The present application is directed to golf club information systems and methods, particularly for use in configuring golf clubs to achieve desired results.
The center of gravity of a golf club head is one critical parameter of the club's performance. Upon impact, it greatly affects launch angle and flight trajectory of a struck golf ball. Thus, much effort has been made over positioning the center of gravity of golf club heads. To that end, current driver and fairway wood golf club heads are typically formed of lightweight, yet durable materials, such as steel or titanium alloys. These materials are typically used to form thin club head walls. Thinner walls are lighter, and thus result in greater discretionary weight, i.e., weight available for redistribution around a golf club head. Greater discretionary weight allows golf club manufacturers more leeway in assigning club mass to achieve desired golf club head mass distributions.
Various approaches have been implemented for positioning discretionary mass about a golf club head. Many club heads have integral sole weight pads cast into the head at predetermined locations to lower the club head's center of gravity. Also, epoxy may be later added to the interior of the club head through the club head's hosel opening to obtain a final desired weight of the club head. To achieve significant localized mass, weights formed of high-density materials have been attached to the sole. With these weights, the method of installation is critical because the club head endures significant loads at impact with a golf ball, which can dislodge the weight. Thus, such weights are usually permanently attached to the club head and are limited in total mass. This, of course, permanently fixes the club head's center of gravity.
Golf swings vary among golfers, but the total weight and center of gravity location for a given club head is typically set for a standard, or ideal, swing type. Thus, even though the weight may be too light or too heavy, or the center of gravity is too far forward or too far rearward, the golfer cannot adjust or customize the club weighting to his or her particular swing. Rather, golfers often must test a number of different types and/or brands of golf clubs to find one that is suited for them. This approach may not provide a golf club with an optimum weight and center of gravity and certainly would eliminate the possibility of altering the performance of a single golf club from one configuration to another and then back again.
It should, therefore, be appreciated that there is a need for a system for adjustably weighting a golf club head that allows a golfer to fine-tune the club head to accommodate his or her swing. The present application fulfills this need and others.
Disclosed below are representative embodiments that are not intended to be limiting in any way. Instead, the present disclosure is directed toward novel and nonobvious features, aspects, and equivalents of the embodiments of the golf club information system described below. The disclosed features and aspects of the embodiments can be used alone or in various novel and nonobvious combinations and sub-combinations with one another.
Briefly, and in general terms, the present application describes a golf club information system and associative methods of using the same that allows a golfer to fine-tune a golf club for his or her swing. According to some embodiments, the golf club includes a removable weight, which may be at various predetermined locations about the golf club head. The golf club may include a plurality of weights, including weights of different mass. Varying placement of the weights enables a golfer to vary impact conditions in the club head, for producing desired golf ball motion paths for a golf ball struck by the golf club.
According to one aspect, an information system for determining golf club head configurations includes a first member with a graphic depicting a golf club head having at least one opening positioned at predetermined locations on the graphic. The information system further includes a second member with marks corresponding to at least one golf club head configuration. The first member and second member are rotatable relative to each other to display at least some of the marks on the second member within the openings in the first member to convey golf club head configuration information.
According to another aspect, a system for achieving a desired golf ball motion path is described. The system includes a golf club with removable weights capable of arrangement in a plurality of weight configurations and a device with a visual representation of multiple predicted golf ball motion paths correlated to some of the plurality of configurations for the golf club. The device also includes instructions for reconfiguring the golf club according to a selected predicted golf ball motion path that best approximates the desired golf ball motion path.
In another embodiment, an information system for providing information for selecting a golf club configuration to achieve a desired golf ball motion path for a golf ball struck by the golf club is described. This embodiment includes a member with a first set of indicia that represent multiple predicted golf ball motion paths and a second set of indicia that represent instructions to reconfigure the golf club according to a selected predicted golf ball motion path. The first set of indicia may represent predicted golf ball motion paths in a graphical format illustrating the flight characteristics of the predicted golf ball motion paths relative to each other. Predicted golf ball motion paths and desired golf ball motion paths may include a trajectory component, a shot shape component and a swingweight component. The second set of indicia includes instructions on how to redistribute or increase/decrease the mass of the golf club. In one embodiment, the first member may be rotatably coupled to the second member. The first member may include a graphic of a golf club head with openings located at various positions on the golf club head. The second set of indicia may specifically include groupings of marks that correspond to instructions on how to reconfigure the golf club and are viewable through the openings on the first member. According to yet another embodiment as herein described, the information system can include a third member positioned between and rotatably coupled to the first and second members. The third member may include several groupings of openings that correspond to respective predicted golf ball motion paths having respective swingweights. The groupings of marks on the second member are viewable through the openings on the first and third members, respectively. In another embodiment, the information system includes an electronic device with a display, such as a personal digital assistant (PDA) or a wireless telephone, where the first set of indicia and the second set of indicia are viewable on the display.
According to another embodiment, a golf accessory for determining proper golf club head configurations for a given golf club for achieving desired golf ball motion paths is described. The embodiment includes a visual representation of multiple predicted golf ball motion paths correlated to golf club head configurations for a single golf club and a device with instructions for reconfiguring the golf club according to a selected one of the predicted golf ball motion paths that best approximates one of the desired golf ball motion paths. The device may include an instruction wheel or an electronic device capable of displaying at least the instructions, such as a PDA or a cellular telephone.
The present disclosure also describes a method for adapting a golf club to achieve a desired motion path for a golf ball struck by the golf club. One embodiment of the method includes providing a database comprising a plurality of predicted golf ball motion paths, with each of the predicted golf ball motion paths having a corresponding golf club head configuration. A desired golf ball motion path is determined and a golf club head configuration corresponding to a predicted golf ball motion path that approximates the desired golf ball motion path is selected from the database. The golf club head is then checked, and if necessary, reconfigured to achieve the selected golf club head configuration by changing a total mass or redistributing a portion of the total mass of the golf club. According to one embodiment, a golf ball is struck with the reconfigured golf club and the motion path the golf ball follows is observed. The observed golf ball motion path is compared with the desired golf ball motion path for discrepancies.. Following substantially the process above, the golf club is reconfigured to compensate for differences between the observed golf ball motion path and the desired golf ball motion path.
An embodiment of a method for calculating a predetermined golf ball motion path for a reconfigurable golf club head with removable weights is also described. According to the method, a reconfigurable golf club having a golf club configuration is provided. The predicted golf ball motion path that corresponds with the golf club configuration is then determined by using a golf information system.
A method for configuring a golf club head with removable weights is described herein. One embodiment of the method includes providing a device that has information relating to a plurality of golf club head mass configurations that correspond with desired golf ball flight paths. The method further includes selecting a golf club head mass configuration and altering the mass distribution of the golf club head to achieve the selected golf club head mass configuration. The golf club head mass configuration is altered by removing a first removable weight with a first mass and replacing it with a second removable weight having a second mass.
An information system for determining proper golf club head configurations for achieving desired golf ball motion paths is described. The information system includes storage means for storing a plurality of predicted golf ball motion paths and a plurality of golf club head configurations. The system also includes selecting means for selecting a golf club head configuration that corresponds to a selected predicted golf ball motion path. Additionally, the system includes display means for displaying golf club head configurations.
An information device for determining a golf club head configuration to achieve a desired golf ball motion path for a golf ball struck by the golf club is also described. The device includes a memory, a processor, a display and an input device. The memory stores a plurality of predicted golf ball motions paths and golf club head configurations. The processor is coupled to the memory and calculates a predicted golf ball motion path that approximates the desired golf ball motion path. The display is coupled to the processor and displays a golf club head configuration that is correlated to the predicted golf ball motion paths. The input device is coupled to the processor and receives user inputs.
Another embodiment of an information device for calculating proper golf club head configurations having inputting means for inputting golf ball motion paths, comparing means for comparing entered golf ball motion paths to predicted golf ball motion paths and displaying means for displaying golf club head configurations that best approximates the entered golf ball motion paths.
The present application also discloses an instruction wheel for calculating proper golf club head configurations. The instruction wheel includes a first member that has a graphic of a golf club head with first openings and a second member that has groupings of marks that correspond to a golf club head configuration. The first member and the second member are rotatably coupled such that each grouping is viewable through the first openings upon a proper rotational alignment of the first and second members. According to another embodiment, the instruction wheel includes a third member that has multiple sets of second openings. Each set corresponds to a predicted golf ball flight path and the groupings of marks are viewable through one of the multiple sets of second openings and the first openings upon a proper rotational alignment of the first, second and third members.
The foregoing and additional features and advantages of the disclosed embodiments will become more apparent from the following detailed description, which proceeds with reference to the following drawings.
The patent or application file contains at least one drawing executed in color. Copies of this patent or patent application publication with color drawing(s) will be provided by the Office upon request and payment of the necessary fee.
Disclosed below are representative embodiments that are not intended to be limiting in any way. Instead, the present disclosure is directed toward novel and nonobvious features, aspects and equivalents of the embodiments of the golf club information system described below. The disclosed features and aspects of the embodiments can be used alone or in various novel and nonobvious combinations and sub-combinations with one another.
Now with reference to the illustrative drawing, and particularly
An exemplary club head 28 includes four recesses 96, 98, 102, 104 disposed about the periphery of the club head 28 (
With reference to
Each of the weight assemblies 30 (
The kit 20 can be provided with a golf club at purchase, or sold separately. For example, a golf club can be sold with the torque wrench 22, the instruction wheel 26, and the weights 24 (e.g., two 10-gram weights 30 and two 2-gram weights 32) preinstalled. Kits 20 having an even greater variety of weights can also be provided with the club, or sold separately. In another embodiment, a kit 20 having eight weight assemblies is contemplated, e.g., a 2-gram weight, four 6-gram weights, two 14-gram weights, and an 18-gram weight. Such a kit 20 may be particularly effective for golfers with a fairly consistent swing, by providing additional precision in weighting the club head. Also, weights in prescribed increments across a broad range can be available. For example, weights 24 in one gram increments ranging from one gram to twenty-five grams can provide very precise weighting, which would be particularly advantageous for advanced and professional golfers. In such embodiments, weight assemblies 30 ranging between five grams and ten grams preferably use a mass element 34 comprising primarily a titanium alloy. Weight assemblies 30 ranging between ten grams to over twenty-five grams, preferably use a mass element 34 comprising a tungsten-based alloy, or blended tungsten alloys. Other materials, or combinations thereof, can be used to achieve a desired weight mass. However, material selection should consider other requirements such as durability, size restraints, and removability.
Torque Wrench
With reference now to
The shank 56 terminates in an engagement end, i.e., tip 60, configured to operatively mate with the weight screws 32 and the weight assembly screws 36 (
With reference now to
Weights
Generally, as shown in
With reference now to
The body 122 of the weight screw 32 includes an annular ledge 126 located in an intermediate region thereof. The ledge 126 has a diameter (dledge) greater than that of the threaded openings 110 defined in the recesses 96, 98, 102, 104 of the club head 28 (
With reference now to
The retaining element 38 defines an axial opening 88, exposing the socket 66 of the weight assembly screw head 82 and facilitating engagement of the wrench tip 60 in the socket 66 of the weight assembly screw 36. As mentioned above, the side wall of the socket 66 defines six lobes 90 that conform to the flutes 70 (
Club Head
As illustrated in
The sole 143 can also include a localized zone 189 proximate the face plate having a thickness between about 1 mm and 3 mm, and extending rearwardly away from the face plate a distance greater than about 5 mm. The skirt 145 includes a side portion of the golf club between the crown and the sole that extends across a periphery of the golf club head, excluding the face plate, from the toe portion 154, around the rear portion 155, to the heel portion 152.
With reference again to
The recesses 96, 98, 102, and 104 are each defined by a recess wall 106 defining a weight cavity 116 and a recess bottom 108. The recesses have a weight recess radial axis 167 defined as a longitudinal axis passing through a volumetric centroid, i.e., the center of mass or center of gravity, of the weight recess. The recess bottom 108 defines a threaded opening 110 for attachment of the weights 24. The threaded opening 110 is configured to receive and secure the threaded portion of the weight assembly screw body 80. In this embodiment, the threaded portions of the weight assembly 30 and weight screw 32, respectively, have M5×0.6 threads. The threaded opening 110 may be further defined by a boss 112 extending either inward or outward relative to the weight cavity 116. Preferably, the boss 112 has a length at least half the length of the body 80 of the weight assembly screw 36 and, more preferably, the boss 112 has a length 1.5 times a diameter of the body of the screw. As depicted in
As depicted in
To attach a weight assembly 30 in a recess of the club head 28, the threaded portion of the weight assembly screw body 80 is positioned against the threaded opening 110 of the recess. With the tip 60 of the wrench 22 inserted through the aperture 88 of the retaining element 38 and engaged in the socket 66 of the weight assembly screw 36, the user rotates the wrench to screw the weight assembly 30 in place. Pressure from the engagement of the weight assembly screw 36 provides a press fit of the mass element 34 to the recess. As sides of the mass element 34 slide tightly against the recess wall 106, the torque limiting mechanism of the wrench 22 prevents over-tightening of the weight assembly 30.
Weight assemblies 30 are also configured for easy removal, if desired. To remove, the user mates the wrench 22 with the weight assembly 30 and unscrews it from a club head 28. As the user turns the wrench 22, the head 82 of the weight assembly screw 36 applies an outward force on the retaining element 38, thereby extracting the mass element 34 from the weight cavity 116. A low friction material can be provided on surfaces of the retaining element 38 and the mass element 34 to facilitate free rotation of the head 82 of the weight assembly screw 36 with respect to the retaining element 38 and the mass element 34.
Information System
Described below are representative embodiments of approaches to providing a user with information to improve his or her golf game, and in particular, to adapt a golf club to the user's personal characteristics. As described below, the information includes instructions for modifying the golf club, and specifically, for changing its physical configuration, including the weight and/or weight distribution of the golf club head.
According to some embodiments, the information system provides information in an easy-to-use visual format, such as, e.g., in a table, chart, graph, database, matrix or other convenient format. Desirably, the system is organized in a manner allowing the user to select or extract specific information easily. Selection criteria that guide the user to the specific information are readily accessible, either as presented in a static format, or as embodied in a selector that may dynamically assist the user in retrieving the appropriate information.
According to some embodiments, the information system is a portable and easy-to-use graphical device. According to other embodiments, the information system is embodied for use on microprocessor-based devices, such as, but not limited to, computers, wireless telephones, personal digital assistants and other personal electronic devices, and other such devices.
As introduced above, the instruction wheel 26 is one specific implementation of the information system.
With reference now to
Each weight configuration (i.e., 1 through 6) corresponds to a particular effect on launch conditions and, therefore, a struck golf ball's motion path. In the first configuration, the club head CG is in a center-back location, resulting in a high launch angle and a relatively low spin-rate for optimal distance. In the second configuration, the club head CG is in a center-front location, resulting in a lower launch angle and lower spin-rate for optimal control. In the third configuration, the club head CG is positioned to induce a draw bias. The draw bias is even more pronounced with the fourth configuration. Whereas, in the fifth and sixth configurations, the club head CG is positioned to induce a fade bias, which is more pronounced in the sixth configuration.
In use according to one method, the golfer selects, from the various motion path chart descriptions, the desired effect on the ball's motion path. For example, if hitting into high wing, the golfer may choose a golf ball motion path with a low trajectory, (e.g., the second configuration). Or, if the golfer has a tendency to hit the ball to the right of the intended target, the golfer may choose a weight configuration that encourages the ball's shot shape to the left (e.g., the third and fourth configurations). Once the configuration is selected, the golfer rotates the wheel instruction 26 until the desired configuration number is visible in the center opening 42, i.e., an opening in the instruction wheel 26. The golfer then reads the weight placement for each of the four locations through openings, i.e., openings 48, 50, 52, 53 in the instruction wheel 26 as shown on the graphic 44 of the club head 28. The motion path description name is also conveniently shown along the outer edge 55 of the instruction wheel 26. For example, in
With reference to
An information device 132 that instructs the golfer or other user in selecting and configuring a golf club head configuration to achieve a desired golf ball motion path is shown in
Typically, a golf ball motion path can be divided into a trajectory component and a shot shape component, although other components may be devised. The trajectory component is the height and associated angle of the path a golf ball travels after being struck by a golf club. The trajectory component includes varying degrees of high, low and medium trajectory motion paths. The shot shape component includes a draw shot shape, fade shot shape or neutral shot shape motion path. The draw shot shape motion path is a motion path of a struck golf ball in which the ball curves gently right-to-left for a right-handed player, or left-to-right for a left-handed player. A fade shot shape motion path is a motion path of a struck golf ball in which the ball tends to curve gently from left to right, for a right-handed player, or right-to-left for a left-handed player. A neutral shot shape motion path is a motion path of a struck golf ball in which the ball tends to travel in a straight path. A predicted golf ball motion path is the golf ball motion path that a golf ball will consistently follow after being struck by a golf club with a particular golf club configuration and swung in a theoretically ideal manner.
The golf club configuration, including the weight and/or weight distribution of the golf club head, influences the particular golf ball motion path an its components, e.g., trajectory and shot shape, by affecting launch conditions of a golf ball struck by the golf club. Generally, the launch angle, i.e., the angle between the path followed by a golf ball struck by a golf club and the ground, affects the trajectory component. The higher the launch angle, the higher the trajectory; the lower the launch angle, the lower the trajectory. The spin rate, i.e., the rate a golf ball struck by a golf club spins around an axis of the golf ball that is substantially perpendicular to the ground, affects the shot shape component. For the right-handed golfer, the more spin in a counterclockwise direction looking down on the ball, the more draw the shot shape will have, and the more spin in a clockwise direction looking down on the ball, the more fade the shot shape will have.
In the embodiment shown in
The first member 134 includes a visual representation illustrating multiple predicted golf ball motion paths corresponding to respective golf club head physical configurations. For example, in the specific implementation of
In an exemplary embodiment shown in
In some embodiments, a graphic of the trajectory component and/or shot shape component associated with the predicted golf ball motion paths may correspond with the points on the graph. For example, as shown in
As shown in the specific embodiment of
According to one embodiment shown in
Conveniently, the correlated multiple marks 166 of
Another embodiment of a method is suited for an advanced or expert golfer, e.g. a golfer having a golf swing that tends to result in a struck golf ball flight path that insignificantly deviates from or is the same as an intended flight path. As shown in
In Step S1, a user can determine a desired golf ball motion path based on multiple factors. For example, if hitting into a strong wind, the user may desire a low trajectory motion path such as represented by predicted golf ball motion path point 146. As another example, if a golf course hole layout includes a dogleg right, i.e., a fairway of the hole extends in a generally left-to-right direction, a user may desire a fade shot shape motion path such as represented by predicted golf ball motion path 150 or 154. As yet another example, the golf ball lie, i.e., the position of a golf ball on a golf course hole when the ball is at rest, may influence the motion path the golf ball follows after being struck by a golf club. For example, a golf ball may be on an uphill lie, i.e., the ground proximate the ball and the user is generally increasing in elevation in a direction away from the user when the user is facing the golf ball, the golf ball tends to have a golf ball motion path with a draw shot shape. In this situation, a user may desire to offset the effects of the uphill lie by selecting a predicted golf ball motion path with a fade shot shape such as represented by predicted golf ball motion path 150 or 154. In contrast, a golf ball may have a downhill lie, i.e., the ground proximate the ball and the user is generally decreasing in elevation in a direction away from the user when the user is facing the golf ball, the golf ball tends to have a golf ball motion path with a fade shot shape. A user may then desire to offset the effects of the downhill lie by selecting a predicted golf ball motion path with a draw shot shape such as represented by predicted golf ball motion path point 149 or 152.
Once a predicted golf ball motion path is determined that best approximates the desired golf ball motion path, in Step S2, the user selects a predicted golf ball motion path configuration reference associated with the first predicted golf ball motion path, and, in Step S3, actuates, such as by rotating, first member 134 relative to second member 136, or vice versa, until the selected configuration reference is viewed. In one embodiment, the configuration reference is a reference number 162, letter or other identifier that is viewable through center opening 172. In another embodiment, the configuration reference is a predicted golf ball motion path description 174 located on a periphery of second member 136 and viewable upon proper rotational alignment. In yet another embodiment, as shown in
As shown in
While the above embodiment of a method of using a golf club information system generally involves selecting one of the multiple predicted golf ball motion paths and determining a corresponding golf club configuration, it is recognized that a user could practice the method in a reverse order. A user may forget or want to know the type of golf ball motion path that is likely to result from striking a golf ball with a golf club having a particular golf club configuration.
Accordingly, another embodiment of a method of using a golf club information system, as shown in
As shown in
If, however, the first actual golf ball motion path differs from the desired golf ball motion path, the process proceeds to Step S12, in which the user refers to the information system to select a second predicted golf ball motion path with flight characteristics that will negate or offset the undesirable flight characteristics of the first actual golf ball motion path compared to the desired golf ball motion path. For example, if a user seeks to achieve a golf ball motion path having a weak draw shot shape and a medium trajectory but the first head mass configuration produces an actual golf ball motion path that has a strong fade shot shape and a low trajectory, a user may desire to reconfigure the golf club head mass configuration to induce a strong draw shot shape and a high trajectory, thereby negating the tendency to hit a strong fade shot shape and a low trajectory.
In Step S13, the user reconfigures the golf club head mass configuration according to the configuration marks associated with the second predicted golf ball motion path to achieve a second golf club head mass configuration and repeats the process by returning to S9 and striking a golf ball with the reconfigured golf club to create a second actual golf ball motion path. As with the first actual golf ball motion path, the second actual golf ball motion path characteristics are observed and compared to the desired golf ball motion path. Following a similar process as outlined above, a comparison is made and reconfiguring of the golf club head configuration is performed as necessary. The above steps are repeated until an actual golf ball motion path is substantially similar to the desired golf ball motion path.
In some embodiments, a user strikes multiple golf balls by swinging a golf club with a first head mass configuration resulting in multiple actual golf ball motion paths and takes an average of the actual golf ball motion paths to calculate a first actual golf ball motion path that is compared to the desired golf ball motion path.
In other embodiments, an information system has one member with a visual representation, such as, e.g., a graph, including multiple graphics 300 of a golf club having a golf club configuration. Each graphic of a golf club can be positioned on a location of the graph corresponding to a predicted golf ball motion path. For example, each of the different predicted golf ball motion path points illustrated in
With reference to
According to one approach, these three parameters and their selection can be presented in graphic form. For example, the information device can be an instruction wheel 182 as shown in
The first member 184 includes a visual representation, e.g., graph 188, illustrating multiple predicted golf ball motion paths corresponding to golf club head mass configurations. The graph's y-axis 190 corresponds to predicted golf ball motion path trajectory components, generally ranging from low to high. The x-axis 192 corresponds to predicted golf ball motion path shot shape components, generally ranging from draw to fade.
According to the specific embodiment of an instruction wheel 182, as shown in
In an alternative specific embodiment, instruction wheel 230 provides a more conservative selection of predicted golf ball motion paths. As shown in
According to the embodiment of the information wheel 182 shown in
The correlated multiple marks 246 of
The correlated multiple marks 246 are further viewable through one of a set of openings 262, shown in
According to the embodiment of an information system as shown in
According to the embodiment shown in
According to some embodiments of a method of using an instruction wheel, a user may configure a golf club with a desired swingweight and configuration that produces a desired golf ball motion path. For example, a method similar to the method of using the information system of
In Step S18, a user may select a desired swingweight by rotating second member 186 relative to the third member 260 until a swingweight indicia 270 corresponding to the desired swing-weight is viewable through swingweight opening 266 on swingweight tab 264. As shown in
According to S18, once a first predicted golf ball motion path is selected that best approximates the desired golf ball motion path, the user determines the predicted golf ball motion path configuration reference 272 located on the third member 260 that is associated with the first predicted golf ball motion path, and rotates the first member 184 relative to third member, or vice versa, until the openings 250 on the first member are aligned with the set of openings 262 on the third member corresponding to the first predicted golf ball motion path (
According to Step S19, when the openings 250 are aligned with the selected predicted golf ball motion path configuration reference 272, or after proper rotational alignment of the first and third members 184 and 260, respectively, the marks 246 representing the golf club head mass configuration corresponding to the predicted golf ball motion path and selected swingweight are viewable through the openings 250 located on graphic 252 of golf club head 28 and a set of openings 262 located on the third member 260. In this way, a golf club having a desired swingweight and a configuration for achieving a desired golf ball motion path is conveyed by the information system 180. In Step S20, the user is then able to utilize the golf club head mass configuration marks 246 as viewed and configure the golf club by arranging the removable weights 24 according to the marks. For example, in the embodiment shown in
According to another embodiment of a method of using the embodiment of a golf club information system as shown in
Building on the embodiments as discussed above, according to a method shown in
Although the first member 134 and second member 136 of the embodiment shown in
In the illustrated embodiments shown in
The input device 276 facilitates entry of golf club information into the device 274. In one embodiment, the input device 276 facilitates entry of desired golf ball motion paths or golf ball motion path components such as trajectory and/or shot shape components. In another embodiment, golf club swingweight can be an additional input entered into the input device 276.
In some embodiments, the user interacts with the input device 276 via a graphical user interface (GUI). The GUI may include one screen or several screens and may visually prompt a user to select, from a plurality of golf ball motion path selections, in the form of textual descriptions or graphical illustrations, a desired golf ball motion path. As an example, the input device 276 can be one of, or a combination of, a keyboard, keypad, mouse, computer screen, PDA screen, voice-recognition device or other electronic communication device.
In some embodiments, as shown in
In some embodiments, the internet web site GUI 284 includes the selection tool 286, swingweight tool 290, CG tool 292, or any combination thereof. In embodiments having a combination of tools, such as tools 286, 290 or 292, a user can input a combination of desired characteristics into the tools and graphic 294 displays a golf club head mass configuration factoring in each of the inputted characteristics.
The processor 280 is electronically coupled with the input device 276, the memory 278 and the display 282. The memory 278 stores a plurality of predicted golf ball motion paths and corresponding golf club head mass configurations. Processor 280 calculates a predicted golf ball motion path that best approximates the desired golf ball motion path entered by the user. The processor 280 calculates the predicted golf ball motion path by separating the shot shape component and the trajectory component of the desired golf ball motion, if necessary, and selecting a predicted golf ball motion path having the same or similar components. In some embodiments, the desired golf ball motion path includes a corresponding swingweight and the processor selects a predicted golf ball motion path with the same or similar swingweight. The display 282 visually or audially conveys the calculated golf club head mass configuration and/or the predicted golf ball motion path corresponding to the entered desired golf ball motion path. The user is then able to utilize the displayed information to configure a golf club.
In one particular embodiment, as shown in
While the above embodiments refers to a method of configuring a golf club head, it is recognized that the information system of the present application may apply to configuring other aspects of a golf club, for example, shaft, grip, hosel, etc.
Having illustrated and described the principles of the disclosed embodiments, it will be apparent to those skilled in the art that the embodiments can be modified in arrangement and detail without departing from such principles. In view of the many possible embodiments, it will be recognized that the described embodiments include only examples and should not be taken as a limitation on the scope of the invention. Rather, the invention is defined by the following claims. We therefore claim as the invention all possible embodiments and their equivalents that come within the scope of these claims.
The present application is a continuation-in-part of U.S. patent application Ser. No. 10/785,692, filed Feb. 23, 2004, which is a continuation-in-part of U.S. patent application Ser. No.10/290,817, now U.S. Pat. No.6,773,360. These applications are incorporated herein by this reference.
Number | Date | Country | |
---|---|---|---|
Parent | 10785692 | Feb 2004 | US |
Child | 11025469 | Dec 2004 | US |
Parent | 10290817 | Nov 2002 | US |
Child | 10785692 | Feb 2004 | US |