A method for applying a heating system on a surface includes providing an imprint form including a basic form and an arm, tampon printing a plurality of heating elements on the surface with the imprint form such that each heating element has the basic form of the imprint form and is produced with a guide arm by the arm of the respective imprint form, where two adjacent heating elements are connected by the guide arm, and the heating elements are made from a conductive substrate including conductive particles, and connecting the heating elements to at least one heating conductor or heating segment.

In an embodiment, the present disclosure is directed to an assembly for preventing condensation on a surface of an object. The assembly includes a condensation mitigation device, an ambient temperature sensor, a humidity sensor, and a processor. The processor determines dewpoint temperatures for different times, the determination being based on the ambient temperature and the humidity. The processor then determines a regression for the determined dewpoint temperatures. A control signal for activating the condensation mitigation device is transmitted based on the regression for the determined dewpoint temperatures.

In an embodiment, the present disclosure is directed to an assembly for preventing condensation on a surface of an object. The assembly includes a condensation mitigation device, an ambient temperature sensor, a humidity sensor, and a processor. The processor determines dewpoint temperatures for different times, the determination being based on the ambient temperature and the humidity. The processor then determines a regression for the determined dewpoint temperatures. A control signal for activating the condensation mitigation device is transmitted based on the regression for the determined dewpoint temperatures.

The invention discloses an iridescent intelligent bathroom mirror, including a glass substrate, a control module, and a lamp strip module, wherein a front face of the glass substrate is provided with a reflecting area and a light emitting area, and a back face of the glass substrate is provided with a coaxial connecting frame; a periphery of an outside surface of the connecting frame is provided with a mounting groove; the lamp strip module includes an inner lamp strip and an RGB outer lamp strip; the inner lamp strip is arranged on the back face of the glass substrate; and the RGB outer lamp strip is arranged in the mounting groove.

A near-infrared sensor cover includes a cover body having transmissiveness to near-infrared rays. The cover body includes a base and a heater unit. The heater unit is arranged rearward of the base in a transmission direction of the near-infrared rays and includes a wire-like heating element. The heating element is configured to generate heat when energized. The base includes a rear portion that includes a rear surface of the base in the transmission direction. In the rear portion of the base, at least part of a section that is different from a section in which the heater unit is provided is formed by a reflection suppression structure including asperities. The asperities include a reflection suppression surface that is inclined relative to the transmission direction and reduces reflection of the near-infrared rays.

The invention relates to a circuit assembly (1) comprising a printed circuit board (2), at least one micromirror component (3) which is connected to the printed circuit board (2) for modulating a light beam oriented towards the micromirror component (3), a cooling body which is thermally connected to the at least one micromirror component (3), and a current regulating unit (5). The micromirror component (3) has a heating element (3a) which can be controlled by the current regulating unit (5), and the current regulating unit (5) is electrically connected to the heating element (3a) in order to actuate same. The current regulating unit (5) is additionally connected to the micromirror component (3) via a thermal connection to the cooling body (4) in order to transfer heat losses occurring on the current regulating unit (5).

In an embodiment, the present disclosure is directed to an assembly for preventing condensation on a surface of an object. The assembly may include a condensation mitigation device; a surface temperature sensor configured to sense a temperature; an ambient temperature sensor configured to sense an ambient temperature; and a humidity sensor configured to sense a humidity. The condensation mitigation device may be operably coupled to the surface temperature sensor, the ambient temperature sensor, and the humidity sensor. The condensation mitigation device may be configured to calculate a dewpoint temperature based on the ambient temperature and the humidity; repeat the calculation of the dewpoint temperature for different times; calculate a linear regression for the calculated dewpoint temperatures; and transmit a control signal to begin activating the condensation mitigation device based on the surface temperature, the current dewpoint temperature, and the linear regression for the calculated dewpoint temperatures.

A heater is provided having at least one thermally sprayed resistive heating layer, the resistive heating layer comprising a first metallic component that is electrically conductive and capable of reacting with a gas to form one or more carbide, oxide, nitride, and boride derivative; one or more oxide, nitride, carbide, and boride derivative of the first metallic component that is electrically insulating; and a third component capable of stabilizing the resistivity of the resistive heating layer. In some embodiments, the third component is capable of pinning the grain boundaries of the first metallic component deposited in the resistive heating layer and/or altering the structure of aluminum oxide grains deposited in the resistive heating layer.

Disclosed are a control device and a sanitary equipment. The control device comprises: a back plate and an outer plate, the outer plate is provided with a deformation control area, a circuit board is arranged between the outer plate and the back plate, a controller and a pressure sensor in communication connection with the controller are arranged on the circuit board, and the pressure sensor is arranged behind the deformation control area. The pressure sensor is arranged in the deformation control area, so that the pressure sensor detects deformation of the deformation control area, thus realizing control by pressing. Since the deformation control area is arranged on the outer plate, etching a key on other parts of the sanitary equipment may be avoided, and damage to other parts may be avoided, thus saving costs. The pressure-sensitive key is waterproof and dustproof, and has a long service life.

A pattern conductor generates heat when a voltage is applied thereto and includes: a plurality of linear conductors extending in a thickness direction; and a plurality of connection conductors each connecting the at least three linear conductors. The connection conductor includes a plurality of connection elements each connecting the two linear conductors. A length of the linear conductor between two connection points where two connection elements included in one connection conductor and connected to the same linear conductor are connected to the linear conductor, is equal to or less than an average of lengths of the two connection elements. A length of the linear conductor between two connection points where two connection conductors connected to one and the same linear conductor and adjacent to each other in the thickness direction are connected to the linear conductor, is twice or more an average of lengths of the two connection conductors.