CONTINUOUSLY OPERABLE AND SUBMERSIBLE WATER GUN

TECHNICAL FIELD

Various embodiments relate generally to aquatic recreation, water guns, and water dispensing devices.

BACKGROUND

Water guns, technically known as water blasters, are mechanical devices designed to expel water under pressure for recreational purposes. Water guns may, for example, include a reservoir and/or tank for storing water, a pump mechanism, and a trigger system connected to a nozzle through which the water is ejected. The technology behind water guns has evolved significantly, from simple piston-based mechanisms, where water is drawn into a chamber and then forced out by manual pump action, to more advanced pressurized systems. In pressurized water guns, air is pumped and compressed into the reservoir, creating a pressure differential that propels water out of the nozzle at high velocity when the trigger is engaged. Some models incorporate battery-powered pumps for automatic water propulsion, eliminating the need for manual pumping and enabling continuous streams of water. The design and engineering of water guns focus on maximizing range, accuracy, and water capacity to enhance play value, with some of the most sophisticated models capable of shooting water several dozen feet.

SUMMARY

Apparatus and associated methods relate to a continuously operable water gun. In an illustrative example, the continuously operable water gun may include a housing configured to receive a pool noodle extending along a longitudinal axis. The continuously operable water gun may, for example, be integrated into wearable technology to allow other forms of use, such as wrist mounted for ease of mobility. Various embodiments may advantageously include a housing that defines a discharge conduit and an intake conduit both fluidly coupled to the water pump configured such that the intake conduit may be submerged below a surface of water to receive water and the discharge conduit may disperse water along an axis of firing. The pool noodle may be configured to be received along the longitudinal axis of the housing.

Some embodiments of the continuously operable water gun may, for example, include a housing including ribs configured such that the pool noodle may releasably couple to the housing when the pool noodle is inserted onto the housing. In some embodiments, the housing may, for example, include snap connectors configured such that the pool noodle may releasably couple to the housing when the pool noodle is inserted onto the housing.

Some embodiments of the continuously operable water gun may, for example, include snap connectors that include spring loaded retractable connectors. The continuously operable water gun, may, for example, include a housing including a control panel configured such that a user can control the water gun between a range of predetermined configurations and angles between the surface of the water at the inlet and the axis of the firing of the discharge conduit at which the discharge conduit may discharge water from. The control panel may, for example, include a long-distance firing mode. The control panel may, for example, include a pulsation firing mode. The continuously operable water gun may, for example, include a spray nozzle. The continuously operable water gun may, for example, include a dual-fire nozzle. The continuously operable water gun may, for example, include a tri-fire nozzle. The continuously operable water gun may, for example, include a rechargeable battery. The continuously operable water gun may, for example, include a first end of the housing that is fluidly coupled to a discharge conduit and an intake conduit. The water pump may, for example, include a water filtration system.

Various embodiments may achieve one or more advantages. For example, some embodiments may include a continuous operable and submersible water gun designed for engaging users in water fights within various bodies of water, such as pools, lakes, and oceans. The continuous water gun may, for example, include customization options, including interchangeable parts, adjustable spray nozzles, adjustable firing modes, hand attachments for improved grip and control. Treaded connections may, for example, be attached to the water gun to extend the range of the water gun. The continuous operable and submersible gun may, for example, allow a user to submerge the inlet of the water gun to continuously fire the water gun while being configured to receive a pool noodle. The pool noodle may, for example, provide additional buoyance supporting a user to keep the nozzle above water while firing the water gun.

The details of various embodiments are set forth in the accompanying drawings and the description below. Other features and advantages will be apparent from the description and drawings, and from the claims.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1A depicts an exemplary continuous operable and submersible water gun (CWG) employed in an illustrative use-case scenario.

FIG. 1B depicts an exemplary continuous portable and submersible water gun.

FIG. 2A depicts an exemplary ribbed CWG in an illustrative use-case scenario.

FIG. 2B depicts an exemplary ribbed CWG.

FIG. 3A depicts an exemplary snap connector CWG in an illustrative use-case scenario.

FIG. 3B depicts an exemplary snap connector CWG.

FIG. 3C depicts an exemplary snap connector.

FIG. 4 depicts an exemplary electrical schematic of an exemplary CWG.

FIG. 5A depicts an exemplary electrical schematic for an exemplary CWG.

FIG. 5B depicts a simplified diagram depicting an integrated circuit.

FIG. 5C depicts a partial pinout for the integrated circuit.

FIG. 5D depicts an electrical schematic detailing configuration of two transistors.

FIG. 5E depicts an exemplary control circuit.

FIG. 5F depicts an exemplary switch circuit.

FIG. 5G depicts an exemplary LED circuit.

Like reference symbols in the various drawings indicate like elements.

DETAILED DESCRIPTION OF ILLUSTRATIVE EMBODIMENTS

To aid understanding, this document is organized as follows. First, to help introduce discussion of various embodiments, a continuously operable and submersible water gun (CWG) illustrative scenario is introduced with reference to FIG. 1. Second, that introduction leads to a description with reference to FIGS. 2A-2B of a ribbed embodiment of the CWG. Third, with reference to FIG. 3A-3C, the discussion turns to a snap connector CWG. Fourth, with reference to FIG. 4, an electrical schematic is described in application to exemplary CWG.

FIG. 1A & FIG. 1B depicts an exemplary continuous operable and submersible water gun (CWG) employed in an illustrative use-case scenario 100. The illustrative use-case scenario 100 includes a user 105. The user is located within a body of water 110. The body of water may, for example, be a pool. The body of water may, for example, include a lake. The body of water in some embodiments may, for example, include an ocean.

In the illustrative use-case scenario 100, the user is engaged with another CWG in a water fight where they are spraying water at each other. The user 105 is spraying water 115 from a CWG. The spraying water 115 is coming from a CWG 120.

A cross-section 185 of the CWG 120 is depicted. The CWG 120 includes a water pump 130. The CWG 120 includes an inlet 121 of the water pump 130. The CWG includes the discharge conduit outlet 123 of the water pump 130. The inlet 121 is placed below a surface of the body of water 110. The inlet 121 intakes water from the body of water 110 and sprays from the CWG through the discharge conduit outlet 123. The inlet may, for example, include an inlet conduit.

The inlet 121 is fluidly coupled to an housing 122 (e.g., a component housing). The component housing may, for example, store the water pump and tubing in which the fluid is transferred in from the inlet to outlet nozzle. The housing 122 is coupled to discharge conduit outlet 123 (e.g., a tubing). The discharge conduit outlet 123 includes a nozzle 125. The nozzle may, for example, be positioned at an angle, theta (in FIG. 1), from the surface of the water. The angle may, for example, be 30 degrees. The angle may, for example, be 45 degrees. The angle may, for example, be 60 degrees. The range and/or directness of the stream of water to a target may, for example, be affected by the positioning of the nozzle.

Exterior foam tubing 124 may, for example, be fixedly coupled to the housing 122. The foam may, for example, include factory foam. The factory foam may, for example, enclose the housing. The factory foam around the housing may, for example, enhance the CWG's durability by absorbing impacts and reducing wear and tear from rough handling or accidental drops. The foam may, for example, provide additional buoyancy to the CWG, making the water gun easier to handle and maneuver in aquatic environments. The fixed foam may, for example, offers a comfortable grip, improving user experience during prolonged use and making it less likely to slip out of wet hands. The fixed foam may, for example, offer cushioning to the CWG during transport.

The exterior foam tubing 124 may, for example, be inserted onto the discharge conduit outlet 123. The discharge conduit outlet 123 may extend a longitudinal axis. The exterior foam tubing 124 may, for example, be inserted on the discharge conduit. A user may, for example, handle use the foam tubing to handle the water gun. Some embodiments may, for example, include snap connectors to couple the foam housing to the housing 122. Some embodiments may, for example, include ribs to frictionally engage the exterior foam tubing 124 to the discharge conduit.

An outlet of the water pump 130 is fluidly coupled to the discharge conduit outlet 123. The water pump 130 is electrically coupled to a portable power source 135 (e.g., a battery). The battery may, for example, be rechargeable. In this embodiment, the water gun includes a charging circuit 140 to recharge the portable power source 135. The portable power source may, for example, store enough electrical power to operate the water pump continuously for a predetermined minimum duration (e.g., 3 hours).

The exemplary CWG includes a rear view 180 of the CWG. The rear view 180 of the exemplary CWG features an LED charge indicator 145. Furthermore, the CWG 120 may, for example, incorporate a Universal Battery Charging (UBC) cable port 150 which facilitates the electrical connection for charging. The UBC charging cable port 150 may, for example, ensure compatibility with a wide range of charging standards, offering an efficient and versatile charging solution. The configuration allows for the LED charge indicator and the UBC charging cable port to be placed in various locations on the CWG, including the side, top, bottom, or front. In some designs, the placement of the charge indicator and the UBC charging cable port may be strategically positioned on different sides, such as having the charge indicator on the rear and the UBC charging cable port on the left side, enhancing accessibility and user convenience.

In some embodiments, inductive charging may be implemented to enhance the water gun's waterproofing feature, eliminating the need for exposed power jacks and reducing the risk of water ingress. This method may allow for a completely sealed unit, supporting the water gun's continuous and submersible operation.

In some embodiments, the water gun may include a power jack for charging. This power jack may be designed to accommodate various sleeve dimensions, such as a 5 mm outer sleeve and a 2.1 mm inner sleeve, though other sizes like a 5.5 mm outer sleeve and a 2.5 mm inner sleeve may also be utilized. The adaptability in sleeve dimensions allows for customization to match specific charging setups and electronic system requirements, while also maintaining a seal against water entry for the device's integrity.

Some embodiments of the exemplary CWG, as depicted in FIG. 1, includes a switch 160 that when activated, the water pump is operated on and continuously sucks water in from the body of water through the intake conduit and discharges the water through the discharge conduit. For example, some embodiments may advantageously allow continuous ‘firing’ of a water gun and/or water cannon as long as the intake conduit remains disposed in a body of water. The switch may, for example, be placed on the rear of the CWG.

In some embodiments, a push-button switch may, for example, be included to actuate the pump, change firing modes, and/or signal readiness to fire. The switch may, for example, be used for user interaction, allowing simple, quick operation in wet conditions and needs to be water-resistant for durability.

In some embodiments, a touch screen switch, not depicted in the provided figures, may, for example, offer a modern, versatile interface for electronic devices. In a water gun, the touch screen could serve as an advanced control panel, enabling users to select firing modes, adjust spray patterns, or monitor battery life with just a tap or swipe. The touch-sensitive surface may, for example, be waterproof and responsive, allowing for seamless operation even with wet fingers.

Some embodiments may, for example, include a wrist mounted version. The wrist mounted version may, for example, include touch-screen capabilities. The wrist-mounted version may, for example, provide users with a convenient control system while freeing up their hands for better mobility and aiming. A wrist touch screen may, for example, display status information and allow for on-the-fly adjustments to the water gun's settings, enhancing the user experience with technology at the ready in the heat of water combat. The wrist touch screen may, for example, incorporate artificial intelligence to optimize firing conditions based on the user's experiences.

Some embodiments may, for example, include a control switch used to control the mode of firing (e.g., continuous firing, pulsed firing). Some embodiments may, for example, include a control switch to control the type of firing (1 nozzle, 2 nozzle, 3 nozzle, spray, etc.). Some embodiments may, for example, include a control switch to control the range offering (10 ft, 20 ft, 25 ft, 50 ft, 100 ft, etc.). Some embodiments may, for example, include an on/off switch.

In some embodiments, the inlet may, for example, include a filtration system. The filtration system may, for example, include a filter. The filter may, for example, filter out contaminants from the water before spraying. The filter may, for example, filter out salt from sea water before spraying. The filter may, for example, filter out mud or contaminants from lake water before spraying.

Such embodiments may, for example, advantageously eliminate the need for a user to reload a water reservoir during playing while using a foam housing as a handle for their water gun. In some embodiments, the water pump, portable power source, intake conduit, and discharge conduit may be disposed in a housing. The housing may, for example, be a water gun.

In some embodiments, the housing may, for example, be a pool noodle. The housing may, for example, be configured to receive a pool noodle. For example, the water pump and portable power source may be disposed in a housing configured to receive a center lumen of a pool noodle. The intake conduit may be fluidly coupled to a proximal end of the pool noodle. The discharge conduit may be fluidly coupled to a distal end of the pool noodle. The proximal end of the pool noodle may be disposed into a body of water (e.g., a pool, a pond, a lake), and the water pump may discharge water out the distal end of the pool noodle.

Such embodiments may, for example, advantageously provide a disguised water gun. The water pump and portable power source may, for example, be waterproof. The housing may, for example, be IP68 or greater rated. For example, a charging port, a water pump inlet, and a water pump outlet may be waterproofed such that the entire water pump and portable power source may be contained in a waterproof cavity.

In some implementations, the continuous water gun (CWG) may, for example, be disposed within a pool noodle. The pool noodle may, for example, be specifically disposed in fluid communication between inlet and outlet of lumen and contained within the pool noodle. The CWG may, for example, be continuously operable. The CWG may, for example, produce a continuous stream for an hour. The CWG may, for example, produce a continuous stream for two hours. The CWG may, for example, produce a continuous stream for 3 hours or greater if desired.

The CWG includes electrical that allow the CWG to operate continuously without the use of a manual pump. This design may, for example, allow a continuous, uninterrupted water stream. This may, for example, enhance the user's experience by providing sustained operation for extended durations. The CWG may, for example, include waterproof LED lighting for enhanced visibility and aesthetic appeal. The CWG may, for example, include an IP68-rated push button for durable and reliable operation in aquatic environments. The button may, for example, be a rocker switch. The button may, for example, be capacitive touch. The button, for example, may be inductive. The button, for example, may be a wireless switch encased to allow remote control. The CWG may, for example, include adaptable connections for external water sources, enabling versatility in use. These enhancements may, for example, be coupled with the added buoyancy and user engagement, position the CWG as a water recreation device.

For context, in some embodiments a rocker switch may, for example, include a switch that rocks back and forth between on and off positions. The switch may, for example, be enhanced with a waterproof rating, such as IP68, to ensure its durability and functionality in moisture-rich environments. For context, the IP68 waterproof rating may, for example, allow the rocker switch to be fully protected against dust ingress and can withstand long periods of immersion in water under specified conditions. The waterproofing may, for example, make the switch ideal for applications where exposure to water is common, such as in recreational water devices like the Continuous Water Gun (CWG). This combination of the mechanical switch design with a high-water protection makes the rocker-switch a versatile and reliable choice for controlling electrical circuits in a wide array of settings, ensuring both user safety and device longevity.

In some implementations, threaded male or female connections may, for example, be included at the input line base to allow attachment of portable water source such as a backpack or extended hose. The CWG may, for example, include a portable mode out of water mode.

In some implementations, interchangeable pool noodle clip-on body may, for example, be included for both the output section and electrical sections.

In some implementations, the CWG may, for example, include an adjustable spray nozzle. The nozzle may, for example, include different modes. The modes may, for example, include a spray mode. The modes may, for example, include a long-distance mode. The modes may, for example, include a dual stream mode.

In some embodiments, to improve handling, the CWG may be designed with attachments for the handlebars, providing users with a better grip and allowing the relocation of the switch to a more accessible position on the handlebars. The handling position and/or foam tube (e.g., pool noodle) position may, for example, have ergonomic considerations to ensure ease of operation during extended use. The CWG may, for example, include interchangeable parts that enable the transformation of its standard single pipe and nozzle configuration into a multi-nozzle setup resembling a trident, offering various spray patterns and intensities suitable for different recreational and practical applications.

In some embodiments, to assist users in monitoring the device's operational status, the CWG, for example, may be equipped with remaining battery indicator lights, adding a practical feature that ensures uninterrupted play by alerting users to low battery levels. Additionally, waterproof LED light strips may, for example, be attached to the output nozzle, not only enhancing the aesthetic appeal of the water stream but also improving visibility in low-light conditions. For user comfort, the CWG may, for example, include a telescoping nozzle that adjusts to different lengths, accommodating various user preferences and scenarios. The CWG may, for example, include shoulder support mechanism to distribute the device's weight, reducing strain during prolonged use.

The interior chamber may, for example, measure 10.7 inches in length. The chamber may, for example, measure 2 inches in diameter. The chamber may, for example, support a water pump with a flow rate of 1.3 liters per minute. The water gun pump may, for example, operate on a voltage range of 9-12 V and consume 600 mA of current. The power system may, for example, include 3000 mAh batteries. The power system may, for example, include a charging circuit. The switch may, for example, facilitate toggling between power levels. An LED indicator may, for example, be included for visual feedback. USB type C power jack may, for example, be included for universal charging.

FIG. 1B depicts an exemplary perspective view 175 of an exemplary CWG. FIG. 1B depicts an exemplary rear view 180 of an exemplary CWG. FIG. 1B depicts an exemplary front view 195 of an exemplary CWG. FIG. 1B depicts the cross-section view 185 of an exemplary CWG. FIG. 1B depicts an exemplary side cross-section view 190 of an exemplary CWG.

FIG. 2A depicts an exemplary ribbed CWG in an illustrative use-case scenario 200a. A user is using a ribbed CWG insert 155 configured to receive with a foam tubing 224a (e.g., a section of a pool noodle). The user may, for example, insert the foam tubing along a longitudinal axis 115a which the discharge conduit extends along. The discharge conduit may, for example, extend along a longitudinal axis of the housing of the CWG. In some embodiments, the discharge conduit may, for example, be flexible. A ribbed region 215 frictionally engages the foam tubing 224a, such that it the foam housing may, for example, releasably couple to the CWG.

FIG. 2B depicts an exemplary ribbed exemplary ribbed CWG 200. The exemplary ribbed CWG includes an inlet nozzle. The inlet nozzle may, for example, ensure an uninterrupted supply and operation for extended use in a wide range of environments. The exemplary ribbed exemplary ribbed CWG 200 includes an output nozzle 210. The output nozzle may, for example, allow for greater precision and versatility in water projection, allowing for adjustable spray patterns and pressures to suit diverse application. The exemplary ribbed exemplary ribbed CWG 200 includes a ribbed region 215. The ribbed region 215 includes ribs 215a. The ribs may, for example, be protrusions that frictionally engage with a lumen of a foam tubing is inserted onto the ribbed region. The ribbed region may, for example, be configured to receive the inner lumen of a tube. The ribs may, for example, advantageously provide a secure, non-slip grip and facilitate easy attachment and detachment of the pool noodle, enhancing user comfort and ensuring stability during use. The ribs may, for example, be made of foam. The ribs may, for example, be made of plastic. The ribs may, for example, be made of elastic material, such as rubber. The ribs may, for example, be layered to include a combination of foam, plastic, and elastic material (e.g., plastic exterior, foam cushioning, and rubber coating).

The exemplary ribbed exemplary ribbed CWG 200 includes a water pump 220. The water pump may, for example, be used to enable a consistent and powerful water flow, allowing for continuous operation and extended play or usage without the need for manual pumping or refilling. The exemplary ribbed exemplary ribbed CWG 200 includes an affixed foam 224 enclosing the housing. The affixed foam 224 may, for example, be affixed to the inlet conduit, and the outlet conduit in some embodiments.

The exemplary ribbed exemplary ribbed CWG 200 includes a battery of 225. The battery may, for example, be replaceable. The battery may, for example, be rechargeable. The battery may, for example, be used to allow a user to have a convenient cordless operation of their water gun and be able to use the device without a need for a direct power source. Some embodiments of the CWG may, for example, include a cord version.

The CWG includes a control circuit 230. The control circuit within the Continuous Water Gun (CWG) may, for example, serve as a central hub for managing the device's operation. The control circuit may, for example, enable precise control over the CWG's functionalities. The control circuit may, for example, be designed to facilitate user interaction with the CWG, allowing for adjustments in water pressure, spray patterns, and modes of operation, such as continuous stream or pulsating flow. The control circuit may, for example, ability provide users the flexibility to customize their experience according to specific needs or preferences, enhancing overall user satisfaction. The integration of a control circuit may, for example, contribute to the efficiency and effectiveness of the CWG. The control circuit may, for example, be used to optimize water usage and battery life by regulating the operation of the water pump and other electronic components. The control circuit may, for example, be programed to minimize waste and extend the duration of play or usage without the need for frequent recharging. The control circuit may, for example, include safety features, such as automatic shut-off in case of malfunction.

The exemplary ribbed exemplary ribbed CWG 200 includes a switch 235. The switch may, for example, enable a user quick and user-friendly control over the operation of a device, allowing users to conveniently toggle between different modes or power on/off with minimal effort.

The exemplary ribbed exemplary ribbed CWG 200 includes a charging port 240. The charging port may, for example, offer the convenience of user-friendly and efficient recharging of the device's battery, enabling continuous use and reducing the need for frequent battery replacements. The charging port may, for example, be USB type C. The charging port may, for example, be magnetic induction to allow wireless charging.

The exemplary ribbed exemplary ribbed CWG 200 includes a LED indicator 245. The LED indicator may, for example, provide clear, immediate visual feedback on the device's status, such as power on, charging, or operational mode, enhancing user interaction and efficiency.

FIG. 3A depicts an illustrative use-case scenario 300a. The illustrative use-case scenario 300a includes an exemplary snap connector CWG 300. The exemplary snap connector CWG 300 includes a foam tubing 224a. The foam tubing may, for example, be removed from the exemplary CWG as depicted. The foam tubing 224a may, for example, be inserted onto the exemplary snap connector CWG 300. The foam tubing 224a may, for example, be inserted along the longitudinal axis 115a of the CWG.

The snap connector CWG 300 includes an affixed foam 324 enclosing the housing. The CWG may, for example, be operated as a continuously operable water gun. The CWG may, for example, include a rechargeable battery. The CWG in some embodiments, may, for example, include a spray nozzle. The CWG may, for example, in some embodiments may, for example, include a tri-fire nozzle. The CWG in some embodiments may, for example, include a rechargeable battery. The CWG in some embodiments may, for example, include snap connectors including spring loaded retractable connectors. The CWG may, for example, include a control panel.

In some embodiments, the control panel may, for example, allow a user to control the water gun between a range of predetermined configurations. The predetermined configurations may, for example, include a long-distance firing mode. The predetermined configurations may, for example, include an interchange between firing modes. The predetermined configurations may, for example, include a low power spraying. The predetermined configuration may, for example, include a medium power spraying.

The affixed foam 324 may, for example, form a foam layer extending along the surface of the housing. The foam layer in some embodiments may, for example, extend along the surface of the inlet conduit. The foam layer may, for example, extend along the surface of the outlet conduit.

The exemplary snap connector CWG 300 includes a snap connector 370. The snap connector may, for example, include a configuration for both the inlet pipe and outlet pipe, so the snap connector may, for example, snap onto the CWG. The snap connector may, for example, be configured for just the outlet pipe, and have an inlet pipe placement on a different area of the CWG.

As depicted, the snap connector 370 includes a foam connector 360. The foam connector may, for example, include an aperture for both the inlet and outlet. The foam connector may, for example, include the combination of the inlet and outlet. The snap connector 370 includes a product connection 355. The product connection 355 may, for example, be used to couple the snap connector to the housing of the exemplary snap connector CWG 300. The foam connector 360 may, for example, be used to couple the foam tubing (e.g., pool noodle) to the exemplary CWG. The inlet and outlet may, for example, include groves at the base of the inlet and outlet to couple to the tubing. The inscribing perimeter of the snap connector may, for example, include protrusions to grip the foam tubing. The foam tubing may, for example, elastically deform and/or plastically deform onto the foam connector and be coupled to the CWG by frictional forces.

The snap connector in some embodiments may, for example, include ribs to couple the foam tubing to the snap connector. The ribs may, for example, be placed on the inlet pipe, outlet pipe, and/or the inscribing perimeter of the snap connector. The snap connector in this embodiment includes snap pegs that may, for example, increase the coupling force between the foam tube and snap connector when inserted. The snap connector may be factory glued to the foam.

FIG. 3B depicts an exemplary snap connector CWG 300. The exemplary snap connector CWG 300 includes an outlet pipe 305. The exemplary snap connector CWG 300 includes an inlet pipe 310. The exemplary snap connector CWG 300 includes a connector 315. The exemplary CWG includes a water pump 320. The exemplary snap connector CWG 300 includes a battery 330. The exemplary CWG includes a control circuit 340. The exemplary CWG includes a switch 345. The exemplary CWG includes a charging port 350. The exemplary CWG includes a LED light 351. The exemplary CWG includes snap pegs 325. The snap pegs may, for example, act as a mechanism to secure and align internal components, ensuring efficient water flow and pressure for optimal squirting performance. The exemplary snap connector CWG 300 housing is affixed with foam 324.

FIG. 3C depicts an exemplary snap connector 370. The exemplary snap connector may, for example, be coupled to the connector 315 as depicted in FIG. 3A & FIG. 3B. The exemplary snap connector 370 includes a product connection 355. The product connection may, for example, allow for the attachment of accessories or the integration of the gun with compatible water systems, expanding its functionality and play options.

The exemplary snap connector 370 includes a foam connector 360. The foam connector for a water gun may, for example, be designed to provide a watertight seal between different sections of the water gun, minimizing leaks and enhancing durability.

FIG. 4 depicts an exemplary electrical schematic of the CWG with exemplary parameters (e.g. resistors, pump location, battery placement, AC/DC current, voltage, switch layout, diodes). The electrical schematic includes a charger. The charger may, for example, be a 15V charger. The charger runs parallel to an RL resistor and a water pump light L. A control switch runs in series with the charger. A diode runs in series with the charger. A charger resistor RB runs in series with the charger. A LED rocker switch runs in series with the switch. A 350 mAh electric water pump runs in series with the switch.

In a loop of the schematic the control switch may, for example, run in parallel with an RA resistor. The control loop may, for example, run in series with an R1 resistor.

FIG. 5A includes a step-up voltage converter circuit, transforming a 5V input into a 12.6V output, featuring diodes, an inductor, a MOSFET, and an IC for control and feedback. FIG. 5B may illustrate a voltage regulator circuit with an IC connected to input and output filtering capacitors. FIG. 5C shows an integrated circuit, U1, with a +5V supply to pin 1, ground connected to pin 8, and other pins labeled for various functions. FIG. 5D includes a transistor-based switching or amplifying configuration with biasing resistors and an adjustable voltage input capacitor. FIG. 5E depicts a MOSFET controlling a motor, with a protective diode and gate pull-down resistors. FIG. 5F shows an open switch circuit, labeled Key1, with the potential to connect a power line to ground. Finally, FIG. 5G includes a basic LED circuit with an LED and a current-limiting resistor connected to a +5V power supply.

The CWG may, for example, use the electronic components to operate and control the water gun. FIG. 5A may, for example, be used for a voltage step-up, for driving motors or pumps within the water gun that require higher voltages than the power source supplies. FIG. 5B and FIG. 5C may, for example, be connected to the control panels, showing voltage regulation and signal processing that allow for customization options such as long-distance and pulsation firing modes. FIG. 5D and FIG. 5E may, for example, be used in relationship with the drive circuits for nozzles, such as the dual-fire or tri-fire options, with transistor arrangements activating different firing modes. FIG. 5F's simple switch may, for example, be part of a user interface for mode selection or activation of the water gun. FIG. 5G's LED circuit may, for example, be involved in the user feedback system or as a part of the aesthetic design for underwater use. These components may, for example, work together within the housing of the water gun, which may include customizable attachments and buoyancy aids like a pool noodle for use in various water bodies, providing an engaging and versatile water play experience.

Although various embodiments have been described with reference to the figures, other embodiments are possible.

Although an exemplary system has been described with reference to FIG. 1A-5G, other implementations may be deployed in other industrial, scientific, medical, commercial, and/or residential applications. The CWG may, for example, have value for residential use. The CWG may, for example, have value for commercial use in firefighting equipment. The CWG may, for example, have value for lab safety equipment. The CWG may, for example, be sold in pre-assembled packaging commercially.

In industrial settings, the CWG's continuous flow and adjustable nozzles could be adapted for tasks such as continuous cooling of machinery, cleaning of equipment, or even in the application of coatings where a steady, controlled water flow is crucial. The CWG may, for example, be used for its ability to operate continuously makes it ideal for processes that require sustained water delivery without interruption.

In scientific research applications, the CWG precise control overflow rate and pattern provided by the CWG can benefit scientific experiments that require consistent water conditions, such as hydroponic systems or aquatic life research. The CWG customization options allow for the creation of controlled environments necessary for accurate data collection and analysis.

In medical sector applications, a modified CWG could be used for sterilization purposes or wound cleaning, where a gentle, yet continuous flow of water or other sterilizing fluids is beneficial. The adaptability to different nozzles and flow rates can cater to specific medical needs, ensuring effective and efficient cleaning or treatment.

In commercial applications, the CWG can be adapted for use in cleaning services, especially in environments that require gentle but continuous water flow, such as car washes, window cleaning services, or even in agriculture for irrigation systems. Its continuous operation and adaptability make it a valuable tool for businesses seeking efficiency and effectiveness.

In residential applications, the CWG may, for example, be used for gardening and domestic cleaning, providing a continuous flow of water that can be adjusted according to the task—be it watering plants with a gentle mist or cleaning outdoor surfaces with a stronger stream. The ease of use and adaptability to different water pressures and patterns can enhance domestic chores, making them more efficient and less labor-intensive in combination with a hose.

In various embodiments, some bypass circuits implementations may be controlled in response to signals from analog or digital components, which may be discrete, integrated, or a combination of each. Some embodiments may include programmed, programmable devices, or some combination thereof (e.g., PLAs, PLDs, ASICs, microcontroller, microprocessor), and may include one or more data stores (e.g., cell, register, block, page) that provide single or multi-level digital data storage capability, and which may be volatile, non-volatile, or some combination thereof. Some control functions may be implemented in hardware, software, firmware, or a combination of any of them.

Although an example of a system, which may be portable, has been described with reference to the above figures, other implementations may be deployed in other processing applications, such as desktop and networked environments.

Temporary auxiliary energy inputs may be received, for example, from chargeable or single use batteries, which may enable use in portable or remote applications. Some embodiments may operate with other DC voltage sources, such as a 9V-12V (nominal) batteries, for example. Alternating current (AC) inputs, which may be provided, for example from a 50/60 Hz power port, or from a portable electric generator, may be received via a rectifier and appropriate scaling. Provision for AC (e.g., sine wave, square wave, triangular wave) inputs may include a line frequency transformer to provide voltage step-up, voltage step-down, and/or isolation.

Various examples of modules may be implemented using circuitry, including various electronic hardware. By way of example and not limitation, the hardware may include transistors, resistors, capacitors, switches, integrated circuits, other modules, or some combination thereof. In various examples, the modules may include analog logic, digital logic, discrete components, traces and/or memory circuits fabricated on a silicon substrate including various integrated circuits (e.g., FPGAs, ASICs), or some combination thereof. In some embodiments, the module(s) may involve execution of preprogrammed instructions, software executed by a processor, or some combination thereof. For example, various modules may involve both hardware and software.

A number of implementations have been described. Nevertheless, it will be understood that various modifications may be made. For example, advantageous results may be achieved if the steps of the disclosed techniques were performed in a different sequence, or if components of the disclosed systems were combined in a different manner, or if the components were supplemented with other components. Accordingly, other implementations are contemplated.

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