Pivotable mounting system and radio control unit for wearable user attachment systems

The pivotable mounting system for radio control units on wearable systems addresses the challenge of reconfiguring electronic devices without tools, providing ergonomic and secure attachment, improving accessibility and reliability during intense activities.

WO2026139304A1PCT designated stage Publication Date: 2026-07-02INVISIO COMM

Patent Information

Authority / Receiving Office
WO · WO
Patent Type
Applications
Current Assignee / Owner
INVISIO COMM
Filing Date
2025-12-17
Publication Date
2026-07-02

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Abstract

A pivotable mounting system for securing a radio control unit to a wearable user attachment system is disclosed The system includes a mounting device configured to releasably secure the radio control unit to the wearable user attachment system and a radio control unit operatively connectable to a radio communication device. The radio control unit includes one or more control elements for controlling radio communication and is configured to be secured to the mounting device in at least two different angular orientations about a central axis of the radio control unit. This enables pivotal positioning of the control elements relative to the user while maintaining a low-profile attachment. The system allows ergonomic access to the control elements, supports ambidextrous operation, and provides rapid reconfiguration without tools, improving operational flexibility and reliability in demanding environments.
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Description

[0001] PIVOTABLE MOUNTING SYSTEM AND RADIO CONTROL UNIT FOR WEARABLE USER ATTACHMENT SYSTEMS

[0002] TECHNICAL FIELD

[0003] The present disclosure relates to the field of communication devices, especially radio communication for professionals in challenging and stressful environments such as armed forces, police, rescue workers etc.

[0004] BACKGROUND

[0005] Police, military personnel, guards, rescue personnel etc. often make use of wearable user attachment system such as Modular Lightweight Load-carrying Equipment (MOLLE) or Pouch Attachment Ladder System (PALS) for carrying gear, especially for carrying and securing communication equipment such as cell phone, radio, camera etc. in an easily accessible way adapted to the individual needs depending on operation and personal preferences. Typically, MOLLE clips are used to attach the equipment to the PALS webbing.

[0006] US20230313821 Al describes a clip for securing a device such a control unit or push-to-talk (PTT) unit to a PALS webbing for stronger fastening to the PALS webbing, to reduce the risk that the PTT unit is no longer secured to the webbing during high intensity activity such as running, jumping, crawling etc.

[0007] US11418927B2 discloses a dual radio system, where the user has two radios and a PTT unit for each radio.

[0008] It is desirable to provide a flexible system for attaching and securing electronic devices, in particular a Push-to-talk unit, also known as a control unit to a wearable user attachment system, that allows the user to configure the equipment according to tactile needs and personal preferences, e.g. allowing ambidextrous placement of the control unit.

[0009] Furthermore, it is desirable to provide a mount for removably securing electronic devices such as control unit to a wearable user attachment system allowing the user to configure the equipment to personal preference or tactile need without the need for tools such as screwdriver to change the configuration.SUMMARY

[0010] One object of the present disclosure is to overcome at least one of the above-mentioned disadvantages, or to provide an alternative to existing solutions.

[0011] The present disclosure provides embodiments of a pivotable mounting system and a radio control unit for wearablefor wearable user attachment systems as disclosed herein according to independent claims with advantageous embodiments as defined by the dependent claims and disclosed herein.

[0012] According to a first aspect, the present disclosure relates to a radio control unit. A radio control unit may be understood as a device configured to control the operation of a radio communication device, typically by providing user-operable control elements such as buttons, switches, or selectors, and being suitable for integration into a wearable system for use by professionals such as armed forces, police, or rescue workers

[0013] In a preferred embodiment according to the first aspect, the radio control unit is configured to be secured to a wearable user attachment system worn by a user and operatively connectable to a radio communication device. A wearable user attachment system may be understood as a structure such as a vest, harness, or webbing system (for example, MOLLE or PALS) that is worn on the body and provides attachment points for equipment. The arrangement that the radio control unit is configured to be secured to such a system enables the user to position the control unit on the body in a location that is both accessible and suited to operational needs. One advantage of this arrangement is that the radio control unit can be carried securely and conveniently on the user’s body, allowing for operation according to user and rapid access to communication controls even in dynamic or stressful environments

[0014] In a preferred embodiment according to the first aspect, the radio control unit comprises a housing having one or more sides with one or more control elements. The housing may be understood as the physical enclosure of the radio control unit, and the one or more sides refer to the external surfaces of the housing. The control elements are user-operable features such as push-to-talk buttons, volume controls, channel selectors, or similar devices for managing radio communication. One advantage of this arrangement is that the user is provided with direct and ergonomic access to the control elements, which can be actuated reliably even when the user is wearing gloves or operating under adverse conditions.In a preferred embodiment according to the first aspect, the radio control unit comprises one or more connectors for connecting to a radio communication device (e.g., and a headset). The connectors may be understood as electrical or mechanical interfaces, such as plugs, sockets, or cable ports, that enable the radio control unit to establish a functional connection with a radio or headset. One advantage of this arrangement is that the radio control unit can be integrated into a communication system in a modular fashion, allowing for quick connection and disconnection as operational requirements change. The presence of one or more connectors ensures compatibility with a range of radio communication devices and supports the use of standard or specialized headsets

[0015] In a preferred embodiment according to the first aspect, the radio control unit comprises a plurality of fixation elements configured to secure the control unit in a releasable manner in at least one of two different angular orientations about a central axis of the housing, enabling pivotal positioning of the at least one side comprising the one or more control elements relative to the wearable user attachment system. The fixation elements may be understood as structural features providing mechanical, magnetic, frictional, or resilient engagement, such as grooves, indents, protrusions, or cut-outs that interact with a wearable user attachment system and / or a complementary mounting device to hold the radio control unit in place. The releasable manner refers to the ability to secure and release the control unit without the use of tools, and the at least two different angular orientations about a central axis means that the unit can be pivoted or rotated to discrete positions relative to the user’s body (e.g., the wearable user attachment system). One advantage of this arrangement is that the user can adjust the orientation of the control unit to suit personal preferences or operational requirements, such as switching between left- and right-handed operation or optimizing access to the control elements. The pivotal positioning capability allows the control unit to be adapted to different mounting locations and user postures, improving ergonomics and reducing the risk of accidental actuation or interference with other equipment.

[0016] In one embodiment, the wearable user attachment system is a pouch attachment ladder system or modular lightweight load-carrying equipment. A pouch attachment ladder system may be understood as a webbing structure with regularly spaced horizontal rows and vertical columns, typically used for attaching pouches and accessories to tactical vests or belts.

[0017] Modular lightweight load-carrying equipment refers to a standardized system of webbing andattachment points that enables the user to customize the placement of equipment on the body of a user. This arrangement allows the radio control unit to be mounted securely and flexibly on a wide range of professional wearable user attachment systems, supporting rapid reconfiguration and adaptation to different operational scenarios. One advantage of this arrangement is that the radio control unit can be positioned in a manner that optimizes accessibility and comfort for the user, regardless of handedness or mission requirements. The compatibility with standardized attachment systems ensures that the radio control unit can be integrated into existing equipment without the need for specialized mounting hardware, facilitating interoperability and reducing logistical complexity. The ability to secure the radio control unit to a pouch attachment ladder system or modular lightweight load-carrying equipment also enhances the reliability of the communication system by minimizing the risk of accidental detachment or interference with other gear, even during high-intensity activities such as running, jumping, or crawling.

[0018] In one embodiment, the radio control unit is configured such that the central axis extends longitudinally through the housing and is oriented parallel to a major surface of the housing. The central axis may be understood as an imaginary line running along the length of the housing, and the major surface refers to a large external face of the housing, typically the surface that is positioned adjacent to the user’s body when the unit is mounted. The housing has other surfaces covering smaller areas than the major surface. This arrangement allows the radio control unit to pivot about an axis that is aligned with the natural orientation of the wearable user attachment system, such as a vest or webbing panel. One advantage of this arrangement is that the user can adjust the angular position of the control unit without increasing the distance between the unit and the body, maintaining a low profile and minimizing the risk of snagging on external objects. The parallel orientation of the central axis relative to the major surface also supports stable and ergonomic access to the control elements, as the unit can be rotated to suit the user’s handedness or operational preference while remaining securely attached. This configuration enables the radio control unit to be repositioned quickly and reliably, supporting efficient adaptation to changing tasks or environments and reducing the likelihood of accidental detachment or misalignment during movement.

[0019] In one embodiment, the radio control unit is configured such that the central axis is substantially parallel to a plane defined by the wearable user attachment system when the control unit is secured thereto. The central axis may be understood as an imaginary line thatruns parallel to the plane defined by the wearable user attachment system, such as a tactical body amour vest with PALS or MOLLE webbing, which typically lies flat against the user’s torso when worn. The plane of the vest or webbing provides a reference for the orientation of the central axis, so that the axis extends horizontally or vertically along the vest surface. This arrangement allows the radio control unit to pivot about the central axis, enabling the unit to swing or rotate between a left-hand and a right-hand configuration, thereby changing the orientation of the control elements relative to the user while keeping the unit close to the vest. One advantage of this arrangement is that the radio control unit remains low-profile and does not protrude from the body, reducing the risk of snagging or interference with other equipment. The parallel alignment of the central axis with the plane of the attachment system supports stable mounting and reliable retention, enabling the user to adjust the orientation of the control unit for ergonomic access and operational flexibility without compromising the secure attachment or the accessibility of other gear.

[0020] In one embodiment, the fixation elements are configured to provide releasable retention of the radio control unit in at least two angular orientations using physical interaction. Fixation elements may be understood as structural features providing mechanical, magnetic, frictional, or resilient engagement, such as grooves, indents, protrusions, or cut-outs that interact with a mounting device to hold the radio control unit in place. Physical interaction refers to the engagement between the fixation elements and complementary features of the mounting device and / or the wearable user attachment system, such as a clip, spring element, or detent, which secures the radio control unit in a selected angular orientation and allows the unit to be released and repositioned without the use of tools. This arrangement enables the radio control unit to be retained securely in discrete angular positions, supporting pivotal positioning of the control elements relative to the user. One advantage of this arrangement is that the radio control unit can be adjusted quickly and reliably to suit operational requirements or personal preferences, such as switching between left-hand and right-hand configurations, while maintaining a secure attachment to the wearable user attachment system. The use of physical interaction for releasable retention enhances the durability and reliability of the system, as the radio control unit remains stably mounted even during high-intensity activities, and can be repositioned or removed with minimal effortIn one embodiment, the fixation elements are integrally formed with the housing.

[0021] Fixation elements may be understood as structural features such as grooves, indents, protrusions, or cut-outs that are manufactured as part of the housing itself, rather than being added as separate components. The housing refers to the enclosure of the radio control unit that supports and protects the internal electronics and provides surfaces for user interaction. This arrangement ensures that the fixation elements are robustly connected to the housing, improving the durability and reliability of the radio control unit during repeated repositioning and use. One advantage of this arrangement is that the radio control unit can be manufactured with fewer parts, reducing assembly complexity and minimizing potential points of failure. Integrally formed fixation elements also provide consistent engagement with the mounting device, supporting secure retention in multiple angular orientations and facilitating smooth pivotal movement. This configuration enhances the overall strength and stability of the radio control unit, ensuring that the unit remains securely attached to the wearable user attachment system even during high-intensity activities or adverse conditions.

[0022] In an embodiment, the plurality of fixation elements are arranged to define discrete angular positions within a finite angular range of less than 180 degrees about the central axis. Discrete angular positions refer to predetermined, stable orientations in which the radio control unit can be retained, rather than allowing continuous rotation. A finite angular range of less than 180 degrees means that the pivotal movement of the radio control unit is limited to a sector, such as between a left-hand, center, and right-hand position, rather than a full rotation. This arrangement enables the radio control unit to be quickly and reliably positioned in one of several ergonomic orientations, supporting efficient adaptation to user preference or operational requirements. One advantage of this arrangement is that the radio control unit remains securely retained in each selected position, reducing the risk of accidental movement or misalignment during use. The limitation to a finite angular range also prevents over-rotation, which could otherwise lead to cable entanglement or interference with other equipment. By providing stable, repeatable positions, this configuration enhances the usability and safety of the radio control unit, ensuring that the control elements are always accessible and optimally oriented for the user during demanding activities.

[0023] In an embodiment, the control unit is configured to be operatively connected to a headset via the one or more connectors. A headset may be understood as a device worn on thehead that includes one or more speakers and a microphone, enabling two-way audio communication between the user and a radio communication device. This arrangement allows the user to transmit and receive audio signals through the headset while controlling radio functions directly from the control unit. One advantage of this arrangement is that it supports operation using left or right hand and seamless integration of the radio control unit into the user’s communication system, enabling the user to maintain situational awareness and respond quickly during demanding activities. The ability to connect the control unit to a headset via standard or specialized connectors also enhances compatibility with a wide range of professional communication equipment, supporting operational flexibility and reducing the need for multiple devices. This configuration improves the effectiveness of handling audio communication, as the user can operate the radio and headset as an integrated system, even in challenging environments.

[0024] In an embodiment, the fixation elements are configured to engage with a mounting device to secure the control unit in a releasable manner. A mounting device refers to a component that attaches to the wearable user attachment system and provides complementary features for engaging with the fixation elements of the control unit. This arrangement allows the radio control unit to be attached securely to the mounting device and, by extension, to the user’s gear, while still permitting the unit to be released or repositioned without the use of tools. One advantage of this arrangement is that the radio control unit can be mounted and removed quickly and reliably, supporting operational flexibility and rapid adaptation to changing tasks or user preferences. The engagement between the fixation elements and the mounting device ensures stable retention of the control unit in selected angular positions, reducing the risk of accidental detachment or misalignment during movement. This configuration also supports ergonomic access to the control elements and maintains the low-profile, close-to-body positioning of the radio control unit, which is particularly beneficial during high-intensity activities or when operating in confined environments.

[0025] In an embodiment, the mounting device comprises a main body configured to be attached to the wearable user attachment system, and at least one first part configured to engage with the fixation elements of the control unit. The main body refers to the structural portion of the mounting device that is designed to be fixed to the wearable user attachment system, ensuring stable and reliable attachment during use. The first part is a feature of the mountingdevice that is shaped or arranged to interact with the fixation elements of the radio control unit, enabling the unit to be held in place and released as needed. This arrangement allows the radio control unit to be mounted securely and repositioned quickly, supporting operational flexibility and ergonomic access to the control elements. One advantage of this arrangement is that the radio control unit can be attached to a wide variety of professional wearable user attachment systems using a standardized mounting interface, reducing the need for specialized hardware and simplifying logistics. The engagement between the first part of the mounting device and the fixation elements of the control unit ensures that the unit remains stably retained in the selected orientation, even during vigorous activity, while still allowing for rapid removal or adjustment without tools. This configuration supports efficient adaptation to changing operational requirements and enhances the overall reliability and usability of the communication system.

[0026] In an embodiment, the central axis is defined by the alignment of the fixation elements with the main body of a mounting device. The central axis may be understood as an imaginary line about which the radio control unit pivots when secured to the mounting device. The alignment of the fixation elements with the main body means that the structural features on the housing of the radio control unit are positioned to correspond with complementary features on the mounting device, establishing a stable and repeatable axis of rotation. This arrangement ensures that the pivotal movement of the radio control unit is precisely controlled and consistently reproducible, supporting secure retention in multiple angular orientations. One advantage of this arrangement is that the radio control unit can be mounted and repositioned with high accuracy, reducing the risk of misalignment or accidental detachment during use. The defined central axis also facilitates ergonomic access to the control elements, as the unit can be rotated to optimal positions for the user while maintaining a close and stable connection to the wearable user attachment system.

[0027] In one embodiment, the fixation elements are arranged to provide a detent or snap-fit engagement with the mounting device in each of the at least two angular orientations. A detent or snap-fit engagement refers to a mechanical connection in which the fixation elements and the mounting device temporarily lock together at specific positions, producing a tactile or audible indication that the radio control unit is securely retained in a selected orientation. This arrangement allows the radio control unit to be quickly and reliably positioned in discreteangular positions, supporting stable retention and easy repositioning without the use of tools. One advantage of this arrangement is that the radio control unit remains securely held in each selected orientation, reducing the risk of accidental movement or detachment during use. The detent or snap-fit engagement also provides the user with clear feedback when the unit is properly seated, enhancing confidence and ease of operation, especially in demanding or high-stress environments.

[0028] In one embodiment, the mounting device comprises a first part forming a clip or spring element configured to press the control unit against the fixation elements to retain the control unit in a selected angular orientation. The first part refers to a structural feature of the mounting device, such as a clip or spring, that is designed to exert pressure on the radio control unit and engage with its fixation elements. This arrangement allows the radio control unit to be held firmly in a chosen orientation, supporting stable retention and easy repositioning without the use of tools. One advantage of this arrangement is that the radio control unit can be mounted and adjusted quickly, even in demanding operational environments, while maintaining reliable engagement with the mounting device. The use of a clip or spring element provides consistent pressure and secure retention, reducing the risk of accidental movement or detachment during vigorous activity.

[0029] According to a second aspect, the present disclosure relates to a mounting device. A mounting device may be understood as a component designed to attach a radio control unit to a wearable user attachment system, such as a vest or webbing, and to provide secure and adjustable retention of the control unit during use.

[0030] In a preferred embodiment according to the second aspect, the mounting device comprises a main body having a planar surface and comprising a first end having a first part, and a second end opposite the first end having a second part. The main body refers to the structural portion of the mounting device that provides the interface to the wearable user attachment system and supports the other components. The planar surface is the flat face of the main body that lies adjacent to the user’s body or the surface of the vest or webbing, ensuring a close and stable fit. The first end and second end define the longitudinal extent of the mounting device, with the first part and second part providing the features necessary for engaging and securing the radio control unit. This arrangement allows the mounting device to be attached securely to the user’s vest, supporting stable retention and minimizing movement duringphysical activity. One advantage of this arrangement is that the mounting device can be integrated with standard professional wearable user attachment systems, such as PALS or MOLLE webbing, without requiring specialized hardware, thereby supporting operational flexibility and ease of use.

[0031] In a preferred embodiment according to the second aspect, the first part and the second part in combination secure the radio control unit. The first part and second part may be understood as structural features, such as clips, hooks, or spring elements, that are positioned at opposite ends of the main body and are designed to engage with complementary features on the radio control unit. This arrangement allows the radio control unit to be held firmly in place, supporting reliable retention even during vigorous movement or high-intensity activities. One advantage of this arrangement is that the radio control unit can be mounted and removed quickly and easily, supporting rapid adaptation to changing operational requirements and user preferences.

[0032] In a preferred embodiment according to the second aspect, the first part is configured to secure the control unit in a releasable manner in one of at least two different angular orientations about a central axis parallel to the planar surface of the main body, enabling pivotal positioning of the at least one side comprising the one or more control elements relative to the user. The first part may be understood as a feature of the mounting device, such as a clip, groove, or cut-out, that interacts with fixation elements on the radio control unit to hold the unit in selected angular positions. The central axis is an imaginary line running parallel to the planar surface of the main body, about which the radio control unit pivots when secured. This arrangement allows the radio control unit to be rotated between discrete positions, such as lefthand, center, and right-hand orientations, while remaining close to the user’s body. One advantage of this arrangement is that the user can adjust the orientation of the control unit for ergonomic access and operational flexibility, supporting both comfort and efficiency during use. The ability to secure the control unit in multiple angular orientations also reduces the risk of accidental movement or misalignment, ensuring that the control elements remain accessible and optimally positioned for the user.

[0033] According to a third aspect, the present disclosure relates to a pivotable mounting system. A pivotable mounting system may be understood as an arrangement of components designed to secure a radio control unit to a wearable user attachment system, such as a vest orwebbing, and to enable the radio control unit to be positioned in multiple angular orientations for ergonomic access and operational flexibility.

[0034] In a preferred embodiment according to the third aspect, the system comprises a mounting device configured to releasably secure the radio control unit to the wearable user attachment system, and the radio control unit operatively connectable to a radio communication device and configured to communicate with a radio. A mounting device refers to a component that attaches to the wearable user attachment system and provides a secure interface for the radio control unit, supporting stable retention and easy repositioning. The radio control unit is a device that manages the operation of a radio communication device and interfaces with other equipment, such as a headset, to facilitate audio communication. This arrangement allows the radio control unit to be mounted securely and removed quickly, supporting operational flexibility and rapid adaptation to changing tasks or user preferences. One advantage of this arrangement is that the radio control unit can be integrated with standard professional equipment, such as PALS or MOLLE webbing, without requiring specialized hardware, thereby supporting ease of use and compatibility with existing wearable user attachment systems.

[0035] In a preferred embodiment according to the third aspect, the radio control unit has one or more control elements for controlling radio communication, and is configured to be releasably secured to the mounting device in at least two different angular orientations about a central axis of the radio control unit, enabling pivotal positioning of the one or more control elements (e.g., relative to the use and / or wearable user attachment system). Control elements may be understood as user-operable features such as buttons, switches, or selectors that enable the user to manage radio functions. The central axis is an imaginary line about which the radio control unit pivots when secured to the mounting device, and the ability to secure the unit in multiple angular orientations allows the user to adjust the position of the control elements for ergonomic access. This arrangement supports efficient adaptation to operational requirements and user preferences, ensuring that the control elements remain accessible and optimally positioned for the user. One advantage of this arrangement is that the radio control unit remains securely retained in each selected orientation, reducing the risk of accidental movement or misalignment during use, and supporting both comfort and operational efficiency during high-intensity activities.Further embodiments of the second and third aspect correspond to further embodiments of the first aspect and have the same advantages for the same reasons.

[0036] A mounting device configured to releasably secure a radio control unit to a wearable user attachment system, the mounting device being configured to mount the radio control unit in one of at least two different selected angular orientation about a first axis of the radio control unit, allowing the user to position the radio control unit according to personal preferences and / or tactile needs comprising, a main body, having a first end and a first part, and a second end opposite the first end having a second part, wherein the first part and the second part in combination secure the control unit. The first part being configured to fixate the control unit in one of the at least two orientations about the first axis of the control unit.

[0037] It is common for armed forces, police, and rescue personnel to use a wearable user attachment system, such as PALS or MOLLE to secure radio devices, cell phones, cameras, knives and other tools in a secure and easily accessible manner. Such systems comprise mounting device for securing the devices to the pouches of the system, where the pouches are usually located around the upper body of the user, and the devices are secured using a clip system, that allows the user to arrange the tools and devices according to personal preferences. The known system in general has the disadvantage that they do not allow the user to change orientation of the device without the use of tools and a more substantial reconfiguration, which is not appropriate to handle in the field, e.g. when reorganizing teams or tasks.

[0038] The present mounting device for a radio control element allows the user to change the orientation of the radio control unit. One situation could be a soldier, that during a field operation, change from one task, having one communication channel, to being a team lead. Team leaders will often have two radios. One radio for communicating with their respective team, and one radio for communicating with other team leaders and / or a command center In this situation, the team lead will often have a right side radio system, and a left side radio system, both connected to the headset. The preferred orientation of the radio control unit may depend on user preference and tactile needs. The team leader may want to control the right-side radio with the right hand and the left side radio with the left hand, or vice versa. In another situation the team leader may be required to always use the right hand for the weapon, in which case the team leader will control both radios with the left hand, or vice versa. In these situations, it is advantageous to be able to change the orientation of the radio control unit in aneasy manner without the need for tools, and without the need to bring several control units and / or mounting devices to the field to provide for configuring the control unit to various orientations.

[0039] In an embodiment, the mounting device is configured to be compatible with PALS, i.e. a webbing of 25mm rows attached at every 35 to 40 mm, and in a preferred embodiment be configured to utilize two rows of securing webbing with a 25 mm spacing between the two rows, i.e. 3 times 25 mm between the first part and the second part of the mounting device.

[0040] The main body has planar surface configured to tightly fit the spacing of the PALS grid, i.e. the width of the main body is 22 - 24 mm preferably 23 mm, and a few millimeters thick, to create a good fit with the PALS webbing. The length of the main body between the first part and the second part is such that it uses one, two, or three rows of webbing to secure the mounting device to the PALS webbing, i.e. 25 to 27 mm, 75 to 77 mm or 125 to 127 mm between the first part and the second part. The long embodiment of 125 to 127 mm has the advantage that there are three rows of webbing to secure the mounting device and the radio control unit. On the other hand, the disadvantage is that radio control unit is rigid and does not conform to the body movements. The short embodiment of around 25 mm length is more conformable to body movement but provides little spacing for control elements on the control unit. The longer version has the advantage of providing a more secure fit, as it weaves into the webbing, and may be secured in an “under-over-under” which may provide a more secure fit.

[0041] The first part and second part define an axis parallel to a first axis of the control unit. This enables that the control unit may be positioned with little distance between the control unit and the planar surface of the main body, which in turn reduces the risk that any external elements get in between the control unit and the mounting device and pull the control unit out of the mounting device.

[0042] In situations that include jumping out of airplanes with a parachute, crawling, climbing etc. users may prefer to use additional means for securing the radio control unit, to have a feeling of self-control over the securing mechanism. For that purpose, the mounting device is configured to include holes in the main body for accommodating additional fastening, such as zip ties, tied around the control unit and the mounting device through the holes. The holes maybe positioned in the main body, to accommodate zip ties can be pulled around the control unit and through the holes to secure the control unit against the planar body of the mounting device.

[0043] The main body, the first part and the second part in combination secure the radio control unit. The first part may extend perpendicularly outward from the main body, and the second part may comprise a clip. The first part may comprise a cut out configured to receive a mating part of the radio control unit. The cut out may have the shape of a triangle allowing the control unit to have at least two different orientations, where the control elements of the control unit is accessible to the user. In a different embodiment, the cut out is shaped like a pentagon or a hexagon allowing the control unit to have at least three different orientations where the control elements are accessible to the user. The cutout provides for different orientations of the radio control unit, and at the same time provides for a strong hold of the radio control unit, as the thickness of the first part and the mating member on the radio control unit may be several millimeters thick. The cutout of the first part also provides for a communication cable going either towards the headset or towards the radio. Even if the radio control unit should be accidentally released from the mounting device, e.g. by a hard impact fall or similar, the cable running through the cut out may provide for additionally securing the radio control unit near the user attachment system, and thereby the body of the user.

[0044] The first part may be rigid to secure the control unit against a more fixed second part. The first part may extend more outward from the main body, than the second part, and may therefore be used by the user to change the orientation of the control unit, i.e. the user may push the first part with a finger, such as the thumb to release the control unit from the mounting device, whereby the orientation of the control unit may be changed, whereafter the control unit may again be secured by pushing the control unit against the mounting device, whereby the control unit snaps into a fixation position.

[0045] In an alternative embodiment, the first part comprises grooves, indents, or protrusions config to fixate the control unit in one of at least two directions. The grooves, indents, or protrusions may be in combination with a halo cut out. The first part extending from the main body secures the control unit in a first direction and the halo secures the control unit in another direction perpendicular, and the protrusion, grooves, indents, or similar configurations creates the orientation fixation.The second part may comprise a clip for pressing the control unit against the first part. The second part may have a spring effect, to push the control unit against the first part. The second part clip may engage with a protrusion of the control unit to secure the control unit in a direction perpendicular to the main body, away from the user.

[0046] The mounting device may be made of any suitable material such as metal, plastics such as nylon. The mounting device may be rigid such that the mounting device retains its shape after several positions and repositions of the control unit in the mounting device without being bent out of shape.

[0047] The control unit may have various control elements, such as buttons, selection mechanisms, volume control, switches, nobs and other control elements to control the radio communication. The control unit may also have connectors for connecting to a radio and a headset. The control unit may comprise a base plate configured to engage with a fixation element of a mounting device, and a top plate, opposite the base plate configured to engage with one or more of a groove, a cut out, an indent and / or one or more protrusions of a mounting device to secure the control unit in and angular position about a central axis of the control unit, allowing the user to engage with the control unit using left or right hand.

[0048] The control unit may also be configured to engage with the holding mechanisms of the mounting device, i.e. the control unit may have a mating for the cut out of the first part of the mounting device, and / or be adapted to engage with the alternative orientation mechanisms, the protrusions, grooves, and indents.

[0049] A radio communication system may be configured to be worn by a user. The system comprises a radio, a radio control unit, and a mounting device configured to releasably secure a radio control unit to a wearable user attachment system. The radio control unit is configured to communicate with a radio unit and a headset, and further comprises control elements for controlling radio communication. The radio control unit is configured to be releasably secured to the mounting device in a plurality of configurations enabling the user to operate the control elements from different orientations.

[0050] Armed forces, police, rescue workers and similar types of personnel carry several types of electronic devices for various purposes. Typically they carry one or more radios for communication with one or more other units, or groups of persons. Cell phones may be carriedto be able to contact others outside of the operative line of communication, and they may also carry body worn cameras for documentation, or for providing a live video feed to a command center, collecting all relevant information for the given situation. This has the effect that there may be several electronic devices to control during an operation, and several devices should preferably be located such that they are easily accessible by the user and provide a good view of the situation. A preferred position for many of these devices is around the chest of the user, as it provides for good visibility of what the person can see, and it provides for easy access to control the device without limiting the freedom of movement for the person.

[0051] The present mounting device and radio control unit provides for a solution where the radio control unit may be moved to a less preferred position while still providing an ergonomic fit for the user of the radio without having to customize the control unit for every situation and user preference. The ergonomic fit may be achieved in several different positions on the upper body of the user, by providing for different orientations of the control unit. Furthermore, as the control unit snaps into place in various orientations with respect to the mounting device, the user may be able to position the control unit in a number of different positions depending on operational need, while still maintaining an ergonomic fit when operating the control unit.

[0052] The mounting device and the control unit provides for a solution where the control unit is placed close to the body of the user by having a tighter gap between the MOLLE vest and the control unit due to the planar main body of the mounting device.

[0053] Together, the mounting device and the control unit form a system.

[0054] The control unit may in an embodiment be a push-to-talk (PTT) unit.

[0055] The control unit may comprise one or more control elements for controlling the radio communication. The control elements may be a push-to-talk button, volume control, a channel selector or other type of switch, nob, button or similar.

[0056] BRIEF DESCRIPTION OF THE DRAWINGS

[0057] Embodiments of the disclosure will now be described in more detail. Various embodiments of the systems and / or the methods according to the different aspects as disclosed herein will be described in connection with the appended drawings, in which:FIG. 1 shows a soldier with a radio 102.

[0058] FIG. 2A shows a front side view of a control unit 105 unit mounted in the mounting device 200

[0059] FIG. 2B shows a mounting device 200 for a control unit 105.

[0060] FIG. 3 A shows a top view of a control unit 105 mounted in first position 302.

[0061] FIG. 3B shows a top view of a control unit 105 mounted in second position 304.

[0062] FIG. 3C shows a top view of a control unit 105 mounted in third position 306.

[0063] FIG. 4 shows a backside view of a mounting device 200 with holes for securing the mounting device 200 with zip ties 402.

[0064] FIG. 5 A shows a front side view of a control unit 105 in first position 302.

[0065] FIG. 5B shows a front side view of a control units 105 in second position 304.

[0066] FIG. 5C shows a front side view of a control unit 105 in Third position 306.

[0067] FIG. 6A shows an angled view of a control units 105 in first position 302.

[0068] FIG. 6B shows an angled view of a control unit in second position 304.

[0069] FIG. 6C shows an angled view of a control unit in Third position 306.

[0070] FIG. 7A shows a control unit 105 to be fixated in a mounting device 200.

[0071] FIG. 7B shows a side view of fixation steps for fixating a control unit 105 in a mounting device 200.

[0072] FIG. 8 shows a wearable user attachment system 800 with two radios 804, 806 and corresponding control units 808, 810 attached, both radios 804, 806 connected to the same headset 103.

[0073] DETAILED DESCRIPTIONVarious exemplary embodiments and details are described hereinafter, with reference to the figures when relevant. It should be noted that the figures may or may not be drawn to scale and that elements of similar structures or functions are represented by like reference numerals throughout the figures. It should also be noted that the figures are only intended to facilitate the description of the embodiments. They are not intended as an exhaustive description of the invention or as a limitation on the scope of the invention.

[0074] In addition, an illustrated embodiment needs not have all the aspects or advantages shown. An aspect or an advantage described in conjunction with a particular embodiment is not necessarily limited to that embodiment and can be practiced in any other embodiment even if not so illustrated, or if not so explicitly described.

[0075] Various aspects and embodiments of a pivotable mounting system and radio control unit for wearable wearable user attachment system as disclosed herein will now be described with reference to the figures [FIG. 1 - FIG. 8],

[0076] DETAILED DESCRIPTON OF DRAWINGS

[0077] FIG. 1 discloses a soldier 100 with a radio 102, and a control unit 105 in between the radio 102 and a headset 103. The headset 103 comprises ear cups for the right and left ear and a microphone. In many situations, the radio 102 is open to receive audio transmitted on the channel. To talk to others on the channel, the soldier 100 pushes a control elements 204 on the control unit 105, which starts transmission from the radio 102 to other recipients on the channel.

[0078] The location of the control unit 105 depends on e.g. whether the soldier 100 is right- or left-handed, the purpose of the mission, e.g. what type of weapon the soldier 100 uses, and other relevant equipment. It is therefore desirable for the soldier 100 to be able to choose the location of the control unit 105 on the upper body, depending on preferences and tactile needs, e.g. on the right side of the chest, on the left side of the chest, or centered on the chest, and the control unit 105 may be oriented vertically or horizontally. Also, the soldier 100 may want the control unit 105 closer to the neck or lower down towards the waist. Wearable user attachment systems known may accommodate for changing around the location of the control unit 105,however, moving the control unit 105 around on the body of the soldier 100 does not change the orientation of the control unit 105. This has the effect that the soldier 100 has to move his hand into awkward positions to push the control unit 105. In an already stressful situation in combat or similar situations for armed forces, rescue workers, or similar types of personnel, it is desirable to improve these operations to be as smooth and user friendly as possible.

[0079] Thus, FIG. 1 schematically displays a radio control unit 105, configured to be secured to a wearable user attachment system worn by a user (e.g., soldier 100) and operatively connectable to a radio communication device (e.g., radio 102). The radio control unit 105 comprising: a housing having one or more sides with one or more control elements, one or more connectors for connecting to a radio communication device 102; and a plurality of fixation elements configured to secure the control unit 105 in a releasable manner in at least two different angular orientations about a central axis of the housing, enabling pivotal positioning of the at least one side comprising the one or more control relative to the user.

[0080] FIG. 2A shows a control unit 105 mounted in a mounting device 200. The control unit 105 has control elements 204 for controlling the radio 102 communication, a cable 208 to the radio 102, and a plug 202 for a cable connection to the headset 103. The headset 103 cable plug 202 may at the same time function as the mating device for mating with the cut out in the first part 222 of the mounting device 200.

[0081] As seen from FIG. 2A, the radio control unit 105 comprises a housing 210 having one or more sides, such as a front side 212 with one or more control elements 204, such as a first button 206a and a second button 206b. The control unit 105 is additionally seen to comprise one or more connectors for connection to a radio communication device (not seen) via the cable 208 and a headset 103 via the plug 202. The housing 210 of the control unit 105 may define a central axis 214 of the control unit 105. The central axis 214 extends longitudinally through the housing 210 and is oriented parallel to a major surface (e.g., front side 212) of the housing 210.

[0082] As seen from FIG. 2A, the control unit 105 comprise a base plate (e.g., the surface from where the cable 208 exits the housing 210) configured to engage with a fixation element (e.g., second part 228) of a mounting device 200, and a top plate, opposite the base plate configured to engage with the cut out 224 in the first part 222 of the mounting device 200 via the plug 202interface, to secure the control unit 105 in and angular position about the central axis 214 of the control unit 105 (e.g., front side 212 parallel with mounting device 200).

[0083] FIG. 2B shows a mounting device 200 configured to secure a control unit 105. The mounting device 200, at the first end 220, comprises a first part 222 having a cut out 224 configured to support a mating part of the control unit 105 to secure the control unit 105. At the second end 226 of mounting device 200 a second part 228 is configured as a clip to push the control unit 105 towards the first part 222 and enable the release of the control unit 105 upon the user (e.g., the soldier 100) pressing the clip (e.g., releasing the first part 222) with a finger. A main body 230 extends between the first end 220 and the second end 226 of the mounting device 200.

[0084] Thus, FIG. 2B schematically disclose a mounting device 200 configured to releasably secure the radio control unit 105 to a wearable user attachment system. The main body 230 has planar surface 232 configured to tightly fit the spacing of the PALS grid with appropriate dimensions to create a good fit with the PALS webbing. The length of the main body 230 between the first part 222 and the second part 228 may be such that it uses one, two, or three rows of webbing to secure the mounting device 200 device to the PALS webbing. This way, the mounting device 200 may mechanically secure, hold, or restrain the radio control unit 105, via the first 222 and second part 228 in a clip like manner to the wearable user attachment system (e.g., PALS webbing) as described in more detail in relation to FIG. 7A and FIG. 7B. The first part 222 and second part 228 may define a longitudinal axis parallel to the central axis 214 of the control unit 105. Hence, the central axis of the control unit 105 may be parallel to the planar surface 232 of the main body 230. Or the central axis may be defined by the alignment of the fixation elements 308 with the main body 230 of a mounting device 200. This enables the control unit 105 to be positioned with little distance between the control unit 105 and the planar surface 232 of the main body 230. Thus, the mounting device 200 comprises a main body 230 configured to be attached to the wearable user attachment system, and at least one first part 222 configured to engage with the fixation elements of the control unit 105.

[0085] In summary, FIG. 2B display a mounting device 200 configured to releasably secure a radio control unit 105 to a wearable user attachment system, the mounting device 200 comprises a main body 230 having a planar surface 232 and comprising a first end 220 having a first part 222, and a second end 226 having a second part 228, wherein the second part 228 ispositioned opposite the first part 222, and wherein the first part 222 and the second part 228 in combination secure the radio control unit 105 (e.g., see FIG. 2A and elsewhere). The first part 222 being configured to secure the control unit 105 in a releasable manner in at least two different angular orientations about a central axis 214 parallel to the planar surface of the main body, enabling pivotal positioning of the at least one side 212 comprising the one or more control elements 204 relative to the user 100 when worn.

[0086] FIG. 3 A, FIG. 3B and FIG. 3C, shows a “bottom view” of a control unit 105 secured in a mounting device in three different orientations 302, 304, 306. The control unit 105 has a front side 212 having control means (e.g., control elements 204) for controlling radio communication. The control unit 105 has fixation elements 308 to fixate the control unit 105 in one of a number of different orientations. The fixation elements 308 may be in the for of indents, grooves, protrusions or similar means to fixate the control unit 105 in a specific orientation. In the specific embodiment of FIG. 3A -FIG. 3C, a clip (e.g., first part 222 at the mounting device 200 fixates the orientation of the control unit 105 by engaging with protrusions of the control unit 105.

[0087] FIG. 3A schematically display a view seen from the base plate of the radio control unit 105 in a first position 302, i.e., first angular orientation about the central axis 214 of the housing 210. The central axis 214 is oriented orthogonal to the displayed view. The control unit 105 comprises a plurality of fixation elements 308 configured to engage with a mounting device 200 to secure the control unit in a releasable manner. The first dashed line 310 indicates a vector perpendicular to the planar surface 232 of the mounting device 200, This first normal vector 310 represents the direction the planar surface 232 is facing. When the control unit 105 is worn by a user 100 (e.g., see FIG. 1), the first normal vector 310 may represent the outwards facing direction of the plane defined by the wearable user attachment system 800 lying flat against the user’s 100 torso. In other words, the first normal vector 310 may represent a reference direction as seen from the user 100 (i.e., distal direction of the user 100). The second dashed line 312 indicates a vector perpendicular to the front side 212 surface of control unit 105, This second normal vector 312 represents the direction the front side 212 and control elements 204 are facing. In the mounting configuration shown in FIG. 3 A, the front side 212 of the mounting devices 200 comprising the control elements 204 are secured in an orientation where the front side 212 is tilted a first angle 314 (a1) to the left compared to referencedirection indicated by the first normal vector 310. From the illustration the first angle 314 is about 73° to the left.

[0088] FIG. 3B schematically display a view seen from the base plate of the radio control unit 105 in a second position 304, i.e., second angular orientation about the central axis 214 of the housing 210. The central axis 214 is oriented orthogonal to the displayed view (e.g., into the illustration). The front side 212 of the mounting devices 200 comprising the control elements 204 are secured in an orientation as indicated by the second normal vector 312 where the front side 212 is positioned in a center position (e.g., the front side 212 is parallel to the planar surface 232 of the mounting device 200). In other words, the front side 212 of the mounting devices 200 comprising the control elements 204 are secured in an orientation where the front side 212 is tilted a second angle 316 (cr2) compared to reference direction indicated by the first normal vector 310. From illustration the second angle 316 is 0°.

[0089] FIG. 3C schematically display a view seen from the base plate of the radio control unit 105 in a third position 306, i.e., third angular orientation about the central axis 214 of the housing 210. The central axis 214 is oriented orthogonal to the displayed view (e.g., into the illustration). The front side 212 of the mounting devices 200 comprising the control elements 204 are secured in an orientation where the front side 212 is tilted to the right compared to center position (e.g., second position 304 in FIG. 3B). In the mounting configuration shown in FIG. 3C, the front side 212 of the mounting devices 200 comprising the control elements 204 are secured in an orientation where the front side 212 is tilted a third angle 318 (cr3) to the right compared to reference direction indicated by the first normal vector 310. From illustration the third angle 318 is about -73° to the right.

[0090] As clearly seen from FIG. 3A-FIG. 3C, the fixation elements 308 are configured to provide releasable retention of the control unit 105 with the mounting device 200 in three angular orientations (e.g., first 302, second 304 and third position 306) using physical interaction. Thus, the fixation elements 308 are arranged to provide a detent or snap-fit engagement with the mounting device 200 in each of the three angular orientations (314, 316, 318). The fixation elements 308 may be integrally formed with the housing 210 and arranged on one or more sides of housing to enabling pivotal positioning of the front side 212 comprising the one or more control elements 204 relative to the user 100 when worn. From FIG. 3A-FIG. 3C it is clearly seen that the plurality of fixation elements 308 are arranged to

[0091] 1define discrete angular positions (e.g., a first 302, a second 304 and a third position 306) within a finite angular range 314, 316, 318 of less than 180 degrees about the central axis 214. Thus, the control unit 105 allows angular positioning (314, 316, 318) of the housings 210 front side 212 about the central axis 214, measured with respect to the surface normal vector (i.e., first normal vector 310) directed distally from the user 100 (e.g., relative to the first normal vector 310 (reference direction). In other words, the control unit 105 may be configured to enabling pivotal positioning of the front side 212 comprising the control elements (control elements 204 relative to the user 100. Hence, enabling the user to operate the control elements 204 from different orientations.

[0092] FIG. 4 show a “back side” view of the mounting device 200, i.e. a view from the opposite side of the radio control unit 105. The mounting device 200 comprises holes 400 configured to allow the user to secure the control unit 105 additionally use e.g. zip ties 402 to tie around the mounting device 200 and through holes 400, and around the radio control unit 105 (not shown) to additionally secure the radio control unit 105. Zip ties 402 are commonly used in the field, as they provide easy fastening and securing. Zip ties 402 may be used to fasten or secure many objects, and when releasing the object, the user 100 simply cuts the zip ties 402 to release the object. Securing the control unit 105 and the mounting device 200 via zip ties 402 may also be an alternative in situations where the user has no available PALS webbing (e.g., wearable user attachment system) suitable for securing the mounting device 200 and the control unit 105. In that case the user may choose to secure the mounting device 200 and control unit 105 to any other suitable place, such as a weapon, a drink bottle or any other suitable place, by securing the mounting device 200 to that object via zip ties 402.

[0093] FIG. 5 A, FIG. 5B and FIG. 5C shows a front side view of the control unit 105 in different orientations 302, 304, 306. Starting from the left, FIG. 5A shows the control unit 105 fixated in an orientation 302 towards left. FIG. 5B shows the control unit 105 in a fixated in a straightforward configuration 304, and FIG. 5C shows the control unit 105 fixated in an orientation 306 towards the right side.

[0094] FIG. 6A, FIG. 6B, and FIG. 6C shows an angled view of FIG. 5A, FIG. 5B, and FIG. 5C, where FIG. 6A shows a configuration similar to the configuration of FIG. 5A. FIG. 6B shows a configuration similar to the configuration of FIG. 5B, and FIG. 6C shows a configuration similar to the configuration of FIG. 5C.FIG. 3A-FIG. 3C and FIG. 5A-FIG. 6C schematically display different views of a pivotable mounting system configured to secure a radio control unit 105 to a wearable user attachment system worn by a user 100. The pivotable mounting system comprising a mounting device 200 configured to releasably secure a radio control unit 105 to the wearable user attachment system, and a radio control unit 105 operatively connectable to a radio communication device 102, and configured to communicate with a radio 102, the radio control unit 105 having control elements 204 for controlling radio communication, wherein the radio control unit 105 is configured to be releasably secured to the mounting device 200 in three different angular orientations about a central axis of the housing 210, enabling pivotal positioning of the front side 212 comprising the control elements 204 relative to the user when worn. The radio control unit comprises a plurality of fixation elements 308 configured to secure the control unit 105 to the wearable user attachment system (e.g., via the mounting device 200) in a releasable manner.

[0095] FIG. 7A shows an embodiment where the control unit 105 is mated to the mounting device 200 by first engaging the control unit 105 with the mounting device 200 at the second end 226 whereafter the control unit 105 is clicked in place at the first part 222 of the mounting device 200, before the cable 208 (e.g., to the headset 103) is connected to the control unit 105 through the cut out 224 of the mounting device 200. In this embodiment, the first part 222 is more flexible than the second part 228, to allow the user 100 to push the first part 222 of the mounting device 200 when engaging or disengaging the control unit 105. The embodiment of FIG. 7A may have the advantage that the first part 222 of the mounting device 200 has a larger area and is therefore easier for the user 100 to operate. The larger area of a rigid first part 222 makes the first part 222 bendable. Thus, the thumb may be used to lift the first part 222 slightly, thereby releasing the control unit 105 to be re-positioned in an easy and quick manner without disconnecting the headset / radio cable 208 e.g. using only one hand.

[0096] FIG. 7B shows an embodiment different from the embodiment of FIG. 7A. In the embodiment of FIG. 7B, the control unit 105 is first engaged with the first part 222, whereafter the control unit 105 is fixated by the second end 226 forming a clip, whereafter the cable may be connected to the control unit 105. This embodiment may have the advantage that it is more intuitive for the user 100 to operate a clip at the second end 226 of the mounting device 200. This also allows the user 100 to change the orientation without disconnecting any cablesrunning to / from radio or headset 103, and therefore the user 100 is able to maintain communication while adjusting the orientation of the control unit 105.

[0097] In other words, and as evident from FIG. 7A and FIG. 7B, the plurality of fixation elements 308 of the control unit 105 are configured to engage with a mounting device 200 to secure the control unit 105 in a releasable manner. Thus, the mounting device 200 comprises a first part 222 forming a clip or spring element configured to press the control unit 105 against the fixation elements (e.g., second part 228) to retain the control unit 105 in a selected angular orientation (e.g., first 302, second 304 or third position 306).

[0098] FIG. 8 shows a wearable user attachment system 800 comprising a PALS web 802 with two radios 102, radio A 804 and radio B 806, and two control units 105, control unit A 808, and control unit B 810. The radio A 804 and radio B 806 are connected to the headset 1033 through the control unit A 808 and control unit B 810, a two-to-one connector, also known as a Y-splitter (not shown). This setup will enable an operational leader to talk to the team in one channel, and talking to other team leads, or command center on another channel. Both the radio A 804, radio B 806, and the control unit A & 804, 806 are fixed to the PALS vest 800 using MOLLE mounting device 200. The control unit A 808 and control unit B 810 are identical (e.g., control units 105) but have different orientations (e.g., control unit A 808 is secured according to the first position 302 and control unit B 810 is secured according to the third position 306) to provide for ergonomic handling for the user 100, and allowing the user to uniquely identify each of the two control unit A 808 and control unit B 810. Due to the difference in orientation of the two control unit A 808 and control unit B 810, the user 100 may uniquely identify the correct control unit 808, 810 by feeling the orientation, even when wearing gloves. The orientation of the control unit A 808, 810 is achieved by the interconnection between the control unit A 808, 810 and the mounting device 200 (not shown). This allows radio A 804, radio B 806, the control unit A 808, control unit B 810, and their respective mounting device 200 and the headset 103 to be standard devices, while allowing the user to customize how he / she interacts with the radio A 804, B 806 and control unit A 808, and control unit B 810 depending on preference and operational need. The positioning of the control units 808, 810 on the outer part of the PALS west 800 on each side allows the soldier 100 to use the space in the middle upper part for an EUD (tactical smartphone with a screenrunning the ATAK plugin for advanced mission control) and the lower middle part of the west for vital ammunition magazines.

[0099] In an operation a user 100 as displayed in FIG. 1 may wear a wearable user attachment system, such as a tactical body amour PALS / MOLLE west 800 as displayed in FIG. 8. This way, the wearable user attachment system 800 may define a plane of the vest or webbing, typically lying flat against the user’s torso when worn. Thus, in one embodiment, the central axis 214 is substantially parallel to a plane defined by the wearable user attachment system when the control unit is secured thereto. This way, the central axis of the control unit 105 runs parallel to the plane of the vest (e.g., such as a line running horizontally or vertically along the vest surface). Pivoting about this axis allows the control unit 105 to swing or rotate between, for example, a left-hand (e.g., first position 302) and a right-hand (e.g., third position 306) configuration, changing the orientation of the control elements 204 relative to the user, but always keeping the unit close to the vest 800.

[0100] In this situation, the team lead will often have a right side radio system, and a left side radio system, both connected to the headset. The preferred orientation of the radio control unit may depend on user preference and tactile needs. The team leader may want to control the right-side radio with the right hand and the left side radio with the left hand, or vice versa

[0101] Some preferred embodiments have been shown in the foregoing, but it should be stressed that the invention is not limited to these, but may be embodied in other ways within the subject matter defined in the following claims.

[0102] It should be emphasized that the term "comprises / comprising" when used in this specification is taken to specify the presence of stated features, elements, steps or components but does not preclude the presence or addition of one or more other features, elements, steps, components or groups thereof.

[0103] In the claims enumerating several features, some or all of these features may be embodied by one and the same element, component or item. The mere fact that certain measures are recited in mutually different dependent claims or described in different embodiments does not indicate that a combination of these measures cannot be used to advantage.In the claims, any reference signs placed between parentheses shall not be constructed as limiting the claim. The word "comprising" does not exclude the presence of elements or steps other than those listed in a claim. The word "a" or "an" preceding an element does not exclude the presence of a plurality of such elements.

[0104] The mere fact that certain measures are recited in mutually different dependent claims does not indicate that a combination of these measures cannot be used to an advantage.

[0105] It will be apparent to a person skilled in the art that the various embodiments of the invention as disclosed and / or elements thereof can be combined without departing from the scope of the invention as defined in the claims.

[0106] LISTING OF DRAWING ELEMENTS

[0107] 100 soldier

[0108] 102 radio

[0109] 103 headset

[0110] 105 control unit

[0111] 200 mounting device

[0112] 202 plug

[0113] 204 control elements

[0114] 206a first button

[0115] 206b second button

[0116] 208 cable

[0117] 210 housing

[0118] 212 front side

[0119] 214 central axisfirst end

[0120] first part

[0121] cut out

[0122] second end

[0123] second part

[0124] main body

[0125] planar surface

[0126] first position

[0127] second position

[0128] third position

[0129] fixation elements

[0130] first normal vector

[0131] second normal vector

[0132] first angle

[0133] second angle

[0134] third angle

[0135] holes

[0136] zip ties

[0137] wearable user attachment system PALS web

[0138] radio Aradio B control unit A control unit BITEMS

[0139] One, some, or all of the above concepts, aspects, and / or embodiments, etc. are further described via the various items detailed below in Item 1 through item 14, and may include various combinations and sub-combinations thereof:

[0140] Item 1: A mounting device 200 configured to releasably secure a radio control unit 105, 808, 810 to a wearable user attachment system 800, the mounting device 200 being configured to mount the radio control unit 105 in one of at least two different orientations (302, 304, 306) about a first axis of the radio control unit 105, 808, 810, allowing the user 100 to position the radio control unit 105 808, 810 according to personal preferences and / or tactile needs comprising,

[0141] • a main body 230, comprising a first end 220 having a first part 222, and a second end 226 opposite the first end 220 having a second part 228, wherein the first part 222 and the second part 228 in combination secure the control unit 105, 808, 810,

[0142] • the first part 222 being configured to fixate the control unit 105 in one of the at least two orientations (302, 304, 306) about the first axis of the radio control unit 105, 808, 810.

[0143] Item 2: The mounting device 200 according to item 1, wherein the main body 230 has a planar surface.

[0144] Item 3 : The mounting device 200 according to any one of items 1 or 2, wherein the first part 222 and the second part 228 define an axis parallel to the first axis of the radio control unit 105, 808, 810.

[0145] Item 4: The mounting device 200 according to any one of items 1 to 3, wherein the main body 230 comprises one or more holes configured for accommodating additional fastening means 402, additionally securing the radio control unit 105, 808, 810) against the main body 230.

[0146] Item 5: The mounting device 200 according to any one of items 1 to 4, wherein the first part 222 extends from the main body 230 in a direction perpendicular to the planar surface of the main body 230.Item 6: A mounting device 200 according to any one of items 1 to 5, wherein the first part 222 comprises one or more of a groove, a cut out 224, an indent and / or a protrusion configured to fixate the control unit 105 in one or more directions about the first axis of the control unit 105.

[0147] Item 7: The mounting device 200 according to any one of items 1 to 6, wherein the second part 228 comprises a clip for pressing the control unit 105 against the first part 222.

[0148] Item 8: The mounting device 200 according to any one of items 1 to 7, wherein the first part 222 is rigid for pressing the control unit 105 against the second part 228.

[0149] Item 9: The mounting device 200 according to any one of items 1 to 8, wherein the mounting device 200 is a rigid construction made of plastics or metal.

[0150] Item 10: The mounting device 200 according to any one of items 1 to 9, wherein the mounting device 200 is made of nylon.

[0151] Item 11: A control unit 105 for a radio communication system, comprising:

[0152] • a housing comprising; one or more sides comprising one or more control elements, one or more connectors for connecting to a radio 102 and / or a headset 103,

[0153] • a base plate configured to engage with a fixation element of a mounting device 200, • a top plate opposite the base plate configured to engage with one or more of a groove, a cut out, an indent and / or a protrusion of mounting device 200 configured to secure the control unit 105 in an angular position about a central axis of the control unit, allowing the user 100 to engage with the control unit 105 using the left and / or right hand.

[0154] Item 12: A radio communication system configured to be worn on the upper body a user 100 and configured to be secured to a wearable user attachment system 800, the system comprising;

[0155] • a radio 102, 804, 806,

[0156] • a mounting device 200 configured to releasably secure a radio control unit 105 to a wearable user attachment system 800, and

[0157] • a radio control unit 105, 808, 810 configured to communicate with a radio 102, 804, 806 unit and a headset 103, the radio control unit 105 having control elements 204, 206a, 206b for controlling radio communication, wherein the radio control units 105 is configured to bereleasably secured to the mounting device 200 in a plurality of configurations enabling the user 100 to operate the control elements from different orientations.

[0158] Item 13: The radio communication system of item 12, wherein the mounting device 200 mounting device 200 according to any one of items 1 to 10.

[0159] Item 14: The radio communication system of item 12 or 13, further comprising a headset communicatively connected to the control unit 105.

Claims

CLAIMSWhat is claimed is:

1. A radio control unit (105, 808, 810), configured to be secured to a wearable user attachment system (800) worn by a user (100) and further configured to communicate with a radio communication device (102, 804, 806), the radio control unit (105, 808, 810) comprising:• a housing (210) having one or more sides (212) with one or more control elements (204, 206a, 206b);• one or more connectors (202) for connecting to a radio communication device (102, 804, 806) and a headset (103); and• a plurality of fixation elements (308) configured to secure the control unit (105, 808, 810) in a releasable manner in one of at least two different angular orientations (302, 304, 306) about a central axis (214) of the housing (210), enabling pivotal positioning of the at least one side (212) comprising the one or more control elements (204, 206a, 206b) relative to the wearable user attachment system (800).

2. The radio control unit (105, 808, 810) according to claim 1, wherein the wearable user attachment system (800) is a pouch attachment ladder system, or modular lightweight loadcarrying equipment.

3. The radio control unit (105, 808, 810) according to claim 1 or 2, wherein the central axis (214) extends longitudinally through the housing (210) and is oriented parallel to a major surface (212) of the housing (210).

4. The radio control unit (105, 808, 810) according to any one of claims 1 to 3, wherein the central axis (214) is substantially parallel to a plane defined by the wearable user attachment system (800) when the control unit (105, 808, 810) is secured thereto.

5. The radio control unit according to any one of claims 1 to 4, wherein the fixation elements (308) are configured to provide releasable retention of the control unit (105, 808, 810) in at least two angular orientations (302, 304, 306) using physical interaction.

6. The radio control unit (105, 808, 810) according to any one of claims 1 to 5, wherein the fixation elements (308) are integrally formed with the housing (210).

7. The radio control unit (105, 808, 810) according to any one of claims 1 to 6, wherein the plurality of fixation elements (308) is arranged to define discrete angular positions (302, 304, 306) within a finite angular range of less than 180 degrees about the central axis (214).

8. The radio control unit according to any one of claims 1 to 7, wherein the control unit (105, 808, 810) is configured to be operatively connected to a headset (103) via the one or more connectors (202).

9. The radio control unit (105, 808, 810) according to any one of claims 1 to 8, wherein the fixation elements (308) are configured to engage with a mounting device (200) to secure the control unit (105, 808, 810) in a releasable manner.

10. The radio control unit (105, 808, 810) according to claim 9, wherein the mounting device (200) comprises a main body (230) configured to be attached to the wearable user attachment system (800), and at least one first part (222) configured to engage with the fixation elements (308) of the control unit (105, 808, 810).

11. The radio control unit (105, 808, 810) according to claim 9 or 10, wherein the central axis (214) is defined by the alignment of the fixation elements (308) with the main body (230) of a mounting device (200).

12. The radio control unit (105, 808, 810) according to any one of claims 9 to 11, wherein the fixation elements (308) are arranged to provide a detent or snap-fit engagement with the mounting device (200) in each of the at least two angular orientations (302, 304, 306).

13. The radio control unit (105, 808, 810) of according to any one of claims 9 to 12, wherein the mounting device (200) comprises a first part (222) forming a clip or spring element configured to press the control unit (105, 808, 810) against the fixation elements (308) to retain the control unit (105, 808, 810) in a selected angular orientation (302, 304, 306).

14. A mounting device (200) configured to releasably secure a radio control unit (105, 808, 810) to a wearable user attachment system (800), the mounting device (200) comprises:• a main body (230) having a planar surface (232) and comprising a first end (220) having a first part (222), and a second end (226) opposite the first end (220) having a second part (228),34• wherein the first part (222) and the second part (228) in combination secure the radio control unit (105, 808, 810);• the first part (222) being configured to secure the control unit (105, 808, 810) in a releasable manner in at least two different angular orientations (302. 304, 306) about a central axis (214) parallel wherein the central axis is to the planar surface (232) of the main body (230), enabling pivotal positioning of the at least one side (212) comprising the one or more control elements (204, 206a, 206b) relative to wearable user attachment system (800).

15. A mounting system configured to secure a radio control unit (105, 808, 810) to a wearable user attachment system (800) configured to be worn by a user (100), the system comprising:• a mounting device (200) configured to releasably secure the radio control unit (105, 808, 810) to the wearable user attachment system (800), and• the radio control unit (105, 808, 810) configured to communicate with a radio (102, 804, 806), the radio control unit (105, 808, 810) having one or more control elements (204, 206a, 206b) for controlling radio communication, wherein the radio control unit (105, 808, 810) is further configured to be releasably secured to the mounting device (200) in one of at least two different angular orientations (302, 304, 306) about a central axis (214) of the radio control unit (105, 808, 810), enabling pivotal positioning of the one or more control elements (204, 206a. 206b).