Cabled Workout Tower

This application is a nonprovisional utility application and claims the benefit of U.S. Application Ser. No. 63/653,129, titled “Cabled Workout Tower,” filed by Charles Jefferson, et al., on May 29, 2024.

This application incorporates the entire contents of the foregoing applications herein by reference.

Various embodiments relate generally to work out equipment.

In the design of exercise equipment, specific types may be chosen to align with intended fitness outcomes. Treadmills may incorporate variable speed settings, optimized for endurance training, while stationary bicycles may feature adjustable resistance levels, tailored for cardiovascular health. For strength development, precision-engineered free weights such as dumbbells and kettlebells may provide scalable weight options for progressive resistance training. Resistance bands may offer dynamic tension adjustment, crucial for enhancing flexibility and strengthening muscles. Multi-gym systems may integrate multiple exercise stations, designed for comprehensive muscular engagement across various groups, essential for targeted fitness programs.

Apparatus and associated methods relate to a cabled workout tower (CWT). In an illustrative example, the CWT includes a platform including a proximal base supporting opposing vertical supports extending along a longitudinal axis to a distal affixed pullup module. The CWT includes a weight platform including weight stacks housed. The CWT includes a pulley guided cable system operatively connected to cables with pulleys, including a distal weight platform pulley operatively coupled to a double pulley device. An upper pulley portion operatively couples to a distal base platform pulley and a distal pull handle by an upper cable. A lower pulley portion operatively couples to an anchored weight proximal pulley anchored to a proximal base platform pulley coupled to a proximal pull handle. Various embodiments may advantageously enable users to perform hanging exercises from the pull up bar and weighted abdominal exercises by engaging the proximal pull handle.

Various embodiments may advantageously enable resistance-based lower abdominal training through cable outputs positioned at the base of the tower. This fixed low-cable configuration aligns with the user's lower torso, allowing efficient execution of targeted core exercises such as cable reverse crunches, leg raises, bicycle crunches, and flutter kicks. The integrated structure eliminates the need for external benches or secondary equipment to achieve proper exercise alignment. Users can anchor themselves naturally against the platform and engage in dynamic core movements using direct, bottom-originating resistance. The continuous cable tension supports full range-of-motion control, enhancing form stability and isolating lower abdominal muscles. The arrangement of components allows users to move efficiently between multiple lower ab exercises during a single session, maintaining workout intensity and reducing setup interruptions.

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.

Apparatus and associated methods relate to a cabled workout tower (CWT).depicts an exemplary cable workout tower (CWT).depicts a front view of the CWT with a user hanging from the upper bar and engaging the lower pulley system using their legs.provides a right-side view of the user performing a leg-driven lift using the lower bar and pulley mechanism.illustrate cable and harness component assemblies in different operating positions.show details of the coupling mechanisms used for connecting the vest or harness system to the cable interface.presents a side elevation view of the cable routing and attachment points between the weight stacks and user interface.show detailed internal views of the proximal and distal pulley configurations used to control resistance from the weight stack through the lower cable path. Various embodiments of the cable workout tower may advantageously include Velcro, adjustable buckles, sleeves for the user's shoes and/or arms, rings, carabiners, and a metal latch to enhance usability and versatility.

depicts an exemplary cable workout tower employed in an illustrative use-case scenario. The illustrative use-case scenarioincludes a base. The basesupports a dip module. The dip modulemay, for example, be attached between opposing vertical supports. The opposing vertical supportsmay, for example, support a pull-up bar. The pull-up barmay, for example, be extended using pull-up bar extensions. The pull-up bar extensionsmay, for example, be affixed to the vertical supports. The weight stack housingmay, for example, be supported between the vertical supportsand include an internal weight stack. Bottom exercise barsmay, for example, be disposed near the baseand configured to assist with leg-driven lower abdominal exercises. The bottom exercise barsmay be coupled to a proximal weight cable. The proximal weight cablemay, for example, be routed through a pulley system and operatively coupled to the weight stack housed within the weight stack housing. A distal upper weight cablemay, for example, be routed from an upper pulley and similarly coupled to the weight stack housing. The cable workout towermay, for example, include a central padding. The central paddingmay, for example, be worn by the user to stabilize engagement with the cable system.

In some embodiments, the cable workout tower may, for example, include a weight stack comprising a plurality of weight plates selectable in a predetermined range. The weight stack may include individual plates configured in uniform increments, such as 5-pound or 10-pound units, enabling users to select resistance levels ranging from approximately 10 pounds to 200 pounds. In some configurations, the stack may start at a minimum selectable weight of 5 pounds and increase in 5-pound intervals up to 100 pounds, or in 10-pound intervals up to 200 pounds, depending on the model. Each plate may be engaged using a selector pin inserted through guide apertures aligned with a central weight guide rod, allowing secure and repeatable adjustment. The use of consistent, predetermined increments may, for example, support both beginner and advanced users by accommodating a wide range of strength levels. Additionally, the modular nature of the plates may facilitate manufacturing flexibility and compatibility across different workout tower variants.

depicts a front view of the cable workout towerand a userengaging a dip module. The useris shown gripping dip handles mounted between vertical supports. The vertical supportsmay, for example, support the dip handles at a predetermined height, enabling upper body pushing exercises. A lower cable baris shown at the user's feet, which may, for example, be configured for additional leg engagement or balance. The vertical supportsare also configured with apertures for height adjustment and may provide anchor points for cable systems.

provides a right-side view of the cable workout towerand a userperforming a suspended core exercise. The useris gripping an upper pull-up barwhile simultaneously lifting a lower barwith their legs. The lower barmay, for example, be attached to a proximal weight cable configured to translate tension to a weight stack. The pull-up baris affixed to opposing vertical supports and may be used for upper body suspension during dynamic abdominal exercises. The cablemay be routed through a pulley system to resist leg-driven lifting motions.

illustrates the dip modulein the process of being disengaged from the cable workout tower. The user begins by lifting the dip module in a vertical motionto clear it from the aligned aperturespositioned along the vertical supports. After the dip module is lifted free of the tower structure, the user transitions to a controlled repositioning motion, guiding the dip module away from the engagement axis. This motion allows for a smooth and deliberate removal from dip mode while preserving the integrity of the structural coupling points for future reinstallation.

shows the dip moduleafter removal, having been placed in a stable position on the ground, represented by reference. This position follows the completion of the lifting and repositioning motions. The modular nature of the dip module allows for convenient stowing or reattachment at alternate heights. The aligned aperturesalong the vertical supports remain available for re-engagement. This configuration ensures ease of use and enables quick transitions between exercise modes without requiring tools or complex reassembly.

illustrates a useroperating the distal pull handlein an overhead configuration. The userengages the handlefor upper-body or core-resistance exercises. The distal pull handleis connected via a cable routed through an elevated pulley and may include a modular interface for attachment. The handle may be configured to connect with different grip options suitable for pull-downs or ab crunches using the upper pulley path.

shows the same useroperating the proximal pull handle. The handleis engaged at a lower position near the base platform and may be used for leg-driven or core-engaging movements such as reverse crunches or flutter kicks. The attachment interface of the proximal handlemay include a modular connector configured to receive various accessories through a clip, hook, or carabiner system. This setup allows quick interchangeability between cable ends and supports a wide range of movement orientations for resistance training.

presents a side view of a cable systemand an associated weight stack. The system includes a distal pulleypositioned at an upper region of the frame and configured to redirect a distal cabledownward through a dual pulley assembly. In some embodiments, the dual pulley assemblyincludes an upper portionand a lower portionoperatively coupled to route cable tension through separate paths. A chain segmentis operatively connected to the weight stack and may, in some embodiments, be anchored to a frame structure or guide post to provide stabilization during motion. A proximal pulleyis positioned near the base of the tower and is configured to route a proximal cableoutward toward the user. In some embodiments, the weight stack may include a selectable pin or keying mechanism that allows the user to engage one or more individual plates for lifting. This configuration enables resistance to be adjusted in predetermined increments to suit user preference and workout goals.

shows a proximal pulleyand a lower cable segment. The proximal pulleymay, for example, be anchored to a proximal frame structure for routing tension. The lower cable segmentmay, for example, extend from the user's harness to the pulley system.

illustrates a distal pulley configurationand a guide bracket. The distal pulley configurationmay, for example, receive redirected force from the proximal segment. The guide bracketmay, for example, maintain cable orientation and smooth operation during movement. A final return path pulleymay, for example, deliver cable force back to the weight stack, completing the loop.

In some embodiments, the cable workout tower may, for example, include an adjustable weighted cable configured to be harnessed directly to a user, which may enhance the resistance during exercises such as leg raises, dips, and pull-ups. In some embodiments, the cable workout tower may, for example, feature a harness system that users may adjust for a snug fit, ensuring that the added weight from the cable is effectively utilized to increase workout intensity. In some embodiments, the cable workout tower may, for example, incorporate a locking mechanism on the weighted cable, which may allow users to easily adjust the amount of weight and securely lock it in place during exercises like flutter kicks and/or dips.

In some embodiments, the cable workout tower may, for example, be equipped with an adjustable bench that may be set either flat or at an incline, which may provide users with the flexibility to perform a variety of exercises targeting different muscle groups. In some embodiments, the cable workout tower may, for example, include a mechanism that allows the bench to pivot smoothly and securely, which may facilitate quick transitions between different exercises without compromising stability or safety. In some embodiments, the cable workout tower may, for example, integrate the adjustable bench with the weighted cable system, allowing the resistance to be effectively used in both seated and prone exercises on the bench, enhancing the utility and effectiveness of the workout station.

In some embodiments, the cable workout tower may, for example, be tailored for collegiate athletic programs, featuring customizable digital interfaces that may integrate with academic calendars and training schedules. This system may, for example, allow for monitoring and adjusting workouts to align with the academic stress athletes face, similar to the scheduling demands you may experience in managing recruitment programs. Additionally, this version of the cable workout tower may include secure access systems to ensure that only authorized athletes and coaches may modify the training parameters, ensuring compliance and safety.

In some embodiments, the cable workout tower may, for example, be designed with a dual harness system—one for the upper body and one for the lower body—to provide balanced support and resistance during exercises. In some embodiments, the cable workout tower may, for example, include a rotating base that allows the tower to pivot, enabling a wider range of motion and supporting exercises that require twisting or turning movements.

In some embodiments, the cable workout tower may, for example, feature an ultra-compact design intended for small spaces, utilizing vertical stacking of weights and foldable components to minimize its footprint. In some embodiments, the cable workout tower may, for example, be constructed from advanced composite materials to reduce weight while increasing strength and durability, making it more suitable for frequent repositioning or mobile fitness applications.

In some embodiments, the cable workout tower may, for example, include integrated cooling systems within the handles or vest to keep users comfortable during intense workouts. This system may, for example, use phase change materials or small fans to help dissipate heat. In some embodiments, the cable workout tower may, for example, incorporate digital screens on the equipment frame that display workout tutorials, real-time feedback on form, or virtual workout environments.

In some embodiments, the cable workout tower may, for example, be enhanced with a self-cleaning technology that uses UV light or nano-coatings to maintain hygiene, particularly beneficial in shared environments like gyms or rehabilitation centers. In some embodiments, the cable workout tower may, for example, include programmable LED lighting that changes colors based on the intensity of the workout or to signal different workout phases.

In some embodiments, the cable workout tower may, for example, offer an array of interchangeable accessories, such as different types of grips, padded straps, or resistance bands, to enhance the versatility of workouts that may be performed. In some embodiments, the cable workout tower may, for example, incorporate force sensors that measure the amount of force applied by the user, providing detailed feedback to help improve performance and prevent injuries.

In some embodiments, the cable workout tower may, for example, include heavy-duty construction and enhanced durability to withstand the frequent and intense usage typical in collegiate sports facilities. The tower may feature expanded sets of weights and resistance bands to cater to the diverse needs of various sports disciplines, from sprinters who require explosive power to rowers needing endurance and strength. To

In some embodiments, the cable workout tower may, for example, incorporate advanced motion capture technology to analyze athlete performance in real-time. This technology may be used in helping coaches provide immediate feedback to athletes, enhancing the learning curve and performance in critical competitions.

In some embodiments, the cable workout tower may, for example, offer a scalable resistance feature that adjusts automatically based on the athlete's performance feedback. This functionality would ensure that workouts remain challenging but doable, optimizing the training impact for each session. Additionally, it may provide predictive analytics based on collected data, offering insights into potential future performance or injury risks, thus enabling better management of athlete conditioning and readiness.

In some embodiments, the cable workout tower may, for example, be designed to support both indoor and outdoor training scenarios, equipped with weatherproof materials and portable components that may be easily assembled or disassembled. This flexibility would allow athletic programs at colleges to utilize the equipment in various environments, from gymnasiums to outdoor training camps. Such adaptability may be particularly useful in institutions with limited indoor space, ensuring training consistency regardless of external conditions.

In some embodiments, the cable workout tower may, for example, feature a specialized mat surface around its base that provides extra grip for stability during exercises such as deadlifts or squats that require solid footing. In some embodiments, the cable workout tower may, for example, incorporate a resistance adjustment knob that may be manually turned to modify the tension of the cables, allowing for precise control over workout intensity suited to different fitness levels. In some embodiments, the cable workout tower may, for example, include a series of pulleys that may be configured in multiple directions, enhancing the ability to perform complex multi-directional exercises that target various muscle groups effectively.

In some embodiments, the cable workout tower may, for example, be equipped with a quick-release mechanism on the cable attachments, which allows users to easily switch between different types of exercises without significant downtime. In some embodiments, the cable workout tower may, for example, feature a built-in storage compartment within the base where users may store personal items such as towels, water bottles, and workout gloves. In some embodiments, the cable workout tower may, for example, be designed with a detachable bench that may be removed when not in use, optimizing the space within the gym and adapting to various workout preferences.

In some embodiments, the cable workout tower may, for example, include an adjustable frame that may be height-adjusted to accommodate users of different sizes, ensuring that everyone from tall to short may use the equipment comfortably and safely. In some embodiments, the cable workout tower may, for example, have integrated weight racks on the side of the tower, which allow for easy access to free weights for combined strength training routines. In some embodiments, the cable workout tower may, for example, feature a color-coded resistance level indicator, making it easy for gym-goers to quickly select the appropriate resistance setting for their workout intensity.

In some embodiments, the cable workout tower may, for example, include a foot pedal system integrated into the base, which may be used to activate and adjust the resistance levels without using hands, offering a hands-free adjustment option during workouts. In some embodiments, the cable workout tower may, for example, offer a dual-cable system that allows two users to work out simultaneously, maximizing the use of the equipment in busy gym settings. In some embodiments, the cable workout tower may, for example, be constructed from eco-friendly materials that reduce the environmental impact while maintaining the durability and strength required for gym equipment.

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, other implementations may be deployed in other industrial, scientific, medical, commercial, and/or residential applications.

In industrial applications, the cable workout tower may be adapted for use in heavy-duty settings such as warehouses or large-scale manufacturing plants where strength training is beneficial for workers. The cable workout tower may, for example, include enhancements like reinforced structures and industrial-grade materials to withstand rigorous use. The cable workout tower may, for example, feature modular components that may be easily replaced or upgraded as required in these environments.

In scientific research settings, the cable workout tower may be utilized in studies focusing on biomechanics or physical therapy. The cable workout tower may, for example, be equipped with sensors and measurement devices to record a range of motion and muscle engagement data. Additionally, the cable workout tower may, for example, be modified to support experiments that require variable resistance levels and precise control over movement patterns.

In medical rehabilitation centers, the cable workout tower may serve as a key tool for patient rehabilitation. The cable workout tower may, for example, include adjustable supports and harnesses tailored to assist individuals recovering from injuries. Furthermore, the cable workout tower may, for example, be designed with features that allow for gentle, controlled motions suitable for early-stage physical rehabilitation.

In commercial fitness centers, the cable workout tower may be a central piece of equipment due to its versatility in supporting a variety of exercises. The cable workout tower may, for example, be promoted as a multi-functional station that may accommodate different workout routines, from strength training to flexibility exercises. Moreover, the cable workout tower may, for example, include user-friendly interfaces that allow clients to customize their workouts according to their fitness levels.

In residential home gyms, the cable workout tower may offer homeowners a compact and efficient workout solution. The cable workout tower may, for example, be designed to occupy minimal space while providing the functionality of multiple separate pieces of exercise equipment. Additionally, the cable workout tower may, for example, include safety features that make it suitable for use in a home environment, ensuring users of all ages may exercise safely.

In some embodiments, the cable workout tower may, for example, include one or more cables formed from braided steel encased in a polymeric sheath. The polymeric sheath may, for example, reduce noise during pulley redirection and extend the operational life of the cable by resisting internal corrosion and surface abrasion. The braided steel core may, for example, provide tensile strength sufficient to support dynamic leg-driven and upper body resistance exercises, with load ratings that may accommodate up to 300 pounds of continuous force. The polymer layer may, for example, exhibit a diameter between 4 mm and 6 mm to allow smooth passage through guide pulleys while maintaining consistent tension under load. In some configurations, the cable routing may permit minimal slack throughout the user's range of motion, helping to maintain effective resistance throughout each repetition. The combined material properties may, for example, enhance safety and durability across repeated use cycles.

In some embodiments, the cables may, for example, include synthetic fiber cores, such as aramid or ultra-high-molecular-weight polyethylene (UHMWPE), enclosed within a textile sleeve. These materials may, for example, be selected for their combination of flexibility, weight reduction, and resistance to elongation under tension. The textile sleeve may, for example, include a low-friction coating or weave pattern that permits smooth redirection through pulleys without the risk of fraying or deformation. The flexibility of these cables may, for example, improve user comfort during fast, dynamic abdominal exercises, especially those performed from a suspended position. The synthetic cable form factor may, for example, also permit compatibility with hook-and-loop or modular attachments for easier user interface transitions.

In some embodiments, the dip module may, for example, be equipped with integrated foam padding bonded to the upper-facing surface of each arm. The foam may, for example, be made from closed-cell EVA or polyurethane, chosen for compressive resilience and resistance to sweat absorption. The padding may, for example, include a curved top profile approximately 2 inches in height and 3 inches in width to accommodate natural forearm or elbow contact during vertical pressing exercises. The padding may be fixed to the arm structures using a permanent adhesive or mechanical fastening embedded beneath the surface. This configuration may, for example, help reduce impact stress on the user's arms while improving stability during suspended abdominal or dip exercises. The padding may, for example, be integrated during assembly or offered as a modular upgrade.

In some embodiments, the pull-up module may, for example, include a grip region wrapped in a high-friction rubber sleeve or closed-cell foam. This grip region may, for example, extend along the lateral bar segment, typically 1.25 inches in outer diameter and spanning up to 36 inches across. The foam or rubber covering may, for example, enhance grip security for users performing high-repetition pull-ups or sustained hangs. In addition to improving comfort, the padded grip surface may, for example, support reduced hand fatigue and help maintain correct body alignment during upper body suspension exercises. The covering may be pre-molded and applied during the tower's final assembly or field-installed using press-fit or thermal bonding techniques.

In some embodiments, the proximal and distal pull handles may, for example, include quick-attach coupling devices such as carabiners, D-rings, or pivotable eyelets configured to interchangeably receive a variety of grip accessories. These accessories may, for example, include single-grip nylon loops, foot stirrups, or adjustable torso harnesses. Each attachment point may, for example, include a reinforced anchor ring integrated into the handle frame, rated for repeated dynamic loads. The attachment interface may, for example, support fast configuration changes between leg-driven and hand-driven exercises. This flexibility may help users tailor their workouts to different muscle groups without requiring tool-based handle replacement. The attachment system may also, for example, support third-party or commercial fitness accessories commonly used in cable-based resistance equipment.

In some embodiments, the cabled workout tower may, for example, include a vertical alignment frame that allows for manual height calibration of the pull-up module relative to the user's reach. This adjustability may be implemented via a telescoping mechanism within the vertical supports, with detent pins or threaded locks securing the selected height. The system may, for example, allow the pull-up module to be raised or lowered in 1-inch increments across a range of 12 inches, accommodating users of various heights or mobility needs. The adjustability may enhance accessibility for rehabilitation applications or youth athletic training. The modular vertical alignment frame may be fabricated from square tubular steel or high-strength aluminum to maintain frame rigidity during load-bearing use. The incorporation of indexed height markers along the support may assist in reproducible training setups.

In some embodiments, the weight platform of the cabled workout tower may, for example, be supported on adjustable guide tracks allowing for lateral translation relative to the base platform. This feature may enable alignment of the cable resistance vector with various user orientations—such as side-facing or rotational exercises—by physically repositioning the resistance source. The guide track may, for example, be implemented using dual roller-bearing rails secured beneath the weight platform, locked into place by a cam or lever mechanism. Such adjustability may, for example, be beneficial in physiotherapy contexts where unilateral core engagement is prescribed. The lateral repositioning of the weight system may be performed while unloaded, preserving user safety during configuration.

In some embodiments, the cabled workout tower may, for example, include foldable stabilizer legs that may be deployed laterally from the base to increase the equipment footprint during high-intensity use. These stabilizers may, for example, be constructed from powder-coated steel bars and extend 12 to 18 inches per side, locking into place via a spring-loaded hinge. When not in use, the legs may fold flush against the base platform to preserve space. The stabilizers may be particularly advantageous for exercises involving dynamic lateral motion, such as resisted lateral lunges or rotational torso pulls. The increased base width may enhance both user safety and the tower's overall stability, particularly in environments with less secure flooring.