A first controller is in data communication with a first pressure sensor and is configured to receive first pressure readings, and transmit the first pressure readings. The system further includes a second controller in data communication with the second pressure sensor, the controller configured to receive one or more presence classifiers. The second controller is further configured to run the received presence classifiers on second pressure readings in order to collect one or more presence votes from the running presence classifiers. The second controller is further configured to determine, from the one or more presence votes, a presence state of a user on the second bed. The second controller is further configured to responsive to the determined presence state; operate the bed system according to the determined presence state.

A first bed that includes a first mattress, a first pressure sensor, a first acoustic sensor, and a first controller in data communication with the first pressure sensor and the first acoustic sensor. The first controller is configured to receive first pressure readings and first acoustic readings. The first controller is further configured to transmit the first pressure readings and the first acoustic readings to a remote server. A second controller is configured to receive the one or more snore classifiers. The second controller is further configured to run the received snore classifiers on second pressure readings and on second acoustic readings in order to collect one or more snore votes from the running snore classifiers. The second controller is further configured to determine a snore state of a user on the second bed and operate the bed system according to the determined snore state.

A mattress supports a left-side user and a right-side user. At least one acoustic sensor is configured to sense acoustic energy in the environment of the left-side user and of the right-side user. At least one pressure sensor is configured to sense pressure applied to the left-side portion by the left-side user and applied to the right-side portion by the right-side user. A controller is configured to receive at least one acoustic stream from the at least one acoustic sensor and at least one pressure stream from the at least one pressure sensor. Left-side snore/breath parameters and right-side snore/breath parameters are generated. The controller is further configured to, responsive to determining that a home automation rule includes a condition that includes at least one of the left-side snore/breath parameters and the right-side snore/breath parameters send an instruction to drive a controllable device to the controllable device.

A controller is configured to receive one or more streams of data, each stream of data representing a sensed phenomenon in the environment of a bed on which a first user is sleeping and a second user is sleeping. The controller is further configured to determine that the first user is experiencing restless sleep. The controller is further configured to determine that the second user is snoring. The controller is further configured to issue a snore-control command to a controllable home automation device such that the controllable home automation device alters a feature of the second user's sleeping environment in a way that is likely to reduce the second user's snoring. The controller is further configured to determine again that that the second user is still snoring and issue a second snore-control command.

A first bed includes a first mattress, a first pressure sensor, and a first controller in data communication with the first pressure sensor, the first controller configured to receive pressure readings and to transmit the first pressure readings to a remote server. The system further includes a second bed that includes a second mattress having an inflatable chamber. The system further includes a second pressure sensor in fluid communication with the second mattress inflatable chamber to sense pressure applied to the second mattress of the inflatable chamber. The system further includes a second controller in data communication with the second pressure sensor, the controller configured to receive the one or more sleep-state classifiers and to run the received sleep-state classifiers in order to collect one or more sleep-state votes. The second controller is further configured to determine a sleep-state and operate the bed system according to the determined sleep-state.

A mattress has a first support portion configure to receive and support a first user and a second support portion configured to receive and support a second user. The first support portion and the second support portion are adjacent to each other such that the first user is capable of rolling over from the first support portion to the second support portion while sleeping on the first support portion. A sensor is configured to sense first pressure in the first support portion and sense second pressure in the second support portion. The sensor is further configured to transmit data of the first pressure and the second pressure. The controller is configured to receive the data and from the data of the first pressure and the second pressure, determine if the first user has rolled over from the first support portion to the second support portion.

A mattress supports a user. An acoustic sensor is configured to sense acoustic energy. A pressure sensor senses pressure applied to the mattress. A controller is configured to receive an acoustic stream from the acoustic sensor. The controller is further configured to receive a pressure stream from the pressure sensor. The controller is further configured to combine the acoustic stream and the pressure stream in order to generate a set of snore/breath parameters. The controller is further configured to determine that a home-automation rule includes a condition that includes the generated set of snore/breath parameters. The controller is further configured to, responsive to determining that a home-automation rule includes a condition that includes the generated set of snore/breath parameters, send an instruction to drive a controllable device to the controllable device.

A headboard storage assembly includes a headboard that may be mounted on a support surface thereby facilitating the headboard to be aligned with a bed. A pair of first pockets is provided and each of the first pockets is coupled the headboard for storing objects. A pair of second pockets is each coupled the headboard for storing objects. A first door is hingedly coupled to the headboard and a first display is coupled to the first door to insertably receive an electronic device. Thus, the first display facilitates hands-free use of the electronic device for a user lying on the bed. A second door is hingedly coupled to the headboard and a second display is coupled to the second door. The second display insertably receives an electronic device thereby facilitating hands-free use of the electronic device for the user lying on the bed.

A support panel (16) is provided comprising a base member (11), the base member (11) being the mechanically stabilizing component of the support panel (11), at least one mechanical coupler (18) on the base member (11), an identifier which can electronically be read out through the at least one second electrical connector (28), at least one second electrical connector (28) located on the base member (11), and at least one functional module (34) selected from a sensor, an actuator, a control unit, an electrical link, and a power supply, wherein the at least one mechanical coupler (18) and the at least one second electrical connector (28) are designed for reversible mechanical and electrical connection to a bed frame assembly (30), and wherein a top surface (17) of the support panel (16), opposite to the bottom surface (15), is designed to be applied with a mattress (20).

A multi-functional enclosed sleep environment for providing an improved sleep experience. A sleep enclosure assembly may be configured to partially or fully enclose a user's sleep area or bed. The sleep enclosure assembly may be stored within a housing located proximate to a user's bed or sleep area, and may be fully or partially deployable such that the user's bed or sleep area is fully enclosed within a canopy of the sleep enclosure assembly. The sleep enclosure assembly may include one or more environmental control modules designed to control or regulate one or more aspects of the sleep area according to a user's preferences, including the sound, light, temperature, air quality, ventilation, and/or humidity of the sleeping environment. The sleep enclosure assembly may further be controlled by software running on a computing device allowing a user to customize one or more aspects of the sleep environment.