Abstract: Systems and methods are disclosed for validating the installation and operation of a fault detection and diagnostic module that monitors a component of an HVAC system. A remote diagnostic server is in operative communication with the HVAC system, and with the fault detection and diagnostic module. A user device communicates data to the remote diagnostic server that defines an association between the fault detection and diagnostic module and the HVAC system. The remote diagnostic server initiates an installation validation by sending a command to the HVAC system that causes the monitored component to initiate an event that is expected to be reported by the fault detection and diagnostic module. For example, a fan motor is turned on. If correctly installed, the fault detection and diagnostic module senses the event, and reports the event to the remote diagnostic server, which confirms the association. The remote diagnostic server sends a message to the user device indicating the result of the validation.

Abstract: A patient support includes a cover defining an interior region, an air permeable first layer located in the interior region, and a support layer located beneath the air permeable first layer. A pressure sensing layer is located underneath the support layer. At least one air supply is coupled to the support layer. A controller is coupled to the air supply and to the pressure sensing layer. The controller controls inflation and deflation of the support layer in response to a signal from the pressure sensing layer.

Abstract: This disclosure describes certain exemplary embodiments of a patient support having a plurality of vertically-oriented on substantially can-shaped inflatable bladders. In one embodiment, the patient support includes a support layer positioned above the vertical bladders. In another embodiment, the patient support includes a high air loss device. In still another embodiment, the patient support includes a pneumatic device located within the patient support.

Abstract: A patient support includes a cover defining an interior region, an air permeable first layer located in the interior region, and a support layer located beneath the air permeable first layer. A pressure sensing layer is located underneath the support layer. At least one air supply is coupled to the support layer. A controller is coupled to the air supply and to the pressure sensing layer. The controller controls inflation and deflation of the support layer in response to a signal from the pressure sensing layer.

Abstract: A patient support includes a cover defining an interior region, an air permeable first layer located in the interior region, at least one air supply coupled to the first layer to provide air flow through the first layer, a support layer located beneath the air permeable first layer, a pressure sensing layer located underneath the support layer, and a controller coupled to the air supply and to the pressure sensing layer. The controller controls air flow through the first layer in response to a signal from the pressure sensing layer.

Abstract: A patient support includes a cover defining an interior region, an air permeable first layer located in the interior region within the cover, a first air supply coupled to the first layer to provide air flow through the first layer, air bladders including a head zone and a seat zone located beneath the first layer, a first sensing assembly located beneath the head zone, a second air supply coupled to the air bladders to selectively inflate and deflate the air bladders, and a controller. The controller is coupled to the first and second air supplies to control inflation and deflation of the air bladders and to control air flow through the permeable layer. The controller also receives a signal from the first sensing assembly, determines whether the patient support is occupied, and adjusts air flow through the first layer based on the signal from the first sensing assembly.

Abstract: The present disclosure is directed to a method for determining the operational state of an HVAC system. The method includes transmitting diagnostic data and/or commissioning settings to and from an HVAC system and server by means of a mobile device, comparing the data to a predetermined condition, and transmitting updated system information back to the HVAC system if needed.

Abstract: Systems and methods are disclosed for validating the installation and operation of a fault detection and diagnostic module that monitors a component of an HVAC system. A remote diagnostic server is in operative communication with the HVAC system, and with the fault detection and diagnostic module. A user device communicates data to the remote diagnostic server that defines an association between the fault detection and diagnostic module and the HVAC system. The remote diagnostic server initiates an installation validation by sending a command to the HVAC system that causes the monitored component to initiate an event that is expected to be reported by the fault detection and diagnostic module. For example, a fan motor is turned on. If correctly installed, the fault detection and diagnostic module senses the event, and reports the event to the remote diagnostic server, which confirms the association. The remote diagnostic server sends a message to the user device indicating the result of the validation.

Abstract: This disclosure describes certain exemplary embodiments of a patient support having a plurality of vertically-oriented on substantially can-shaped inflatable bladders. In one embodiment, the patient support includes a support layer positioned above the vertical bladders. In another embodiment, the patient support includes a high air loss device. In still another embodiment, the patient support includes a pneumatic device located within the patient support.

Abstract: This disclosure describes certain exemplary embodiments of a patient support having a plurality of vertically-oriented on substantially can-shaped inflatable bladders. In one embodiment, the patient support includes a support layer positioned above the vertical bladders. In another embodiment, the patient support includes a high air loss device. In still another embodiment, the patient support includes a pneumatic device located within the patient support.

Abstract: A patient support includes a cover defining an interior region, an air permeable first layer located in the interior region, at least one air supply coupled to the first layer to provide air flow through the first layer, a support layer located beneath the air permeable first layer, a pressure sensing layer located underneath the support layer, and a controller coupled to the air supply and to the pressure sensing layer. The controller controls air flow through the first layer in response to a signal from the pressure sensing layer.

Abstract: A patient support includes a cover defining an interior region, an air permeable first layer located in the interior region, and a first air supply coupled to the first layer to provide air flow through the first layer. The patient support also includes a plurality of air bladders located beneath the air permeable first layer and a second air supply coupled to the air bladders to selectively inflate and deflate the air bladders. An angle sensor is located in the interior region in an articulatable portion of the patient support. A controller is coupled to the first and second air supplies and the angle sensor to control inflation and deflation of the air bladders in response to an angle signal received from the angle sensor and to control air flow through the air permeable layer in response to the angle signal.

Abstract: A patient room and bed management apparatus and system detects changes in a patient's status and updates the status of a room of a healthcare facility associated with the patient. The system may receive the patient status information from a remote system, such as a health information system used by a healthcare facility. The patient room and bed management system may determine one or more actions to be performed by a bed in the patient's room. The system may determine one or more actions to be performed by a caregiver or other staff person of the healthcare facility. The actions to be performed by the bed or staff person may be triggered by a change in status of the patient, the patient's bed, or the patient's room. The actions to be performed may be electronically communicated to the bed, to one or more remote displays, and/or to communication devices associated with staff persons of the healthcare facility.

Abstract: This disclosure describes a patient support having an air permeable layer, a plurality of inflatable bladders, a pressure-sensing assembly and a controller. In one embodiment, a combination of transverse bladders and vertically oriented can-shaped bladders is provided. In one embodiment, one or more angle sensors are provided in articulatable sections of the patient support.

Abstract: A patient room and bed management apparatus and system detects changes in a patient's status and updates the status of a room of a healthcare facility associated with the patient. The system may receive the patient status information from a remote system, such as a health information system used by a healthcare facility. The patient room and bed management system may determine one or more actions to be performed by a bed in the patient's room. The system may determine one or more actions to be performed by a caregiver or other staff person of the healthcare facility. The actions to be performed by the bed or staff person may be triggered by a change in status of the patient, the patient's bed, or the patient's room. The actions to be performed may be electronically communicated to the bed, to one or more remote displays, and/or to communication devices associated with staff persons of the healthcare facility.

Abstract: A patient support surface including a cover defining an interior region, a layer of three dimensional material, located at the interior region, and an air circulation device disposed adjacent the layer of three dimensional material. The patient support surface includes at least one of a percussion device and a vibration device, located at the interior region.

Abstract: A patient support surface including a cover defining an interior region, a layer of three dimensional material, located at the interior region, and an air circulation device disposed adjacent the layer of three dimensional material. The patient support surface includes at least one of a percussion device and a vibration device, located at the interior region.

Abstract: A patient-support apparatus includes a mattress assembly supported on a frame, the mattress assembly including a coverlet configured to provide low-airloss therapy to a patient supported on the patient-support apparatus. The patient-support apparatus is articulable to a number of positions and includes a control network which is responsive to movement of portions of the frame to alter operational parameters of the frame and mattress assembly.

Abstract: A patient-support apparatus includes an inflatable support structure, a variable output pump, a power supply and a controller. The pump includes a driver that is responsive to variations in the power signal applied to the driver to vary the output from the pump. The pump output is varied depending on the amount of flow needed as determined by a sensor that senses the pressure in the inflatable support structure.

Abstract: A bed system includes a user interface module that is not mounted to a patient's bed. The user interface module may provide bed controls that allow a staff person to initiate an electronically controlled function of the bed from the user interface module. The user interface module may also be in data communication with a health information system used by a healthcare facility. The bed may include a built-in weigh scale, and the user interface module may initiate zeroing of the weigh scale. The user interface module may allow a staff person to activate bed controls that are not available at the bed.