Abstract: A video interface device, the device including a camera; an optically transparent enclosure, the enclosure configured to enclose the camera and configured for sanitization; a height-adjustable mount connected to the optically transparent enclosure; a computer display connected to the height-adjustable mount; and a cart connected to the height-adjustable mount, wherein the camera and the computer display are configured to facilitate communication with at least one remote system. A method of constructing a video interface device, including enclosing a first camera in an optically-transparent enclosure, the enclosure being configured for sanitization; attaching the first camera in the optically-transparent enclosure to a height-adjustable mount; attaching a computer display to the height-adjustable mount; and attaching a cart to the height-adjustable mount, such that the first camera and the computer display are configured to facilitate communication with at least one remote system.

Abstract: A structure comprising a first substrate, a plurality of matrix elements in operable connectivity with the first substrate, and a plurality of interconnecting features to configured to connect the plurality of matrix elements to form a first planar tile.

Abstract: Devices, systems, methods, and processes for sustainably deploying serverless functions across the globe are described herein. Often, when considering sustainability options for cloud-based service providers that can accept and operate serverless functions from various sources, the power source type can be considered. In many cases, solar-powered power sources can be desired, but is only available during the day. Thus, it may be desirable to consider where the location of a cloud-based service provider is located in relation to the daylight time. Thus, various data related to the power being utilized to power the cloud-based service provider location can be determined and utilized when comparing potential locations to deploy serverless functions. In some cases, a sustainability score can be generated based on this sustainability data and a sustainability profile that can be compared against other locations to determine the most suitable cloud-based service provider to deploy the serverless function onto.

Abstract: An apparatus including: a first clamp plate having an inner diameter defining an aperture, a first outer diameter, and a first thickness; a second clamp plate having: a second outer diameter, and a second thickness. The bottom clamp plate and the top clamp plate are configured to clamp a printed circuit board by penetrating the printed circuit board, the printed circuit board including at least one component positioned within the aperture during clamping of the printed circuit board by the first clamp plate and the second clamp plate.

Abstract: A first instrument comprising at least one signal generator, at least one resistor, at least one voltage measurement device including a positive input and a negative input, at least one monitored conductor terminal coupled to a monitored conductor, at least one reference conductor terminal coupled to a reference conductor, and at least one processor operably connected to the at least one signal generator and the at least one voltage measurement device.

Abstract: Systems and methods for creating a germicidal partition. A germicidal partition system including at least one negative ion generator including at least one negative high-voltage source, at least one high-voltage conductor electrically connected to the at least one negative high-voltage source, and at least one anode electrically connected to the at least one high-voltage conductor, and at least one fan configured to draw air into the system, direct the air through the at least one negative ion generator, and output the air through at least one manifold, wherein the air outputted through the at least one manifold is configured to create a barrier between a first air mass and a second air mass, such that the outputted air reduces at least one of the transfer of contaminants or the concentration of viable contagions between the first air mass and the second air mass.

Abstract: Described herein are devices, systems, methods, and processes for assessing and managing the carbon footprint of information technology (IT) infrastructures. The system can utilize distributed public key infrastructure (PKI) to ensure data security, trustworthiness, and anonymity. It may provide real-time, accurate, and comprehensive data on the carbon footprint of the entire infrastructure, enabling administrators to make informed decisions based on live, aggregated, and anonymized power consumption data and carbon footprint metrics. The system can also support the management of carbon-related metrics during processes such as device migration or infrastructure renewal. Furthermore, it can enable various stakeholders, including IT infrastructure owners, auditors, and generic users, to access and analyze the data based on their specific roles and permissions. This approach can enhance the transparency and accountability of IT operations, contributing to environmental sustainability efforts in the IT industry.

Abstract: Systems and methods for creating a germicidal partition. A germicidal partition system including at least one negative ion generator including at least one negative high-voltage source, at least one high-voltage conductor electrically connected to the at least one negative high-voltage source, and at least one anode electrically connected to the at least one high-voltage conductor, and at least one fan configured to draw air into the system, direct the air through the at least one negative ion generator, and output the air through at least one manifold, wherein the air outputted through the at least one manifold is configured to create a barrier between a first air mass and a second air mass, such that the outputted air reduces at least one of the transfer of contaminants or the concentration of viable contagions between the first air mass and the second air mass.

Abstract: Devices, systems, methods, and processes for sustainably deploying serverless functions across the globe are described herein. Often, when considering sustainability options for cloud-based service providers that can accept and operate serverless functions from various sources, the power source type can be considered. In many cases, solar-powered power sources can be desired, but is only available during the day. Thus, it may be desirable to consider where the location of a cloud-based service provider is located in relation to the daylight time. Thus, various data related to the power being utilized to power the cloud-based service provider location can be determined and utilized when comparing potential locations to deploy serverless functions. In some cases, a sustainability score can be generated based on this sustainability data and a sustainability profile that can be compared against other locations to determine the most suitable cloud-based service provider to deploy the serverless function onto.

Abstract: A video interface device, the device including a camera; an optically transparent enclosure, the enclosure configured to enclose the camera and configured for sanitization; a height-adjustable mount connected to the optically transparent enclosure; a computer display connected to the height-adjustable mount; and a cart connected to the height-adjustable mount, wherein the camera and the computer display are configured to facilitate communication with at least one remote system. A method of constructing a video interface device, including enclosing a first camera in an optically-transparent enclosure, the enclosure being configured for sanitization; attaching the first camera in the optically-transparent enclosure to a height-adjustable mount; attaching a computer display to the height-adjustable mount; and attaching a cart to the height-adjustable mount, such that the first camera and the computer display are configured to facilitate communication with at least one remote system.

Abstract: A video interface device, the device including a camera; an optically transparent enclosure, the enclosure configured to enclose the camera and configured for sanitization; a height-adjustable mount connected to the optically transparent enclosure; a computer display connected to the height-adjustable mount; and a cart connected to the height-adjustable mount, wherein the camera and the computer display are configured to facilitate communication with at least one remote system. A method of constructing a video interface device, including enclosing a first camera in an optically-transparent enclosure, the enclosure being configured for sanitization; attaching the first camera in the optically-transparent enclosure to a height-adjustable mount; attaching a computer display to the height-adjustable mount; and attaching a cart to the height-adjustable mount, such that the first camera and the computer display are configured to facilitate communication with at least one remote system.

Abstract: Systems and methods for creating a germicidal partition. A germicidal partition system including at least one negative ion generator including at least one negative high-voltage source, at least one high-voltage conductor electrically connected to the at least one negative high-voltage source, and at least one anode electrically connected to the at least one high-voltage conductor, and at least one fan configured to draw air into the system, direct the air through the at least one negative ion generator, and output the air through at least one manifold, wherein the air outputted through the at least one manifold is configured to create a barrier between a first air mass and a second air mass, such that the outputted air reduces at least one of the transfer of contaminants or the concentration of viable contagions between the first air mass and the second air mass.

Abstract: Systems and methods for creating a germicidal partition. A germicidal partition system including at least one negative ion generator including at least one negative high-voltage source, at least one high-voltage conductor electrically connected to the at least one negative high-voltage source, and at least one anode electrically connected to the at least one high-voltage conductor, and at least one fan configured to draw air into the system, direct the air through the at least one negative ion generator, and output the air through at least one manifold, wherein the air outputted through the at least one manifold is configured to create a barrier between a first air mass and a second air mass, such that the outputted air reduces at least one of the transfer of contaminants or the concentration of viable contagions between the first air mass and the second air mass.

Abstract: Systems and methods for creating a germicidal partition. A germicidal partition system including at least one negative ion generator including at least one negative high-voltage source, at least one high-voltage conductor electrically connected to the at least one negative high-voltage source, and at least one anode electrically connected to the at least one high-voltage conductor, and at least one fan configured to draw air into the system, direct the air through the at least one negative ion generator, and output the air through at least one manifold, wherein the air outputted through the at least one manifold is configured to create a barrier between a first air mass and a second air mass, such that the outputted air reduces at least one of the transfer of contaminants or the concentration of viable contagions between the first air mass and the second air mass.

Abstract: Systems and methods for creating a germicidal partition. A germicidal partition system including at least one negative ion generator including at least one negative high-voltage source, at least one high-voltage conductor electrically connected to the at least one negative high-voltage source, and at least one anode electrically connected to the at least one high-voltage conductor, and at least one fan configured to draw air into the system, direct the air through the at least one negative ion generator, and output the air through at least one manifold, wherein the air outputted through the at least one manifold is configured to create a barrier between a first air mass and a second air mass, such that the outputted air reduces at least one of the transfer of contaminants or the concentration of viable contagions between the first air mass and the second air mass.

Abstract: A video interface device, the device including a camera; an optically transparent enclosure, the enclosure configured to enclose the camera and configured for sanitization; a height-adjustable mount connected to the optically transparent enclosure; a computer display connected to the height-adjustable mount; and a cart connected to the height-adjustable mount, wherein the camera and the computer display are configured to facilitate communication with at least one remote system. A method of constructing a video interface device, including enclosing a first camera in an optically-transparent enclosure, the enclosure being configured for sanitization; attaching the first camera in the optically-transparent enclosure to a height-adjustable mount; attaching a computer display to the height-adjustable mount; and attaching a cart to the height-adjustable mount, such that the first camera and the computer display are configured to facilitate communication with at least one remote system.

Abstract: Systems and methods for creating a germicidal partition. A germicidal partition system including at least one negative ion generator including at least one negative high-voltage source, at least one high-voltage conductor electrically connected to the at least one negative high-voltage source, and at least one anode electrically connected to the at least one high-voltage conductor, and at least one fan configured to draw air into the system, direct the air through the at least one negative ion generator, and output the air through at least one manifold, wherein the air outputted through the at least one manifold is configured to create a barrier between a first air mass and a second air mass, such that the outputted air reduces at least one of the transfer of contaminants or the concentration of viable contagions between the first air mass and the second air mass.