Abstract: Methods and apparatus to manage and execute action in computing environments are disclosed. An example method includes determining an identifier of a type of a computing resource identified in a received request, processing a set of stored adapters to determine an adapter associated with the identifier, determining an action associated with adapter, and presenting a user interface including a user selectable identification of the action.

Abstract: Methods and apparatus to manage and execute action in computing environments are disclosed. An example system includes a virtual machine resource platform to host a virtual compute node; and a resource manager to: install an interface to receive an adapter configured to initiate an action that operates on the virtual compute node, install the adapter by processing an adapter definition to identify an action specified by the adapter, trigger an alert based on collected data associated with the virtual compute node, in response to the alert, trigger the action to be executed using a parameter extracted from the collected data, and execute the action to operate on the compute node.

Abstract: Methods and apparatus to manage and execute action in computing environments are disclosed. An example system includes a virtual machine resource platform to host a virtual compute node and a resource manager to: in response to a user request associated with the virtual compute node: determine a type of the virtual compute node; determine if an installed adapter identifies a type associated with the type of the virtual compute node; and when the adapter identifies the type associated with the type of the virtual compute node, present a user selectable identification of the adapter.

Abstract: Methods and apparatus to manage and execute action in computing environments are disclosed. An example system includes a virtual machine resource platform to host a virtual compute node; and a resource manager to: install an interface to receive an adapter configured to initiate an action that operates on the virtual compute node, install the adapter by processing an adapter definition to identify an action specified by the adapter, trigger an alert based on collected data associated with the virtual compute node, in response to the alert, trigger the action to be executed using a parameter extracted from the collected data, and execute the action to operate on the compute node.

Abstract: Methods and apparatus to manage and execute action in computing environments are disclosed. An example method includes determining an identifier of a type of a computing resource identified in a received request, processing a set of stored adapters to determine an adapter associated with the identifier, determining an action associated with adapter, and presenting a user interface including a user selectable identification of the action.

Abstract: Methods and apparatus to manage and execute action in computing environments are disclosed. An example system includes a virtual machine resource platform to host a virtual compute node and a resource manager to: in response to a user request associated with the virtual compute node: determine a type of the virtual compute node; determine if an installed adapter identifies a type associated with the type of the virtual compute node; and when the adapter identifies the type associated with the type of the virtual compute node, present a user selectable identification of the adapter.

Abstract: Approaches for providing embodiments of an opportunity dashboard are presented, comprising receiving vehicle service data, wherein the vehicle service data comprises service work performed on vehicles over a predetermined period of past time; calculating an estimated future demand for vehicle service work over a predetermined period of future time based on the vehicle service data; calculating an estimated maximum future capacity for vehicle service work over the predetermined period of future time based on the vehicle service data; analyzing constraints on the capacity for vehicle service work over the predetermined period of future time; modifying the estimated maximum future capacity for vehicle service work over a predetermined period of future time based on the constraints; determining a difference between the estimated maximum future capacity for vehicle service work over a predetermined period of future time and the estimated future demand; and converting the difference into monetary value.

Abstract: A diversion damper is provided for managing air flow in an air handling system. The diversion damper has a first movable air deflector and a separate second movable air deflector, each of which are movable between a first position and a second position. A linkage assembly is provided connecting the first movable air deflector and the second movable air deflector. The linkage assembly has a single actuator and is further configured to cooperatively move the first movable air deflector and the second movable air deflector between the respective first position and the second position for each of the first movable air deflector and the second movable air deflector, and to apply a sealing pressure to establish a substantially airtight seal around the each of the first movable air deflector and the second movable air deflector in the first position, around the first air flow deflector in the second position.

Abstract: Approaches for generating and displaying a predictive service timeline are provided wherein a plurality of graphical interface elements is generated based on past and future service events and the plurality of graphical interface elements is caused to be displayed along a graphical timeline, wherein the graphical interface elements are associated with dates on the graphical timeline.

Abstract: A dynamic system controls indoor relative humidity and temperature to achieve specified conditions by applying multiple stages of dehumidification. In addition to a stage that increases dehumidification by reducing the speed of the indoor blower, the system uses a reheat coil and multiple valves that allow the reheat coil to function as either a subcooling coil or a partial condenser. Thus the system can maintain specified indoor temperature and humidity conditions even at times when no heating or cooling is needed. The system may have an outdoor condensing unit including a compressor and a condenser operably connected via refrigerant lines to an indoor unit to form a “split system” refrigerant loop.

Abstract: A device is provided for managing air flow in an air handling system. The device has a first movable air deflector and a separate second movable air deflector, each of which are movable between a first position and a second position. A linkage assembly is provided connecting the first movable air deflector and the second movable air deflector. The linkage assembly has a single actuator and is further configured to cooperatively move the first movable air deflector and the second movable air deflector between the respective first position and the second position for each of the first movable air deflector and the second movable air deflector, and to apply a sealing pressure to establish a substantially airtight seal around the each of the first movable air deflector and the second movable air deflector in the first position, around the first air flow deflector in the second position.

Abstract: A method for nighttime pre-cooling of a building comprising inputting one or more user settings, lowering the indoor temperature reading of the building during nighttime by operating an outside air ventilation system followed, if necessary, by a vapor compression cooling system. The method provides for nighttime pre-cooling of a building that maintains indoor temperatures within a comfort range based on the user input settings, calculated operational settings, and predictions of indoor and outdoor temperature trends for a future period of time such as the next day.