Urinal Target System

Abstract

A urinal target system provides a target to improve the sanitary conditions in the area of the urinal/toilet by encouraging better aim by a person as they urinate. In one embodiment, the urinal target system displays one or more digital images based upon the force and/or length of flow of urine hitting the target system. For example, one might use digital images of a political person, a boss or a family member, thereby providing entertainment value while also providing an interesting target that encourages better aim. In some embodiments, the display is a numeric display or graphical display and a score for the person urinating that a function of the length of time that the target is hit and/or the pressure exerted on the target is displayed. It is anticipated that a person with good aim is more likely to achieve a higher score than one with bad aim.

Description

FIELD

This invention relates to the field of toilet fixtures and more particularly to a system for improving sanitation in the vicinity of the toilet fixtures.

BACKGROUND

An emission of urine from animals creates a breading ground for odor and bacteria. Although urine is a sterile fluid as it leaves the body of most animals, due to its temperature and composition, it quickly becomes a breading ground for bacteria and odor.

An efficient system has been introduced to most of the world's population to safely dispose of urine. At the terminus of such a system is typically a sewerage treatment plant that processes effluent, including the urine, in a safe manner. At the start of the system is a fixture such as a flush toilet or wall-urinal. After urination, the fixture is typically flushed with fresh water to wash the urine through plumbing and eventually to the sewerage treatment plant.

Although humans can sit on a toilet fixture to urinate, particularly for the male human, urination is often performed while standing. This provides for a more efficient, less time consuming process, but, due to the distance between the source of the urine and the fixture, this process often results in over spray due to splashing, bad aim or carelessness, resulting in urine landing on surfaces of the fixtures that do not get rinsed with water during the flushing operation. Furthermore, in some situations, the lack of aim results in urine on surfaces around the fixture such as walls and floors. Once urine is allowed onto these surfaces, the urine starts to grow bacteria, create an odor. A stain on the surfaces, particularly grout between tiles is also possible. The bacteria, odor and stain are large problems, especially with regard to public bathrooms where there is often a lack of regard or care in aiming correctly, possibly because the urinator is not in charge of cleaning up after themselves.

It has long been known to place target decals in a toilet bowl or urinal to help some with their aim. In general, such targets are decals or printing of a specific artwork, typically representing a target bulls eye. Although these devices provide a target at which to aim, they soon become boring and are quickly ignored.

What is needed is a urinal target system that will improve the likelihood that a standing urinator will correctly aim, thereby reducing urine deposits around the toilet/urinal.

SUMMARY

A urinal target system is disclosed having a target area and a display (e.g. score board). In some embodiments, the target area is customizable, in that, an image is embedded or attached to in the target area to make it more fun to hit the target. For example, one might use a picture of a political person, a boss, sports team logo or a family member, thereby providing entertainment value while also providing an interesting target that will improve the chances of hitting the target and missing the surrounding walls and floors. The urinal target system has display and controller that adds an element of competition and achievement. The urinal target system displays a score for the urinator that is proportional to the length of time that the target is hit and/or the pressure exerted on the target, so a urinator with good aim is more likely to achieve a higher score than one with bad aim.

In one embodiment, a urinal target system is disclosed including a base member having at least a back wall and a cover member. The cover member has at least a front wall, is movably interfaced to the base member, and is urged away from the base member by a resilient member such that a flow of urine applies a force to the front wall of the cover member thereby the force counteracts the spring, moving the front wall of the cover member closer to the back wall of the base member. A display is mounted within the urinal target system and a display area of the display is visible through a window in the cover member. A sensor is coupled to the urinal target system such that the sensor detects the force and the sensor converts the force into an electrical signal, the electrical signal being proportional to the force of the flow of the urine. A processor mounted within the urinal target system is interfaced to the display. The processor is electrically interfaced to the sensor such that the processor receives the electrical signal from the sensor that is proportional to the force.

In another embodiment, a method of improving aim of a person that is urinating is disclosed including the steps of (a) directing the flow of the urine towards an outside surface of a urinal target system. The urinal target system has a base member with at least a back wall and a cover member with at least a front wall. The cover member is movably interfaced to the base member and is urged away from the base member by a spring such that a flow of urine applying a force to an outside surface of the front wall of the cover member counteracts the spring, moving the front wall of the cover member closer to the back wall of the base member. A sensor is coupled to the urinal target system such that the sensor detects the force from the flow of the urine and converts the force into an electrical signal, the electrical signal being proportional to the force of the flow of the urine. A processor (or electronic circuit) is interfaced to the sensor such that the processor receives the electrical signal. A display is housed within the urinal target system and a display area of the display is visible through a window in the cover member. (b) Software running on the processor calculates a score value that is a function of at least the force of the flow of the urine and (c) the software illuminates the display dependent on the score value. (d) After the flow of urine abates, the software running on the processor delays for a period of time, and then blanks the display.

In another embodiment, a target system is disclosed including a cover member and a device for resiliently supporting the cover member and/or electronics away from a wall of a toilet. The target system includes a device for measuring a force from a flow of urine applied as the flow is applied to the device for supporting the target graphics. The device for supporting is interfaced to the wall of the toilet/urinal. A device for displaying has a display area visible through the cover member and there is a system for changing an output of the device for displaying, the changing being dependent upon the score value.

BRIEF DESCRIPTION OF THE DRAWINGS

The invention can be best understood by those having ordinary skill in the art by reference to the following detailed description when considered in conjunction with the accompanying drawings in which:

FIG. 1 illustrates a schematic view of an exemplary target circuit.

FIG. 2A illustrates a cut-away view of internal components of an exemplary target system.

FIG. 2B illustrates a front plan view of the exemplary target system.

FIG. 2C illustrates a side plan view of the exemplary target system mounted to a urinal with covered target art work.

FIG. 2D illustrates a side plan view of the exemplary target system mounted to a urinal with external art work.

FIG. 3 illustrates an exemplary block diagram of a typical target system controller.

FIG. 4 illustrates an exemplary flow chart of a typical target system.

FIG. 5 illustrates an exemplary flow chart of an order, delivery and development of the typical target system.

FIG. 6A illustrates a cut-away view showing internal components of a second exemplary target system.

FIG. 6B illustrates a front plan view of the second exemplary target system.

FIG. 6C illustrates a side plan view of the second exemplary target system mounted to the inside surface of a toilet bowl with covered target art work.

FIG. 6D illustrates a side plan view of the second exemplary target system mounted to the inside surface of a toilet bowl with external art work.

FIG. 7 illustrates a printed label of a typical target system.

FIG. 8A illustrates a side cut-away view showing internal components of a third exemplary target system.

FIG. 8B illustrates a front plan view of the third exemplary target system.

FIG. 9A illustrates a side cut-away view showing internal components of a fourth exemplary target system.

FIG. 9B illustrates a front plan view of the fourth exemplary target system.

FIG. 10A illustrates a side cut-away view showing internal components of a fifth exemplary target system.

FIG. 10B illustrates a front plan view of the fifth exemplary target system.

DETAILED DESCRIPTION

Reference will now be made in detail to the presently preferred embodiments of the invention, examples of which are illustrated in the accompanying drawings. Throughout the following detailed description, the same reference numerals refer to the same elements in all figures.

Referring to FIG. 1, a schematic view of a typical urinal target system 5 will be described. Although shown as a processor-based system 5, it is anticipated that, in some embodiments, the urinal target system 5 is fabricated from other electronic components with or without the use of a processor 100. The processor 100 is any processor or micro-controller, as known in the industry. An exemplary micro-controller system 5 is shown in FIG. 3. It is preferred that the micro-controller 100 be a low-power device to consume as little battery power as possible. It is also preferred, though not required, that the micro-controller 100 have internal storage, both persistent storage and random access memory to reduce power consumption, cost and real estate consumption. In some embodiment, a reset switch 60 is interfaced to the micro-controller 100 (or the reset switch disrupts power to the micro-controller 100) as known in the industry. The urinal target system 5 is also reset when the battery 90 is initially connected, as known in the industry.

The micro-controller 100 and other circuitry 10/60/40/30 is powered by a source of power such as a battery 90. Power from the battery 90 is regulated by a regulator 92 to provide the operating voltage required by the other components 100/10/40 as known in the industry, though in some embodiments, some or all components are powered directly by the battery 90 without any regulation. Other sources of power such as solar power, charged capacitors, etc. are equally anticipated.

The micro-controller 100 is interfaced to a display 10 as known in the industry through a direct, serial, or parallel interface.

The output device 10 is shown as a display 10 as an example of an output device. Any suitable output device 10 is anticipated such as a TN display (twisted nematic), STN display (super-twisted nematic), LED display, OLED display, or TFT display (thin film transistor), etc. In alternate embodiments, the output device 10 is an audio output device. It is desired that the display consume as little power as possible to maintain maximum battery life. Although many display configurations are possible (e.g. dot-matrix, 13-segment, bar-graph, discrete LEDs, etc.), a multi-digit, seven-segment display is shown in the examples, being low cost and very good at displaying numerical data such as the urinator's score.

Although not required, a status indicator 60/62 such as an LED 60 with current-limiting resistor 62 is provided in some embodiments. This optional status indicator 60/62 is illuminated in various ways to indicate normal operation, failure and/or low-battery. For example, a flash every 3 seconds indicates normal operation, a flash every 10 seconds indicates low battery and no flash indicates a dead battery or other failure.

A sensor 30 is interface to the micro-controller 100 as known in the industry. In this example, an amplifier 40 conditions the signal from the sensor 30 and provides a voltage value to the micro-controller analog-to-digital converter input port (ADC). This is but an example of a way to sense a value from a sensor 30 as there are many ways known in the industry, all of which are included here within. The sensor 30 is any sensor 30 known in the industry that is capable of detecting the start, continuation and stop of a liquid flow, in particular a flow of urine. The types of sensors 30 include, but are not limited to, pressure sensors, Hall Effect sensors, strain gauges, etc. For example, a magnet 30 (see FIG. 2A) is attached to a target surface and the target surface is urged away from a base by a resilient member (e.g. spring 34—see FIG. 2A). A Hall Effect sensor 30 is attached to the base in proximity to the magnet. When a flow of liquid (urine) hits the target surface, the spring 34 is compressed and the magnet 30 moves closer to the Hall Effect sensor 30 and, therefore, the signal from the Hall Effect sensor 30 is proportional to the force of the flow of the liquid. As will be shown later, a program running in/on the micro-controller 100 uses the length of time and/or the force of the flow of urine to determine what is displayed on the display 10 (e.g. an image, score value, sequence of illuminated areas, etc.).

Referring to FIGS. 2A, 2B, 2C, and 2D an exemplary target system will be described. Although many different physical embodiments are anticipated, there are at least two basic categories of enclosures. Once category is a monolithic enclosure in which the sensor 30 and display 10 are housed within the same walls (see FIGS. 6A-6D). Although this category of enclosure works fine, it is sometimes difficult to read the display 10 during urination since the flow of urine is directed in the area of the display 10. Another category is a bifurcated housing as shown in FIGS. 2A, 2B, 2C and 2D. In this, the display 10 is housed within one set of walls 8 and the sensor 30 in another set of walls 36/36 and the housings 8/36/38 are connected by a bridge 14 or cable (not shown) to physically and electrically link the sensor 30 with the rest of the micro-controller 100. It is also anticipated that in some embodiments, the display housing 8 is not physically connected to the sensor housing 36/38 and the sensor 30 communicates with the micro-controller 100 by a wireless signal, though this embodiment may require greater battery capacity because two batteries are required and greater amounts of power are required to transmit/receive the wireless signal.

In the exemplary housing of FIGS. 2A-2D, the display housing 8 contains the battery 90, the display 10 and the electronics, preferably mounted on a circuit board 12. The display housing 8 is made of any suitable material such as plastic or metal. The display housing 8 has a transparent or translucent window on an outward surface so that the display area of the display 10 is visible.

The sensor 30 is housed within the target housing 36/38. How and where the sensor 30 is mounted is dependent upon the type of sensor 30. In this example, a Hall Effect sensor 30 is shown mounted to a back wall of the base 30 of the target housing 36/38. A magnet 32 is mounted in the target cover 36. The target cover 36 is movably attached to the target base 38 and is urged outwardly away from the target base 38 by a spring 34. Preferably, an outer surface of a front wall of the target cover 36 has a printed target graphic 42 that is visible for the urinator to take aim. As urine flows onto the target cover 36, pressure from the flow of urine against the front wall of the target cover 36 counteracts the force of the spring 34 and the magnet 32 moves closer to the Hall Effect sensor 30, resulting in an electrical change across the sensor 30. The sensor 30 is interfaced to the micro-controller 100 by wires running through the bridge 14. The micro-controller 100 determines the pressure and flow length from the electrical change and determines a score value that is then displayed on the display 10.

As shown in FIG. 2C, the display housing 8 is affixed to a front facing wall 1 of a urinal by, for example, an adhesive, double sided tape, suction cup 17. In some embodiments, the adhesive or double sided tape 17 provides a removable adhesion to enable removal of the entire target system for cleaning and battery replacement. In this embodiment, the target graphics 42 is a printed sheet that is located between the target cover 36 and a transparent or translucent cap 39. The cap 39 protects the target graphics 42 from damage from the flow of urine 3.

In the embodiment shown in FIG. 2D, the target graphics 42 is a printed sheet that adheres to the target cover 36. In this, the target graphics 42 is made of a material that resists degradation due to exposure to the urine 3. For example, the target graphics 42 has a clear-coat layer that protects the target graphics 42 from damage from the flow of urine 3. In another example, the target graphics 42 is printed on a label with an adhesive backing and then the label with the target graphics 42 is affixed to the target cover and then a self-adhesive clear-coat layer is affixed over the target graphics 42 to reduce damage from the flow of urine 3.

Referring to FIG. 3, an exemplary block diagram of typical urinal target system 5 will be described. Although it is possible to fabricate the urinal target system 5 from logic gates, etc, it is preferred to utilize a controller, microcontroller, etc. A typical controller system 99 includes a central processor 100 having memory 120 and program/data storage 125 connected to the controller 100 by a memory bus 115. Any type of memory 120 and program/data storage 125 is anticipated including static RAM, dynamic RAM and various types of persistent memory such as ROM, EPROM, EEPROM, FLASH, etc.

A program is stored in the program/data storage 125 and initializes operation when power is applied to the urinal target system 5 (or reset switch 60 operated). The program reads the urine pressure from a sensor 30 and, optionally, a status of a reset switch 60 through an input port or ports 142. The program writes to the display 10 through an output port or ports 140. In some embodiments, a power/status indicator LED 105 is present and the program writes to the indication LED 105 through an output port 140. In such, the power/status indicator LED 105 is controlled by software and indicates status such as the urinal target system 5 is powered and/or operational. For example, the power/status indicator LED 105 is controlled to blink on periodically for short periods of time to signal that the internal battery 90 has sufficient capacity and the urinal target system is operational. Any other indication scheme is anticipated such as blinking at different rates to signal a low battery, using multiple-color LEDs, of which one color indicates a good status and another color indicates a low battery, etc.

In some embodiments, the input ports 142 and output ports 140 are connected to the central processing unit 100 by a bus 130 (e.g. SPI bus, etc) as known in the industry.

In some embodiments the controller system 99 includes an interface 144 connected to a bi-directional port 143. This interface 144 provides external access for such things as modifying behaviors, reloading stored programs, loading graphical images, charging an internal battery, adjusting parameters such as brightness, sound levels, etc. Any interface 144 is anticipated, including, but not limited to, a USB interface 144 (shown), Bluetooth, Ethernet, WiFi (802.11x), serial, etc. When a graphics display 210 is used (see FIGS. 9 and 9A), the interface 144 is used to load one or more images of people, graphics, scenery, etc.

Referring to FIG. 4, an exemplary flow chart of the target system will be described. This program begins when power is applied to the urinal target system 5, for example when the battery 90 is connected. The display 10 is initialized 200. Depending upon the type of display, if the display has a low-power mode, the initialization 200 includes entering the low-power mode which, in some display systems 10 blanks the display 10 (e.g. no digits are displayed).

Next, the program reads 201 the sensor 30 to determine if a flow of urine 3 is in progress. Flow of urine is determined, for example, by reading the sensor 30 and determining if the force of the flow of urine 3 is greater than a predetermined threshold (THR) which, in some embodiments is any pressure greater than zero. If no flow of urine 3 is detected 202, the program loops 201/202 until flow is detected 202 (e.g. urine has started hitting the target). The program now resets scoring variables 204, in this example, delta-time (DT) which represents the amount of time that urine pressure continually hits the target cover 36. The display 10 is now set to display all zeros 206.

Now the program enters a loop to measure the time and force of the urine flow 3. In this example, the program reads 207 the sensor 30 to determine if the flow of urine 3 is still in progress. Again, flow of urine 3 is determined, for example, by reading the sensor 30 and determining if the force of the flow of urine 3 is greater than a predetermined threshold (THR) which, in some embodiments is any pressure greater than zero. If a continuation of flow of urine 3 is detected 208, the delta time (DT) is incremented 210 and a score is calculated based upon a function of the force (F) of the flow of urine 3 and/or the delta-time (DT) and the score is displayed 212 on the display 10. For each loop, the optional reset switch is checked 214 and if pressed, the program exits the loop and reinitialized 200. If no reset 222, the program repeats the loop 207/208/210/212/220/222/224. In some embodiments, a fixed delay is inserted in the loop to add proportion to delta-time (DT). For example, a one-second delay is inserted in the loop before reading the sensor 207 and, therefore, delta-time (DT) represents the number of seconds that the flow of urine 3 continues.

Once the flow of urine 3 falls below the threshold (THR) 208, a short loop 220/222/224/226 provides hysteresis, for example, if the urinator veers the flow of urine 3 away from the target for a short duration. The loop 220/222/224/226 begins with setting a timer 220 which, in some embodiments, is an initialization of a variable to a preset value (e.g. zero). In other embodiments, the timer is a hardware time of the processor 100. The timer is checked 222 to see if it has expired (e.g. reached a terminal count or the hardware timer expired). If the timer has expired 222, the program resets 200 (e.g. it has been surmised that the flow of urine 3 is stopped). If the timer has not expired 222, for embodiments utilizing a counter to perform the timing function, the timer is incremented (or decremented, etc.) and the program reads 224 the sensor 30 to determine if the flow of urine 3 is still in progress. Again, flow of urine 3 is determined, for example, by reading the sensor 30 and determining 226 if the force of the flow of urine 3 is greater than a predetermined threshold (THR) which, in some embodiments is any pressure greater than zero. If the force of the flow of urine 3 is still not greater than a predetermined threshold (THR), the hysteresis loop continues 222/224/226 until either the timer expires 222 or it is determined 226 that the force of the flow of urine 3 becomes greater than a predetermined threshold (THR), at which time the display loop is re-entered to display the score 212.

Again, this is an example of one embodiment of a program that monitors the force of a flow of urine 3 and converts the force and/or length of time of the flow of urine 3 into a score.

The scoring function 212 is any function that provides a score value that is proportional to either a length of time (delta-time or DT) of the flow of urine 3, force of the flow of urine 3 (F) or both. For example, one exemplary scoring function 212 provides a score value that is equal to the length of time (DT) plus the force (F). So, as long as the urinator hits the target, the score continues to increase (e.g. delta-time increases) and if the urinator provides a high force, a higher force value is added or, in some examples, if the urinator provides a low force, a higher value is added to the score value. The latter provides an incentive to the urinator to control the flow to a lower force, thereby reducing splashing.

Referring to FIG. 5, an exemplary flow chart of an order, delivery and installation of the typical target system is shown. This method of doing business starts with receiving an order 300 as known in the industry. For example, an order is placed by a user through an Internet web page as known in the industry. Next, a payment is accepted 304 also as known in the industry. For example, a payment is made with a credit card, debit card, paypal, etc., by a user through an Internet web page as known in the industry, preferably with a secure connection to reduce identity theft. If the payment fails 308, for example, the user enters an invalid credit card number, the system loops back 304/308.

Once a valid payment is made 308, a kit is shipped to the user 312. The kit includes the target system along with labels 43 (see FIG. 7) and optionally, label creation software. Although any number of labels 43 is possible, it is anticipated that a sheet of labels 41 (see FIG. 7) is provided allowing for mistakes and later changes to the target graphic 42. The user prints whatever graphics 42 are desired 314 on the labels 43. Although not required, it is anticipated that the user has access to software (e.g. web-based) or is delivered software that uploads, crops and positions the graphics 42 (e.g. images) appropriately for the sheet of labels 41. The user then prints the label(s) using, for example, a standard color printer. Once the user is happy with a printed label 43, the user assembles the target device with the printed label 43, for example affixing the label 43 on the front surface of the target device or placing the label beneath a clear or translucent cap 39 then connecting the cap 39 to the cover 36 of the target device. Once the graphics 42 is properly secured to the cover 36, the target device is mounted 322 to the urinal 1 or toilet 2 (see FIG. 6C).

Referring to FIGS. 6A, 6B, 6C and 6D, a second exemplary target system will be described. In this example, the target housing 36/38 has a mounting tab 24/25 for mounting to the inside toilet bowl surface. The angle between the sections 24/25 of the mounting tab 24/25 holds the target system outwardly away from the inside surface of the toilet bowl.

In electronic embodiments, a sensor 30 (not shown in FIGS. 6A-6D) is housed within the target housing 36/38. How and where the sensor 30 is mounted is dependent upon the type of sensor 30. Preferably, the target cover 36 has a printed target graphic 42 that is visible for the urinator to take aim. As urine flows onto the target cover 36, pressure from the flow of urine counteracts the force of the spring 34 and the sensor 30 converts the urine pressure into an electrical signal that is interfaced to the micro-controller 100. The micro-controller 100 determines the pressure and flow length and determines a score that is then displayed on the display 10 (not shown in FIGS. 6A-6D). Note that when electronic scoring circuitry is included in embodiments similar to those shown in FIGS. 6A-6D, it is anticipated that the pressure signal from the sensor 30 is wirelessly transmitted to another enclosure housing the processor and display, an alternate/small display 10 is integrated into the cover 36, or an alternate scoring output is utilized. An example of an alternate/small display 10 is a blinking LED in which the LED blinks faster when the score value is higher or the LED changes color and/or blinks dependent upon the score value. Another example of an alternate/small display 10 is a single digit seven-segment display which displays a score value of from 0 to 9 but, in some embodiments, is sequenced to indicate even higher score values. For example, the outer 6 segments of a single digit display 10 are sequenced to indicate a score higher than 9. An example of an alternate scoring output is an audible sound emitter such as a Piezo sound transducer that emits a beep and the period and/or frequency of the beep changes proportional to the score value.

As shown in FIG. 6D, the target mounting tab 24/25 is affixed to a front facing inner wall 2 of a toilet by, for example, an adhesive or double sided tape 17, thereby holding the target outwardly from the surface 2 of the toilet bowl. In some embodiments, the adhesive or double sided tape 17 provides a removable adhesion to enable removal of the entire target system for cleaning and battery replacement. In this embodiment, the target graphics 42 is a printed sheet that is located between the target cover 36 and a transparent or translucent cap 39. The cap 39 protects the target graphics 42 from damage from the flow of urine 3.

In the embodiment shown in FIG. 6C, the target graphics 42 is a printed sheet that adheres to the target cover 36. In this, the target graphics 42 is made of a material that resists degradation due to exposure to the urine 3. For example, the target graphics 42 has a clear-coat layer that protects the target graphics 42 from damage from the flow of urine 3. In another example, the target graphics 42 is printed on a label with an adhesive backing and then the label with the target graphics 42 is affixed to the target cover and then a self-adhesive clear-coat layer is affixed over the target graphics 42 to reduce damage from the flow of urine 3.

Referring to FIG. 7, printed labels 43 of a typical target system are shown. The exemplary printed labels 43 are on a sheet 41. For description purposes, four individual labels 43 are shown printed with the same target graphics 42, though any graphical content are anticipated as created and/or provided by the end user. It is anticipated that, in some embodiments, the end user is provided with a library of sample target graphics 42. It is also anticipated that software is provided or made available (e.g. Internet-based) to the end user that accepts an image file and crops/adjusts the image for printing on one or more of the labels 43. In this, the end user is free to place any graphics 42 on their own private target system.

Referring to FIGS. 8A, and 8B, a third exemplary target system will be described. In this example, a first end of the target housing 36a/38a is movably held together by a hinge 107 that is formed, for example, by a slot in the target cover 36a holding a protrusion of the target base 38a. At the other end of the target housing 36a/38a is a longer slot 111 in the target cover 36a holding a second protrusion 109 of the target base 38a. The longer slot 111 allows for lateral movement of the protrusion 109 with respect to the target cover 36a. A spring 105 or other resilient member 105 urges the target cover 36a away from the target base 38a until counteracted, for example by the force of a flow of urine.

In this example, the sensor 30 is interfaced to a circuit board 101 that also holds the processor 100 and display 10. Mounting of the sensor 30 is mounted is dependent upon the type of sensor 30. In some examples, the target cover 36a has a printed target graphic 42 that is visible for the urinator to take aim. As urine flows onto the target cover 36a, pressure from the flow of urine counteracts the force of the spring 105 and the target cover 36a is forced closer to the target base 38a. This brings the magnet 32 closer to the Hall Effect sensor 30. The Hall Effect sensor 30 converts the urine pressure into an electrical signal that is interfaced to the controller system 99. The micro-controller 100 determines a score based upon either the pressure and/or a flow length (e.g. the length of time of urination). The score is then displayed on the display 10, visible through a window 15 in the target cover 36a. Although a numeric display 10 is shown, any other output device is anticipated such as a blinking LED in which the LED blinks faster when the score value is higher or the LED changes color and/or blinks dependent upon the score value. Another example of an alternate/small display 10 is a single digit seven-segment display which displays a score value of from 0 to 9 but, in some embodiments, is sequenced to indicate even higher score values. For example, the outer 6 segments of a single digit display 10 are sequenced to indicate a score higher than 9. An example of another alternate scoring output is an audible sound emitter such as a Piezo sound transducer that emits a beep and the period and/or frequency of the beep changes proportional to the score value.

Referring to FIGS. 9A, and 9B, a fourth exemplary target system will be described. This example is physically similar to the third exemplary target system. A first end of the target housing 36a/38a is movably held together by a hinge 107 that is formed, for example, by a slot in the target cover 36a holding a protrusion of the target base 38a. At the other end of the target housing 36a/38a is a longer slot 111 in the target cover 36a holding a second protrusion 109 of the target base 38a. The longer slot 111 allows for lateral movement of the protrusion 109 with respect to the target cover 36a. A spring 105 or other resilient member 105 urges the target cover 36a away from the target base 38a until counteracted, for example by the force of a flow of urine.

In this example, the sensor 30 is interfaced to a circuit board 101 that also holds the processor 100 and display 10. The sensor 30 is mounted is dependent upon the type of sensor 30. In some examples, the target cover 36a has a printed target graphic 42 that is visible for the urinator to take aim (not present in this example). As urine flows onto the target cover 36a, pressure from the flow of urine counteracts the force of the spring 105 and the target cover 36a is forced closer to the target base 38a. This brings the magnet 32 closer to the Hall Effect sensor 30. The Hall Effect sensor 30 converts the urine pressure into an electrical signal that is interfaced to the micro-controller system 99. The micro-controller 100 determines a score value based upon either the pressure and/or a flow length (e.g. the length of time of urination). At a particular score value, an image is displayed on the graphics display 210, visible through a window 15 in the target cover 36a. Although an image of a person is shown portrayed on the display 210, any other image and/or format is anticipated such as a blinking image in which the image blinks faster when the score value is higher or series of images, each successive image is displayed dependent upon the score value. In some embodiments, the image is augmented with an audible sound emitter such as a Piezo sound transducer that emits a beep and, in some embodiments, the period and/or frequency of the beep changes proportional to the score value.

In this example, the display 210 is any graphics display, color or black and white, of any known technology including, but not limited to, OLED displays, TFT displays, STN displays, plasma displays, e-ink, etc., whether backlight or not.

Referring to FIGS. 10A, and 10B, a fifth exemplary target system will be described. In this example, the target housing is similar to the previous examples with the sensor 30 interfaced to a circuit board 101 that also holds the processor 100 and display 310. Mounting of the sensor 30 is mounted is dependent upon the type of sensor 30. In some examples, the target cover 36a has a printed target graphic 42 that is visible for the urinator to take aim. As urine flows onto the target cover 36a, pressure from the flow of urine counteracts the force of the spring 105 and the target cover 36a is forced closer to the target base 38a. This brings the magnet 32 closer to the Hall Effect sensor 30. The Hall Effect sensor 30 converts the urine pressure into an electrical signal that is interfaced to the micro-controller system 99. The micro-controller 100 determines a score based upon either the pressure and/or a flow length (e.g. the length of time of urination). The score is then displayed on the display 310, visible through a window 15 in the target cover 36a. In this example, the display 10 is a sequence of illuminatable areas 13 (e.g. areas illuminated or affected by lamps, LEDs, display elements, e-Ink areas, changes in reflectivity, etc.) such as discrete lamps (e.g. LEDs), lamps (e.g. LEDs) arranged to illuminate a bar graph (as shown), lamps (e.g. LEDs) arranged in any order, shape, color arrangement, format, etc. In this, the score is used to determine which lamps (e.g. LEDs) are illuminated. There are many possible schemes to convert the score into a pattern of lamps (e.g. LEDs). One example is illuminating each bar of the exemplary display 310 sequentially such that, the higher the score, the more bars are illuminated. For example, when there's little or no pressure only the first lamp (e.g. white LED) is illuminated and when there is a lot of pressure, all of the lamps are illuminated (e.g. other color LEDs with a red LED as the highest lamp). In some embodiments, after the flow abates (e.g. no pressure for 3 seconds), the processor calculates an overall score for the session and compares the overall score to internal registers representing previous scores. If the urinator has a score higher than the previous scores, the display indicates such by, for example, blinking one of the lamps (e.g. a red LED) and if the urinator has a medium score relative to the previous scores, blinking another one of the lamps (e.g. an amber LED).

The examples shown are for illustration only and there is no limitation on the physical construction and/or electrical system and equivalent elements can be substituted for those shown in the examples to achieve the same results.

It is anticipated, that the electronics, sensor and/or battery are sealed or potted to reduce or prevent contamination from urine.

Equivalent elements can be substituted for the ones set forth above such that they perform in substantially the same manner in substantially the same way for achieving substantially the same result.

It is believed that the system and method as described and many of its attendant advantages will be understood by the foregoing description. It is also believed that it will be apparent that various changes may be made in the form, construction and arrangement of the components thereof without departing from the scope and spirit of the invention or without sacrificing all of its material advantages. The form herein before described being merely exemplary and explanatory embodiment thereof. It is the intention of the following claims to encompass and include such changes.

Claims

1. A urinal target system comprising: a base member having at least a back wall;a cover member, the cover member having at least a front wall, the cover member is movably interfaced to the base member and the cover member is urged away from the base member by a resilient member such that a force directed upon the front wall of the cover member counteracts the resilient member proportional to the force, moving the cover member towards the base member; anda display mounted within the urinal target system, a display area of the display visible through a window in the cover member;a sensor coupled to the urinal target system such that the sensor detects the force and the sensor converts the force into an electrical signal, the electrical signal being proportional to the force of the flow of the urine;a processor, the processor electrically interfaced to the display and the processor electrically interfaced to the sensor such that the processor receives the electrical signal from the sensor that is proportional to the force, software running on the processor generates a score value that is proportional to the force and/or a length of time of the force;whereas the base member is interfaced to a wall of a toilet/urinal and the cover member is a target for a person urinating.

2. The urinal target system of claim 1, further comprising software running on the processor, the software causes the processor to display the score value on the display.

3. The urinal target system of claim 1, wherein the display is an alpha/numeric display, and the software causes the processor to display the score value on the display.

4. The urinal target system of claim 1, wherein the display is a graphical display, and the software running on the processor selectively displays one or more images on the display corresponding to the score value, the images stored in a memory, the memory interfaced to the processor.

5. The urinal target system of claim 1, wherein the display includes display elements, and the software running on the processor controls the processor to selectively illuminate one or more of the display elements based upon the score value.

6. The urinal target system of claim 5, wherein the display elements are arranged as a bar-graph display.

7. The urinal target system of claim 1, wherein the sensor comprises a Hall Effect sensor affixed to the base member and a magnet affixed to an inside surface of the cover member; the Hall Effect sensor converts a magnetic field strength of the magnet into the electrical signal such that, as the cover member moves closer to the base member due to the force, the magnet moves closer to the Hall Effect sensor, thereby increasing the magnetic field strength around the Hall Effect sensor and changing the electrical signal proportional to the force.

8. A method of improving aim of a person that is urinating, the method comprising the steps of: (a) directing the flow of the urine towards an outside surface of a urinal target system, a back wall of a base member of the urinal target system is affixed to a urinal, the urinal target system further comprises: a cover member, the cover member having at least a front wall, the cover member is movably interfaced to the base member and the cover member is urged away from the base member by a resilient member such that a flow of urine applies a force to an outside surface of the front wall of the cover member thereby the force counteracts the spring, moving the front wall of the cover member closer to the back wall of the base member;a sensor, the sensor coupled to the urinal target system such that the sensor detects the force from the flow of the urine and the sensor converts the force into an electrical signal, the electrical signal being proportional to the force of the flow of the urine;a processor electrically interfaced to the sensor such that the processor receives the electrical signal;a display, the display housed within the urinal target system and a display area of the display is visible through a window in the cover member;(b) software running on the processor calculating a score value that is a function of at least the force of the flow of the urine;(c) the software running on the processor illuminating the display dependent on the score value; and(d) Repeating steps (b) and (c) until the force of the flow of the urine abates.

9. The method of claim 8, wherein the score value is also a function of a length of time that the flow of the urine continues to apply the force on the cover member.

10. The method of claim 8, further comprising after step (d), the step of (e) the software running on the processor delaying for a period of time and then the software running on the processor blanking the display.

11. The method of claim 8, wherein the display is a numeric or alpha/numeric display and whereas the step of illuminating the display dependent on the score value includes displaying a numerical representation of the score value on the display.

12. The method of claim 8, wherein the display is a graphical display and whereas the step of illuminating the display dependent on the score value includes selecting a graphical image from one or more graphical images based upon the score value and displaying the selected image on the display.

13. The method of claim 8, wherein the display includes individual illuminatable areas and whereas the step of illuminating the display includes selectively illuminating one or more of the illuminatable areas based upon the score value.

14. A urinal target system comprising: an enclosure;means for measuring a force from a flow of urine applied to the enclosure;means for calculating a score value as a function of the force;means for displaying, a display area of the means for displaying visible through the enclosure; andmeans for changing an output of the means for displaying dependent upon the score value.

15. The urinal target system of claim 14, wherein the means for measuring the force converts the force into an electrical signal, the electrical signal being proportional to the force of the flow of the urine.

16. The urinal target system of claim 15, wherein the means for calculating the score value further considers a time that the force persists.

17. The urinal target system of claim 14, wherein the means for displaying is a numeric display and the means for changing the output controls the numeric display to display a numerical representation of the score value.

18. The urinal target system of claim 14, wherein the means for displaying is a graphics display and the means for changing the output controls the graphics display to display an image, the image selected from one or more images based upon the score value.

19. The urinal target system of claim 14, wherein the means for displaying is one of more illuminatable areas and the means for changing the output controls selectively illuminates one or more of the illuminatable areas based upon the score value.

20. The urinal target system of claim 19, wherein the one of more illuminatable areas are two or more illuminatable areas arranged as a bar graph and the means for changing the output controls sequentially illuminates each of the illuminatable areas as the score value increases.