Determining building weather profile parameters, and correcting an estimated altitude of a receiver using the building weather profile parameters. Systems and methods for estimating an altitude of a receiver using building weather profile parameters may identify one or more weather profile parameters for a building, determine an initial estimate of a receiver's altitude at a floor inside the building, and use the initial estimate and the identified weather profile parameters to determine a corrected estimate of the receiver's altitude at the floor.

Systems, devices and methods, etc., comprising at least two separate and distinct environmental climate control devices that both serve the mixed use open space, and which environmental climate control devices are centrally controlled to provide at least two different HVAC-controlled zones, for example to differentiate between the zones according to at least one of temperature, humidity, pressure or contaminant level.

A heating and cooling system for use in high-rise residential and commercial buildings may include a condensing unit having dimensions no greater than 12 inches deep by 40 inches wide by 20 inches tall and a fan coil unit coupled to the condensing unit via refrigeration tubing. The fan coil unit may have dimensions of no greater than 14 inches deep by 43 inches wide by 11 inches tall. The condensing unit may include a condenser water connection, a refrigeration tubing connection, a compressor, and a heat exchanger. The fan coil unit may include a filter rack configured to hold a MERV 13 filter, two in-line high-pressure fans, and at least one access panel on a bottom surface of the fan coil unit.

An HVAC system for a single unit in a multi-unit building, the multi-unit building having a riser stack wherein a closed loop fluid flow path thermally connects the HVAC system in thermal communication with the riser stack, the single unit having a first room and a second room, the HVAC system comprises a first heat exchanger in thermal communication with the closed loop fluid flow path, the first heat exchanger provides temperature modulation to the first room and a second heat exchanger in thermal communication with the closed loop fluid flow path, the second heat exchanger provides temperature modulation to the second room.

The air flow of an HVAC system for a multi-story building B is controlled by optimizing the pressure setpoint at the return air plenum PL-1 used for removing or recirculate air from the building, by measuring a pressure differential between the building B air and atmosphere A air at a sensor location P-2, computing a desired pressure differential between the building B air and atmosphere A air, based upon a computed stack effect pressure that is expected to develop at the sensor location on the building for the current inside and outside air temperature in the absence of mechanical action, and controlling the return air fan and damper D-1 to pressurize the air in at the sensor location to produce the desired pressure differential between the building B air and atmosphere A air at the sensor P-2 location.

A system for visualizing equipment utilization in a central plant includes a subplant monitor, a subplant utilization database, and a dispatch graphical user interface (GUI) generator. The subplant monitor receives subplant utilization data including an indication of a thermal energy load served by each of a plurality of subplants of the central plant. The subplant utilization database stores the subplant utilization data for each of a plurality of time steps. The dispatch GUI generator generates a dispatch GUI using the subplant utilization data. The dispatch GUI includes an indication of the thermal energy load served by each of the plurality of subplants for each of the plurality of time steps. The dispatch GUI may include a set of stacked bars for each of the time steps. Each of the stacked bars may represent the thermal energy load served by one of the subplants during a corresponding time step.

A heating and cooling system for use in high-rise residential and commercial buildings may include condensing unit having dimensions no greater than 12 inches deep by 40 inches wide by 20 inches tall and a fan coil unit coupled to the condensing unit via refrigeration tubing. The fan coil unit may have dimensions of no greater than 14 inches deep by 43 inches wide by 11 inches tall. The condensing unit may include a condenser water connection, a refrigeration tubing connection, a compressor, and a heat exchanger. The fan coil unit may include a filter rack configured to hold a MERV 13 filter, two in-line high-pressure fans, and at least one access panel on a bottom surface of the fan coil unit.

The present disclosure relates to a ventilation system module, VSM, arranged to be attached to an ambient facing surface of a building, the ambient surface being associated to at least one idle plane of a stairwell, the VSM being arranged to control air circulation of a plurality of spaces within said building, the VSM comprising a surface an air handling unit positioned at said surface, a distribution channel, an exhaust-air channel wherein said surface is arranged to be associated to said idle plane of said stairwell, wherein at an installed state of said VSM, the idle plane is accessible from a proximal portion of said surface.

A facade panel conditioning system for installation on a new or existing building is disclosed. The system includes modular panels, a structural anchor, hydronic piping, and ductwork. The panels attach to each other around the building forming an insulated shell. The anchor attaches the panels to the building structure forming an air cavity between each panel and the interior of the building. The hydronic piping transfers heat to the air cavity and the interior of the building. The ductwork delivers ventilated air and exhaust air to the air cavity and the interior of the building. The hydronic piping of a panel connects to the hydronic piping of an adjacent panel forming a hydronic piping system that distributes heat or cool throughout the shell. The air duct of a panel connects to the air duct of an adjacent panel forming an air duct ventilation system that distributes air throughout the shell.

A hydronic assembly connectable to a building's water and air distribution systems to manage and deliver conditioned air to a unit of the building includes an enclosure housing a hydronic coil configured to heat or cool air within the enclosure, a valve control system coupled to the hydronic coil for regulating the flow of water through the hydronic coil, and an air supply booster for mixing recirculated and ventilated air within the enclosure and delivering the same to the unit. The enclosure includes a return air inlet for recirculating air to the enclosure, a supply air outlet for supplying air to the unit, and a return air separation baffle separating the return air inlet air stream from the supply air outlet air stream. The enclosure is removably attachable to the building's air distribution system. The hydronic coil includes piping that is removably attachable to the building's water distribution system.