This application is related to the following commonly-owned co-pending patent applications: “Gaming Device With Award and Deduction Proximity-Based Sound Effect Feature,” Ser. No. 09/656,663; “Gaming Device and Method for Enhancing the Issuance or Transfer of an Award,” Ser. No. 09/583,482, “Gaming Device Providing Audio Wagering Information,” Ser. No. 09/629,288; “Gaming Device Having Changed or Generated Player Stimuli,” Ser. No. 09/686,244; “Gaming Device With a Metronome System for Interfacing Sound Recordings,” Ser. No. 09/687,692; “Gaming Device With Sound Recording Changes Associated With Player Inputs,” Ser. No. 09/978,607, and “Gaming Device Having Pitched-Shifted Sound and Music,” Ser. No. 09/978,795.
A portion of the disclosure of this patent document contains or may contain material which is subject to copyright protection. The copyright owner has no objection to the photocopy reproduction by anyone of the patent document or the patent disclosure in exactly the form it appears in the Patent and Trademark Office patent file or records, but otherwise reserves all copyright rights whatsoever.
The present invention relates to gaming devises having accompanying sounds or music. More particularly, the present invention relates to gaming device music or sounds that may be adapted to fit various musical contexts that occur during play of the gaming device.
Gaming device manufacturers provide slot machines employing a plurality of reels, wherein the reels each have a plurality of symbols. In these games, the player spins the reels, which produce a random generation of a combination of symbols. If the generated combination, or a portion of the combination, matches one of a number of predetermined award producing or winning combinations, the player receives an award. The award is commonly one or more credits that the player can play or redeem for money.
Gaming device manufactures also provide video poker games that generate credits for the player. The player can either use the awarded credits to play more poker hands or redeem the credits for money. These examples as well as many other types of gaming machines award credits to the player.
To increase player enjoyment and excitement, and to increase the popularity of the gaming machines, gaming device manufacturers constantly strive to provide players with new features that add to the excitement and enjoyment generated by the gaming device. It is common for gaming machines to play or produce sounds or music that accompanies the gaming event and is in accordance with the theme of the gaming machine. Such sounds or music may be played at various points throughout the above described games.
In slot machines, for example, the game typically plays music while the reels spin, i.e., while the reels are producing a wining or losing outcome for the player. Because this is an exciting time for the player, it is an opportune time to produce or play sounds and music. Very often the music follows a theme of the gaming device. For example, if the theme of the gaming device is surfing, the gaming device can play beach music and sounds associated with surfing, such as ocean waves, etc.
Besides reel spins, the gaming device can associate sounds with other gaming events. One well known sound that gaming devices employ is the paytone or credit roll-up sound. The paytone is the “ding”, “ding”, “ding” sound, which the gaming device plays when downloading an amount of credits to the player after a gaming device win. The paytone loosely emulates the sound of a coin or token hitting the coin payout tray upon a cash out by the player.
It should be appreciated that music and sounds play an important role in gaming devices in both entertaining and informing the player. The sounds and music also help to create a mood or tempo surrounding a particular game event or an overall feel for the gaming device. As gaming devices become more intricate and as the competition to produce the most fun and entertaining games stiffens, sounds and in particular interactive sounds will play an ever increasing roll in gaming devices. It is therefore desirable to provide an apparatus and a method for using the apparatus, wherein certain sounds or music stored in the gaming device may be readily adapted to fit a particular game setting or a particular musical accompaniment.
The present invention provides an apparatus and method by which sound files may be modified within a gaming device to: (i) coincide with one or more other sound files; (ii) coincide with one or more game events; or (iii) to produce a melody or song. The gaming device includes one or more processors and memory storage devices that employ a sound card to play music and sound effects through one or more speakers. The sound card stores sound files having truly synthesized sounds or true sound recordings. The output sample rate of one or more sound files is changed to produce a sound having a higher or lower pitch.
Known gaming devices play sound files at a specified rate. The gaming device of the present invention can play sound files at various rates. Playing sound files at various rates also varies the duration of the sound file. The tempo of a musical fragment or section also increases or decreases as the pitch shifts up or down. The gaming device can thereby play sound files at various pitches, tempos and for varying time periods. The gaming device achieves the various pitches, tempos and time periods by changing the rate of at which the gaming device plays the sound file. As used herein, a change in pitch is referred to as a “pitch-shift” and a sound file played at a different rate is referred to as a “pitch-shifted” sound or sound file.
The gaming device may employ the pitch-shifted sounds in a variety of different ways. In one embodiment, the gaming device pitch-shifts one or more sound files based on one or more other sound files. For example, the gaming device can modify the sound of a paytone in accordance with concurrently playing background music. That is, the gaming device pitch-shifts a sound file so that it is musically compatible with another sound file. The gaming device in another example pitch-shifts one sound file so that it has a duration and/or tempo that makes musical sense with the duration or timing of another sound file.
In another embodiment, the gaming device pitch-shifts one or more sound files based on one or more gaming device events or states. For example, the gaming device can modify background music to last the length of a reel spin. Or, the gaming device can pitch-shift a pitch or key of one sound based on a particular player input. That is, one input causes the gaming device to play the file at one pitch, while another input causes the file to be played at another pitch. That is, the gaming device in another example pitch-shifts a sound file so that it has a duration that makes sense with the duration of the gaming device event.
In a further embodiment, the gaming device pieces together one or more pitch-shifted and/or unchanged sound files to produce a melody. For example, the gaming device can string together one or more pitch-shifts of a trumpet file to play different pitches or tones to form a melody or song. In this manner, a melody can be constructed from a single sound file. That is, the sound can be pitch-shifted in different amounts to produce different pitches or notes. Other pitch-shifted sound file melodies can be so constructed and played concurrently or sequentially to produce an entire song using a single sound file for each instrument.
It is therefore an advantage of the present invention to provide a gaming device that pitch-shifts a sound file.
Another advantage of the present invention is to provide a gaming device that pitch-shifts a sound file to provide a different tempo and duration based on another sound file to play the pitch-shifted file for a desired duration.
Still another advantage of the present invention is to provide a gaming device that pitch-shifts a sound file one or more times and plays the pitch-shifted files to produce a desired melody.
Moreover, an advantage of the present invention is to provide a method of saving memory in sound files of a gaming device.
Still further, an advantage of the present invention is to provide a method of modifying a melody of a true sound recording without having to rerecord one or more instruments.
Additional features and advantages of the present invention are described in, and will be apparent from, the following Detailed Description of the Invention and the figures.
Referring now to the drawings, and in particular to
The base games of the gaming device 10 may include slot, poker, blackjack or keno, among others. The gaming device 10 may also embody any bonus triggering events, bonus games as well as any progressive game coordinating with these base games. The symbols and indicia used for any of the base, bonus and progressive games include mechanical, electronic, electrical or video symbols and indicia.
The gaming device 10 preferably includes monetary input devices.
As shown in
Gaming device 10 also includes one or more display devices. The embodiment shown in
The slot machine base game of gaming device 10 preferably displays a plurality of reels 34, preferably three to five reels 34, in mechanical or video form on one or more of the display devices. Each reel 34 displays a plurality of indicia such as bells, hearts, fruits, numbers, letters, bars or other images or symbols which preferably correspond to a theme associated with the gaming device 10. If the reels 34 are in video form, the display device displaying the video reels 34 is preferably a video monitor. Each gaming device 10 includes speakers 36 for making sounds or playing music as described below.
Referring now to
As illustrated in
In certain instances, it is preferable to use a touch screen 50 and an associated touch screen controller 52 instead of a conventional video monitor display device. The touch screen enables a player to input decisions into the gaming device 10 by sending a discrete signal based on the area of the touch screen 50 that the player touches or presses. As further illustrated in
It should be appreciated that although a processor 38 and memory device 40 are preferable implementations of the present invention, the present invention also includes being implemented via one or more application-specific integrated circuits (ASIC's), one or more hard-wired devices, or one or more mechanical devices (collectively and alternatively referred to herein as a “processor”). Furthermore, although the processor 38 and memory device 40 preferably reside in each gaming device 10 unit, the present invention includes providing some or all of their functions at a central location such as a network server for communication to a playing station such as over a local area network (LAN), wide area network (WAN), Internet connection, microwave link, and the like.
With reference to the slot machine base game of
In addition to winning base game credits, the gaming device 10, including any of the base games disclosed above, may also include one or more bonus games that give players the opportunity to win credits. The gaming device 10 may employ a video-based display device 30 or 32 for the bonus games. The bonus games include a program that automatically begins when the player achieves a qualifying condition in the base game.
In the slot machine embodiment, the qualifying condition may include a particular symbol or symbol combination generated on a display device. As illustrated in the five reel slot game shown in
Referring now to
Although the present invention is illustrated herein using the sound speakers 36, the present invention is equally applicable to any type of sound emitting device. As used in the claimed invention, the term “sound emitting device” includes the speakers 36 as well as any other type of device that is capable of emitting sound. For example, sound emitting device also includes ultrasonic emitters.
In one embodiment, sound card 42 is an expansion board that enables the CPU 38 in coordination with a game program stored in memory device 40 to manipulate and output sounds. Sound card 42 enables the CPU 38 to output sound through speakers 36 connected to the card 42. The sound card 42 also enables sounds to be recorded from a microphone (not illustrated) connected to the CPU 38 or to store prerecorded sound files. The sound card 42, as described in more detail below, also enables sound files to be manipulated.
Sound card 42 includes sound random access memory (“RAM”) 62 which includes a plurality of sound files 64a, 64b and 64c. Obviously, the sound card 42 can store many sound files and is not limited to the three shown here for purposes of illustration. The sound files include any type of sound file readable by the CPU 38. In one embodiment, sound files 64a to 64c are digital wave files of musical sound recordings and sound effect recordings.
In an alternative embodiment, sound files are stored on a sound chip, which may or may not be part of a sound card 42. Although the present invention is illustrated herein using the sound card, the present invention is equally applicable to any suitable type of sound storage medium. Thus, for the purposes of the describing the claimed invention, the term “sound storage medium” includes the sound card 42, a sound chip or any other type of device that enables sound to be stored, recalled and played. The sound card 42 is also any device capable of reading sound files from the storage medium and converting the sounds into a form ultimately usable by the sound emitting device.
Typically, the quality of a sound file depends on the sampling rate and the bit depth or number of bits used to record the file. The sampling rate is the number of times per second that a snapshot of the sound is taken during its recording. For musical sound recordings, the sound files 64a to 64c in one embodiment have been recorded at about 44,000 Hz or 44,000 samples per second. Lower sampling rates cut off the higher and lower frequencies that are typical in music files. Acceptable sound effect recordings, e.g., voice, paytones or other “ding” type sounds, can be recorded at sampling rates as low as 8,000 Hz.
The bit depth is the number of digital ones and zeros used to record the sound files 64a, 64b and 64c. As is well known in the art of sound recording, the more bits per file, the more accurately the files 64a, 64b and 64c can be reproduced. Equipment using eight-bit sampling can be used to produce sound files 64a, 64b and 64c. In a preferred embodiment, the equipment uses 16-bit sampling or better.
The sound card 42 includes a sound processor 66 which drives a mixer 68 and a digital to analog converter 70. Mixer 68 enables the sound processor 66 to vary the volume of the sound recordings. The digital to analog converter 70 converts the digital sound files 64a to 64c to analog signals suitable for the speakers 36 to amplify into desired sounds. As discussed below, the sound processor 66 also enables the sound files 64a to 64c to be sampled at various rates, so that the files are outputted to the speakers at a desired pitch or for a desired duration of time.
The RAM 46 includes game state data 76. The game state data 76 is data generated by the CPU 38 when a sound-causing event occurs in a game. As discussed below, any predetermined event can be a sound-causing event. Sound-causing events of the present invention include the initiation or triggering of a primary or bonus game; any type of loss or accumulation of credits; a credit roll-up; an award of a jackpot; any type of random generation event, such as the spin of the reels 34 (
Sound-causing events also occur upon a player's selection of an electromechanical input device 44 or an input device that is an area of the touch screen 50. The inputs include any type of decision made by the player in a primary or secondary game of the gaming device 10. The inputs include any type of wagering input such as a selection of the play button 20, the bet one button 24, the cash out button 26, max line or max bet buttons (not illustrated), etc. In one embodiment, each sound-causing event is associated with its own game state data 140 which includes flag data. The flag data directs the CPU 38 to make a particular sound file change.
Thus, upon a sound causing event, CPU 38 selects one or more sound files 64a to 64c. In accordance with the game code 72 and the music code 74 of the present invention, the sound processor 66 acts to pitch-shift one or more of the sound files 64a to 64c that have been selected by the CPU 38 to be played from one or more speakers 36.
The sound card 42 of the present invention can translate the digital sound files 64a to 64c into analog sounds using a variety of techniques. In one embodiment, the sound card 42 uses frequency modulation or FM synthesis. FM synthesis mimics different musical instruments according to mathematical formulas built into the sound card 42. The electronics of the sound card 42 produces combinations of waveforms that approximate the sounds of different instruments. That is, the sounds are synthetic. Because the sounds are simulated, they are readily pitch-shifted to produce a desired pitch or to be played for a desired duration of time. FM synthesis enables a plurality of sounds to be played and/or pitch-shifted concurrently or sequentially.
In another embodiment, the sound card 42 uses wave table synthesis. In this embodiment, the digital sound files 64a to 64c are recordings of actual instruments or sound effects. A real piano, for example, is recorded, wherein a small sample based on the recording is stored as one of the sound files 64a to 64c on the sound card 42. Thus when the game code 72 and music code 74 cause the sound card 42 to play a tuba sound, the speakers 36 emit the sound of an actual tuba.
The sound files 64a to 64c store digital samples of sound from any type of instrument, sound effect device, voice or from any other desired sound producing device. The sound processor 66 of the sound card 42 can thereafter combine, edit, pitch-shift speed-up, slow-down, enhance and reproduce one or more of the sounds through the speakers 36. In an embodiment, gaming device 10 can play up to 32 different instruments or sound effects at one time or in a specified sequence.
The present invention includes employing one of the synthesizing methods above to produce a desired pitch-shifted sound, wherein the method plays a sound file 64a to 64c at a faster or slower speed than the speed at which it has been recorded. The resulting pitch-shifted sound file has a different pitch and plays for a different amount of time than would the unchanged sound file. For example, one of the sound files 64a to 64c may include the sound of a trumpet playing at a particular pitch or note for a particular amount of time. When the sound card 42 speeds the play of the sound file up, the pitch of the trumpet raises and the duration of the sound shortens. Conversely, when the sound card 42 slows the play of sound file down, the pitch of the trumpet lowers and the duration of the sound lengthens.
In one embodiment, the sound card 42 pitch-shifts the sound files by changing or modifying the sample rate at which the processor 66 outputs the file. Increasing the sample rate speeds up the output of the sound file and likewise increases its pitch. Decreasing the sample rate slows down the output of the sound file and thereby decreases its pitch. Although the processor 66 can pitch-shift the output speed of a file by any desired factor, when the sound file 64a to 64c stores music, the factor preferably makes musical sense. For instance, doubling the speed of a musical sound file raises its pitch an entire octave and likewise cuts its duration in half.
The smallest factor by which the processor 66 pitch-shifts the musical sound file is preferably that which produces the smallest musical interval, i.e., a half-step. There are twelve half-steps in an octave. To raise or lower the pitch of a musical sound file a single half-step, the processor pitch-shifts the sound file 64a to 64c by a factor of 21/12 or 1.0595. To raise the pitch two half-steps, the sound file is pitch-shifted by a factor of 1.0595×1.0595, and so on.
The present invention may be employed in a variety of ways and in a variety of scenarios. In one embodiment, the sound processor 66 pitch-shifts one or more sound files to match one or more other sound files. For example, a paytone file can be modified based on a background music file. That is, a paytone or credit roll-up sound may be recorded or stored at a particular pitch or key. If played unchanged, the sound card 42 plays the paytone at its recorded pitch and key. If the sound card 42 plays credit roll-up while simultaneously playing background music, the sound card 42 in one embodiment speeds up or slows down the paytone and increases or decreases its pitch or key accordingly to match fluctuations in pitch, key or mood of the background music. The paytone, which is used to provide game information to the player, i.e., to signal an award of game credits, thereby additionally becomes part of the background music.
In another example, the processor 66 pitch-shifts the sound file to alter the time duration of that sound file. For example, the background music file can be modified so that it only plays while paytones are played. The processor 66 pitch-shifts the background music file to coincide with shorter or longer credit roll-ups. Paytones generally coincide with the issuance of an increment of game credits. When the issuance stops, so do the paytones. Larger payouts therefore produce more paytones. The background music can therefore be pitch-shifted based on the size of the player's payout to match the duration of time of the corresponding paytones. In another illustration, one or more sound files may be pitch-shifted so that their play coincides with the play of background music during a reel spin.
Although the above examples illustrate concurrently played sound files, the processor 66 can alternatively play a pitch-shifted sound file sequentially with the another sound file. For example, a pitch-shifted sound file can be played to fill in a time gap left between two other sound files. The two other sound files dictate the duration of the time gap and the processor pitch-shifts a sound file based on the time gap. Two or more pitch-shifted sound files may be played concurrently or simultaneously. The two or more pitch-shifted sound files may be pitch-shifted based on the same sound file or different sound files.
In another embodiment, the sound processor 66 pitch-shifts one or more sound files based on a game event. For example, if a bonus game includes a mouse that “squeaks” upon a player's selection, the “squeak” file can be modified and played whenever the player inputs a selection that causes an award to be issued. The pitch of a sound file can therefore be tied to particular inputs, e.g., the bet one button 24 yields a certain pitch while the cash out button 26 yields another. Any game event or sound-causing event listed above of the gaming device 10 can be set to yield a desired pitch for a selected sound file 64a to 64c. The processor 66 alternatively raises or lowers the pitch of one or more files based on the intensity of a particular game, e.g., higher pitch if the stakes are high.
The processor 66 in another example changes the duration of the sound file based on a game event. In the credit roll-up example, the processor 66 can pitch-shift the speed of the background music file based on the length of time that a display device displays the credit roll-up rather than on the length of time that gaming device 10 plays the paytones. Or, in the reel spin example, the processor 66 can pitch-shift one or more sound files to end when the reel spins end. As above, two or more pitch-shifted sound files may be played concurrently or simultaneously, wherein the two or more pitch-shifted sound files may be pitch-shifted based on the same or different game event.
In a further embodiment, one or more sound files may be pitch-shifted one or more times and sequentially played to create a melody. The sound card 42 can take a single sound file 62a to 62c of, e.g., a trumpet and sequentially pitch-shift the sound file to create a continuously playing trumpet solo. The sound card can add other solos to form an entire song using a single sound file of each instrument. The sound card 42 can further add in sound effects as desired.
Considering that sound files consume a considerable amount of memory, especially the wave table files, it may be advantageous to pitch shift files to desired pitches rather than store an entire melody. Further, since it may be impractical to obtain a musician to record a small yet desirable change on an instrument, the present invention provides a method for the gaming device 10 to provide a “synthesized”, true sound recording of a melody.
It should be understood that various changes and modifications to the presently preferred embodiments described herein will be apparent to those skilled in the art. Such changes and modifications can be made without departing from the spirit and scope of the present invention and without diminishing its intended advantages. It is therefore intended that such changes and modifications be covered by the appended claims.
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