The utility model discloses an EEFIT-based electromagnetic wave energy conducting equipment, having an enclosure, a skeleton, main emission sources, conveying devices and a PLC. The skeleton is arranged in the enclosure, the main emission sources are arranged on the skeleton, the conveying devices are arranged beside the main emission sources, and the conveying devices are electrically connected with the PLC. Each conveying device has a conveyor belt and limit rods. Two limit rods are arranged on each conveyor belt. The limit rods are respectively driven by two independent stepping motors. The EEFIT-based electromagnetic wave energy conducting equipment has the advantages of wider application range, more functions and lower cost, can be applicable to the irradiation of common or fragile materials, and can handle the materials on the same equipment according to different references. The manufacturing and maintenance costs are lower, and the failure rate is smaller as well.

An electronic device includes a first circuit board and a second circuit board arranged to have their first main surfaces facing each other, and a casing containing the first and second circuit boards. The first circuit board has the first main surface having a first electronic component with a mounting height from the first main surface toward the second circuit board greater than a distance between the first and second circuit boards. The second circuit board has an opening or a cutout as a first hollow portion facing the first electronic component. The first hollow portion receives a part of the first electronic component.

A robot system includes a robot and a robot control apparatus. The robot control apparatus is connected to the robot for controlling the robot and includes a casing and a display unit movable with respect to the casing and displaying information. The casing has a plurality of attachment parts to which the display unit is attached. The plurality of attachment parts are provided on first and second surfaces of the casing, and the first surface is not parallel to the second surface.

A system and method is provided that facilitates controlling and monitoring environmental conditions in buildings. The system may include at least one rack including: a plurality of slidable field panels mounted in a housing. The slidable field panels may be in side-by-side relation in a horizontal direction and may be configured to independently slide at least partially out of a front side opening of the housing via a plurality of slides. The slidable field panels may include a plurality of components mounted to vertical walls thereof, including: transformers and building control modules. The rack may also include a terminal panel including a plurality of connection terminals facing a back side opening of the housing. The connection terminals may be respectively wired to respective terminals of the transformers and building control. The system may include at least one data processing system including at least one processor configured to communicate with the building control modules to cause the rack when a heating, ventilating, and air conditioning (HVAC) system is wired to at least some of the connection terminals, to monitor and control the HVAC.

An electric device system includes a first unit and a second unit adjacent to each other. An elastically deformable first connecting terminal is provided in the first unit, and a second connecting terminal is provided in the second unit. When the first unit is assembled in the second unit, the first connecting terminal comes into contact with the second connecting terminal after sliding on an outer surface of a casing of the second unit. A bulging surface is provided in an exposed surface of the first connecting terminal, and a recess is provided in an exposed surface of the second connecting terminal. A part of the bulging surface and a part of an opening edge of the recess come into press-contact with each other by fitting a part of the bulging surface in the recess, thereby establishing electric conduction between the first connecting terminal and the second connecting terminal.

An installation for equipping DIN rails, according to an order, with components, including at least one of terminal blocks, electrical devices, and end holders, that are intended to be subsequently installed in switch cabinets, includes at least one main cell. The at least one main cell includes at least one supply unit for supplying the components to be fitted; at least one supply unit for supplying DIN rails, the DIN rail being equipped with the components in the main cell; and a writing, device designed to wirelessly transmit data, in order for said data to be saved, to a memory unit that is arranged on each DIN rail equipped with components and has an integrated wireless communications interface, the data containing order-specific information.

The utility model discloses an EEFIT-based electromagnetic wave energy conducting equipment, having an enclosure, a skeleton, main emission sources, conveying devices and a PLC. The skeleton is arranged in the enclosure, the main emission sources are arranged on the skeleton, the conveying devices are arranged beside the main emission sources, and the conveying devices are electrically connected with the PLC. Each conveying device has a conveyor belt and limit rods. Two limit rods are arranged on each conveyor belt. The limit rods are respectively driven by two independent stepping motors. The EEFIT-based electromagnetic wave energy conducting equipment has the advantages of wider application range, more functions and lower cost, can be applicable to the irradiation of common or fragile materials, and can handle the materials on the same equipment according to different references. The manufacturing and maintenance costs are lower, and the failure rate is smaller as well.

A robot control apparatus is configured to include a power supply board including a power supply circuit and a driving board including a driving circuit that drives a robot with electric power supplied from the power supply board. In the thickness direction of the power supply board, the distance between a surface of the power supply board, on which the power supply circuit is provided, and a surface of the driving board, on which the driving circuit is provided, is smaller than the maximum height of the power supply board.

A housing for a module in which a printed circuit board is housed and a housing for a base unit in which a printed circuit board is housed are each provided with an opening for a connector, and a convex portion and/or a concave portion is provided around the connector opening so that a cutting fluid is prevented from dripping and spreading on the connector that electrically connects units such as the module and the base unit.

A robot controller includes a case having an intake port and a flow channel connecting to the intake port, in which a gas supplied from the intake port flows, a control board for controlling a motion of a robot, a drive circuit board placed within the flow channel and controlling driving of a motor included in the robot, a power supply circuit board placed upstream of the drive circuit board within the flow channel and supplying electric power to the control board, and a fan placed between the drive circuit board and the power supply circuit board within the flow channel.