievable with individual golf clubs under familiar conditions. This knowledge can be enhanced through objective measurement using golf launch monitors. Environmental factors such as atmospheric conditions, wind patterns, and elevation changes may significantly influence ball flight characteristics during outdoor golf activities.

[0012] Some described examples address technical challenges in integrating real-time environmental data with personalized performance metrics to provide adjusted equipment recommendations. A communication-enabled laser range finder may be configured to measure target distances and communicate with a networked processing device. The networked processing device can obtain current atmospheric conditions and process multiple data streams to calculate environmentally-adjusted distance recommendations.

[0013] In some examples, the system comprises a communication-enabled laser range finder equipped with wireless communication capabilities and enhanced display functionality. The device may incorporate distance measurement circuitry configured to determine target distances and slope measurements to golf course targets. Wind direction input controls can allow users to specify wind direction relative to the device's pointing orientation. The display interface may present calculated environmental data received from external processing systems.

[0014] The networked processing device may execute specialized software containing stored golfer-specific shot performance data. This performance data can include ball launch parameters such as speed, backspin rate, launch angle, and horizontal carry distance. The data may be normalized to standard atmospheric conditions, representing baseline performance metrics for individual golfers. The software can establish wireless communication with the communication-enabled laser range finder to receive measurement data.

[0015] Real-time atmospheric data may be obtained from weather data sources through internet connectivity. The atmospheric data can include air density measurements, temperature readings, humidity levels, and wind conditions. The processing system may calculate air density variations based on temperature, pressure, and humidity parameters. Kinematic viscosity effects on ball flight characteristics can be determined through computational analysis.

[0016] The software may perform multi-variable calculations integrating atmospheric conditions with stored performance data. Wind vector analysis can be applied for multiple directional scenarios. The system may determine achievable carry distances for individual golf clubs under prevailing environmental conditions. Club recommendations can be generated by comparing calculated effective distances with measured target distances.

[0017] In some examples, the communication-enabled laser range finder receives calculated recommendations from the networked processing device. The display interface may present effective shot distances adjusted for current conditions. Club recommendations can be filtered according to wind direction input provided by the user. The display may simultaneously present target distance measurements, slope calculations, wind direction settings, and recommended equipment selections.

[0018] The wireless communication system may implement bidirectional data transmission protocols. Measurement data packets can be transmitted from the range finder to the processing device. Calculation result packets may be received from the processing device containing club recommendations and effective distance values. Environmental input data and synchronization information can be exchanged between devices to maintain data consistency.

[0019] The processing engine may calculate distance modifications based on atmospheric physics principles. Temperature-dependent air density calculations can affect drag coefficient determinations. Humidity-based kinematic viscosity calculations may influence ball flight physics modeling. Height-adjusted atmospheric pressure calculations can be applied based on slope measurements obtained from the range finder.

[0020] The system may store all input and output data for future analysis purposes. Historical performance information can be maintained for comparison with real-time calculations. The data storage system may enable golfers to review past recommendations and environmental conditions. Analysis capabilities can be provided for performance tracking over time.

[0021] In some examples, the communication-enabled laser range finder incorporates enhanced user interface elements. Multi-zone display configurations may present various categories of information simultaneously. Wind direction indicators can be adjusted through dedicated controls. Mode indicators may show operational status and current calculation parameters. Target height difference measurements can be displayed alongside distance readings.

[0022] The networked processing device may access online weather data services through internet connectivity. Weather information can be obtained at multiple intervals during play. Local atmospheric conditions may be retrieved for specific golf course locations. The system can adapt to changing environmental conditions throughout gameplay sessions.

[0023] The described examples may address technical limitations in existing golf equipment. Current range finders typically operate as isolated measurement devices without environmental integration capabilities. Launch monitors may provide performance data but cannot dynamically adjust for changing conditions during play. GPS tracking systems can record locations but may not account for atmospheric effects on ball flight.

[0024] The integration of multiple data sources may enable enhanced functionality beyond individual device capabilities. Real-time processing of environmental variables with personalized performance data can provide recommendations unavailable through existing approaches. The wireless communication infrastructure may enable data sharing between devices that traditionally operate independently.

[0025] Alternative configurations may allow manual entry of atmospheric conditions rather than automatic weather service connectivity. Users can input local weather parameters obtained from alternative sources. The system may calculate recommendations based on manually entered environmental data combined with stored performance information.

[0026] In some examples, golfers may view calculated performance for individual clubs under prevailing conditions rather than receiving automatic recommendations. The system can display effective distances for all available equipment options. Manual club selection may be performed based on presented calculation results rather than automated suggestions.

[0027] Data lookup table formats may be employed instead of real-time calculations in certain configurations. Predetermined performance adjustments can be stored for various environmental condition combinations. Input parameters may be matched to stored table values to determine recommended equipment and distance adjustments.

[0028] The described examples may account for height variations in wind speed effects on ball flight. Multi-dimensional wind analysis can consider altitude-dependent atmospheric conditions. The system may model complex environmental interactions affecting projectile trajectories over extended flight paths.

[0029] Processing device implementations may include smartphones, tablets, or specialized computing hardware. The software can be configured to operate across various mobile computing platforms. Compatibility with different communication protocols may enable connectivity with multiple range finder models.

[0030] Display technology in the communication-enabled laser range finder may utilize LCD screens, LED indicators, or other visual presentation methods. Information can be organized in multiple display zones for efficient presentation. User interface elements may be configured for outdoor visibility and ease of operation during golf activities.

[0031] The described examples provide technical solutions for integrating environmental awareness into golf equipment selection processes. Real-time data processing capabilities may enable dynamic adaptation to changing conditions during play. The wireless communication infrastructure can facilitate data sharing between measurement and processing devices to enhance overall system functionality.

[0032] Further, some examples relate to the application of algorithms in specially configured systems that account for factors such as air density, kinematic viscosity, wind speed, and direction to calculate achievable distances for each club in a golfer's bag under specific playing conditions. Some examples include wireless communication protocols between networked processing devices and communication-enabled range finders to facilitate a seamless exchange of data and recommendations during play.

[0033] Some examples provide a system and method for adapting golf play to prevailing environmental conditions. This technology addresses the challenge of selecting appropriate golf clubs and determining effective shot distances in varying weather and course conditions.

[0034] In some examples, a golf assistance system comprises two main components: a communication-enabled laser range finder and a networked processing device running specialized software. These components work together to provide golfers with real-time recommendations for club selection and shot distance, taking into account current environmental factors.

[0035] In some examples, a communication-enabled laser range finder may include functions such as measuring distance, slope, and height difference to a target on the golf course, but also incorporates additional features that set it further apart from conventional range finders. These additional technical elements may include an ability to input wind direction relative to a target, wireless connectivity to the golfer's networked processing device, and a user interface or display capable of showing a recommended club selection and modified target distance.

[0036] In some examples, a networked processing device may be constituted by a smart phone, or at least include some functions of a smartphone, and conveniently run a software application that serves as a computational core of the system. An example application may store a golfer's personal shot performance data, which may include information such as ball launch speed, backspin rate, launch angle, and horizontal carry distance for each club. In some examples, this data is collected over time using a golf launch monitor and represents a golfer's performance under their usual playing conditions. These conditions may be referred to as “home conditions” in some examples.

[0037] In some examples, the software application may perform several key functions: it obtains local weather data, including atmospheric conditions and wind information, from an online weather service or manual input; it receives measurements from the range finder, including target distance and slope; it calculates the achievable distances for each of the golfer's clubs under the current conditions, accounting for air density, kinematic viscosity, and wind speed for multiple wind directions; it selects the club that best matches the actual target distance and calculates a “home conditions” distance value that the golfer should aim for; and it transmits the calculated club recommendations and distances back to the range finder for display.

[0038] In some examples, the process of using an example golf assistance system begins with the golfer measuring the distance to their desired target using the communication-enabled laser range finder. This information is then sent to the networked processing device. The software application processes this data along with the current weather conditions and the golfer's stored performance data. It then calculates and sends back to the range finder a list of recommended clubs and associated distances for various wind directions.

[0039] The golfer can then input the perceived wind direction using controls on the range finder. Based on this input, the range finder displays the recommended club and the effective target distance (referenced to the golfer's home conditions) for that specific wind direction.

[0040] This system allows golfers to make more informed decisions about club selection and shot distance, adapting their play to the specific environmental conditions they face on any given day or course. It takes into account factors such as temperature, air pressure, humidity, and wind, which can significantly affect ball flight and distance.

[0041] Alternative configurations of the system include any one or more of the following aspects such as manual input of weather conditions instead of relying on an online weather service; allowing the golfer to view calculated performance for any club under prevailing conditions, rather than only seeing the recommended club; using lookup tables instead of numerical calculations to determine expected shot distances and club recommendations; and incorporating allowances for height variation of wind speed in predicting ball flight.

[0042] The disclosed technology aims to address gaps in current golf technology by integrating various data sources and providing real-time, personalized recommendations. It builds upon existing technologies such as GPS tracking devices, launch monitors, and standard laser range finders, but combines and enhances their functionalities to create a more comprehensive tool for golfers.

[0043] By providing golfers with more accurate and personalized information about how their shots will perform under current conditions, this system seeks to reduce uncertainty and improve decision-making on the golf course. It represents an advancement in golf technology that could potentially enhance player performance and enjoyment of the game across varying environmental conditions and locations.BRIEF DESCRIPTION OF THE DRAWINGS

[0044] Throughout the drawings, reference numbers may be re-used to indicate correspondence between referenced elements. The drawings are provided to illustrate examples of the subject matter described herein and not to limit the scope thereof.

[0045] FIG. 1 is a schematic diagram illustrating an example golf assistance system for adapting golf play to prevailing conditions, according to some examples.

[0046] FIG. 2 is a schematic diagram illustrating a display of a communication-enabled laser range finder, according to some examples.

[0047] FIG. 3 is a flowchart illustrating process steps for the system and method of adapting golf play to prevailing conditions, according to some examples.

[0048] FIG. 4 is a flowchart illustrating assessment and use processes for the system and method of adapting golf play to prevailing conditions, according to some examples.

[0049] FIG. 5 illustrates example operations in a method for adapting golf play to prevailing conditions, according to some examples.

[0050] FIG. 6 illustrates a method 600 for providing an environmentally-adjusted golf club recommendation, in accordance with one embodiment.DETAILED DESCRIPTION

[0051] There are several existing systems used in golf. For examples, GPS tracking devices utilize RFID type sensors mounted on golf club grips that trigger applications (apps) to record GPS positions. Each RFID is associated with a club, and the user gets GPS positions as recorded by their phone App, using the phone's internal GPS. These devices are used for golf analytics but lack real-time environmental adaptations for on-course decision-making.

[0052] Golf launch monitors employ various types of technology, including cameras, radar, or other means, to quantify golfer performance per club under prevailing conditions. There are primarily two types: radar-based monitors that track the movement of the ball and club over a large area, and camera-based monitors that capture images of the ball and club at impact and during flight up to a limited distance. These devices measure parameters such as ball speed, launch angle, spin rate, and carry distance. While valuable for practice, coaching, and club fitting, these devices are typically not used for real-time on-course decision-making.

[0053] Standard laser range finders are commonly used by golfers to measure horizontal distance, slant distance, slope angle, and height difference between a start position and a target position on a golf course. They provide accurate distance measurements but do not account for environmental factors affecting ball flight. These devices typically offer high accuracy in a range of 400 to 1000 yards and are designed to be portable and easy to use.

[0054] Golf software applications, such as FS Golf from FlightScope™, can calculate golf shot performance under different weather conditions. These applications are often used in conjunction with launch monitors but are not typically integrated with real-time on-course measurements. They may provide features such as virtual course play and personalized practice sessions.

[0055] Present examples of the technology described herein seek to address the limitations of existing systems. Some examples integrate the functionalities of multiple devices into a single, comprehensive system for adapting golf play to prevailing conditions. Disclosed examples combine a communication-enabled laser range finder with a networked processing device running specialized software, providing a unified solution for golfers.

[0056] With reference to FIG. 1, an example golf assistance system used by a golfer 100 (or other user, for example or caddy, or casual game observer) comprises a communication-enabled laser range finder 200 (also referred to simply as a range finder 200 herein, and referred to merely by way of example as a custom laser range finder in the view) includes integrated wireless communication circuitry and a networked processing device 300 (referred merely by way of example as a smart device in the view) executing environmental processing software 301 (referred to merely by way of example as a software application in the view). The communication-enabled laser range finder 200 may incorporate improved hardware elements such as wireless data transmission capabilities, wind direction input controls, and an enhanced display interface configured to present calculated environmental data.

[0057] In some examples, the communication-enabled laser range finder 200 and the networked processing device 300 establish bidirectional wireless data communication via a wireless data connection 800 implementing specific data transmission protocols for real-time measurement and calculation data exchange. The wireless communication system is configured to transmit range finder measurement data including true target distance 203 (for example, FIG. 2) and target height difference 204 (for example, FIG. 2) from the communication-enabled laser range finder 200 to the networked processing device 300, and to receive processed calculation results including club recommendations 206 (for example, FIG. 2) and effective distance calculations 207 (for example, FIG. 2) from the networked processing device 300 to the communication-enabled laser range finder display 201.

[0058] In some examples, the communication protocol implements data packet structures including any one or more of: a measurement data packet (such as a target distance, a slope angle, a height differential), an environmental input packet (such as a wind direction setting, an atmospheric condition), a calculation result packet (such as a club recommendation, an effective distance for example for one or more multiple wind vectors), a synchronization packet (for example, to ensure data consistency between devices).

[0059] In some examples, the networked processing device software 301 implements a real-time data processing engine that performs complex atmospheric physics calculations by integrating multiple data sources such as one or more communication-enabled laser range finder measurements, online weather service data 500, and stored golfer performance data normalized to baseline conditions. In some examples, the processing engine calculates one or more air density variations based on, for example, temperature, pressure, and humidity data, and / or determines kinematic viscosity effects on ball flight characteristics, and / or processes wind vector components for multiple directional scenarios.

[0060] In some examples, the processing operations described herein may be performed by processing circuitry integrated within the communication-enabled laser range finder 200 itself, rather than exclusively by the networked processing device 300. The communication-enabled laser range finder 200 may incorporate an onboard processing unit with sufficient computational capabilities to execute the atmospheric physics calculations, wind vector analysis, and club recommendation algorithms locally. In such configurations, the communication-enabled laser range finder 200 may receive the golfer-specific shot performance data from the networked processing device 300 during an initial setup or synchronization phase, store this data in local memory, and subsequently perform all real-time calculations without requiring continuous wireless connectivity during play.

[0061] The onboard processing unit of the communication-enabled laser range finder 200 may include specialized hardware configured to perform complex mathematical operations including air density calculations based on temperature, pressure, and humidity parameters obtained from weather data sources, kinematic viscosity determinations affecting ball flight physics, multi-directional wind vector decomposition, and integration of these environmental factors with stored golfer-specific launch parameters. This distributed processing architecture provides enhanced reliability in environments where wireless connectivity may be intermittent or unavailable, while maintaining the full functionality of environmentally-adjusted club recommendations.

[0062] In alternative examples, the processing operations may be distributed across multiple devices or systems. The initial atmospheric data acquisition and preliminary calculations may be performed by the networked processing device 300, while final club selection algorithms and display formatting operations are executed by processing circuitry within the communication-enabled laser range finder 200. In yet further examples, some or all processing operations may be performed by remote server systems accessible through internet connectivity 400, with calculation results transmitted to either the networked processing device 300 or directly to the communication-enabled laser range finder 200 for presentation to the user.

[0063] In some examples, the software 301 performs real-time calculations determining distance achievable for each club under prevailing air density and kinematic viscosity conditions, accounting for aspects such as: temperature-dependent air density calculations affecting drag coefficients, humidity-based kinematic viscosity determinations influencing ball flight physics, wind vector decomposition for multiple directional scenarios, height-adjusted atmospheric pressure calculations, and / or integration with golfer-specific launch parameters (such as ball speed, backspin rate, launch angle).

[0064] In some examples, the networked processing device 300 implements a data management system storing golfer-specific shot performance data including ball launch speed, backspin rate, launch angle, and horizontal carry distance, normalized to standard atmospheric conditions. The system maintains this performance baseline data for comparison with real-time environmental calculations, enabling the determination of effective distances that account for prevailing atmospheric conditions.

[0065] Thus, with reference again to FIG. 1, an example system for adapting golf play to prevailing conditions allows the golfer 100 to determine, in a scientifically sound manner, which club to use to get the ball to a desired target or location on the golf course, making use of stored information about his personal shot performance as well as the local weather conditions including atmospheric characteristics and wind.

[0066] In order to do this, the golfer 100 uses the personal networked processing device 300, for example a personal smartphone, to run the software application 301 that may have access to the golfer's shot performance data for each of his (or her) golf clubs, normalized to standard atmospheric conditions and wind-less conditions, stored in a database, for example.

[0067] During a golf game, the golfer 100 operates the software application 301 on the networked processing device 300 to obtain from a suitable source, such as an online weather service 500, by way of an internet connection 400, the local weather conditions for the location of the golf course, including atmospheric and wind conditions. The weather condition information can be obtained one or more times during the game.

[0068] The golfer 100 also uses the communication-enabled laser range finder 200 configured to be used on a golf course, able to perform the measurements such as slope distance, horizontal distance, slope angle, and height difference between one position on the golf course being the position from where the ball will be played from, and another position on the golf course being a target position 600 where the golfer 100 intends or wishes the golf ball to land. In addition, the communication-enabled laser range finder 200 is programmed to perform additional functions, may include additional controls to set or adjust a wind direction indication, and may include a display 201 (see FIG. 2) able to display additional data such as a wind direction setting 205, effective distance 207, and a club recommendation 206.

[0069] During play, the golfer 100 uses the communication-enabled laser range finder 200 at the position from where the golfer 100 wants to play the ball, measures the target distance 700 (FIG. 1), and optionally also the slope and height difference to the target 600 where he (or she) chooses to play the ball to. Measurements of true target distance 203 and target height difference 204 are displayed to the golfer 100 on the range finder display 201.

[0070] The range finder 200 and the software 301 running on the networked processing device 300 communicate with each by means of a wireless data connection 800 between the devices. The range finder 200 transmits the measured true target distance 203 and the target height difference 204 to the software application 301 through the wireless data connection 800. The software application 301 processes these measurements together with the golfer's stored shot performance data and the available local weather data to calculate achievable carry distances for each of the golfer's clubs, for multiple wind directions. The software application 301 selects, for each wind direction, a club that best matches the desired target distance, and transmit this data to the range finder 200 through the wireless data connection 800.

[0071] In some examples, the golfer 100, still operating the communication-enabled laser range finder 200, uses controls on the range finder 200 to adjust a control on the communication-enabled laser range finder's display 201 to indicate the wind direction relative to the pointing direction of the range finder 205, according to the golfer's senses and / or interpretation of the prevailing environmental conditions.

[0072] In some examples, a wind direction setting made by the golfer 100 is used by the communication-enabled laser range finder 200 as a filter on the data so that the club and the achievable distance with the club determined for the set wind direction only is displayed.

[0073] In this manner, the golfer 100 is enabled in some examples to make appropriate, more optimal, club choices while playing golf, adapting to changing weather and location conditions.

[0074] In some instances, for example under extreme weather conditions or by inappropriate target selection by the golfer, it is possible that the calculations performed by the software 301 does not find a club with which the golfer can achieve the desired target distance for some or all of the wind directions. In such a case, the golfer 100 will be required to choose a different, more realistic target and repeat the process.

[0075] Some alternative configurations of this disclosure include examples in which the golfer 100 can enter local atmospheric and wind conditions in the software, obtained from a source other than an online weather data service. Further alternate configurations include examples in which the golfer can view the calculated performance of any of his clubs under the prevailing conditions, and select a club instead of using a club recommended by the system.

[0076] Further configurations include examples in which the required shot distance and prevailing atmospheric and wind conditions are not used in a numerical calculation but instead are used as inputs to data in a lookup table format, to determine the expected shot distances and club recommendations. In yet further examples, the influence of wind speed and direction to predict the golf ball flight includes an allowance for height variation of wind speed.

[0077] In some examples, the laser range finder 200 is configured to allow the golfer 100 to select or enter a relative wind direction, communicate measurements and wind direction to another device, receiving from the other device and displaying a modified target distance value as well as a golf club recommendation.

[0078] Special purpose software operating on the networked processing device 300 is able to communicate with the configured range finder 200 and receive measurements and wind direction, obtain prevailing atmospheric and wind speed data from an available weather data source, calculate a modified target distance value based on the prevailing conditions, and determine from a prior set of club performance data for a particular golfer, and determine a recommended club to use.

[0079] Some examples are able to accept manually entered atmospheric and wind speed data that the golfer 100 has obtained from an alternate source or has determined in another way, and calculate a modified target distance value based on the prevailing conditions, determine from a prior set of club performance data for a particular golfer, and determine a recommended club to use.

[0080] An example system for adapting golf play to prevailing conditions thus comprises two main components: a networked processing device 300 and a communication-enabled laser range finder 200, each with specific construction and functionality designed to work in tandem for adapting golf play to prevailing conditions.

[0081] The networked processing device 300 is configured to run a specialized software application that serves as the computational core of the system. This device contains stored data of the golfer's shot performance, including ball launch speed, backspin rate, launch angle, and horizontal carry distance. This data represents the golfer's performance at their usual playing location, referred to as “home conditions,” and may be normalized to standard atmospheric and zero wind conditions.

[0082] The networked processing device's software is designed to obtain local weather data from a weather data source, including atmospheric and wind data. It can connect to and communicate with the associated laser range finder, receiving measurements taken by the range finder. The software performs calculations using the range finder measurements, local weather data, and the golfer's shot performance data to determine achievable distances for each club under prevailing conditions.

[0083] The communication-enabled laser range finder 200 is programmed to perform standard range finder functions such as measuring slope distance, horizontal distance, slope angle, and height difference between the golfer's position and the target position on the golf course.

[0084] Additionally, it incorporates several unique features that distinguish it from conventional range finders.

[0085] In some examples, the communication-enabled laser range finder 200 incorporates enhanced processing capabilities configured to execute environmental analysis algorithms independent of external processing devices. The communication-enabled laser range finder 200 may include onboard memory storing golfer-specific shot performance data including ball launch speed, backspin rate, launch angle, and horizontal carry distance for multiple golf clubs, normalized to standard atmospheric conditions. Weather data acquisition functionality may be integrated within the communication-enabled laser range finder 200, enabling direct communication with online weather data services 500 through integrated wireless communication capabilities.

[0086] The processing circuitry within the communication-enabled laser range finder 200 may execute real-time atmospheric physics calculations integrating current environmental conditions with stored golfer performance data to determine achievable carry distances for each golf club under prevailing conditions. Wind vector analysis algorithms may process multi-directional wind scenarios in conjunction with measured target distances and slope calculations to generate club recommendations and effective shot distances. The display interface 201 may present calculated results including club recommendations 206, effective modified target distances 207, and environmental condition indicators without requiring data transmission to or from external processing devices.

[0087] In some examples, the communication-enabled laser range finder 200 incorporates an onboard processing engine configured with sufficient computational resources to execute the complete environmental analysis algorithm suite locally. The onboard processing engine may include specialized processors configured to perform real-time atmospheric physics calculations, including temperature-dependent air density computations, humidity-based kinematic viscosity determinations, and multi-directional wind vector analysis. The communication-enabled laser range finder 200 may be equipped with local memory storage containing pre-loaded golfer-specific shot performance data normalized to baseline atmospheric conditions, enabling autonomous calculation of effective shot distances without requiring continuous wireless connectivity during golf play.

[0088] The local processing architecture may enable the communication-enabled laser range finder 200 to obtain atmospheric data directly from integrated weather sensors or through periodic weather data downloads, store this environmental information locally, and perform complete club recommendation calculations using onboard computational resources. This self-contained processing capability provides enhanced system reliability in environments where wireless communication may be intermittent, while maintaining full environmental adaptation functionality. The communication-enabled laser range finder 200 may execute algorithms for determining air density variations based on local temperature, pressure, and humidity measurements, calculating kinematic viscosity effects on ball flight physics, processing wind vector components for multiple directional scenarios, and integrating these atmospheric calculations with stored golfer performance parameters to generate club recommendations and effective distance calculations.

[0089] In some examples, the communication-enabled laser range finder 200 is equipped with connectivity to the golfer's networked processing device, allowing it to send measurements to the networked processing device and receive calculated data in return. It is programmed to display not only the information measured by the range finder itself, such as distance and slope to a desired target, but also information received from the networked processing device, including a list of clubs and associated distances for multiple wind directions.

[0090] A convenient feature of the communication-enabled laser range finder 200 is its configuration to allow the golfer 100 to enter information related to the direction of the wind relative to the pointing direction of the range finder. In some examples, this input may be important for the system's ability to provide accurate recommendations based on current conditions.

[0091] In some examples, the communication-enabled laser range finder's display (see FIG. 2 for example) is configured to show a recommended club selection and a recommended distance (referenced to the golfer's home conditions) for the specific wind direction that the golfer enters. This customized display includes elements such as wind direction setting, effective distance, and club recommendation, providing the golfer with comprehensive information for decision-making.

[0092] In some examples, the networked processing device 300 and laser range finder 200 are designed to work together seamlessly through a wireless data connection, enabling real-time exchange of information and calculations to provide the golfer with accurate, condition-specific recommendations during play.

[0093] In some examples, golf equipment systems may be provided through distribution of a communication-enabled laser range finder 200 in combination with software application code configured for installation on golfer-owned networked processing devices 300. This distribution model enables golf equipment manufacturers to provide comprehensive environmental adaptation systems without requiring the provision of complete smart device hardware. The software application code may be distributed through digital download platforms, physical media, or integrated installation systems, and configured to establish wireless communication protocols with the associated communication-enabled laser range finder 200.

[0094] The software application code may be specifically programmed to interface with the communication-enabled laser range finder 200 through dedicated communication protocols, receive measurement data including target distances and slope calculations, access stored golfer-specific performance data, obtain real-time atmospheric information from weather data sources, and perform comprehensive environmental analysis calculations. The software may be configured to transmit calculated club recommendations and effective shot distances back to the communication-enabled laser range finder 200 for display through the enhanced display interface 201. This integrated hardware and software system provides complete environmental adaptation functionality while allowing golfers to utilize their existing smart device platforms.

[0095] The environmental processing software 301 may be configured for compatibility across multiple smart device platforms and operating systems, enabling broad deployment across diverse user hardware configurations. The software architecture may implement standardized communication protocols for interfacing with the communication-enabled laser range finder 200, ensuring consistent functionality regardless of the specific networked processing device 300 employed by individual golfers. Cross-platform compatibility features may include adaptive user interface elements configured to optimize display and interaction capabilities for different screen sizes, processing capabilities, and input methods available across various smart device platforms.

[0096] With reference again to FIG. 2, in some examples the communication-enabled laser range finder display 201 is technically configured with enhanced interface capabilities to present multiple categories of calculated data simultaneously. The display system implements a multi-zone interface presenting, for example: a wind direction setting 205, a true target distance 203, a target height difference 204, an effective modified target distance 207, and a club recommendation 206. The display technology provides real-time updates of calculated data received from the networked processing device processing engine.

[0097] FIG. 3 illustrates examples process steps for an example system for adapting golf play to prevailing conditions. The figure is divided into two main sections for the two main components: one for the networked processing device 300 (smart device) operations and another for the communication-enabled laser range finder 200 (range finder) operations.

[0098] The networked processing device 300 operations begin with running the software on the user's networked processing device 300. The software then connects to the range finder 200 and to a weather service, for example weather service 500. After establishing these connections, the software retrieves local weather conditions. The networked processing device 300 then waits to receive data from the range finder.

[0099] Once data is received from the communication-enabled laser range finder 200, the networked processing device software calculates an “effective distance” based on the received data and the local weather conditions. Following this calculation, the software looks up or selects a suitable golf club based on the effective distance and the golfer's stored performance data. Finally, the networked processing device sends this data (recommended club and effective distance) back to the range finder.

[0100] On the range finder side, the process begins when the communication-enabled laser range finder 200 is switched on. It then connects to the user's networked processing device 300. Once connected, the range finder 200 measures the target distance on the golf course. The golfer 100 then enters the tactile wind direction using the range finder's interface. This data (target distance and wind direction) is then sent to the networked processing device for processing.

[0101] After sending the data, the range finder 200 waits to receive the processed information back from the networked processing device. Once received, the range finder 200 displays the effective distance and recommended club on its screen. The process can then be repeated for subsequent shots, or ended when the golfer is finished using the system.

[0102] This flowchart demonstrates for some examples a continuous interaction between the networked processing device 300 and the communication-enabled laser range finder 200 highlighting how the intelligent system integrates real-time measurements, local weather data, and the golfer's personal performance metrics to provide tailored recommendations for each shot. The process is designed to be iterative, allowing the golfer to reassess and receive updated recommendations as conditions change throughout the game.

[0103] FIG. 4 illustrates further example process steps for an example system for adapting golf play to prevailing conditions, divided into two main processes: an assessment phase and a use phase.

[0104] A start assessment in the assessment phase begins with step 100, initiating the assessment. In step 110, the system assesses the golfer's performance. This operation includes collecting data on the golfer's shot characteristics using a launch monitor or similar device. Step 120 involves normalizing the collected data, which may include adjusting the performance metrics to standard atmospheric and zero wind conditions. In step 130, the normalized data is uploaded to the golfer's networked processing device 300. The assessment process concludes with step 140, indicating that the system is ready for use.

[0105] A start use in the use phase begins with step 200. In step 210, a communication-enabled laser range finder 200 is connected to the system. Step 220 involves obtaining local weather data, which may be retrieved from an online weather service or manually input by the user. The golf game starts in step 230.

[0106] During gameplay, step 240 involves measuring the distance to the target using the range finder. This data is then sent to the networked processing device 300 in step 245. In step 250, the system determines the best club and calculates the effective distance under “home conditions” based on the current environmental factors and the golfer's normalized performance data.

[0107] Step 260 involves sending the calculated club and distance recommendations back to the range finder 200. In step 270, the golfer 100 adjusts the wind direction using the range finder's interface. Finally, in step 280, the range finder displays the recommended club and distance for the specific wind direction entered by the golfer.

[0108] The process concludes with step 290, ending the current calculation cycle. This process can be repeated for subsequent shots throughout the round of golf.

[0109] This flowchart demonstrates the system's ability to integrate real-time measurements, local weather data, and the golfer's personal performance metrics to provide tailored recommendations for each shot. The iterative nature of the process allows for continuous adaptation to changing conditions throughout the game.

[0110] FIG. 5 illustrates a method 500 for adapting golf play to prevailing conditions, in accordance with an example. In operation 502, method 500 stores a golfer's shot performance data on a networked processing device. In operation 504, method 500 obtains local weather data; measuring distance to a target using a communication-enabled laser range finder. In operation 506, method 500 transmits the measured distance from the communication-enabled laser range finder to the networked processing device. In operation 508, method 500 calculates, by the networked processing device, achievable distances for each of the golfer's clubs under current conditions. In operation 510, method 500 selects a recommended club. In operation 512, method 500 transmits the recommended club from the networked processing device to the communication-enabled laser range finder. In operation 514, method 500 displays the recommended club on the communication-enabled laser range finder.

[0111] The method may also include receiving wind direction input on the communication-enabled laser range finder; and displaying a modified target distance on the communication-enabled laser range finder based on the wind direction input. The method may also include where storing the golfer's shot performance data includes: assessing the golfer's performance; normalizing the performance data; and uploading the normalized data to the networked processing device. The method may also include where obtaining local weather data includes retrieving data from an online weather service. The method may also include calculating a “home conditions”distance value for the golfer to aim for.

[0112] The method may also include where calculating achievable distances includes accounting for air density, kinematic viscosity, and wind speed for multiple wind directions. The method may also include storing all input and output data for future display and analysis. The method may also include allowing the golfer to view calculated performance for any club under prevailing conditions. The method may also include where selecting a recommended club includes using lookup tables to determine expected shot distances and club recommendations. The method may also include incorporating allowances for height variation of wind speed in predicting ball flight. Other technical features may be readily apparent to one skilled in the art from the following figures, descriptions, and claims.

[0113] FIG. 6 illustrates a method 600 for providing an environmentally-adjusted golf club recommendation, in accordance with an example. In block 602, method 600 wirelessly receives, at a networked processing device, a target distance measurement from a communication-enabled laser range finder. In block 604, method 600 obtains, by the networked processing device, real-time atmospheric data from a weather data source. In block 606, method 600 accesses, from memory of the networked processing device, stored golfer-specific shot performance data normalized to baseline atmospheric conditions. In block 608, method 600 calculates, by a processor of the networked processing device, an effective shot distance for one or more golf clubs by processing the real-time atmospheric data with the stored golfer-specific shot performance data. In block 610, method 600 determines a club recommendation by comparing the calculated effective shot distance with the target distance measurement. In block 612, method 600 wirelessly transmitting the club recommendation and the calculated effective shot distance to the communication-enabled laser range finder. In block 614, method 600 displays, on the communication-enabled laser range finder, the club recommendation and effective shot distance corresponding to a wind direction input received at the communication-enabled laser range finder.

[0114] The method may also include where calculating the effective shot distance includes one or more of determining an air density based on one or more of a temperature, a pressure, or a humidity from the real-time atmospheric data, calculating a kinematic viscosity effect on ball flight physics, processing a wind vector component for one or more wind directions, or applying a height-adjusted atmospheric pressure calculation based on a slope measurement.

[0115] The method may further include storing the target distance measurement, the atmospheric data, the calculated effective shot distance, and the club recommendation for future analysis. Other technical features may be readily apparent to one skilled in the art from the following figures, descriptions, and claims.

[0116] Some described examples of golf equipment systems integrating communication-enabled laser range finders with networked processing devices seek to provide technical solutions to a number of example technical problems, including the following:

[0117] First example technical problems involve environmental data integration and real-time processing bottlenecks in golf equipment systems. Current golf rangefinder devices operate as isolated measurement instruments that cannot dynamically integrate real-time atmospheric conditions with personalized golfer performance data to provide actionable equipment recommendations. Existing rangefinders may measure target distances and slope angles but lack the computational infrastructure and connectivity required to process complex environmental variables such as air density calculations, kinematic viscosity determinations, and multi-directional wind vector analysis in conjunction with individual golfer launch parameters including ball speed, backspin rate, and launch angle. This technical limitation prevents golfers from receiving equipment recommendations that account for varying atmospheric conditions that significantly influence ball flight physics during outdoor play.

[0118] Examples of the described technology provide technical solutions to these environmental data integration challenges through a specialized system architecture comprising a communication-enabled laser range finder 200 with wireless communication circuitry configured to establish bidirectional data transmission with a networked processing device 300 executing environmental processing software 301. The communication-enabled laser range finder can transmit measurement data including true target distance 203 and target height difference 204 to the networked processing device through wireless data connection protocols 800. The networked processing device may obtain real-time atmospheric data including air density, temperature, humidity, and wind conditions from online weather data services 500 and process this environmental information with stored golfer-specific shot performance data normalized to baseline atmospheric conditions. The software can perform complex atmospheric physics calculations determining air density variations based on temperature, pressure, and humidity parameters, calculate kinematic viscosity effects on ball flight characteristics, and apply wind vector analysis for multiple directional scenarios to determine achievable carry distances for each golf club under prevailing environmental conditions.

[0119] Second example technical problems include multi-variable calculation complexity and real-time computational processing limitations in golf equipment applications. The technical challenge involves simultaneously processing multiple environmental variables including temperature-dependent air density calculations, humidity-based kinematic viscosity determinations, and three-dimensional wind vector analysis while integrating this data with individual golfer performance parameters to calculate environmentally-adjusted equipment recommendations in real-time during golf play. Conventional golf equipment lacks the computational resources and algorithmic capability necessary to perform these complex physics calculations that account for how atmospheric conditions affect individual golfer performance data normalized to baseline conditions.

[0120] Some described examples provide technical solutions to multi-variable calculation complexity through implementation of a real-time data processing engine operating on the networked processing device that performs atmospheric physics calculations by integrating multiple data sources including communication-enabled laser range finder measurements, online weather service data, and stored golfer performance data. The processing engine may calculate air density variations affecting drag coefficients, determine humidity-based kinematic viscosity effects on ball flight physics, process wind vector decomposition for multiple directional scenarios, apply height-adjusted atmospheric pressure calculations, and integrate processed atmospheric conditions with golfer-specific launch parameters to determine achievable carry distances for each golf club under prevailing environmental conditions. The software can determine club recommendations by comparing calculated effective shot distances with target distance measurements and transmit these recommendations to the communication-enabled laser range finder for display to users.

[0121] Third example technical problems involve wireless communication and data synchronization limitations between golf measurement devices and processing systems. Current golf equipment lacks technical infrastructure for real-time bidirectional data communication between measurement devices such as rangefinders and external processing units capable of performing complex environmental calculations. Existing rangefinders cannot transmit measurement data to processing systems or receive calculated recommendations, creating technical gaps in data flow that prevent integration of environmental analysis with distance measurements during golf play.

[0122] Examples of the described technology herein seek to address wireless communication and data synchronization challenges through implementation of specific data transmission protocols configured for real-time exchange of measurement data and calculation results between the communication-enabled laser range finder and networked processing device. The wireless communication system may implement bidirectional data packet transmission protocols containing measurement data packets with target distance, slope angle, and height differential information, environmental input packets with wind direction settings and atmospheric conditions, calculation result packets containing club recommendations and effective distances for multiple wind vectors, and synchronization packets ensuring data consistency between devices. The communication-enabled laser range finder can receive processed calculation results including club recommendations 206 and effective distance calculations 207 from the networked processing device and present this information through an enhanced display interface 201 configured with multi-zone presentation capabilities.

[0123] Fourth example technical problems include user interface integration and display presentation limitations for complex calculated golf equipment data. The technical challenge involves creating display interfaces that can present real-time calculated environmental data including club recommendations for multiple wind directions and environmentally-adjusted effective distances while maintaining compact form factors and usability requirements for golf course applications. Conventional rangefinder displays may be technically limited to showing basic measurement data and cannot present complex calculated information derived from environmental analysis and performance data integration.

[0124] Some described examples herein seek to provide technical solutions to user interface integration challenges through implementation of enhanced display interface technology in the communication-enabled laser range finder configured with multi-zone interface capabilities to present multiple categories of calculated data simultaneously. The display system can implement presentation of one or more wind direction settings 205, one or more true target distances 203, one or more target height differences 204, one or more effective modified target distances 207, and one more club recommendations 206 with real-time updates of calculated data received from the networked processing device processing engine.

[0125] The display interface may filter and present club recommendations and effective shot distances according to wind direction input received through wind direction input controls configured to allow selection of wind direction relative to the pointing direction of the communication-enabled laser range finder. Users can adjust wind direction settings through dedicated controls, and the display interface may present only the club recommendations and effective shot distances corresponding to the selected wind direction, enabling golfers to receive targeted equipment recommendations based on their assessment of current environmental conditions.

[0126] In view of the above-described implementations of subject matter this application discloses the following list of examples, wherein one feature of an example in isolation or more than one feature of an example, taken in combination and, optionally, in combination with one or more features of one or more further examples are further examples also falling within the disclosure of this application.

[0127] In one aspect, a golf assistance system includes a communication-enabled laser range finder includes distance measurement circuitry configured to determine a target distance to a golf course target, wireless communication circuitry configured to transmit the target distance, a wind direction input control configured to receive a wind direction input, and a display interface configured to present calculated environmental data. The golf assistance system also includes a networked processing device including a processor and memory, the networked processing device configured to execute software that stores golfer-specific shot performance data normalized to baseline atmospheric conditions.

[0128] In some examples, the golf assistance system establishes a wireless communication with the communication-enabled laser range finder. The golf assistance system may receive the target distance from the communication-enabled laser range finder. The golf assistance system may also include obtain real-time atmospheric data including one or more or an air density, a temperature, a humidity, and a wind condition. The golf assistance system may also calculate an effective shot distance for one or more golf clubs by processing the atmospheric data with the golfer-specific shot performance data.

[0129] In some examples, the golf assistance system determines a club recommendation based on a comparison of the calculated effective shot distance with the target distance. The golf assistance system may transmit the club recommendation and effective shot distance to the communication-enabled laser range finder for a presentation in the display interface. The system may also calculate the effective shot distance by generating an output based on one or more of determining an air density based on one or more of a temperature, a pressure, or a humidity from the real-time atmospheric data, calculating a kinematic viscosity effect on ball flight physics, processing a wind vector component for one or more wind directions, or applying a height-adjusted atmospheric pressure calculation based on a slope measurement. The system may further include integrating an output with the golfer-specific shot performance data to determine an achievable carry distance for the one or more golf clubs under prevailing environmental conditions.

[0130] In some examples, the communication-enabled laser range finder further determines a slope and a height difference relative to the golf course target. The display interface may present at least the club recommendation and the effective shot distance filtered according to the wind direction input. The wind direction input control may be configured to allow a selection of the wind direction input relative to a pointing direction of the communication-enabled laser range finder. The system may also include where the wireless communication circuitry implements bidirectional data packet transmission protocols configured for real-time exchange of measurement data and calculation results between the communication-enabled laser range finder and the networked processing device. The system may also include where the golfer-specific shot performance data includes one more of: a ball launch speed, a backspin rate, a launch angle, or a horizontal carry distance data collected using a golf launch monitor and normalized to standard atmospheric conditions.

[0131] The system may also include where the display interface includes a multi-zone display configured to simultaneously present the target distance, the slope, the height difference, the wind direction input, the effective shot distance, and the club recommendation. The system may also include where the display interface is configured to filter and present only the club recommendation and the effective shot distance corresponding to the selected wind direction.

[0132] In one aspect, a system for adapting golf play to prevailing conditions, includes: a networked processing device configured to run a software application, and a communication-enabled laser range finder, where the networked processing device and the communication-enabled laser range finder are configured to communicate wirelessly, where the software application is configured to: store a golfer's shot performance data, obtain local weather data, receive measurements from the communication-enabled laser range finder, calculate achievable distances for each of the golfer's clubs under current conditions, select a recommended club, and transmit the recommended club to the communication-enabled laser range finder.

[0133] The system may also include where the golfer's shot performance data includes ball launch speed, backspin rate, launch angle, and horizontal carry distance for each club.

[0134] The system may also include where the communication-enabled laser range finder is configured to: measure distance, slope, and height difference to a target on a golf course; receive wind direction input from the golfer; display the recommended club and a modified target distance.

[0135] The system may also include where the software application is further configured to calculate a “home conditions” distance value for the golfer to aim for.

[0136] The system may also include where the local weather data includes atmospheric conditions and wind information. The system may also include where the software application is configured to calculate achievable distances based on air density, kinematic viscosity, and wind speed for multiple wind directions.

[0137] The system may also include where the communication-enabled laser range finder includes a display configured to show wind direction setting, effective distance, and club recommendation.

[0138] The system may also include where the networked processing device is configured to obtain local weather data from an online weather service.

[0139] The system may also include where the system is configured to allow manual input of weather conditions.

[0140] Some examples provide real-time, on-course recommendations based on current environmental conditions. By incorporating local weather data and the golfer's personal performance metrics, they offer immediate adaptations to changing conditions during play.

[0141] Some examples incorporate a golfer's unique performance characteristics in varying conditions. They utilizes stored data of the golfer's shot performance, including ball launch speed, backspin rate, launch angle, and horizontal carry distance, which represents the golfer's performance at their usual playing location.

[0142] Some examples include a user interface that allows for quick input and clear display of recommendations. The customized range finder includes additional controls to set or adjust wind direction indication and displays additional data such as effective distance and club recommendation.

[0143] Some examples provide a comprehensive solution by combining distance measurement, weather data, and personal performance metrics in one integrated system. This integration allows for more accurate and personalized recommendations.

[0144] Some examples enable real-time adaptability, providing instant recommendations based on current environmental conditions. This feature enables golfers to make informed decisions on club selection and shot distance for each shot.

[0145] Some examples utilizes a golfer's own performance data, tailoring recommendations to their specific abilities. This personalization accounts for the unique launch parameters of each golfer for each club. By accounting for multiple factors such as distance, slope, weather conditions, and personal performance data, the technology helps golfers make more informed choices on club selection and shot distance. This comprehensive analysis can lead to improved decision-making on the course.

[0146] Example systems can help golfers adjust their play when in unfamiliar environments or changing weather conditions. This adaptability is particularly useful when playing on courses in different locations where climate and associated weather conditions differ from the golfer's usual experience.

[0147] Some disclosed examples provide a more holistic, integrated, and personalized approach to adapting golf play to prevailing conditions, offering significant advantages over existing systems by addressing gaps in current golf technology and enhancing the golfer's experience and performance on the course.

[0148] The system may also include where the system is configured to use lookup tables for determining expected shot distances and club recommendations. Other technical features may be readily apparent to one skilled in the art from the following figures, descriptions, and claims.

[0149] In some examples, a golf assistance system comprises: a communication-enabled laser range finder comprising: distance measurement circuitry configured to determine a target distance to a golf course target; wireless communication circuitry configured to transmit the target distance; a wind direction input control configured to receive a wind direction input; and a display interface configured to present calculated environmental data; and a networked processing device comprising a processor and memory, the networked processing device configured to: execute software that stores golfer-specific shot performance data normalized to baseline atmospheric conditions; establish a wireless communication with the communication-enabled laser range finder; receive the target distance from the communication-enabled laser range finder; obtain real-time atmospheric data including one or more or an air density, a temperature, a humidity, and a wind condition; calculate an effective shot distance for one or more golf clubs by processing the atmospheric data with the golfer-specific shot performance data; determine a club recommendation based on a comparison of the calculated effective shot distance with the target distance; and transmit the club recommendation and effective shot distance to the communication-enabled laser range finder for a presentation in the display interface.

[0150] In some examples, calculating the effective shot distance comprises generating an output based on one or more of: determining an air density based on one or more of a temperature, a pressure, or a humidity from the real-time atmospheric data; calculating a kinematic viscosity effect on ball flight physics; processing a wind vector component for one or more wind directions; or applying a height-adjusted atmospheric pressure calculation based on a slope measurement.

[0151] In some examples, the system further comprises integrating the output with the golfer-specific shot performance data to determine an achievable carry distance for the one or more golf clubs under prevailing environmental conditions.

[0152] In some examples, the communication-enabled laser range finder further determines a slope and a height difference relative to the golf course target.

[0153] In some examples, the display interface comprises a multi-zone display configured to simultaneously present the target distance, the slope, the height difference, the wind direction input, the effective shot distance, and the club recommendation.

[0154] In some examples, the display interface presents at least the club recommendation and the effective shot distance filtered according to the wind direction input.

[0155] In some examples, the wind direction input control is configured to allow a selection of the wind direction input relative to a pointing direction of the communication-enabled laser range finder.

[0156] In some examples, the display interface is configured to filter and present only the club recommendation and the effective shot distance corresponding to the selected wind direction.

[0157] In some examples, the wireless communication circuitry implements bidirectional data packet transmission protocols configured for real-time exchange of measurement data and calculation results between the communication-enabled laser range finder and the networked processing device.

[0158] In some examples, the golfer-specific shot performance data includes one more of: a ball launch speed, a backspin rate, a launch angle, or a horizontal carry distance data collected using a golf launch monitor and normalized to standard atmospheric conditions.

[0159] In some examples, a computer-implemented method for providing an environmentally-adjusted golf club recommendation, comprising: wirelessly receiving, at a networked processing device, a target distance measurement from a communication-enabled laser range finder; obtaining, by the networked processing device, real-time atmospheric data from a weather data source; accessing, from memory of the networked processing device, stored golfer-specific shot performance data normalized to baseline atmospheric conditions; calculating, by a processor of the networked processing device, an effective shot distance for one or more golf clubs by processing the real-time atmospheric data with the stored golfer-specific shot performance data; determining a club recommendation by comparing the calculated effective shot distance with the target distance measurement; wirelessly transmitting the club recommendation and the calculated effective shot distance to the communication-enabled laser range finder; and displaying, on the communication-enabled laser range finder, the club recommendation and effective shot distance corresponding to a wind direction input received at the communication-enabled laser range finder.

[0160] In some examples, calculating the effective shot distance comprises one or more of: determining an air density based on one or more of a temperature, a pressure, or a humidity from the real-time atmospheric data; calculating a kinematic viscosity effect on ball flight physics; processing a wind vector component for one or more wind directions; or applying a height-adjusted atmospheric pressure calculation based on a slope measurement.

[0161] In some examples, the method further comprises: storing the target distance measurement, the atmospheric data, the calculated effective shot distance, and the club recommendation for future analysis.

[0162] In some examples, a system for adapting golf play to prevailing conditions, comprises: a networked processing device configured to run a software application; and a communication-enabled laser range finder; wherein the networked processing device and the communication-enabled laser range finder are configured to communicate wirelessly; wherein the software application is configured to: store a golfer's shot performance data; obtain local weather data; receive a measurement from the communication-enabled laser range finder; calculate an achievable distance for a golf club under current conditions; select a recommended club; and transmit the recommended club to the communication-enabled laser range finder.

[0163] In some examples, the golfer's shot performance data includes ball launch speed, backspin rate, launch angle, and horizontal carry distance for each club.

[0164] In some examples, the communication-enabled laser range finder is configured to: measure distance, slope, and height difference to a target on a golf course; receive wind direction input from the golfer; display the recommended club and a modified target distance.

[0165] In some examples, the software application is further configured to calculate a “home conditions” distance value for the golfer to aim for.

[0166] In some examples, the software application is configured to calculate achievable distances based on air density, kinematic viscosity, and wind speed for multiple wind directions.

[0167] In some examples, the communication-enabled laser range finder comprises a display configured to show wind direction setting, effective distance, and club recommendation.

[0168] In some examples, a method for adapting golf play to prevailing conditions comprises: storing or accessing a golfer's shot performance data on a networked processing device; obtaining local weather data; measuring distance to a target using a communication-enabled laser range finder; transmitting the measured distance from the communication-enabled laser range finder to the networked processing device; calculating, by the networked processing device, an achievable distance for a golf club under current conditions; selecting a recommended club; transmitting data relating to the recommended club from the networked processing device to the communication-enabled laser range finder; and displaying at least some data relating to the recommended club on the communication-enabled laser range finder.

[0169] In some examples, a communication-enabled laser range finder comprises: distance measurement circuitry configured to determine a target distance to a golf course target; processing circuitry configured to execute atmospheric analysis software; memory configured to store golfer-specific shot performance data normalized to baseline atmospheric conditions; wireless communication circuitry configured to obtain real-time atmospheric data; a wind direction input control; and a display interface; wherein the processing circuitry is configured to: calculate an effective shot distance for one or more golf clubs by processing the real-time atmospheric data with the golfer-specific shot performance data; determine a club recommendation based on comparison of the calculated effective shot distance with the target distance; and present the club recommendation and effective shot distance on the display interface.

[0170] In some examples, a golf equipment system comprises: communication-enabled laser range finder with onboard processing capability and functionality; and software application code configured for execution on a networked processing device; wherein the communication-enabled laser range finder and software application are configured to cooperatively provide environmentally-adjusted golf club recommendations by: obtaining golfer-specific shot performance data through the software application; transmitting the golfer-specific shot performance data from the networked processing device to the communication-enabled laser range finder; obtaining real-time atmospheric data; calculating an effective shot distance for a golf club based on integration of the atmospheric data with the golfer-specific shot performance data; and displaying a club recommendation on the communication-enabled laser range finder.

[0171] In some examples, a method for providing golf equipment comprises: providing a communication-enabled laser range finder configured with processing circuitry and display capabilities; providing software application code configured for installation on a user's networked processing device; configuring the software application code to store and transmit golfer-specific shot performance data to the communication-enabled laser range finder; configuring the communication-enabled laser range finder to receive the golfer-specific shot performance data and perform an environmentally-adjusted club recommendation calculation; and configuring the communication-enabled laser range finder display to present a calculated club recommendation and effective shot distance.

[0172] In some examples, a non-transitory computer-readable media is provided that stores software application code that, when executed by a processing device, configures the processing device to: store golfer-specific shot performance data normalized to baseline atmospheric conditions; establish a wireless communication with a communication-enabled laser range finder; receive a target distance measurement from the communication-enabled laser range finder; obtain real-time atmospheric data from a weather data source; calculate an effective shot distance for a golf club by processing the atmospheric data with the golfer-specific shot performance data; determine a club recommendation based on a comparison of the calculated effective shot distance with the target distance measurement; and transmit the club recommendation to the communication-enabled laser range finder.

[0173] In some examples. a golf equipment system comprises: a communication-enabled laser range finder configured with processing circuitry, wireless communication capabilities, and display functionality; and software application code configured for installation on a networked processing device; wherein the communication-enabled laser range finder and software application code are configured to cooperatively: obtain golfer-specific shot performance data normalized to baseline atmospheric conditions; measure a target distance and a slope angle to a golf course target; acquire real-time atmospheric data including air density, temperature, humidity, and wind conditions; calculate an effective shot distance for one or more golf clubs by integrating the atmospheric data with the golfer-specific shot performance data; determine one or more club recommendations by comparing calculated effective shot distances with measured target distances; and display the one or more club recommendations and effective shot distances on the communication-enabled laser range finder.

[0174] In some examples, a method of providing golf assistance equipment comprises: providing a communication-enabled laser range finder with onboard processing capabilities and wireless communication circuitry; providing software application code configured for installation on a user-owned networked processing device; configuring the software application code to establish wireless communication with the communication-enabled laser range finder; configuring the software application code to perform environmental analysis calculations using golfer-specific shot performance data and real-time atmospheric conditions; and configuring the communication-enabled laser range finder to display one or more calculated club recommendations and one or more effective shot distances received from the software application.

[0175] In some examples, a communication-enabled laser range finder comprises: distance measurement circuitry configured to measure a target distance and a slope angle; processing circuitry configured to execute atmospheric analysis algorithms; memory configured to store golfer-specific shot performance data normalized to baseline atmospheric conditions; atmospheric data acquisition circuitry configured to obtain real-time weather conditions; a wind direction input control; and a display interface configured to present one or more calculated club recommendations; wherein the processing circuitry is configured to: calculate an effective shot distance for one or more golf clubs by processing real-time atmospheric data with stored golfer-specific shot performance data; determine one or more club recommendations based on comparison of the effective shot distance with a measured target distance; and control the display interface to present one or more club recommendations and the effective shot distance corresponding to a wind direction input.

[0176] In some examples, the processing circuitry is configured to: calculate air density variation based on one or more of a temperature, a pressure, or humidity data; determine a kinematic viscosity effect on ball flight physics; process one or more wind vector components for multiple directional scenarios; and apply a height-adjusted atmospheric pressure calculation based on the target distance or the slope angle.

[0177] In some examples, a golf assistance system comprises: a communication-enabled laser range finder with onboard processing capabilities; software application code for execution on a networked processing device; wherein processing operations are distributed between the communication-enabled laser range finder and the networked processing device, and wherein: the networked processing device obtains and processes real-time atmospheric data; the communication-enabled laser range finder stores golfer-specific shot performance data and performs one or more club recommendation calculations using atmospheric data received from the networked processing device; and the communication-enabled laser range finder displays one or more club recommendations and one or more effective shot distances.

[0178] It should be noted that the description and the figures above merely illustrate the principles of the present subject matter along with examples described herein and should not be construed as a limitation to the present subject matter. It is thus understood that various arrangements may be devised that although not explicitly described or shown herein, embody the principles of the present subject matter. Moreover, all statements herein reciting principles, aspects, and implementations of the present subject matter, as well as specific examples thereof, are intended to encompass equivalents thereof.

[0179] It is to be understood that not necessarily all objects or advantages may be achieved in accordance with any particular example described herein. Thus, for example, those skilled in the art will recognize that some examples may be operated in a manner that achieves or optimizes one advantage or group of advantages as taught herein without necessarily achieving other objects or advantages as may be taught or suggested herein.

[0180] All of the processes described herein may be embodied in, and fully automated via, software code modules executed by a computing system that includes computers or processors. The code modules may be stored in any type of non-transitory computer-readable medium or other computer storage device. Some or all the methods may be embodied in specialized computer hardware.

[0181] Many other variations than those described herein will be apparent from this disclosure. For example, depending on the example, some acts, events, or functions of any of the algorithms described herein can be performed in a different sequence, can be added, merged, or left out altogether (for example, not all described acts or events are necessary for the practice of the algorithms). Moreover, in some examples, acts or events can be performed concurrently, for example, through multi-threaded processing, interrupt processing, or multiple processors or processor cores, or on other parallel architectures, rather than sequentially. In addition, different tasks or processes can be performed by different machines and / or computing systems that can function together.

[0182] Various logical blocks and modules may be used in connection with the examples disclosed herein can be implemented or performed by a machine, such as a processing unit or processor, a digital signal processor (DSP), an application specific integrated circuit (ASIC), a field programmable gate array (FPGA) or other programmable logic device, discrete gate or transistor logic, discrete hardware components, or any combination thereof designed to perform the functions described herein. A processor can be a microprocessor, but in the alternative, the processor can be a controller, microcontroller, or state machine, combination of the same, or the like. A processor can include electrical circuitry to process computer-executable instructions. In some examples, a processor includes an FPGA or other programmable device that performs logic operations without processing computer-executable instructions. A processor can also be implemented as a combination of computing devices, for example, a combination of a DSP and a microprocessor, a plurality of microprocessors, microprocessors in conjunction with a DSP core, or any other such configuration.

[0183] Although described herein primarily with respect to digital technology, a processor may also include primarily analog components. A computing environment can include any type of computer system, including, but not limited to, a computer system based on a microprocessor, a mainframe computer, a digital signal processor, a portable computing device, a device controller, or a computational engine within an appliance, to name a few. The elements of a method, process, routine, or algorithm described in connection with the embodiments disclosed herein can be embodied directly in hardware, in a software module executed by a processor device, or in a combination of the two. A software module can reside in RAM memory, flash memory, ROM memory, EPROM memory, EEPROM memory, registers, hard disk, a removable disk, a CD-ROM, or any other form of a non-transitory computer-readable storage medium. An exemplary storage medium can be coupled to the processor device such that the processor device can read information from, and write information to, the storage medium. In the alternative, the storage medium can be integral to the processor device. The processor device and the storage medium can reside in an ASIC. The ASIC can reside in a user terminal. In the alternative, the processor device and the storage medium can reside as discrete components in a user terminal.

[0184] The processes described herein or illustrated in the figures of the present disclosure may begin in response to an event, such as on a predetermined or dynamically determined schedule, on demand when initiated by a user or system administrator, or in response to some other event. When such processes are initiated, a set of executable program instructions stored on one or more non-transitory computer-readable media (e.g., hard drive, flash memory, removable media, etc.) may be loaded into memory (e.g., RAM) of a server or other computing device. The executable instructions may then be executed by a hardware-based computer processor of the computing device. In some embodiments, such processes or portions thereof may be implemented on multiple computing devices and / or multiple processors, serially or in parallel.

[0185] Although the described flow diagrams herein can show operations as a sequential process, many of the operations can be performed in parallel or concurrently. In addition, the order of the operations may be re-arranged. A process is terminated when its operations are completed. A process may correspond to a method, a procedure, an algorithm, etc. The operations of methods may be performed in whole or in part, may be performed in conjunction with some or all of the operations in other methods, and may be performed by any number of different systems, such as the systems described herein, or any portion thereof, such as a processor included in any of the systems.

[0186] Conditional language such as, among others, “can,”“could,”“might” or “may,” unless specifically stated otherwise, are otherwise understood within the context as used in general to convey that some examples include, while other examples do not include, some features, elements and / or steps. Thus, such conditional language is not generally intended to imply that features, elements and / or steps are in any way for examples or that examples necessarily include logic for deciding, with or without user input or prompting, whether these features, elements and / or steps are included or are to be performed in any particular example.

[0187] Disjunctive language such as the phrase “at least one of X, Y, or Z,” unless specifically stated otherwise, is otherwise understood with the context as used in general to present that an item, term, etc., may be either X, Y, or Z, or any combination thereof (for example, X, Y, and / or Z). Thus, such disjunctive language is not generally intended to, and should not, imply that some examples require at least one of X, at least one of Y, or at least one of Z to each be present.

[0188] Any process descriptions, elements or blocks in the flow diagrams described herein and / or depicted in the attached figures should be understood as potentially representing modules, segments, or portions of code which include executable instructions for implementing specific logical functions or elements in the process. Alternate examples are included within the scope of the examples described herein in which elements or functions may be deleted, executed out of order from that shown, or discussed, including substantially concurrently or in reverse order, depending on the functionality involved as would be understood by those skilled in the art.

[0189] It should be emphasized that many variations and modifications may be made to the above-described examples, the elements of which are to be understood as being among other acceptable examples. All such modifications and variations are intended to be included herein within the scope of this disclosure.

[0190] Any process descriptions, elements or blocks in the flow diagrams described herein and / or depicted in the attached figures should be understood as potentially representing modules, segments, or portions of code which include executable instructions for implementing specific logical functions or elements in the process. Alternate implementations are included within the scope of the examples described herein in which elements or functions may be deleted, executed out of order from that shown, or discussed, including substantially concurrently or in reverse order, depending on the functionality involved as would be understood by those skilled in the art.

[0191] Unless otherwise explicitly stated, articles such as “a” or “an” should generally be interpreted to include one or more described items. Accordingly, phrases such as “a device configured to” are intended to include one or more recited devices. Such one or more recited devices can also be collectively configured to carry out the stated recitations. For example, “a processor configured to carry out recitations A, B, and C” can include a first processor configured to carry out recitation A working in conjunction with a second processor configured to carry out recitations B and C.

[0192] It will also be appreciated that one or more of the elements depicted in the drawings / figures can also be implemented in a more separated or integrated manner, or even removed or rendered as inoperable in certain cases, as is useful in accordance with a particular application.

Claims

1. A golf assistance system comprising:a communication-enabled laser range finder comprising:distance measurement circuitry configured to determine a target distance to a golf course target;wireless communication circuitry configured to transmit the target distance;a wind direction input control configured to receive a wind direction input; anda display interface configured to present calculated environmental data; anda networked processing device comprising a processor and memory, the networked processing device configured to:execute software that stores golfer-specific shot performance data normalized to baseline atmospheric conditions;establish a wireless communication with the communication-enabled laser range finder;receive the target distance from the communication-enabled laser range finder;obtain real-time atmospheric data including one or more or an air density, a temperature, a humidity, and a wind condition;calculate an effective shot distance for one or more golf clubs by processing the atmospheric data with the golfer-specific shot performance data;determine a club recommendation based on a comparison of the calculated effective shot distance with the target distance; andtransmit the club recommendation and effective shot distance to the communication-enabled laser range finder for a presentation in the display interface.

2. The system of claim 1, wherein calculating the effective shot distance comprises generating an output based on one or more of:determining an air density based on one or more of a temperature, a pressure, or a humidity from the real-time atmospheric data;calculating a kinematic viscosity effect on ball flight physics;processing a wind vector component for one or more wind directions; orapplying a height-adjusted atmospheric pressure calculation based on a slope measurement.

3. The system of claim 2, further comprising integrating the output with the golfer-specific shot performance data to determine an achievable carry distance for the one or more golf clubs under prevailing environmental conditions.

4. The system of claim 1, wherein the communication-enabled laser range finder further determines a slope and a height difference relative to the golf course target.

5. The system of claim 4, wherein the display interface comprises a multi-zone display configured to simultaneously present the target distance, the slope, the height difference, the wind direction input, the effective shot distance, and the club recommendation.

6. The system of claim 1, wherein the display interface presents at least the club recommendation and the effective shot distance filtered according to the wind direction input.

7. The system of claim 1, wherein the wind direction input control is configured to allow a selection of the wind direction input relative to a pointing direction of the communication-enabled laser range finder.

8. The system of claim 7, wherein the display interface is configured to filter and present only the club recommendation and the effective shot distance corresponding to the selected wind direction.

9. The system of claim 1, wherein the wireless communication circuitry implements bidirectional data packet transmission protocols configured for real-time exchange of measurement data and calculation results between the communication-enabled laser range finder and the networked processing device.

10. The system of claim 1, wherein the golfer-specific shot performance data includes one more of: a ball launch speed, a backspin rate, a launch angle, or a horizontal carry distance data collected using a golf launch monitor and normalized to standard atmospheric conditions.

11. A computer-implemented method for providing an environmentally-adjusted golf club recommendation, comprising:wirelessly receiving, at a networked processing device, a target distance measurement from a communication-enabled laser range finder;obtaining, by the networked processing device, real-time atmospheric data from a weather data source;accessing, from memory of the networked processing device, stored golfer-specific shot performance data normalized to baseline atmospheric conditions;calculating, by a processor of the networked processing device, an effective shot distance for one or more golf clubs by processing the real-time atmospheric data with the stored golfer-specific shot performance data;determining a club recommendation by comparing the calculated effective shot distance with the target distance measurement;wirelessly transmitting the club recommendation and the calculated effective shot distance to the communication-enabled laser range finder; anddisplaying, on the communication-enabled laser range finder, the club recommendation and effective shot distance corresponding to a wind direction input received at the communication-enabled laser range finder.

12. The method of claim 11, wherein calculating the effective shot distance comprises one or more of:determining an air density based on one or more of a temperature, a pressure, or a humidity from the real-time atmospheric data;calculating a kinematic viscosity effect on ball flight physics;processing a wind vector component for one or more wind directions; orapplying a height-adjusted atmospheric pressure calculation based on a slope measurement.

13. The method of claim 11, further comprising:storing the target distance measurement, the atmospheric data, the calculated effective shot distance, and the club recommendation for future analysis.

14. A system for adapting golf play to prevailing conditions, comprising:a networked processing device configured to run a software application; anda communication-enabled laser range finder;wherein the networked processing device and the communication-enabled laser range finder are configured to communicate wirelessly;wherein the software application is configured to:store a golfer's shot performance data;obtain local weather data;receive a measurement from the communication-enabled laser range finder;calculate an achievable distance for a golf club under current conditions;select a recommended club; andtransmit the recommended club to the communication-enabled laser range finder.

15. The system of claim 14, wherein the golfer's shot performance data includes ball launch speed, backspin rate, launch angle, and horizontal carry distance for each club.

16. The system of claim 14, wherein the communication-enabled laser range finder is configured to: measure distance, slope, and height difference to a target on a golf course;receive wind direction input from the golfer; display the recommended club and a modified target distance.

17. The system of claim 14, wherein the software application is further configured to calculate a “home conditions” distance value for the golfer to aim for.

18. The system of claim 14, wherein the software application is configured to calculate achievable distances based on air density, kinematic viscosity, and wind speed for multiple wind directions.

19. The system of claim 14, wherein the communication-enabled laser range finder comprises a display configured to show wind direction setting, effective distance, and club recommendation.

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