System, apparatus and methods for previewing, inspecting, mixing, and recording video content

Abstract

The present disclosure provides a system for managing and producing video content comprising a main body, a plurality of video ports configured to receive input channels to which one or more video sources is linked, a display screen (60) configured to display settings, layouts, scenes and actual video signal information regarding the input video channels, and a user interface configured to receive user inputs. The user interface includes an inspect button (50) and a plurality of input buttons (75) each corresponding to a video input. Actuation of the inspect button (50) causes the system to enter an inspect mode in which the display screen (60) displays detailed information about video sources assigned to the input buttons (75) without switching or cueing the video sources to an output. The detailed information displayed in the inspect mode includes resolution, frame rate, and colour space information of connected video sources. The input buttons (75) are backlit to indicate whether the display screen (60) is displaying information related to that input button.

Description

[0001] SYSTEM, APPARATUS AND METHODS FOR PREVIEWING, INSPECTING, MIXING, AND RECORDING VIDEO CONTENT

[0002] FIELD OF INVENTION

[0003] The present disclosure relates to digital video and audio content production systems, and more particularly to systems and methods for previewing, inspecting, mixing, and recording video content with an inspect mode that allows operators to safely view detailed information about input sources, scenes, and settings without affecting live output streams.

[0004] BACKGROUND

[0005] Broadcasting and live event production environments present numerous challenges for content creators working with multiple video and audio sources. Video podcasting and streaming applications require operators to manage various input streams from different cameras positioned at multiple angles, along with diverse data sources that may change frequently during production.

[0006] The complexity of video production is amplified by the need to switch between multiple input sources in real-time whilst maintaining broadcast quality output. Operators must make quick decisions about which video feeds to display, often combining multiple sources through picture-in-picture arrangements or split-screen configurations. These decisions must be made without interrupting the live output stream, creating pressure to work efficiently within limited time constraints.

[0007] Traditional video switching systems often provide limited information about input sources directly on the hardware interface. Operators typically rely on external monitoring equipment or memory to track the technical specifications and content assignments of various input channels. This approach can lead to confusion about which sources are assigned to specific controls, particularly when input assignments change frequently to accommodate different production requirements. The workspace limitations common in production environments further complicate the management of multiple video sources. Control panels and display screens often have restricted space, making it difficult to simultaneously monitor all available input sources whilst maintaining awareness of their technical parameters such as resolution, frame rate, and colour space settings. Additionally, operators cannot pause live output streams to inspect pending input scenes, creating challenges in verifying content suitability before switching to program output.

[0008] Current video production workflows often require operators to navigate through complex menu systems or rely on separate software applications to access detailed information about input sources and their configurations. This separation between control functions and information display can slow down production workflows and increase the likelihood of errors during live broadcasts.

[0009] The management of pre-configured scenes, graphic overlays, and media elements adds another layer of complexity to video production systems. Operators must track which content is assigned to various control buttons whilst simultaneously managing the technical aspects of video switching and audio mixing. The ability to quickly verify and modify these assignments without affecting live output would provide operational advantages in fast-paced production environments.

[0010] SUMMARY

[0011] This summary is provided to introduce a selection of concepts in a simplified form that are further described below in the detailed description. This summary is not intended to identify key features or essential features of the claimed subject matter, nor is it intended to be used as an aid in determining the scope of the claimed subject matter.

[0012] According to an aspect of the present disclosure, a system for managing and producing video content is provided. The system comprises a main body. The system comprises a plurality of video ports configured to receive input channels to which one or more video sources is linked. The system comprises a display screen configured to display settings, layouts, scenes and actual video signal information regarding the input video channels. The system comprises a user interface configured to receive user inputs, the user interface including an inspect button and a plurality of input buttons each corresponding to a video input.

[0013] Actuation of the inspect button causes the system to enter an inspect mode in which the display screen displays detailed information about video sources assigned to the input buttons without switching or cueing the video sources to an output.

[0014] This configuration provides the technical advantage of allowing operators to safely inspect and verify video source assignments and technical parameters without interrupting live broadcast streams or affecting program output, thereby reducing the risk of broadcasting errors and improving operational efficiency in live production environments.

[0015] According to other aspects of the present disclosure, the system may include one or more of the following features. The detailed information displayed in the inspect mode may include resolution, frame rate, and colour space information of connected video sources. The input buttons may be backlit to indicate whether the display screen is displaying information related to that input button. The backlights may be different colours to indicate different selections. The system may further comprise a plurality of scene buttons configured to store pre-configured layouts of input sources, images, videos, and graphic overlays.

[0016] Actuation of the inspect button followed by selection of a scene button may display scene information on the display screen.

[0017] Actuation of the inspect button may allow deletion or movement of the scene to another scene button.

[0018] The system may further comprise an encoder positioned adjacent to the display screen and configured to navigate menus and adjust settings displayed on the display screen. The encoder includes a button that is rotatable and / or pressable for selection of functions.

[0019] The encoder may include an illuminated ring that illuminates white when the encoder can be used to navigate menus and green when the encoder can be used to adjust on-screen settings. The plurality of video ports may comprise HDMI inputs and USB-C inputs configured to receive video signals from cameras and USB video devices. The inspect mode may allow reassignment of input sources to the input buttons without switching the video sources to an output. Reassigning an input source that is already assigned to another button may prompt a confirmation before updating the previously assigned button.

[0020] These features provide technical advantages including enhanced visual feedback through colour-coded backlighting that reduces operator confusion, centralised management of complex scene configurations that streamlines production workflows, intuitive navigation through illuminated encoder feedback that improves user interface efficiency, support for multiple video input standards that increases system compatibility, and safe reconfiguration capabilities that prevent accidental disruption of live broadcasts during input reassignment operations.

[0021] According to another aspect of the present disclosure, a method for producing video content is provided. The method comprises providing a plurality of input channels to which one or more video sources is linked. The method comprises causing a display to display settings, layouts, scenes and actual video signal information regarding the input video channels. The method comprises providing a user interface configured to receive user inputs, the user interface including an inspect button and a plurality of input buttons each corresponding to a video input. The method comprises receiving actuation of the inspect button. The method comprises, in response to receiving actuation of the inspect button, entering an inspect mode in which the display displays detailed information about video sources assigned to the input buttons without switching or cueing the video sources to an output.

[0022] This method provides the technical advantage of enabling real-time inspection and verification of video production parameters whilst maintaining continuous live output, thereby improving broadcast reliability and reducing the likelihood of technical errors during live productions.

[0023] According to other aspects of the present disclosure, the method may include one or more of the following features. The detailed information displayed in the inspect mode may include resolution, frame rate, and colour space information of connected video sources. The method may further comprise providing a plurality of scene buttons configured to store preconfigured layouts of input sources, images, videos, and graphic overlays.

[0024] The method may further comprise receiving actuation of the inspect button followed by selection of a scene button, and in response, displaying scene information on the display and allowing deletion or movement of the scene to another scene button. The method may further comprise providing an encoder positioned adjacent to the display and configured to navigate menus and adjust settings displayed on the display. The encoder includes a button that is rotatable and / or pressable for selection of functions.

[0025] The encoder may include an illuminated ring that illuminates white when the encoder can be used to navigate menus and green when the encoder can be used to adjust on-screen settings.

[0026] The plurality of input channels may comprise HDMI inputs and USB-C inputs configured to receive video signals from cameras and USB video devices. The inspect mode may allow reassignment of input sources to the input buttons without switching the video sources to an output. Reassigning an input source that is already assigned to another button may prompt a confirmation before updating the previously assigned button.

[0027] These method features provide technical advantages including comprehensive technical parameter monitoring that enables proactive quality control, flexible scene management capabilities that support dynamic production requirements, enhanced user interface feedback that reduces operational errors, broad compatibility with industry-standard video interfaces that maximises system integration possibilities, and protected configuration management that prevents inadvertent changes to active broadcast settings.

[0028] The foregoing general description of the illustrative embodiments and the following detailed description thereof are merely exemplary aspects of the teachings of this disclosure and are not restrictive. BRIEF DESCRIPTION OF FIGURES

[0029] Non-limiting and non-exhaustive examples are described with reference to the following figures.

[0030] FIG. 1 illustrates an isometric view of a system for managing video content, according to aspects of the present disclosure.

[0031] FIGS. 2 and 3 illustrate rear and isometric views of the system of FIG. 1 showing input and output ports, according to aspects of the present disclosure.

[0032] FIG. 4 illustrates a plan view of the system of FIG. 1 showing a display screen and inspect button, according to aspects of the present disclosure.

[0033] FIG. 5 illustrates an HDMI multiview output display and control interface of the system, according to aspects of the present disclosure.

[0034] FIG. 6 illustrates a display output and control interface showing illuminated buttons and connectivity options, according to aspects of the present disclosure.

[0035] FIGS. 7 and 8 illustrate top views of the user interface with the inspect button activated, according to aspects of the present disclosure.

[0036] FIGS. 9-17 illustrate various display screens showing different input configurations and content types, according to aspects of the present disclosure.

[0037] FIG. 18 illustrates a sequence diagram showing interaction between the display screen and control buttons, according to aspects of the present disclosure.

[0038] FIG. 19 illustrates a flowchart for managing HDMI audio input assignment in the video mixing system, according to aspects of the present disclosure.

[0039] FIG. 20 illustrates an exemplary computing system that may be used for implementation of all or a portion of the system; and

[0040] FIG. 21 is an exemplary cloud computing system that may be used for implementation of all or a portion of the system. DETAILED DESCRIPTION

[0041] The present disclosure relates to systems and methods for managing and producing video content in broadcasting and live event production environments. Video content production typically involves managing multiple video and audio sources simultaneously, where producers must coordinate various camera feeds, data streams, and multimedia inputs to create cohesive output for streaming, recording, or live broadcast. In such environments, producers face the challenge of managing numerous input channels whilst maintaining continuous output to viewers, making real-time decision-making both complex and timesensitive.

[0042] Traditional video production systems often provide limited visibility into the detailed characteristics and settings of connected input sources. Producers may struggle to verify input assignments, check technical specifications, or manage button configurations without disrupting live output streams. This limitation becomes particularly problematic when working with multiple video sources that may have different resolutions, frame rates, or colour settings, as producers need to ensure compatibility and quality before switching sources during live production.

[0043] The systems and methods described herein address these challenges by providing a comprehensive video content management platform that supports multiple input types and offers enhanced visibility into system configurations. The platform may accommodate various video sources including cameras, USB devices, network streams, and multimedia files, whilst providing centralised control through an integrated user interface. The system may support both immediate switching for simple operations and preview-based switching for more complex production workflows.

[0044] A particular aspect of the disclosed system involves an inspect mode functionality that allows producers to safely examine detailed information about video sources, scenes, and system settings without affecting live output streams. This inspect mode may provide access to technical specifications such as resolution, frame rate, and colour space information for connected video sources. Additionally, the inspect mode may allow producers to view thumbnails of media files, examine scene configurations, and manage button assignments without interrupting ongoing broadcasts or recordings. Through this approach, producers can maintain better oversight of their production setup whilst reducing the risk of unintended changes to live output during operation.

[0045] Referring to FIG. 1, a system 10 for managing and producing video content may include a main body having a generally rectangular configuration with a low-profile design suitable for desktop operation. The system 10 may feature a sleek form factor with bevelled edges that provide an ergonomic interface for video production environments. The main body of the system 10 may be constructed to accommodate various internal components whilst maintaining a compact footprint that allows for efficient workspace utilisation during broadcasting and live event production activities.

[0046] The main body 12 of the system 10 may incorporate a sloped front panel 13 that positions control elements at an angle conducive to operator interaction. This angled configuration may facilitate access to various buttons, displays, and control interfaces during video production workflows. The front panel 13 may house multiple rows of control elements arranged in a systematic layout that provides logical groupings of related functions. The main body may further include structural features that support the integration of electronic components whilst maintaining thermal management and electromagnetic compatibility characteristics appropriate for professional video production equipment.

[0047] As shown in FIG. 1, the system 10 may include a display screen 60 mounted on the main body 12 as an integrated component, providing immediate visual feedback to operators without requiring external monitoring equipment. The integrated display screen 60 may be positioned within the front panel 13 layout to allow simultaneous viewing of system information whilst accessing physical controls. Two rotary control knobs may be positioned on the right side of the front panel, providing tactile control interfaces that complement the integrated display functionality. One control knob is an encoder 26 which can be pressed and rotated to select items from a menu displayed on the screen 60, or select inputs or scenes associated with scene buttons 70 or input buttons 75. The main body 12 design may accommodate these various interface elements whilst maintaining structural integrity and providing adequate internal space for processing components, connectivity hardware, and power management systems.

[0048] The overall configuration of the system 10 may reflect design considerations for professional video production environments where space efficiency, accessibility, and operational reliability are factors in equipment selection. The main body 12 may incorporate mounting features or surface treatments that enhance stability during operation whilst allowing for integration with other production equipment. The rectangular form factor may provide standardised dimensions that facilitate rack mounting or desktop placement according to specific installation requirements in broadcasting facilities, production studios, or mobile production setups.

[0049] Referring to FIGS. 2 and 3, the system 10 may include a comprehensive array of input and output ports positioned on a rear panel to facilitate connection of various video and audio devices. The rear panel configuration may provide organised access to connectivity options whilst maintaining a clean front-panel interface for operational controls. A plurality HDMI inputs 20 may be arranged in a systematic layout that allows for straightforward cable management and device identification during setup and operation. The positioning of the HDMI inputs 20 on the rear panel may accommodate standard HDMI cable configurations whilst providing adequate spacing for connector insertion and removal without interference between adjacent ports.

[0050] The HDMI inputs 20 may be configured to receive video signals from cameras and other video devices that support HDMI output standards. In some cases, the HDMI inputs 20 may accept video sources capable of outputting 1920x1080 video streams, with the system 10 automatically requesting this resolution when connected video devices support such output capabilities. The HDMI inputs 20 may provide power and signal connectivity for various camera types, including professional broadcast cameras, consumer camcorders, and specialised video equipment used in live production environments. Each of the HDMI inputs 20 may support standard HDMI signal protocols whilst maintaining compatibility with different video formats and timing standards commonly used in video production workflows. Each HDMI input 20 can be assigned to a different input button 75 and is selectable by pressing the button 75. That way, input and scene information may be identified and transmitted to the display 60 during inspect mode, once the inspect button 50 has been pressed.

[0051] As further shown in FIGS. 2 and 3, HDMI outputs 22 may be positioned adjacent to the HDMI inputs 20 to provide video output capabilities for monitoring and distribution purposes. The HDMI outputs 22 may be configured to send processed video signals to external displays, recording devices, or distribution equipment. In some cases, the HDMI outputs 22 may support multiview output configurations that allow operators to monitor multiple video sources simultaneously on connected display devices. The HDMI outputs 22 may maintain signal integrity and timing characteristics appropriate for professional video monitoring applications whilst supporting various display resolutions and refresh rates.

[0052] With continued reference to FIGS. 2 and 3, USB inputs 24 may be integrated into the rear panel layout to provide connectivity for USB-based video devices and peripheral equipment. The USB inputs 24 may include multiple USB-C ports that support bidirectional communication with connected devices, allowing the system 10 to function as both a USB host and USB device depending on the specific application requirements. USB inputs 24 may be configured to receive video signals from cameras and USB video devices that comply with UVC (USB Video Class) standard protocols. In some cases, the system 10 may automatically power UVC-compliant devices connected to the USB inputs 24 and recognise such devices as available input sources for video production workflows. Each of the USB inputs 24 is selectable by pressing the respective scene or input button so that information is viewable on the display 60 when the inspect button 50 is pressed.

[0053] The USB inputs 24 may include specialised functional assignments that provide distinct capabilities for different production requirements. USB input 24a may serve as a video and audio interface capable of sending video streams from the system 10 to external devices whilst simultaneously providing multitrack audio interface functionality and supporting additional audio channels for communication purposes. USB input 24b may be configured for control and secondary audio functions, allowing the system 10 to interface with companion applications running on connected computing devices. In some cases, USB input 24b may feature MFi certification, making the port suitable for connecting to secondary computers, iOS devices, and Android phones whilst maintaining compatibility with various mobile device protocols.

[0054] USB input 24c may be designated for USB storage device connectivity, supporting external hard drives, thumb drives, and other mass storage devices used for recording video and audio content. The USB inputs 24 may support various USB device classes beyond video input, including audio interfaces, storage devices, and control peripherals that enhance the production capabilities of the system 10. The multiple USB inputs 24 may allow simultaneous connection of different device types, enabling complex production setups that incorporate multiple USB-based video sources, audio interfaces, and storage solutions within a single integrated system.

[0055] Referring to FIG. 4, the system 10 may include a display screen 60 positioned in the upper portion of the device to provide visual feedback and system information to operators during video production workflows. The display screen 60 may be mounted on the main body 12 as an integrated component, allowing for immediate access to system status information without requiring external monitoring equipment. The positioning of the display screen 60 within the front panel layout may facilitate simultaneous viewing of displayed information whilst operators access physical control elements located elsewhere on the system 10. In some cases, the display screen 60 may be configured as a standalone display connected by an output from the system 10, providing flexibility in system configuration and allowing for remote monitoring capabilities when operational requirements dictate separation between control surfaces and display elements.

[0056] The display screen 60 may utilise various display technologies to accommodate different operational environments and visual requirements. In some cases, the display screen 60 may be an UED display that provides high brightness levels suitable for use in well-lit production environments. The display screen 60 may alternatively utilise LCD technology that offers balanced power consumption and image quality characteristics appropriate for extended operation periods. In some cases, the display screen 60 may incorporate OLED technology that provides enhanced contrast ratios and colour reproduction capabilities for detailed visual information presentation. The display screen 60 may utilise other flat screen display technologies that provide appropriate resolution, refresh rates, and viewing angle characteristics for professional video production applications. Display can be transmitted by cable or by wireless module to a remote display screen (not shown).

[0057] The display screen 60 may be configured with specific dimensions that optimise information presentation whilst maintaining compact form factor requirements for the system 10. In some cases, the display screen 60 may have dimensions of approximately 50mm x 50mm, providing a square aspect ratio suitable for displaying system status information, thumbnails, and menu interfaces. The display screen 60 may alternatively be configured with dimensions of approximately 50mm x 25mm, offering a rectangular format that accommodates different types of information layout and text presentation requirements. In some cases, the display screen 60 may utilise dimensions of approximately 25mm x 25mm or other suitable thumbnail sizes that balance information visibility with overall device compactness. The sizing of the display screen 60 may be selected based on the specific information density requirements and viewing distance considerations typical in video production control environments.

[0058] As further shown in FIG. 4, the encoder 26 may be positioned adjacent to the display screen 60 to provide tactile control functionality for navigating menus and adjusting settings displayed on the display screen 60. The encoder 26 may be configured as a rotary control element that responds to user rotation inputs by generating corresponding navigation commands or parameter adjustments within the system interface. The positioning of the encoder 26 adjacent to the display screen 60 may facilitate coordinated interaction between visual feedback provided by the display screen 60 and tactile control inputs received through the encoder 26. In some cases, the encoder 26 may incorporate push-button functionality that allows operators to confirm selections or activate specific functions in addition to the rotational control capabilities.

[0059] The encoder 26 may include an illuminated ring that provides visual feedback regarding the current operational state and available control functions. The illuminated ring of the encoder 26 may illuminate white when the encoder 26 can be used to navigate menus displayed on the display screen 60, providing clear indication to operators that rotational inputs will affect menu navigation functions. In some cases, the illuminated ring may illuminate green when the encoder 26 can be used to adjust on-screen settings displayed on the display screen 60, distinguishing parameter adjustment modes from menu navigation modes through distinct colour coding. The illuminated ring functionality may provide immediate visual confirmation of the encoder 26 operational state without requiring operators to reference additional status indicators or documentation during operation.

[0060] The display screen 60 may be configured as a touch screen that allows direct interaction with displayed icons and menus through touch-based input methods. Touch screen functionality of the display screen 60 may complement the encoder 26 controls by providing alternative input methods for different types of user interactions. In some cases, touch screen capabilities may allow operators to directly select menu items, adjust parameters through on-screen sliders or controls, and navigate between different information displays through gesture-based inputs. The combination of touch screen functionality in the display screen 60 and rotary control capabilities in the encoder 26 may provide multiple interaction modalities that accommodate different operator preferences and operational scenarios encountered in video production environments.

[0061] The display screen 60 may be configured to display settings, layouts, scenes, and actual video signal information regarding the input video channels connected to the system 10. Settings information displayed on the display screen 60 may include technical parameters such as resolution, frame rate, and colour space characteristics of connected video sources. Layout information may encompass multiview configurations, picture -in-picture arrangements, and split-screen presentations that define how multiple video sources are combined for output. Scene information displayed on the display screen 60 may include pre-configured combinations of input sources, graphics overlays, and transition settings that can be recalled for specific production requirements. Video signal information may provide real-time status indicators, signal quality metrics, and thumbnail previews that allow operators to monitor the characteristics of active video inputs without disrupting ongoing production workflows. The display may be touch screen.

[0062] Referring to FIG. 5, the system may provide comprehensive multiview display capabilities that allow operators to monitor multiple video sources simultaneously through a single output interface. The multiview output may present video feeds in an organised layout that facilitates real-time monitoring of various input sources whilst maintaining visual clarity and operational efficiency. The display arrangement 60 may include a larger main preview window positioned in the upper portion of the multiview output, providing detailed viewing of a selected video source that operators may designate for primary monitoring purposes.

[0063] This main preview window may occupy a substantial portion of the available display area to ensure adequate detail visibility for content verification and quality assessment during live production workflows.

[0064] The multiview display may incorporate multiple smaller thumbnail windows positioned below the main preview area, allowing operators to simultaneously observe additional video sources without requiring separate monitoring equipment. These thumbnail windows may present reduced-size representations of active video inputs, enabling operators to maintain awareness of content changes across multiple sources whilst focusing primary attention on the main preview window. The thumbnail arrangement may provide systematic organisation of video sources, with each thumbnail corresponding to specific input channels or source assignments configured within the system. The sizing and positioning of thumbnail windows may balance information density with visual clarity, ensuring that operators can distinguish content characteristics across multiple sources without visual strain or confusion during extended operation periods. The multiview output display 60 may include integrated audio level meters that provide realtime visual feedback regarding audio signal levels associated with connected video sources. These audio level meters may display amplitude information for multiple audio channels simultaneously, allowing operators to monitor audio characteristics without requiring separate audio monitoring equipment. The audio level meters may utilise colour-coded indicators or graduated scales that provide immediate visual reference for signal levels, peak detection, and potential audio issues that may require operator attention. The positioning of audio level meters within the multiview display may complement the video monitoring capabilities whilst maintaining clear visual separation between audio and video information elements.

[0065] As further shown in FIG. 5, the multiview display may incorporate various status indicators and system information elements that provide operational context for video production activities. Recording status indicators may be integrated into the multiview layout to provide immediate visual confirmation of recording states, storage utilisation, and file management information. Storage information displays may present available capacity, recording duration estimates, and media file status indicators that allow operators to manage recording resources without interrupting ongoing production workflows. A clock display may be included within the multiview output to provide time reference information that supports production scheduling and content timing requirements commonly encountered in broadcasting and live event production environments.

[0066] The control interface associated with the multiview system may feature multiple buttons arranged in systematic rows that correspond to different functional categories and operational modes. Input selection buttons 75 may be arranged in a logical sequence that allows operators to quickly identify and access specific video sources during production activities. These input selection buttons 75 may be labelled with alphanumeric identifiers that correspond to connected video sources, or media elements configured within the system. The button arrangement may provide tactile feedback and visual indicators that confirm operator selections whilst maintaining clear functional separation between different types of control inputs. Scene buttons are shown at 75.

[0067] The control interface buttons 70 and 75 may be illuminated to provide immediate visual feedback regarding current system states and active selections. Button illumination may utilise different colours to indicate various operational conditions, with specific colour assignments corresponding to different functional states or selection categories. For example, when the inspect button 50 is pressed, the inspect buttons turn green if there is some input such as an HDMI 22 input assigned to it. Then the display 60 shows information about the video feed settings. Those video feed settings are then changeable by selecting them with the encoder 26 or directly pressing on the touch screen. This is shown in Figures 9 to 11. Pressing the comer 62 of the screen 60 when in inspect mode can add audio from an HDMI input 22 to the selected input.

[0068] In operation, available in Instant switching mode, entering the inspect mode by pressing inspect button 50 allows the display of a preview of the video input on a comer 64 of the display 60 or remote monitor. This is shown in Figure 6. Once the operator is certain of what will be shown on a live video feed, they can then confidently switch that input and scene to live by pressing a switch button.

[0069] The illuminated indicators (scene buttons 70) and input buttons 75 allow operators to quickly assess system status and active configurations without requiring detailed menu navigation or status display consultation. The button layout 70 and 75 may accommodate simultaneous access to multiple control functions whilst maintaining ergonomic considerations appropriate for extended operation periods in professional video production environments. Pressing each input button in inspect mode (after pressing inspect button 50) allows the viewing on the display 60 of video setting information and then allows the adjustment of those settings by selection of areas on the display screen 60 or by pressing illuminated buttons 70 or 75 or using the encoder 26 or 27.

[0070] Additional control buttons within the interface may provide access to transition functions, automated switching capabilities, and other production tools that enhance operational efficiency during live content creation. These control buttons may be positioned to allow rapid access during time -sensitive production scenarios whilst maintaining clear functional groupings that reduce operator confusion or inadvertent activation. The overall control interface design may reflect considerations for professional video production workflows where rapid response times, operational reliability, and intuitive control access contribute to successful content creation outcomes. For example, in inspect mode, after pressing button 50, pressing the scene buttons 70 display scene information settings about an associated input and the input buttons 75 display information about the associated HDMI or USB input. Scene information shown by pressing the inspect button 50 and then a scene button 70 is shown at 78 in Figures 13 and 14.

[0071] Referring to FIG. 6, the system 10 may incorporate a comprehensive input button system that provides visual feedback and connectivity options for managing multiple video and audio sources during production workflows. The input button configuration 75 may include illuminated control elements that utilise colour-coded status indication to communicate operational states and selection modes to operators. When the inspect button 50 is pressed, for example, the input buttons turn green if there is an input associated with that input button and then it can be pressed to shown the input information settings for it. This is shown in Figure 9 and 10 at 62.

[0072] Similarly with input buttons 75, during inspect mode, pressing a scene button 70 shows on the display 60 any scene information (template or custom, etc) associated and then that scene can be edited or made live by working the encoder 26 or touching comers of the display, for example, in Figure 13 and 14 by pressing 78.

[0073] The button illumination system may provide immediate visual confirmation of system status without requiring operators to reference separate status displays or documentation during time-sensitive production activities. The input button arrangement may accommodate simultaneous monitoring of multiple input sources whilst maintaining clear visual distinction between different operational conditions and selection categories. The system 10 may include a USB port 5 that provides connectivity for USB-based devices and peripheral equipment used in video production workflows. The USB port 5 may be configured to support various USB device classes including video capture devices, audio interfaces, and storage equipment that enhance the production capabilities of the system 10. In some cases, the USB port 5 may provide power delivery to connected devices whilst maintaining bidirectional data communication protocols appropriate for professional video production applications. The positioning of the USB port 5 within the system architecture may facilitate integration with external equipment whilst maintaining compatibility with standard USB connectivity protocols and device recognition procedures.

[0074] The system may further incorporate two audio channels 9 that provides audio signal processing capabilities for connected audio sources and video inputs with embedded audio content. The audio channels 9 may be configured to handle audio signals from various input types including microphone inputs, line-level sources, and digital audio streams associated with video inputs. In some cases, the audio channels 9 may provide signal conditioning, level adjustment, and routing capabilities that allow operators to manage audio content independently from video switching operations. The audio channels 9 may support multiple audio formats and sampling rates commonly encountered in professional video production environments whilst maintaining signal integrity and synchronisation with associated video content.

[0075] The input buttons 70 and 75 of the system 10 may be backlit to indicate whether the display screen 60 is displaying information related to specific input buttons during operation. The backlighting functionality may provide immediate visual reference that allows operators to identify which input sources are currently being monitored or configured through the display screen 60 interface. In some cases, the backlit input buttons may illuminate when operators select specific inputs for inspection, configuration, or preview purposes, creating a direct visual connection between physical control elements and displayed information. The backlighting system may utilise energy-efficient illumination technologies that provide consistent brightness levels across extended operation periods whilst maintaining visibility in various ambient lighting conditions typical of production environments.

[0076] The backlights of the input buttons 70 and 75 may utilise different colours to indicate different selections and operational states within the video production system. The colour- coded illumination system may provide systematic visual communication that allows operators to quickly assess system status across multiple input channels simultaneously. In some cases, the input buttons may illuminate white when an input source is assigned to the corresponding button, providing confirmation that a video or audio source has been successfully configured and is available for selection. The white illumination state may indicate that the input channel is ready for use but not currently active in the output stream, allowing operators to distinguish between configured and active input sources during production workflows.

[0077] The input button 70 and 75 illumination system may utilise red colouring to indicate when input sources are currently live and actively contributing to the program output stream. This is The red illumination state may provide immediate visual confirmation that specific input channels are currently being transmitted to viewers or recording systems, allowing operators to maintain awareness of active content sources during live production activities. In some cases, the red illumination may serve as a safety indicator that prevents inadvertent changes to live input sources by clearly identifying which channels are currently on-air or being recorded. The red colouring may be selected for high visibility and immediate recognition, supporting rapid decision-making during time-sensitive production scenarios where live content management requires precise operator awareness.

[0078] As further shown in FIG. 6, the input buttons may illuminate green in inspect mode when input sources are cued to be sent live, indicating a preview or standby state that precedes activation in the program output. The green illumination state may provide operators with visual confirmation that specific input sources have been selected for upcoming activation whilst allowing time for content verification before committing to live output. In some cases, the green illumination may indicate that input sources are currently displayed in preview monitoring systems during inspect mode, allowing operators to assess content quality and suitability before switching to program output. The green colouring may distinguish preview states from both inactive and live states, providing a three-tier visual communication system that supports complex production workflows involving multiple input sources and switching operations.

[0079] The colour-coded illumination system may accommodate various production modes and operational scenarios encountered in professional video production environments. The different colour assignments may provide consistent visual language that operators can rely upon across different production setups and equipment configurations. In some cases, the illumination colours may be visible under various ambient lighting conditions commonly found in production studios, control rooms, and mobile production facilities. The backlighting system may maintain colour accuracy and brightness consistency to ensure reliable visual communication throughout extended production sessions where operator fatigue and environmental factors may affect visual perception and decision-making capabilities.

[0080] Referring to FIGS. 7 and 8, the system 10 includes an inspect button 50 that provides operators with access to detailed system information and configuration options without affecting live output streams during video production workflows. The inspect button 50 may be positioned within the user interface layout to allow rapid access during production activities whilst maintaining clear functional separation from other control elements that directly affect program output. When activated, the inspect button 50 may initiate a specialised operational mode that transforms the display screen 60 and associated control elements to provide comprehensive visibility into system configurations, input source characteristics, and operational parameters that may otherwise remain hidden during normal production workflows.

[0081] The inspect button 50 may be configured to respond to operator actuation by causing the system 10 to enter an inspect mode in which the display screen 60 displays detailed information about video sources assigned to input buttons without switching or cueing the video sources to program output. This inspect mode functionality provides a safe environment for system examination and configuration that eliminates the risk of inadvertent changes to live content streams during inspection activities. In some cases, the inspect button 50 incorporate visual feedback elements such as illumination of backlit buttons 70, 75 or colour changes of those buttons that confirm activation of inspect mode and provide ongoing indication of the current operational state to operators working in time-sensitive production environments. It also engages the screen 60 to show scene data and input data from the associated buttons among those shown at 70 and 75.

[0082] The system 10 may operate in two distinct switching modes that affect the behaviour of the inspect button 50 and associated display functions during inspection operations. Instant Mode may provide immediate switching capabilities where selection of video input sources by pressing buttons 75 directly affects program output without intermediate preview stages. In some cases, Instant Mode operation may prioritise rapid content switching and simplified operational workflows that accommodate inexperienced operators or situations where onscreen talent also functions as the system operator. The inspect button 50 functionality within Instant Mode may provide on-demand preview capabilities that temporarily utilise the display screen 60 for detailed source examination without permanently altering the operational workflow or requiring complex mode transitions.

[0083] Studio Mode may provide preview-based switching capabilities where video input selection affects preview output streams that operators may examine before committing content to program output. In some cases, Studio Mode operation may accommodate complex production workflows that involve multiple operators, detailed content verification procedures, and sophisticated switching sequences that benefit from preview capabilities. The inspect button 50 functionality within Studio Mode may integrate with existing preview systems to provide enhanced examination capabilities whilst maintaining compatibility with established production workflows and operator expectations for preview-based content management. The inspect mode effectively bypasses the live feed. As shown in FIG. 7, the display screen 60 may provide visual feedback and user prompts when the inspect button 50 activates inspect mode during Instant Mode operation. The display screen 60 may present interface elements that guide operators through the inspection process by highlighting available input buttons and providing instructions for selecting specific sources to examine. In some cases, the display screen 60 may utilise graphical indicators, text prompts, or colour-coded elements that communicate available inspection options whilst maintaining visual clarity and operational efficiency during time-sensitive production scenarios. The user interface behaviour during Instant Mode inspection may accommodate rapid information access whilst preserving the simplified operational characteristics that define Instant Mode workflows.

[0084] The inspect mode activation in Instant Mode may cause the display screen 60 to prompt operators to select specific input buttons for detailed examination, creating an interactive inspection workflow that allows systematic review of multiple input sources. This is shown in Figures 5 to 19. The display screen 60 may present selection interfaces that correspond to configured input channels, scene assignments, or media elements available within the system. In some cases, the display screen 60 may provide visual confirmation of operator selections whilst maintaining clear indication of the current inspection target and available navigation options. The prompt-based inspection interface may accommodate operators with varying experience levels whilst providing comprehensive access to system information and configuration options.

[0085] As further shown in FIG. 8, the display screen 60 may exhibit different behaviour during inspect mode activation when the system 10 operates in Studio Mode, reflecting the previewbased operational characteristics of this switching mode. In Studio Mode, the display screen 60 may automatically display information related to input sources or scene configurations currently assigned to preview output, eliminating the need for additional operator selection steps during inspection initiation. The display screen 60 may present detailed technical information, thumbnail previews, and configuration options related to the current preview selection, allowing operators to examine preview content characteristics without affecting program output streams or requiring separate monitoring equipment.

[0086] The inspect mode operation in Studio Mode may leverage existing preview infrastructure to provide enhanced examination capabilities that complement established production workflows. The display screen 60 may present information about preview content including resolution specifications, frame rate characteristics, colour space parameters, and signal quality indicators that support content verification and technical assessment activities. In some cases, the display screen 60 may provide access to configuration options that allow operators to modify input assignments, adjust technical parameters, or reorganise system configurations whilst maintaining preview-based workflow characteristics that define Studio Mode operation.

[0087] The user interface behaviour during inspect mode may accommodate different operator interaction patterns and information requirements depending on the current switching mode and production context. The inspect button 50 may provide consistent activation methods across both switching modes whilst allowing the display screen 60 and associated interface elements to adapt their presentation and functionality according to the specific operational characteristics of each mode. In some cases, the inspect mode may disable certain control functions such as cut, auto, and transition buttons to prevent inadvertent changes to program output during inspection activities, creating a protected operational environment that supports safe system examination and configuration procedures.

[0088] Referring to FIGS. 9-17, the display screen 60 may be configured to present various types of information and configuration options that support comprehensive video production management across different operational scenarios. The display screen 60 may accommodate multiple information display modes that correspond to different input source types, system configurations, and operational requirements encountered during video production workflows. The information presentation capabilities of the display screen 60 may provide operators with detailed visibility into technical specifications, content characteristics, and system settings that facilitate informed decision-making during live production activities. In some cases, the display screen 60 may adapt the information layout and content organisation based on the specific type of input source or configuration element being examined, providing contextually appropriate information density and presentation formats that optimise operator comprehension and workflow efficiency.

[0089] The display screen 60 may present detailed technical specifications for connected video sources including resolution, frame rate, and colour space information that allows operators to verify compatibility and quality characteristics before incorporating sources into production workflows. Resolution information displayed on the display screen 60 may indicate the pixel dimensions of incoming video signals, providing confirmation that connected sources meet production requirements and maintain consistency with established output specifications. Frame rate information may be presented to allow operators to identify timing characteristics of video sources and ensure synchronisation compatibility with the global frame rate settings configured within the system 10. Colour space information displayed on the display screen 60 may indicate the colour encoding standards utilised by connected video sources, supporting colour management decisions and ensuring consistent colour reproduction across multiple input channels during production activities.

[0090] The display screen 60 may accommodate various input configuration displays that correspond to different types of video sources and connection methods supported by the system 10. HDMI input configurations may be presented on the display screen 60 with information regarding connected device models, signal characteristics, and compatibility status that allows operators to verify proper connection and operation of HDMI-based video sources. UVC input configurations may be displayed with device identification information, supported resolution options, and power status indicators that facilitate management of USB- based video devices connected through the USB inputs. In some cases, the display screen 60 may present network input configurations that provide information about NDI video streams, network connectivity status, and available remote video sources that may be accessed through ethemet connections. As further shown in FIGS. 9-17, the display screen 60 may present specialised configuration options for different input source categories including keyed input configurations that support chroma key and transparency effects during video production. Keyed input displays on the display screen 60 may provide access to keying parameters, colour selection tools, and transparency adjustment controls that allow operators to configure green screen effects and other keying operations without requiring external processing equipment. Fade to black configurations may be presented on the display screen 60 to provide controlled transition options that allow operators to implement smooth content transitions and manage content visibility during production workflows. The fade to black functionality displayed on the display screen 60 may include timing controls, transition curve options, and activation methods that support various production scenarios where content fading may be required.

[0091] The display screen 60 may accommodate multi-source layout configurations that allow operators to create and manage picture-in-picture arrangements, split-screen presentations, and other composite video layouts that combine multiple input sources within single output streams. Multi-source layout displays on the display screen 60 may present thumbnail representations of available input sources alongside layout templates that define positioning, sizing, and layering characteristics for composite video arrangements. In some cases, the display screen 60 may provide interactive layout editing capabilities that allow operators to adjust source positioning, modify scaling parameters, and configure transition effects between different multi-source arrangements. Custom scene configuration displays on the display screen 60 may present comprehensive scene management interfaces that allow operators to define, modify, and organise pre -configured production setups that combine multiple input sources, graphics overlays, and transition settings.

[0092] With continued reference to FIGS. 9-17, the display screen 60 may present graphic overlay management interfaces that provide access to stored graphics, transparency settings, and positioning controls for overlay elements used in video production. Graphic overlay displays on the display screen 60 may include thumbnail previews of available graphics files, layer management controls, and opacity adjustment options that allow operators to configure lower-thirds, logos, watermarks, and other graphic elements that enhance video content presentation. The display screen 60 may accommodate various graphic file formats including PNG files with transparency layers that maintain alpha channel information during overlay operations, supporting professional graphics integration without background interference or visual artefacts.

[0093] The display screen 60 may provide sound management interfaces that present audio file information, playback controls, and integration options for sound effects, music, and other audio elements stored within the system. Sound configuration displays on the display screen 60 may include audio file metadata, duration information, and volume control settings that allow operators to manage audio content independently from video switching operations. Video clip management displays on the display screen 60 may present media file thumbnails, playback preview capabilities, and file organisation tools that support efficient management of stored video content used in production workflows. In some cases, the display screen 60 may provide media file status information including storage location, file format specifications, and compatibility indicators that assist operators in managing media resources and ensuring proper file integration during production activities.

[0094] The display screen 60 may accommodate various system configuration displays that provide access to global settings, operational parameters, and system status information that affects overall system 10 performance and functionality. System configuration interfaces presented on the display screen 60 may include frame rate selection options, audio delay adjustment controls, and network configuration settings that allow operators to optimise system performance for specific production requirements. In some cases, the display screen 60 may present diagnostic information including signal quality indicators, system resource utilisation metrics, and connectivity status displays that support troubleshooting activities and system maintenance procedures during extended production operations.

[0095] Referring to FIG. 18, the system 10 may include a plurality of scene buttons 70 that provide comprehensive management capabilities for pre-configured production setups within video content creation workflows. The scene buttons 70 may be configured to store pre -configured layouts of input sources, images, videos, and graphic overlays that allow operators to rapidly transition between different production configurations during live broadcasting or recording activities. Each of the scene buttons 70 may accommodate complex combinations of video sources, audio settings, graphics elements, and transition parameters that define complete production scenes suitable for different content segments or presentation requirements. The scene buttons 70 may provide immediate access to stored configurations without requiring operators to manually recreate complex setups during time-sensitive production scenarios where rapid scene changes may be necessary for maintaining audience engagement or meeting broadcast scheduling requirements.

[0096] The scene buttons 70 may interact with the display screen 60 through systematic communication pathways that facilitate scene configuration management and operational control during video production workflows. When operators select one of the scene buttons 70, the corresponding scene information may be transmitted to the display screen 60 for presentation and potential modification. The display screen 60 may respond to scene button 70 activation by presenting detailed information about the selected scene including input source assignments, graphics overlay configurations, audio mixing parameters, and transition settings that define the complete production setup. In some cases, the scene buttons 70 may provide visual feedback through illumination or colour changes that confirm selection and indicate the current operational status of stored scene configurations within the production workflow.

[0097] The system 10 may further include a plurality of input buttons 75 that correspond to individual video input sources and provide direct control over input source selection and management within the video production system. The input buttons 75 may be configured to interface with various types of video sources including HDMI-connected cameras, USB video devices, network video streams, and stored media files that contribute to the overall production content. Each of the input buttons 75 may maintain assignment relationships with specific input sources whilst providing operators with immediate access to source selection and configuration functions during production activities. The input buttons 75 may accommodate dynamic reassignment of input sources to accommodate changing production requirements or equipment configurations that may occur during extended production sessions or multi-day broadcasting events.

[0098] As shown in FIG. 18, the input buttons 75 may establish communication pathways with the display screen 60 that allow detailed examination and configuration of assigned input sources without affecting live program output streams. When operators activate one of the input buttons 75, the corresponding input source information may be transmitted to the display screen 60 for presentation of technical specifications, signal quality indicators, and configuration options related to the selected input. The display screen 60 may present input source information including device identification, resolution characteristics, frame rate specifications, and colour space parameters that allow operators to verify source compatibility and quality before incorporating the source into production workflows. In some cases, the input buttons 75 may provide multiple interaction modes that allow operators to select sources for preview, configure source parameters, or assign sources to different production roles within the overall system architecture.

[0099] The interaction between the scene buttons 70 and the display screen 60 may accommodate comprehensive scene management capabilities that extend beyond simple scene recall to include scene modification, organisation, and deletion functions. When operators activate the inspect button 50 followed by selection of one of the scene buttons 70, the display screen 60 may present detailed scene information that includes thumbnail previews of assigned media elements, input source configurations, and graphics overlay assignments that comprise the selected scene. The display screen 60 may provide scene management options that allow operators to delete scenes that are no longer required for production activities, with deletion operations requiring confirmation steps to prevent inadvertent loss of complex scene configurations. In some cases, the display screen 60 may allow movement of scene configurations between different scene buttons 70, providing organisational flexibility that accommodates changing production requirements or operator preferences for scene button assignments. The scene management capabilities presented on the display screen 60 may include scene editing functions that allow operators to modify existing scene configurations without requiring complete recreation of complex production setups. Scene editing interfaces on the display screen 60 may provide access to input source reassignment options, graphics overlay modifications, and audio mixing adjustments that allow fine-tuning of stored scene configurations based on evolving production requirements. The display screen 60 may present scene editing options through intuitive interface elements that allow operators to adjust scene parameters whilst maintaining visual confirmation of changes and their effects on the overall production setup. In some cases, scene editing capabilities may include the ability to save modified scenes to different scene buttons 70, creating variations of existing scenes that accommodate different production scenarios or content requirements.

[0100] The system 10 may include specialised media buttons that provide access to videos, images, and sounds loaded onto a microSD card storage system integrated within the system 10 architecture. The media buttons may illuminate purple when activated, providing distinctive visual feedback that distinguishes media selection operations from other control functions within the user interface. When operators activate media buttons, the associated scene buttons 70 may alter their function to represent assigned media elements, with buttons that have media assignments illuminating purple to indicate available media content. The media button functionality may allow operators to incorporate stored video clips, still images, and audio files into production workflows through the same interaction methods used for live input sources and pre-configured scenes, providing unified control approaches that reduce operator training requirements and minimise operational complexity during live production activities.

[0101] The system 10 may further incorporate overlay buttons that provide access to graphic overlays loaded onto the microSD card storage system, with overlay buttons illuminating blue when activated to provide visual distinction from other button functions. When overlay buttons are activated, the scene buttons 70 may modify their operational behaviour to represent assigned graphic overlay elements, with buttons containing overlay assignments illuminating blue to indicate available graphics content. The overlay functionality may support various graphic file formats including PNG files with transparency layers that maintain alpha channel information during overlay operations, allowing professional graphics integration without background interference or visual artefacts that could compromise production quality. Overlay elements accessed through the overlay buttons may remain active across input source changes and scene transitions, providing persistent graphics elements such as lower-thirds, logos, and watermarks that maintain visual consistency throughout production segments.

[0102] The system 10 may include a multisource button that facilitates creation of picture-in-picture arrangements and split screen configurations that combine multiple input sources within single output presentations. The multisource button may illuminate yellow when activated, providing distinctive visual feedback that indicates multisource layout creation mode within the user interface. When operators activate the multisource button, the display screen 60 may present layout selection menus that provide access to various preset arrangement templates including picture-in-picture configurations, split screen layouts, and custom multi-window arrangements that accommodate different production presentation requirements. The multisource functionality may allow operators to assign different input sources to individual frames within multisource layouts through interaction with the input buttons 75, creating complex composite presentations that combine live camera feeds, stored media content, and graphics overlays within unified output streams suitable for professional broadcasting and live event production applications.

[0103] Referring to FIG. 19, the system 10 may incorporate a comprehensive audio input management system that provides systematic approaches for handling audio channel assignments and resource allocation during video production workflows. The audio input management process may accommodate various audio source types whilst maintaining organised channel allocation procedures that prevent conflicts and ensure optimal audio signal routing throughout the production system. The audio management system may provide decision-making frameworks that guide operators through channel assignment procedures, particularly when managing HDMI audio inputs that may require integration with existing audio channel configurations. In some cases, the audio input management system may present operators with structured workflows that facilitate efficient audio resource utilisation whilst maintaining compatibility with different audio source types and production requirements.

[0104] The audio channel assignment process illustrated in FIG. 19 may begin with detection of HDMI audio sources that are already assigned within the mixer configuration, providing a foundation for subsequent channel allocation decisions. When HDMI audio inputs are detected as existing assignments within the system, the audio management process may evaluate available channel resources and present operators with options for incorporating additional audio sources or modifying existing assignments. The system may provide branching decision pathways that accommodate different scenarios including situations where audio channels are available for new assignments and situations where channel capacity limitations may require resource reallocation or channel management adjustments.

[0105] As further shown in FIG. 19, the audio input management system may present operators with specific decision points regarding HDMI audio input utilisation, particularly for HDMI 1 audio input sources that may be available for assignment within the production workflow. The decision-making process may provide confirmation prompts that allow operators to verify their intentions regarding HDMI audio input usage before implementing channel assignments that could affect existing audio configurations. In some cases, the system may present operators with options to confirm or deny the use of specific HDMI audio inputs, providing control over audio source integration whilst maintaining awareness of potential impacts on existing audio channel assignments and overall system audio configuration.

[0106] The audio management system may accommodate scenarios where all available audio channels are assigned, presenting operators with resource management options that facilitate continued audio source integration despite channel capacity limitations. When the system detects that all nine audio channels are assigned, the audio management process may prompt operators to make decisions regarding channel addition or removal procedures that optimise audio resource utilisation for current production requirements. The system may provide options for adding new audio channels through resource reallocation or removing existing channel assignments that may no longer be required for ongoing production activities. In some cases, the audio management system may present operators with channel management interfaces that allow systematic review of current audio assignments and facilitate informed decisions regarding channel resource optimisation.

[0107] The system 10 may include combo inputs that feature high-quality Neutrik combo jacks configured to accommodate various audio source types commonly encountered in professional video production environments. The combo inputs may provide connectivity options for microphones, instruments, and line-level devices through standardised connection interfaces that support both XLR and 1 / 4-inch connection types within individual input jacks. The Neutrik combo jack configuration may allow operators to connect different audio source types without requiring adapter cables or specialised connection hardware, providing operational flexibility that accommodates changing audio source requirements during production workflows. In some cases, the combo inputs may provide phantom power capabilities for condenser microphones whilst maintaining compatibility with dynamic microphones and line -level sources that do not require external power delivery.

[0108] The combo input configuration may provide signal conditioning capabilities that optimise audio signal characteristics for different source types connected through the XLR and 1 / 4- inch connection options. The combo inputs may accommodate microphone-level signals that require preamplification and gain adjustment to achieve appropriate signal levels for mixing and processing operations. Instrument inputs connected through the combo jacks may receive appropriate impedance matching and signal conditioning that preserves the tonal characteristics of connected instruments whilst providing suitable signal levels for integration with other audio sources within the production workflow. Line-level device connections through the combo inputs may provide appropriate signal handling that maintains signal integrity whilst accommodating various line-level standards commonly encountered in professional audio equipment. The system 10 may incorporate headphone and speaker outputs positioned on the rear panel to provide monitoring capabilities for operators and production personnel during video production activities. The headphone outputs may be configured to support two pairs of headphones simultaneously, allowing multiple operators to monitor audio content independently whilst maintaining individual volume control capabilities for each headphone output. The headphone output configuration may provide sufficient power delivery to drive various headphone impedances commonly used in professional audio monitoring applications whilst maintaining low noise characteristics and accurate frequency response that support critical listening activities during production workflows. In some cases, the headphone outputs may provide independent signal routing options that allow different operators to monitor different audio sources or mix configurations according to their specific monitoring requirements.

[0109] The speaker outputs integrated within the rear panel configuration may provide connectivity for near-field monitoring speakers that support audio monitoring in control room environments or production spaces where loudspeaker monitoring may be appropriate. The speaker outputs may provide balanced signal delivery that maintains signal integrity over extended cable runs whilst providing sufficient output levels to drive powered monitoring speakers commonly used in professional video production facilities. The speaker output configuration may accommodate various monitoring speaker types whilst providing signal characteristics that support accurate audio reproduction and critical listening activities during production workflows. In some cases, the speaker outputs may provide signal routing flexibility that allow operators to monitor different audio sources or mix configurations through connected monitoring speakers according to specific production monitoring requirements.

[0110] The system 10 may include audio output delay functionality that addresses timing synchronisation challenges commonly encountered when combining audio and video sources with different processing delays during production workflows. The audio output delay system may provide adjustable delay parameters that allow operators to compensate for video processing delays by introducing corresponding delays in audio signal paths, ensuring temporal alignment between audio and video content in live streams and recorded output. The delay adjustment capabilities may provide precise timing control with adjustment increments of 1 millisecond, allowing fine-tuning of audio-video synchronisation for various equipment configurations and signal processing chains that may introduce different delay characteristics. In some cases, the audio output delay functionality may provide frame-based adjustment increments that correspond to video frame timing, allowing operators to align audio timing with video frame boundaries for optimal synchronisation in frame -accurate production workflows.

[0111] The audio output delay adjustment system may accommodate various measurement and calibration procedures that allow operators to determine appropriate delay settings for specific equipment configurations and production setups. The delay measurement process may involve recording test signals that include both audio and video components, allowing operators to analyse timing relationships and calculate appropriate delay compensation values through external analysis tools or non-linear editing systems. The audio output delay functionality may provide delay adjustment ranges that accommodate typical video processing delays encountered in professional video production equipment whilst maintaining audio signal quality and avoiding artefacts that could compromise audio reproduction characteristics. In some cases, the delay adjustment system may provide realtime adjustment capabilities that allow operators to fine-tune synchronisation settings during live production activities whilst monitoring the effects of delay adjustments on overall audiovideo timing relationships.

[0112] The system 10 may incorporate a microSD card slot that provides integrated storage capabilities for multimedia content used in video production workflows. The microSD card slot may accommodate standard microSD card formats commonly used for portable storage applications, allowing operators to load videos, images, graphics, and sounds directly onto removable storage media for immediate access during production activities. The microSD card storage system may provide convenient content management capabilities that allow operators to prepare multimedia elements in advance of production sessions whilst maintaining organised file structures that facilitate rapid content access during live broadcasting or recording operations. In some cases, the microSD card slot may support various microSD card capacities and speed classes, allowing operators to select storage media that meets specific capacity and performance requirements for different production scenarios.

[0113] The microSD card storage functionality may provide systematic file organisation capabilities that allow operators to categorise multimedia content according to production requirements or content types. Videos stored on the microSD card may include pre-recorded content segments, promotional materials, or backup content that can be integrated into live production workflows when required. Image files stored on the microSD card may encompass still graphics, photographs, or visual elements that enhance production presentations through overlay or direct presentation capabilities. Graphics files stored on the microSD card may include lower-thirds, logos, watermarks, and other visual elements that provide branding or informational content during production activities. Sound files stored on the microSD card may include audio effects, musical elements, or pre-recorded audio content that complements video presentations or provides audio enhancement during production workflows.

[0114] The system 10 may support network video inputs and outputs through NDI video streams that utilise ethemet connection capabilities for distributed video production applications. NDI (Network Device Interface) support may allow the system 10 to receive video content from remote cameras or video sources located elsewhere on the local network infrastructure, providing production flexibility that extends beyond directly connected video devices. The NDI input capabilities may accommodate up to four network input sources that can be assigned to input buttons through the inspect mode interface or companion application software. Network video input assignment may involve selecting NDI devices from lists of available network sources, with the system 10 automatically detecting compatible NDI devices present on the connected network infrastructure. The NDI output capabilities of the system 10 may allow transmission of processed video content to other network-connected devices or systems that support NDI protocol standards. NDI output functionality may provide distribution capabilities that allow multiple monitoring stations, recording systems, or secondary production equipment to receive video streams from the system 10 without requiring additional hardware distribution equipment. The network video capabilities may support various NDI protocol versions and compatibility standards commonly used in professional video production environments, ensuring interoperability with existing network infrastructure and NDI-compatible equipment. In some cases, the NDI implementation may provide bandwidth management features that optimise network utilisation whilst maintaining video quality characteristics appropriate for professional production applications.

[0115] The ethemet connectivity supporting NDI functionality may accommodate standard network infrastructure commonly found in production facilities, broadcast studios, and live event venues. The network connection may support various ethemet standards and data rates that provide sufficient bandwidth for multiple NDI video streams whilst maintaining network stability and performance characteristics. Network configuration options may include automatic device discovery capabilities that simplify NDI source identification and assignment procedures during production setup activities. The NDI support may accommodate various video resolution and frame rate combinations commonly used in professional video production, with automatic format negotiation capabilities that ensure compatibility between NDI sources and the system 10 processing capabilities.

[0116] The system 10 may include Cut and Auto buttons that provide different switching methods for transitioning between video sources during production workflows. The Cut button may provide instant switching capabilities that immediately change program output from one video source to another without intermediate transition effects or timing delays. Cut switching functionality may accommodate production scenarios where rapid content changes are required, such as live event coverage, news broadcasting, or interactive presentations where immediate response to changing content requirements may be beneficial. The Cut buton operation may provide frame -accurate switching that maintains video signal integrity whilst minimising transition artefacts or visual discontinuities that could affect viewer experience or production quality.

[0117] The Auto buton may provide transition-based switching capabilities that utilise configurable transition setings to create smooth changes between video sources during production activities. Auto switching functionality may accommodate production scenarios where polished presentation characteristics are desired, such as corporate presentations, educational content, or entertainment programming where transition effects enhance visual continuity and professional appearance. The Auto buton operation may apply transition timing and effect parameters configured within the system setings, allowing operators to maintain consistent transition characteristics across multiple switching operations during production workflows. In some cases, the Auto buton functionality may provide preview capabilities that allow operators to verify transition effects before commiting changes to program output streams.

[0118] The system 10 may support configurable transition setings that provide comprehensive control over transition timing and visual effects used during video source switching operations. Transition timing adjustment capabilities may allow operators to specify transition duration parameters that range from rapid transitions suitable for dynamic content to extended transitions appropriate for contemplative or artistic presentations. The timing adjustment system may provide precise control over transition duration through rotary encoder interfaces or touch screen controls that allow real-time adjustment of timing parameters whilst monitoring transition effects on preview or program output streams. Transition timing setings may be stored as part of system configurations, allowing operators to recall preferred timing characteristics for different production scenarios or content types.

[0119] The transition type selection capabilities may provide access to various visual effects that define the appearance and characteristics of transitions between video sources. Fade transitions may provide gradual opacity changes that smoothly blend between outgoing and incoming video sources, creating seamless transitions that maintain visual continuity during content changes. Dip transitions may incorporate intermediate stages that briefly transition through black or other solid colours before revealing incoming video sources, providing distinctive transition characteristics that may be appropriate for dramatic effect or content separation purposes. Wipe transitions may provide geometric patterns that progressively reveal incoming video sources through various directional or shaped patterns, offering multiple sub-types that accommodate different visual preferences and production requirements.

[0120] The transition configuration system may accommodate custom transition parameters that allow operators to fine-tune transition characteristics according to specific production requirements or artistic preferences. Transition curve adjustments may provide control over the mathematical progression of transition effects, allowing linear transitions for consistent visual progression or curved transitions that provide accelerated or decelerated transition characteristics. The transition settings may be accessible through on-screen interface elements that provide immediate visual feedback regarding transition parameter changes, allowing operators to optimise transition characteristics whilst monitoring their effects on video output quality and visual appeal.

[0121] The system 10 may support multiple frame rates as global frame rate settings that determine the temporal characteristics of video processing, output streams, and recording operations. The global frame rate configuration may affect all video processing operations within the system 10, including input signal processing, transition effects, output stream generation, and recording file characteristics. Frame rate options may include 23.98 fps, which provides compatibility with film-based content and cinematic production workflows commonly used in entertainment and artistic video production applications. The 24 fps option may accommodate true film frame rates used in cinema production and content distribution systems that maintain film-based timing characteristics.

[0122] The frame rate selection may include 25 fps support that accommodates PAL video standards commonly used in European and international broadcasting systems, providing compatibility with regional broadcast infrastructure and content distribution requirements. The 29.97 fps option may provide compatibility with NTSC video standards used in North American broadcasting systems, accommodating drop-frame timing characteristics that maintain longterm synchronisation with real-time clock references. The 30 fps option may support true 30 frames per second operation for applications that require precise 30 fps timing without dropframe compensation. Higher frame rate options may include 50 fps and 59.94 fps settings that provide enhanced temporal resolution for sports broadcasting, live event coverage, or content applications where increased frame rates enhance motion reproduction characteristics.

[0123] The 60 fps frame rate option may provide the highest temporal resolution supported by the system 10, accommodating applications where maximum motion clarity and temporal precision are required for content quality or technical compatibility reasons. The global frame rate setting may affect all connected video sources, requiring operators to configure cameras and other video devices to output video signals that match the selected global frame rate for optimal compatibility and signal processing performance. Frame rate configuration may be accessible through system settings menus that provide clear indication of current frame rate settings and allow systematic adjustment of frame rate parameters according to production requirements. In some cases, the frame rate selection may provide automatic detection capabilities that identify the frame rates of connected video sources and provide recommendations for global frame rate settings that optimise compatibility across multiple input sources.

[0124] The frame rate configuration system may accommodate frame rate conversion capabilities that allow the system 10 to process video sources with different frame rates whilst maintaining the selected global frame rate for output operations. Frame rate conversion may utilise interpolation algorithms or frame duplication techniques that maintain video quality whilst adapting source timing characteristics to match global frame rate requirements. The frame rate management system may provide status indicators that confirm proper frame rate synchronisation across all video processing stages, ensuring that frame rate mismatches do not compromise video quality or introduce timing artefacts that could affect production output characteristics. The inspect mode functionality of the video production system may provide comprehensive input source reassignment capabilities that allow operators to modify system configurations without affecting live program output streams during production activities. The reassignment functionality may accommodate dynamic production requirements where input source assignments may need modification due to equipment changes, content scheduling adjustments, or operational preferences that evolve during extended production sessions. The input source reassignment system may provide systematic approaches for managing source assignments across multiple input channels whilst maintaining operational safety protocols that prevent inadvertent changes to live content streams. In some cases, the reassignment functionality may accommodate various input source types including HDMI-connected cameras, USB video devices, network video streams, and stored media files that contribute to production content diversity and operational flexibility.

[0125] The input source reassignment process within inspect mode may provide protected operational environments that isolate configuration activities from live output operations, ensuring that source assignment modifications do not interrupt ongoing broadcasts or recording activities. The reassignment functionality may allow operators to evaluate current input source assignments, identify optimisation opportunities, and implement configuration changes without requiring production interruptions or complex coordination procedures with other production personnel. The system may provide visual confirmation of reassignment operations through display interfaces that present current assignments alongside proposed changes, allowing operators to verify reassignment intentions before implementing configuration modifications. In some cases, the reassignment process may accommodate batch assignment operations that allow simultaneous modification of multiple input source assignments according to systematic reassignment plans or equipment configuration changes.

[0126] The system may implement confirmation protocols that provide additional safety measures when reassigning input sources that are already assigned to other input channels within the production configuration. When operators attempt to reassign an input source that currently maintains assignment relationships with existing input channels, the system may prompt confirmation procedures that require explicit operator acknowledgment before implementing the reassignment operation. The confirmation process may present detailed information about the existing assignment relationships that would be affected by the proposed reassignment, including identification of the current input channel assignments and potential impacts on production workflows that depend on existing source assignments. The confirmation prompts may provide operators with options to proceed with the reassignment operation or cancel the operation whilst maintaining existing assignment configurations.

[0127] The confirmation system may accommodate various confirmation interface approaches that balance operational safety with workflow efficiency during time-sensitive production scenarios. Simple confirmation dialogues may present operators with clear options to confirm or cancel proposed reassignment operations, with visual emphasis on the confirmation choice to ensure deliberate operator decision-making. Advanced confirmation interfaces may provide detailed impact analysis that describes the effects of proposed reassignments on current production configurations, scene assignments, and operational workflows that may be affected by source assignment changes. In some cases, the confirmation system may provide preview capabilities that allow operators to examine the effects of proposed reassignments on system configurations before committing to assignment changes that could affect production operations.

[0128] The reassignment confirmation process may provide systematic documentation of assignment changes that support production continuity and operational tracking requirements commonly encountered in professional video production environments. The system may maintain assignment history records that document previous source assignments, reassignment operations, and operator decisions regarding configuration changes implemented during production sessions. Assignment change documentation may include timestamp information, operator identification, and detailed descriptions of reassignment operations that provide audit trails for production management and quality assurance procedures. The documentation system may accommodate export capabilities that allow assignment change records to be integrated with production logs, technical documentation, or post-production analysis procedures that benefit from detailed configuration change tracking.

[0129] The input source reassignment functionality may accommodate complex reassignment scenarios where multiple input sources require coordinated assignment changes to achieve desired production configurations. Sequential reassignment operations may allow operators to implement systematic assignment changes that optimise input source organisation according to production requirements or operator preferences for source arrangement. The system may provide reassignment planning interfaces that allow operators to design comprehensive reassignment schemes before implementation, reducing the likelihood of configuration errors or unintended assignment conflicts during complex reassignment procedures. In some cases, the reassignment system may provide automatic conflict detection capabilities that identify potential assignment conflicts before implementation and suggest alternative assignment approaches that achieve desired configuration goals without creating operational complications.

[0130] The reassignment system may provide rollback capabilities that allow operators to reverse recent assignment changes when reassignment operations produce unintended configuration results or operational complications. Rollback functionality may maintain temporary storage of previous assignment configurations that can be restored through simple operator commands, providing recovery options that minimise production disruptions when reassignment operations require correction or refinement. The rollback system may accommodate multiple levels of assignment change history, allowing operators to reverse several recent reassignment operations when complex configuration changes require systematic correction procedures. Assignment rollback operations may provide confirmation prompts that ensure deliberate operator intentions whilst maintaining the same safety protocols applied to forward reassignment operations.

[0131] The inspect mode reassignment functionality may integrate with broader system configuration management capabilities that coordinate input source assignments with scene configurations, media assignments, and graphics overlay settings that depend on specific input source relationships. The reassignment system may provide impact analysis capabilities that identify scene configurations or production setups that would be affected by proposed input source reassignments, allowing operators to assess the broader implications of assignment changes before implementation. Integrated configuration management may provide automatic update capabilities that adjust dependent configurations when input source reassignments are implemented, maintaining system consistency whilst reducing manual configuration adjustment requirements. In some cases, the system may provide selective update options that allow operators to choose which dependent configurations should be automatically adjusted following input source reassignment operations.

[0132] The reassignment confirmation system may accommodate different confirmation threshold settings that allow operators to customise confirmation requirements according to production risk tolerance and operational preferences. High-security confirmation settings may require confirmation prompts for all reassignment operations, providing maximum protection against inadvertent configuration changes during production activities. Moderate confirmation settings may require confirmation prompts only for reassignment operations that affect currently active input sources or sources assigned to live production roles within the system configuration. Minimal confirmation settings may provide confirmation prompts only for reassignment operations that would create assignment conflicts or system configuration inconsistencies that could affect production functionality. The confirmation threshold configuration may be accessible through system settings interfaces that allow production managers or senior operators to establish confirmation policies appropriate for specific production environments and operator experience levels.

[0133] Exemplary System

[0134] Figure 20 illustrates a diagram of a system of which may be an embodiment of the present disclosure. System 700 includes an input / output interface 702 connected to communication infrastructure 704 — such as a bus — which forwards data such as audio, graphics, text, and information, from the communication infrastructure 704 or from a frame buffer (not shown) to other components of the system 700. The input / output interface 702 may be, for example, a touchscreen, a display device, a keyboard, touch screen joystick, trackball, mouse, monitor, speaker, printer, VR unit, web camera, any other computer peripheral device, or any combination thereof, capable of inputting, receiving, and / or viewing data.

[0135] System 700 includes one or more processors 706, which may be a special purpose or a general-purpose digital signal processor configured to process certain information. System 700 also includes a main memory 708, for example random access memory (RAM), read-only memory (ROM), mass storage device, or combinations of each. System 700 may also include a secondary memory 710 such as a hard disk unit 712, a removable storage unit 714, or combinations of each. System 700 may also include a communication interface 716, for example, a modem, a network interface (such as an Ethernet card or Ethernet cable), a communication port, a PCMCIA slot and card, wired or wireless systems (such as Wi-Fi, Bluetooth, Infrared), local area networks, wide area networks, intranets, etc.

[0136] It is contemplated that the main memory 708, secondary memory 710, communication interface 716, or combinations of each, function as a computer usable storage medium, otherwise referred to as a computer readable storage medium, to store and / or access computer software including computer instructions. For example, computer programs or other instructions may be loaded into the system 700 such as through a removable storage device, for example, a floppy disk, ZIP disks, magnetic tape, portable flash drive, optical disk such as a CD or DVD or Blu-ray, Micro-Electro-Mechanical Systems (MEMS), nano-technological apparatus. Specifically, computer software including computer instructions may be transferred from the removable storage unit 714 or hard disc unit 712 to the secondary memory 710 or through the communication infrastructure 703 to the main memory 708 of the system 700.

[0137] Communication interface 716 allows software, instructions and data to be transferred between the system 700 and external devices or external networks. Software, instructions, and / or data transferred by the communication interface 716 are typically in the form of signals that may be electronic, electromagnetic, optical or other signals capable of being sent and received by the communication interface 716. Signals may be sent and received using wire or cable, fiber optics, a phone line, a cellular phone link, a Radio Frequency (RF) link, wireless link, or other communication channels.

[0138] Computer programs, when executed, enable system 700, particularly the processor 706, to implement the disclosed methods according to computer software including instructions.

[0139] System 700 described may perform any one of, or any combination of, the steps of any of the methods according to the invention. It is also contemplated that the methods according to the invention may be performed automatically.

[0140] The system 700 of FIG. 20 is provided only for purposes of illustration, such that the invention is not limited to this specific embodiment. It is appreciated that a person skilled in the relevant art knows how to program and implement the invention using any computer system.

[0141] System 700 may be a handheld device and include any small-sized computer device including, for example, a personal digital assistant (PDA), hand-held computing device, cellular telephone, or a laptop or netbook computer, mobile system, tablet, or similar hand held computer device, such as an iPad, iPad Touch or iPhone.

[0142] Exemplary Cloud Computing System

[0143] FIG. 21 illustrates an exemplary cloud computing system 800 that may be an embodiment of the present invention. The cloud computing system 800 includes a plurality of interconnected computing environments. The cloud computing system 800 utilizes the resources from various networks as a collective virtual computer, where the services and applications can run independently from a particular computer or server configuration making hardware less important.

[0144] Specifically, the cloud computing system 800 includes at least one client computer system 802, such as system 700. The client computer 802 may be any device through the use of which a distributed computing environment may be accessed to perform the methods disclosed herein, for example, a traditional computer, portable computer, mobile phone, personal digital assistant, tablet to name a few. The client computer 802 includes memory such as random access memory (RAM), read-only memory (ROM), mass storage device, or any combination thereof. The memory functions as a computer usable storage medium, otherwise referred to as a computer readable storage medium, to store and / or access computer software and / or instructions.

[0145] The client computer 802 also may include a communications interface, for example, a modem, a network interface (such as an Ethernet card), a communications port, a PCMCIA slot and card, wired or wireless systems, etc. The communications interface allows communication through transferred signals between the client computer 802 and external devices including networks such as the Internet 804 and cloud data center 806. Communication may be implemented using wireless or wired capability such as cable, fiber optics, a phone line, a cellular phone link, radio waves or other communication channels.

[0146] The client computer 802 establishes communication with the Internet 804 — specifically to one or more servers — to, in turn, establish communication with one or more cloud data centers 806. A cloud data center 806 includes one or more networks 810 a, 810 b, 810 c managed through a cloud management system 808.

[0147] Each network 810 a, 810 b, 810 c includes resource servers 812 a, 812 b, 812 c, respectively. Servers 812 a, 812 b, 812 c permit access to a collection of computing resources and components that can be invoked to instantiate a virtual machine, process, or other resource for a limited or defined duration. For example, one group of resource servers can host and serve an operating system or components thereof to deliver and instantiate a virtual machine. Another group of resource servers can accept requests to host computing cycles or processor time, to supply a defined level of processing power for a virtual machine. A further group of resource servers can host and serve applications to load on an instantiation of a virtual machine, such as an email client, a browser application, a messaging application, or other applications or software.

[0148] The cloud management system 808 can comprise a dedicated or centralized server and / or other software, hardware, and network tools to communicate with one or more networks 810 a, 810 b, 810 c, such as the Internet or other public or private network, with all sets of resource servers 812 a, 812 b, 812 c. The cloud management system 808 may be configured to query and identify the computing resources and components managed by the set of resource servers 812 a, 812 b, 812 c needed and available for use in the cloud data center 806. Specifically, the cloud management system 808 may be configured to identify the hardware resources and components such as type and amount of processing power, type and amount of memory, type and amount of storage, type and amount of network bandwidth and the like, of the set of resource servers 812 a, 812 b, 812 c needed and available for use in the cloud data center 806. Likewise, the cloud management system 808 can be configured to identify the software resources and components, such as type of Operating System (OS), application programs, and the like, of the set of resource servers 812 a, 812 b, 812 c needed and available for use in the cloud data center 806.

[0149] The present invention is also directed to computer products, otherwise referred to as computer program products, to provide software to the cloud computing system 800. Computer products store software on any computer useable medium, known now or in the future. Such software, when executed, may implement the methods according to certain embodiments of the invention. Examples of computer useable mediums include, but are not limited to, primary storage devices (e.g., any type of random access memory), secondary storage devices (e.g., hard drives, floppy disks, CD ROMS, ZIP disks, tapes, magnetic storage devices, optical storage devices, Micro-Electro-Mechanical Systems (MEMS), nanotechnological storage device, etc.), and communication mediums (e.g., wired and wireless communications networks, local area networks, wide area networks, intranets, etc.). It is to be appreciated that the embodiments described herein may be implemented using software, hardware, firmware, or combinations thereof.

[0150] The cloud computing system 800 of FIG. 21 is provided only for purposes of illustration and does not limit the invention to this specific embodiment. It is appreciated that a person skilled in the relevant art knows how to program and implement the invention using any computer system or network architecture. A number of implementations have been described. Nevertheless, it will be understood that various modifications may be made without departing from the spirit and scope of the disclosure. Accordingly, other implementations are within the scope of the following claims.

Claims

CLAIMS1. A system for managing and producing video content, comprising: a main body; a plurality of video ports configured to receive input channels to which one or more video sources is linked; a display screen configured to display settings, layouts, scenes and actual video signal information regarding the input video channels; a user interface configured to receive user inputs, the user interface including an inspect button and a plurality of input buttons each corresponding to a video input; wherein actuation of the inspect button causes the system to enter an inspect mode in which the display screen displays detailed information about video sources assigned to the input buttons without switching or cueing the video sources to an output.

2. The system of claim 1, wherein the detailed information displayed in the inspect mode includes resolution, frame rate, and colour space information of connected video sources.

3. The system of claim 1, wherein the input buttons are backlit to indicate whether the display screen is displaying information related to that input button.

4. The system of claim 3, wherein the backlights are different colours to indicate different selections.

5. The system of claim 1, further comprising a plurality of scene buttons configured to store pre-configured layouts of input sources, images, videos, and graphic overlays.

6. The system of claim 5, wherein actuation of the inspect button followed by selection of a scene button displays scene information on the display screen and allows deletion or movement of the scene to another scene button.

7. The system of claim 1, further comprising an encoder positioned adjacent to the display screen and configured to navigate menus and adjust settings displayed on the display screen.

8. The system of claim 7, wherein the encoder includes an illuminated ring that illuminates white when the encoder can be used to navigate menus and green when the encoder can be used to adjust on-screen settings.

9. The system of claim 1, wherein the plurality of video ports comprises HDMI inputs and USB-C inputs configured to receive video signals from cameras and USB video devices.

10. The system of claims 1 or 5, wherein the inspect mode allows reassignment of input sources to the input buttons without switching the video sources to an output.

11. The system of claim 10, wherein reassigning an input source that is already assigned to another button prompts a confirmation before updating the previously assigned button.

12. A method for producing video content, comprising: providing a plurality of input channels to which one or more video sources is linked; causing a display to display settings, layouts, scenes and actual video signal information regarding the input video channels; providing a user interface configured to receive user inputs, the user interface including an inspect button and a plurality of input buttons each corresponding to a video input; receiving actuation of the inspect button; and in response to receiving actuation of the inspect button, entering an inspect mode in which the display displays detailed information about video sources assigned to the input buttons without switching or cueing the video sources to an output.

13. The method of claim 12, wherein the detailed information displayed in the inspect mode includes resolution, frame rate, and colour space information of connected video sources.

14. The method of claim 12, further comprising providing a plurality of scene buttons configured to store pre-configured layouts of input sources, images, videos, and graphic overlays.

15. The method of claim 14, further comprising receiving actuation of the inspect button followed by selection of a scene button, and in response, displaying scene information on the display and allowing deletion or movement of the scene to another scene button.

16. The method of claim 12, further comprising providing an encoder positioned adjacent to the display and configured to navigate menus and adjust settings displayed on the display.

17. The method of claim 16, wherein the encoder includes an illuminated ring that illuminates white when the encoder can be used to navigate menus and green when the encoder can be used to adjust on-screen settings.

18. The method of claim 12, wherein the plurality of input channels comprises HDMI inputs and USB-C inputs configured to receive video signals from cameras and USB video devices.

19. The method of claims 12 or 14, wherein the inspect mode allows reassignment of input sources to the input buttons without switching the video sources to an output.

20. The method of claim 19, wherein reassigning an input source that is already assigned to another button prompts a confirmation before updating the previously assigned button.

Images