Resistance training device with long pull distance

Abstract

(Main claim) Resistance training device, comprising: • a main element (10) which remains in a fixed position during use, • a flexible traction device (20) for transmitting power between the user and the device, and • a resistance mechanism (30) connected to the traction means, which enables a maximum resistance-based pulling distance of over 3 meters, wherein the resistance mechanism exerts resistance on the traction means in order to enable a whole-body movement training.

Description

Technical area

[0001] This utility model application relates to a device in the field of sports and rehabilitation technology for generating resistance during rehabilitation and athletic training, in particular during exercises with extended ranges of motion. State of the art

[0002] Conventional resistance training systems—such as cable pulleys, pulley machines, or rowing machines—have a pull-out length of less than 3 meters. This limits their use in dynamic, full-body movements with extended working distances, such as extended pulling, pushing, or lateral movements. Therefore, there is a need for a training device that allows for a greater pull-out length while providing effective resistance. Description of the invention

[0003] The invention relates to a resistance training device specifically designed to support dynamic whole-body movements over extended working distances and featuring an extension length of over 3 meters, typically up to 10 meters. This allows the user to perform movements with high spatial extension—such as forward and backward pulling, sprint exercises, or lateral movements—under continuous resistance.

[0004] The device is designed for fixed installation, such as on a wall, a floor anchor, or a training frame. The required resistance is generated through mechanical friction, magnetic braking systems, and / or other passive or active methods. The generated resistance is counteracted by a band, rope, or cable to the movement exerted by the user. The connection between the device and the user can be established either via handy handles or via a belt system or harness.

[0005] The essential inventive idea lies in the provision of a stationary device that allows a maximum resistance-based extension length of more than 3 meters (10 or 15 meters are typical for our devices). This enables resistance training over longer distances – a form of training that was previously only possible using bulky and difficult-to-handle equipment such as weight sleds. The device according to the invention thus represents a space-saving and versatile technical solution, particularly for functional training and rehabilitation applications with extended range of motion. Embodiments (not exhaustive):

[0006] The invention can be implemented in various embodiments to cover a wide range of requirements and application scenarios. Various implementation variants are described below as examples, but are not limited to them: Mounting options (50): • Wall mounting: Attachment to vertical surfaces, particularly suitable for rooms with limited floor space. • Floor mounting: Firm anchoring in the floor, ideal for applications with high loads or intensive use. • Rack mounting: Integration into existing training racks for space-saving use and creation of a functionally integrated training environment. Control components (40): • Handle systems: Ergonomically designed handles for comfortable handling and optimal power transmission. • Belt and loop systems: Adjustable straps for a secure connection to the user - especially for exercises where a direct handle connection is not possible. Sensors and measurement technology (not essential for the scope of protection, but intended for functional extension): • Integrated sensors: Measuring devices built directly into the device to record force, speed of movement and other training-relevant parameters. • External sensors: Interfaces for connecting external measuring systems or wearables for comprehensive training analysis. Resistance generation (30): • Magnetic resistance: Low-maintenance systems with precise control via magnetic fields. • Friction-based resistance: Mechanically adjustable systems for generating a defined resistance through controlled friction. • Electromotive resistance: Electronically adjustable systems with high precision for fine-tuning of the resistance. • Hybrid systems: Combining multiple resistance technologies to maximize adaptability and functional diversity. Illustrations (page 6):

[0007] The attached drawings illustrate exemplary embodiments of the device - isometric stand-alone ( Fig. 1) and in practical use ( Fig. 2 and Fig. 3). Images depicted include stationary installation, fully extended extension length, and users performing dynamic resistance exercises over an extended range of motion.

Claims

[1] (Main claim) Resistance training device, comprising: • a main element (10) which remains in a fixed position during use, • a flexible traction device (20) for transmitting power between the user and the device, and • a resistance mechanism (30) connected to the traction means, which enables a maximum resistance-based pulling distance of over 3 meters, wherein the resistance mechanism exerts resistance on the traction means in order to enable a whole-body movement training. [2] The resistance mechanism according to claim 1, characterized by that the passive or active resistance is generated by magnetic eddy current braking, mechanical friction, electrical motor resistance or a combination thereof. [3] The device according to claim 1, characterized by that the traction device can be connected to the user via a harness, a belt, a handle or handles. [4] The device according to claim 1, characterized by that the main element is designed to be attached to a load-bearing structure such as a wall, floor, door frame or training frame. [5] The device according to claim 1, characterized by that comprehensive integrated or external sensors are provided to monitor traction force, speed or user movement. [6] The device according to claim 1, characterized by that the main element is configured to pivot or orient itself in the direction of the force exerted by the user while remaining fixed in position. [7] The device according to claim 1, characterized by that the resistance level can be adjusted manually or automatically.

Images