CONTROLLED R REMOTE LIGHT
BACKGROUND OF THE INVENTION The example we can give to have an idea of what remote light control is, are the traditional on / off switches (manual and remote) and Dimmers that vary the intensity or brightness of the light through a triac, a resistance, a potentiometer and a capacitor, in which the changes are promoted manually with a knob, in order to save energy or change the lighting conditions in an enclosure. That is the basic principle.
With the creation of electronic devices, which facilitate more and more the performance of tasks, a device was designed that meets the characteristics of what already exists in the market, but that is also controlled remotely from anywhere around it (360 degrees ). This device allows the effort of the user to be minimal, ideal for sick people or for those who simply want to take a break and require a certain environment without having to get up from the place where they are.
In this invention, a piece designed as a socket (receiving part) and a remote control similar to that of a television is used.
The functions that this system can provide us with are: On, off, increase and decrease in light intensity and a time counter of 15. 30 and 60 minutes in a range of 360 degrees of reception.
DESCRIPTION OF THE INVENTION
EXTERNAL DESCRIPTION Below we will detail the construction and operation of the remote light controller; As we mentioned before the design consists of two parts, the remote control that provides the signal which is transmitted by means of light pulses in the form of a code for each specific function and the socket that contains the electronic circuit unit that captures and processes the signal. For this we will rely on the figures shown.
Figure 1 (It shows the external perspective of the controller). Figure 2 (We describe the driver from the bottom). Figure 3 (Describes [upper plastic part or controller cover] Figure 4 (Shows the printed circuit board seen from below) Figure 5 (Shows the ventilation holes of the upper cover) Figure 6 (Shows the assembly of the two covers by means of pivots) Figure 7 (shows the electronic circuit seen from above) Figure 8 (shows the electronic circuit in side view) Figure 9 (shows the parts of the acrylic circular plate seen from above ) Figure 1 0 (Shows the parts of the acrylic circular plate in inclined perspective) Figure 1 1 (Shows the electric circuit diagram of the controller in the form of modules.)
The description of the remote light controller is as follows: Referring to the external and visible part of the controller. Figure I and 2 we realize that this compound, by two casquil the threaded metal cylinders (Nos. 5 and 7). which are attached to the plastic parts by means of pressure and rivets, these ferrules serve as fastening elements, as well as allowing the free flow of electric current.
The following pairs (Nos. 1 and 2) of Figure 1, made of plastic material, are formed in such a way that they are assembled between the two, respectively, with a concentric and concentric shape, by means of three gripping pins (No. 10) of the Figure 6. In the part of the upper part (No. 1), inside is the electronic circuit (No. 8) of Figure 4, which will serve to capture and process all the codes that are transmitted by the remote control, externally this plastic part will serve as the base for the external threaded metal bushing; Slots (No.6) of Figure 5 are also found, which allow the exchange of temperature between the internal and external medium, thus preventing overheating in the circuits, thus favoring a better functioning and durability of the appliance in general.
The cone-shaped lower part (No. 2) of Figure 6 houses the metal bushing with internal thread (No. 7) in its cavity. Figure 2.
One of the fundamental parts of the controller is the circular plate of acrylic material (No. 3) of Figure 1, which is between the pieces of plastic material, its most important function is to guide the lu signal. which emits the remote control to the infrared light sensor (No. 9) of Figure 8; in Figures 9 and 1 0. we can see the details of the plate in real view and in a schematic drawing, we see that it is made up of a series of holes and semicircles, the first ones (No.14) serve for their assembly between the pieces plastic, the semicircles (No. 13) are part of the ventilation system, these do not completely pass through the plate as can be seen in Figure 10 schematic. The rectangle shaped hole is the one that houses the infrared sensor and allows the signal to reach any place around it, finally there are two holes (No. 16) inside the plate that serve as a guide for the current cables . The circular piece of acrylic can be made of different material according to the required optics, for our design the acrylic gives us the characteristics that we need, in terms of distance of reception and transmission of the signal through the medium to the infranojo sensor, in addition that can pick up infrared signals from any point around it (360 degrees),
In the electronic market there is no sensor that has the ability to receive the signal from any angle, which is why an optical study was carried out for the design of this tablet. Figure 9
Externally, a 3mm bulb is also visible. of diameter called Lcd (No. 4) of Figure 1, which has the function of telling us that there is electrical power and for practical purposes tells us that we are able to use remote control in its various functions.
INTERNAL DESCRIPTION In the internal part of the controller we have the electronic circuit board (No. 8) of Figure 4. it contains a series of components with a specific function each; the microcontroller (No. 1 1) of Figure 7 that contains a whole processing system inside, is programmed with several assignments, later it will send signals that will define the functions that a triac (No. 12) of Figures 7 and 8. which are: On, off, lower and raise the intensity of light. as well as activate a time control (called timer) to turn off the light in 15, 30 or 60 minutes.
As previously mentioned, infrared light is trapped and directed by means of the circular aerofoil plate (No. 3) of Figure 9, to give it to the infrared sensor (No. 9) of figures 4 and 8, which transforms it. in electrical impulses, which in turn are sent to an input of the microcontroller (No. 1 1) of Figure 7, within which the codes sent by the remote control unit are processed, to finally arrive at the triac that has the ability to perform the operation that we require. The remote control unit transmits special codes that only the controller can interpret. These are 7 codes:
Prende: code 240 code 2 1 Increase: code 243 Decrease: code 242 15 min: code 254 30 min: code 253 60 min: code 252
To further detail the operation of the controller. We will analyze in the form of modules (Figure 7) the processes that are carried out in the electronic circuit.
The modules to analyze sequentially are the following:
1. Module Source of Attribution. 2. Microcontroller module. 3. Infrared module. 4, Led module. 5. Triac module.
Module 1: This is responsible for converting the line voltage from 127 volts of alternating current to direct current, by means of diodes, capacitors, resistors and filters. The function of the diode is to let the current pass in only one direction, while the capacitors store energy: as its name indicates, the resistance opposes the passage of the current depending on the degree of ohms it has, the filter also stores energy only It has more capacitance than the capacitor.
Module 2: This contains a CPU. a RAM, ROM, ports and timers, all included in your system, its specific function is to process all the codes sent by the infrared sensor, by means of a software previously set up for this design, with which they are defined the tasks that the t iac will perform
Module 3: The infrared module captures the infrared I112 that emits the remote control, previously guided by the acrylic plate to the center of the electronic circuit where the infrared sensor is placed and transforms it into electrical impulses, these are directed to a port or entrance of the microcontroller with a code defined for each function.
Module 4. This module is responsible for making the user see that the receiving unit is on, as soon as the zero crossings are met, and it indicates that the remote control can be used in its various functions.
Module 5: In this module, the assignments sent by the microcontroller are executed. therefore the triac is he who has the ability to modify the light conditions. "for our design in incandescent bulbs.
Due to the characteristics mentioned above, we can affirm that the remote light controller that we present in this application does not show similarity with devices that modify the lighting conditions. since it gathers characteristics of some of them inside a socket, such as Dimmers or on-off controls, but also has a range of reception of the infrared signal of 360 degrees, is complemented by a cooling system to avoid overheating and includes a timer for automatic shutdown.