Technologies for individualized building automation include a building automation application server, a building controller, and several mobile computing devices. Each mobile computing device generates individualized sensor data based on the time and location of the mobile computing device and sensor data indicative of a building system control parameter. The sensor data may include temperature data, humidity data, or other environmental data, and may be received by the mobile computing device from one or more external sensors. The building automation application server receives the individualized sensor data from the mobile computing devices and generates a building system configuration based on the individualized sensor data. The building automation application server may optimize the building system configuration for cost, efficiency, or user comfort based on the individualized sensor data. The mobile computing devices and the building automation application server may communicate via one or more collection servers. Other embodiments are described and claimed.

A first mobile terminal includes a microphone to receive a voice, a mobile communication module to make communication with a second mobile terminal, and a learning data unit to receive a command for entering an artificial intelligence (AI) telephone conversation mode, to obtain a user intent of the first mobile terminal, based on the received command, and to automatically perform a first task with the second mobile terminal according to the obtained user intent.

A first mobile terminal includes a microphone to receive a voice, a mobile communication module to make communication with a second mobile terminal, and a learning data unit to receive a command for entering an artificial intelligence (AI) telephone conversation mode, to obtain a user intent of the first mobile terminal, based on the received command, and to automatically perform a first task with the second mobile terminal according to the obtained user intent.

The present disclosure relates to a parameterizable automation technology device. The parameterizable automation technology device includes a memory, a wireless communications interface, and a processor. The memory is configured to prestore a device parameter of the parameterizable automation technology device. The wireless communication interface is configured to receive update data to update the prestored device parameter via a communication network. The processor is configured to update the prestored device parameter based on the received update data and to adjust an operation of the parameterizable automation technology device based on the updated prestored device parameter.

An apparatus, method and computer program product for controlling wirelessly controlled equipment, such as a ductless air conditioning system. A control module is provided comprising an optical source for generating an optical control signal. The control module enables a smartphone to control wirelessly controlled equipment of the type which is controlled by a remote-control device generating an optical signal. An electrical circuit generates electrical control signals to be coupled to the optical source, wherein the electrical circuit generates the electrical control signals depending on information received from a network connection. A wireless communications module communicates with the smartphone. A mobile application stored in a memory of the smartphone communicates user selections from the smartphone over the network connection to the apparatus to implement transmission of electrical control signals to the control module to cause the control module to cause the optical source to generate the optical control signals to control the operation of the wirelessly controlled equipment.

Controlling a consumer electronic applicant through a mobile terminal to execute functionality appropriate for processing a consumer product is performed by obtaining a device specification of the consumer electronic device and product information on the product to be processed, and generating a command that controls the consumer electronic device to execute the appropriate functionality for processing the product.

Sensor signal values, indicative of a performance metric, are received and recorded over a given time period. The sensor signal values are aggregated, and a threshold signal value is identified based on the aggregated sensor signal value. A set of control signals, for controlling subsystems on the mobile machine, are generated based on the identified threshold signal value, and the subsystems are controlled based upon the control signals.

Described are systems and methods for autonomously operating network devices by revising the operational status of the network devices in response to conditions or physical quantities sensed by one or more sensors.

A mobile device with a graphical user interface for remotely monitoring and/or remotely interacting with a configurable building automation systems (BAS). In particular, the mobile device's graphical user interface that has a portrait mode and a landscape mode, and the graphical user interface is displayed on the touchscreen in the portrait mode or the landscape mode based on the orientation of the mobile device.

A gas distribution installation including a housing designed to receive at least one gas cylinder and having a gas input opening and a gas output opening; a system of gas ducts arranged in the housing to which the at least one gas cylinder is connected; a gas distribution system linked to the output opening allowing an equipment item to be supplied, and at least one communication port and a programmable logic controller, the logic controller being provided with a processor capable of processing data originating at least partly from a portable data storage and processing system distinct from the installation and wherein the data originating at least partly from a portable data storage and processing system distinct from the installation are used to manage control and/or maintenance parameters of the gas distribution system.