Abstract: The present invention is related to a class of stable 2D covalent organic frameworks with multiple dimethyl amino groups that can trap carbon dioxide at ambient temperature and pressure, and an economical, environmentally-friendly process for the generation of transient surface charges and subsequent self-exfoliation of the COF into ultrathin nanosheets. The said exfoliated material possess activity against pathogenic bacteria. The invention further discloses a carbon dioxide induced exfoliation process that is completely reversible upon heat treatment, whereby control over bacterial growth is achieved via an efficient antibiotic switch.

Abstract: The bioreactor system including a compartmentalizing device and subsequent machinery that enable advanced conditions for cell-free synthesis and/or posttranslational modifications, continuity of the purification and/or production process and/or reuse of cell-free production components is described herein. The bioreactor system enables interaction of each product making compartment that contains cell-free production mixture with providing platforms that contain supporting fluids. Methods of producing biological products by utilizing the bioreactor system are provided. Methods of manufacturing a bioreactor system is also described.

Abstract: In one embodiment, a method includes receiving, by a mobile edge computing (MEC) controller and from an application analytic engine, a registration request for an application. The registration request includes a request for MEC key performance indicators (KPIs). The method also includes communicating, by the MEC controller, MEC data associated with a first MEC host and a second MEC host to the application analytic engine. The method further includes receiving, by the MEC controller, MEC policies from the application analytic engine, determining to host the application in the first MEC host based on the MEC policies, and communicating the MEC policies to the first MEC host.

Abstract: A fluid dispenser (10) includes a housing (12) and a valving rod (14). The housing includes an inlet (28) that receives a fluid product, an internal chamber (26) in fluid communication with the inlet, a discharge port (20) in fluid communication with the internal chamber that dispenses fluid from the internal chamber, a dispensing fluid inlet (38) that receives a dispensing fluid, and a dispensing fluid passage system that carries the dispensing fluid to the discharge port. The valving rod is disposed in the housing and moves within the internal chamber between an open position and a closed position. The dispensing fluid passage system includes a first passageway (44) that carries the dispensing fluid in a first direction and a second passageway (48) that carries the dispensing fluid in a second direction. The second passageway has a distal end that dispenses the dispensing fluid proximate the discharge port.

Abstract: Methods are provided in which devices vulnerable to performance degradation during a network offload process are identified and handled accordingly. In these methods, a network controller obtains data associated with operational performance of devices in a radio network during one or more offload procedures in which the devices are to be transitioned off of the radio network. The network controller further analyzes the data to determine impact to at least one performance parameter of the devices during the one or more offload procedures, and during a subsequent offload procedure, the network controller orchestrates offloading of the devices according to the impact determined to the at least one performance parameter based on the analyzing.

Abstract: In one embodiment, a method includes receiving, by a mobile edge computing (MEC) controller and from an application analytic engine, a registration request for an application. The registration request includes a request for MEC key performance indicators (KPIs). The method also includes communicating, by the MEC controller, MEC data associated with a first MEC host and a second MEC host to the application analytic engine. The method further includes receiving, by the MEC controller, MEC policies from the application analytic engine, determining to host the application in the first MEC host based on the MEC policies, and communicating the MEC policies to the first MEC host.

Abstract: Systems, methods, and storage media for generating and/or recoverying an end-to-end hybrid cloud snapshot are disclosed. Exemplary implementations may: receive application specific triggering criteria for generating an end-to-end hybrid cloud snapshot; trigger a snapshot event based on the application specific triggering criteria and a machine learning model; accumulate snapshot portions from a plurality of nodes in a hybrid cloud network; and store, in a snapshot database, the end-to-end hybrid cloud snapshot comprising the snapshot portions from the plurality of nodes. Exemplary implementations may further include: generate a recovery model based on a snapshot database, wherein the snapshot database comprises a plurality of network snapshots associated with a network, receive parameters for a desired recovery state, and identify a recommended network snapshot from the plurality of network snapshots based on the recovery model and the parameters for the desired recovery state.

Abstract: In one embodiment, a method includes receiving, by a mobile edge computing (MEC) controller and from an application analytic engine, a registration request for an application. The registration request includes a request for MEC key performance indicators (KPIs). The method also includes communicating, by the MEC controller, MEC data associated with a first MEC host and a second MEC host to the application analytic engine. The method further includes receiving, by the MEC controller, MEC policies from the application analytic engine, determining to host the application in the first MEC host based on the MEC policies, and communicating the MEC policies to the first MEC host.

Abstract: Systems and methods provide for managing a power consumption policy for a powered device. A network controller may be configured to receive power consumption information for a powered device (PD) connected to power sourcing equipment (e.g., a PSE device), calculate a predicted threshold for the PD based on the power consumption information for the PD, and transmit the predicted threshold for the PD to the PSE device. Power sourcing equipment is configured to calculate power consumption information for the PD, transmit the power consumption information for the PD to the network controller, receive a predicted threshold for the PD, and implement a power consumption policy for the PD based on the predicted threshold.

Abstract: Methods are provided in which devices vulnerable to performance degradation during a network offload process are identified and handled accordingly. In these methods, a network controller obtains data associated with operational performance of devices in a radio network during one or more offload procedures in which the devices are to be transitioned off of the radio network. The network controller further analyzes the data to determine impact to at least one performance parameter of the devices during the one or more offload procedures, and during a subsequent offload procedure, the network controller orchestrates offloading of the devices according to the impact determined to the at least one performance parameter based on the analyzing.

Abstract: In one embodiment, a method includes receiving, by a mobile edge computing (MEC) controller and from an application analytic engine, a registration request for an application. The registration request includes a request for MEC key performance indicators (KPIs). The method also includes communicating, by the MEC controller, MEC data associated with a first MEC host and a second MEC host to the application analytic engine. The method further includes receiving, by the MEC controller, MEC policies from the application analytic engine, determining to host the application in the first MEC host based on the MEC policies, and communicating the MEC policies to the first MEC host.

Abstract: Methods are provided in which devices vulnerable to performance degradation during a network offload process are identified and handled accordingly. In these methods, a network controller obtains data associated with operational performance of devices in a radio network during one or more offload procedures in which the devices are to be transitioned off of the radio network. The network controller further analyzes the data to determine impact to at least one performance parameter of the devices during the one or more offload procedures, and during a subsequent offload procedure, the network controller orchestrates offloading of the devices according to the impact determined to the at least one performance parameter based on the analyzing.

Abstract: Systems, methods, and computer-readable media are disclosed for implementing a load balance update. A system may be configured to receive a plurality performance reports for a plurality of service nodes running on the plurality of host entities, wherein each performance report comprises performance indicators for a service node in the plurality of service nodes running on a host entity in the plurality of host entities, generate a load balance update based on the performance reports, and implement the load balance update at a load balancer.

Abstract: Methods are provided in which devices vulnerable to performance degradation during a network offload process are identified and handled accordingly. In these methods, a network controller obtains data associated with operational performance of devices in a radio network during one or more offload procedures in which the devices are to be transitioned off of the radio network. The network controller further analyzes the data to determine impact to at least one performance parameter of the devices during the one or more offload procedures, and during a subsequent offload procedure, the network controller orchestrates offloading of the devices according to the impact determined to the at least one performance parameter based on the analyzing.

Abstract: Systems and methods provide for managing a power consumption policy for a powered device. A network controller may be configured to receive power consumption information for a powered device (PD) connected to power sourcing equipment (e.g., a PSE device), calculate a predicted threshold for the PD based on the power consumption information for the PD, and transmit the predicted threshold for the PD to the PSE device. Power sourcing equipment is configured to calculate power consumption information for the PD, transmit the power consumption information for the PD to the network controller, receive a predicted threshold for the PD, and implement a power consumption policy for the PD based on the predicted threshold.

Abstract: An antenna may be provided. First, a Machine Learning (ML) model may be used, at a predetermined time, to predict a probable location of at least one of a plurality of client devices. Next, spatial coordinates may be obtained for the probable location from the ML model. Then an antenna sub-array of an antenna array may be steered toward the spatial coordinates of the probable location. The antenna sub-array may be unallocated.

Abstract: Systems, methods, and computer-readable media are disclosed for implementing a load balance update. A system may be configured to receive a plurality performance reports for a plurality of service nodes running on the plurality of host entities, wherein each performance report comprises performance indicators for a service node in the plurality of service nodes running on a host entity in the plurality of host entities, generate a load balance update based on the performance reports, and implement the load balance update at a load balancer.

Abstract: Systems, methods, and storage media for generating and/or recoverying an end-to-end hybrid cloud snapshot are disclosed. Exemplary implementations may: receive application specific triggering criteria for generating an end-to-end hybrid cloud snapshot; trigger a snapshot event based on the application specific triggering criteria and a machine learning model; accumulate snapshot portions from a plurality of nodes in a hybrid cloud network; and store, in a snapshot database, the end-to-end hybrid cloud snapshot comprising the snapshot portions from the plurality of nodes. Exemplary implementations may further include: generate a recovery model based on a snapshot database, wherein the snapshot database comprises a plurality of network snapshots associated with a network, receive parameters for a desired recovery state, and identify a recommended network snapshot from the plurality of network snapshots based on the recovery model and the parameters for the desired recovery state.

Abstract: The invention provides a framework for developing the architecture of an enterprise information technology (IT) eco-system for an organization. The framework includes a business function appliance module, a core architecture appliance module, and a technology architecture appliance module. The business function appliance module provides one or more functionalities for the business processes of the information technology eco-system. The core architecture appliance module provides one or more functionalities for the deployment and integration of the one or more functionalities provided by business function appliance module across IT processes, based on metadata configuration. The technology architecture appliance module is configured to provide technical operational services for the one or more functionalities provided by the core architecture appliance module based on the metadata.

Abstract: A system can create and manage a framework for integrating a plurality of business processes. The system can include a first tier module adapted for managing at least one internal function and at least one service of the plurality of business processes, wherein the business processes include respective predefined goals and objectives. The system can further include a second tier module adapted for managing business initiative solutions and establishing a capability to deploy and manage infrastructure based on the at least one function and at least one service of the plurality of business processes. Furthermore, the system can include a third tier module adapted for establishing an architecture according to the predefined goals and objectives of the plurality of business processes and an integration module adapted for linking the first tier module, the second tier module, the third tier module, or combinations thereof for creating and managing the framework.