Electronic device with speaking power control centre

Abstract

The invention relates to a power control system formed by an electronic system comprising microcontrollers, motor drivers and an electric-brake activation system, which comprises relays, contactors, MOSFETS for input and output ports, sensors, control and a power supply. The device receives control signals from different components, interprets voltage and current, distributes power to motors, operates devices such as electric brakes and regulates input voltage. The device can be connected via Bluetooth or Wi-Fi to an application. The device comprises an input port for the sensor system, by means of which same supplies power and manages data generated by the sensors. The invention provides greater ease of operation as a result of the wireless function and the speaking function that communicates the status and actions of the device. This allows users to quickly understand the condition of the system and to take informed, real-time decisions, and improves accessibility for persons with visual impairment. In addition, audible feedback facilitates the identification and solution of problems, improving efficiency and safety in the management and control of electrical energy.

Description

[0001] ELECTRONIC DEVICE WITH POWER CONTROL CENTER

[0002] TALKING

[0003] TECHNICAL FIELD OF THE INVENTION

[0004] The present invention pertains to the technical field of the electronics industry. It aims to develop a speaker power controller, which falls within the technical fields of electronics and electrical engineering, particularly the field of power centers. These devices are used to manage and control electrical power in various applications, such as industry, automation, electric vehicles, robotics, and aerospace engineering. These controllers are responsible for maintaining the stability and distribution of electronic components and communicating the device's status to the operator. This invention is targeted at users within the automation, electric vehicle, and robotics industries.

[0005] BACKGROUND

[0006] Power controllers are used in various technical fields, such as industry, where they control energy consumption demand in industrial plants, warehouses, and large facilities. They are also used in the electrical power sector, in control centers to manage the transformation, transmission, and distribution of electrical energy. In electrical installations, they ensure safety in homes and buildings through devices such as the Power Control Switch. In electric vehicles, they act as central controllers to manage electronic components, such as the transmission, the electric motor, and braking systems. Furthermore, they are used in temperature and heating control systems to regulate the temperature in multi-zone ovens, plastic production machines, packaging machines, and ovens with infrared lamps.

[0007] There is also a system that communicates wirelessly as described in document number US10429869B2, which outlines a power control unit and its method of use for varying the supply of electricity to an electrical appliance using a peer-to-peer wireless communication link between a controller and the power control unit. The communication link can be established using Wi-Fi Direct or Bluetooth communication technology.

[0008] US20190120909A1 describes a power supply system that includes a battery that supplies power, a battery sensor unit that acquires a value related to the battery's state, and a battery deterioration determination device. This system calculates an effective charge / discharge amount value for the battery based on a charge amount acquisition value, a discharge amount acquisition value, and a depth of discharge acquisition value acquired by the battery sensor unit. Similarly, US11502530B2 describes how a controller senses charging and discharging, detects when a battery is in a non-use state for a predetermined period, and stores the secondary battery in such a way that a visual indicator displays the storage amount and deterioration of the secondary battery at different stages of the vehicle's power distribution process.

[0009] US patent number 10775873B2 describes a power control center that operates with a processor comprising: a plurality of first cores for independently executing instructions; counters for storing performance information; and a second core for performing memory operations. The power controller receives performance information from the plurality of counters, determines the type of workload to be executed on the processor based at least in part on this performance information, and, depending on the workload type, can dynamically migrate one or more threads.

[0010] The system described in document number US10457160B2 refers to a power control device for a vehicle in which an electric motor to make the vehicle travel is powered by energy from a vehicle-mounted battery and a fuel cell, a control unit sets a target battery charging rate in such a way that the target charging rate decreases as the amount of fuel remaining in the fuel cell decreases after fuel cell power generation starts during a high-output / high-speed trip and controls a fuel cell power generation output based on a difference between the target charging rate and an actual charging rate.Similarly, document JP7155930B2 describes an invention relating to a control system for a hybrid vehicle, and more particularly to a control system for a series hybrid vehicle in which an internal combustion engine is used for power generation and a traction motor propels the vehicle. In a more simplified manner, document JP6270010B2 presents an invention relating to a power generation control technique for a vehicle-mounted unit driven by an electric motor.In document number CN104365012B, it is described how a power control center controls energy generation to reduce the amount of fuel consumed by the internal combustion engine, the method being characterized by: the charge / discharge state of the battery is detected; and the internal combustion engine interrupts the energy generation that involves fuel consumption when the charge state of the battery is restored.

[0011] Document number CN110228460A describes the baseline energy distribution that is determined in response to the car's speed and the machine's energy demand, so that the system senses the deviation of the state of charge to be electrically coupled to the energy storage of the first electric torque source and the second electric torque; and is described in response to the deviation of the hybrid powertrain configuration to adjust the reference energy distribution.

[0012] There is also a control center distribution system that adjusts the fuel cell's operating mode based on the battery's state of charge, performs reasonable distribution of the vehicle's energy, improves driver comfort, and enhances the battery's lifespan, as reported in document CN107264324B.

[0013] The shortcomings found in the previously compared developments are described as follows: the lack of auditory feedback can hinder the rapid understanding of system conditions and delay informed, real-time decision-making. Furthermore, a non-speaking power control center may be less accessible to people with visual impairments, as it does not provide auditory information that would allow them to interact with the system effectively. Finally, without auditory feedback, operators may take longer to identify and address problems or anomalies in the system, which could affect the efficiency and safety of the electrical installation. In summary, a non-speaking power control center may present disadvantages in terms of auditory feedback, accessibility, and response time compared to one that does have audio feedback.

[0014] The objectives of the present invention, as previously mentioned, and others not mentioned, will become evident from the description of the invention and the accompanying illustrative, not imitative, figures presented below. BRIEF DESCRIPTION OF THE FIGURES

[0015] Figure 1 is a schematic diagram of the power control center specifically for the microcontroller.

[0016] Figure 2 is a schematic diagram of the power control center specifically of the plurality of "Jack" or analog audio connectors being of the LED on / off switch type as well as of the switch or toggle type, with corresponding transistors and resistors.

[0017] Figure 3 is a schematic diagram of the power control center specifically of the plurality of capacitors and the plurality of associated resistors.

[0018] Figure 4 is a schematic diagram of the power control center specifically of the "Jack" or analog audio connector with a sensor port.

[0019] Figure 5 is a schematic diagram of the power control center specifically of the "Jack" or analog audio connector with the function of being a serial peripheral interface bus or SPI bus with connection to an "RST" or alternating current phase converter piece.

[0020] Figure 6 is a schematic diagram of the power control center specifically the "Jack" or analog audio connector with a drop sensor port.

[0021] Figure 7 is a schematic diagram of the power control center specifically of the plurality of "Jack" or analog audio connectors with an on / off switch as well as a terminal block connected to a voltage regulator module that functions as a step-down DC-DC converter.

[0022] Figure 8 is a schematic diagram of the power control center specifically the terminal block module.

[0023] Figure 9 is a schematic diagram of the power control center, specifically the common-base terminal block transistor module. Figure 10 is a schematic diagram of the power control center, specifically the analog audio jack or connector with a speaker connected to an audio player module with a card slot or storage module (SD, USB, or solid-state drive).

[0024] Figure 11 is a front isometric view of the base of the storage box for the PCB created where it contains all the schematic diagrams in a continuous manner.

[0025] Figure 12 is a side view of the base of the PCB storage box, which contains all the schematic diagrams in a continuous format. Figure 13 is a top view of the base of the PCB storage box, which contains all the schematic diagrams in a continuous format.

[0026] Figure 14 is a rear view of the base of the storage box for the PCB created where it contains all the schematic diagrams in a continuous manner.

[0027] Figure 15 is a rear isometric view of the lid of the storage box for the created PCB where it contains all the schematic diagrams in a continuous manner.

[0028] Figure 16 is a rear view of the lid of the storage box for the created PCB, which contains all the schematic diagrams in a continuous format. Figure 17 is a side view of the lid of the storage box for the created PCB, which contains all the schematic diagrams in a continuous format. Figure 18 is a rear view of the lid of the storage box for the created PCB, which contains all the schematic diagrams in a continuous format.

[0029] Figure 19 is the rear view of a PCB designed for manufacturing the power control center, showing a) numerical indicators of its component parts and b) only the pin layout and connections. Figure 20 is the top view of a PCB designed for manufacturing the power control center, showing a) numerical indicators of its component parts and b) only the pin layout and connections.

[0030] DESCRIPTION OF THE INVENTION

[0031] This invention refers to an electronic device useful for making connections via Bluetooth or an application (App), being useful for remotely controlling external modules with audio messages, such as electric chairs, elevators, electric vehicles, among others, and the parts of the invention are:

[0032] Containing a power control center with a microcontroller, a plurality of capacitors and the plurality of associated resistors, with a plurality of analog audio jacks or connectors, for example, of the LED on / off switch type as well as of the toggle switch type, with corresponding transistors and resistors. Another example of a device containing a jack with a sensor port. Another example is an analog audio jack or connector functioning as a serial peripheral interface bus or SPI bus with connection to an RST or AC phase converter. Another example of a device containing an analog audio jack or connector with a drop sensor port. Another example of a device containing a jack or connector is a plurality of analog audio jacks or connectors with an on / off switch.Another example of what the device contains is an analog audio jack or connector with a speaker connected to an audio player module with a card slot or storage module (SD, USB, or solid-state drive, respectively), as well as a terminal block connected to a voltage regulator module that functions as a step-down DC-DC converter. It also contains a terminal block module and a common-base terminal block transistor module. This set of diagrams and electronic components is used to generate the PCB for the power control center, which is housed in a storage box with a base and lid. The electronic device comprises electronic components with microcontrollers, motor drivers, and an electric brake activation system; it consists of relays, contactors,MOSFETs, or field-effect transistors, are used to amplify or switch electrical signals to regulate output voltage signals for input and output ports; sensors; control; and power supply. They receive control signals from various components to which they can be connected via Bluetooth or Wi-Fi, interpreting the appropriate voltage and current for each motor to which they can wirelessly distribute power. They also operate devices such as electric brakes and mechanisms like emergency braking or power distribution cutoff at different terminals, regulating the input voltage to power all the electrical devices with which they interact.It is capable of managing the sensor device to which it is connected and powered. The power cabinet is designed to individually connect various types of motors, with or without mechanical steering, that operate at 24V. It has a power port that receives 24V and also an input port for the sensor device through which it supplies power and receives the data generated by them.

[0033] With reference to figures 1 to 20, a set of illustrations is provided relating to the different parts of an electronic device with a speaker power control center; therefore, a technical solution is presented:

[0034] The speaker power control center device is composed of a base box (1001) as can be seen in figures 11 to figure 14 where it can be seen that it has a plurality of holes at the ends to solve the passage of cables and the cooling of the PCB (1003), as well as a plurality of internal supports for screws to connect the base (1001) and the cover (1002) as can be seen in figures 15 to figure 18 where it can be seen that it contains a plurality of holes in the back of (1002) with the relationship of being distributed radially based on a relationship of a plurality of radii inscribed within a maximum radius with ranges from origin-radius 1 to origin-radius n of between 3mm to 5mm and being a plurality of homogeneous holes of between 0.5mm to 2.5mm.

[0035] With regard to the PCB represented by part (1003), it can be subdivided into a set of diagrams that have different technical solutions within the invention, starting with figure 1 which is a schematic diagram of the power control center specifically of the microcontroller where said diagram will be represented with part (101) being composed of the microcontroller represented by part (301) and which contains a plurality of ports or pins that are constituted as follows,Port D, which is an 8-pin directional pin with Schmitt Trigger input, can be pins (1), (2), and (32). In the case of pins (1) and (32), these are pin changeover switch pins connected to the "Jack" or analog audio connector with a sensor port represented by part (702), connected in the diagram represented by (104) (see Figure 4), and powered and connected by the 2V to 48V source represented by part (901). Port D (2) is an 8-pin directional pin with Schmitt Trigger input that is connected to (702), connected in the diagram represented by (104) (see Figure 4). By relating diagram (101) and diagram (104), the following can be done: pins (15), (16), and (17) are bidirectional 8-bit wide ports that are connected to (702),Pins (15) and (16) are connected to MOSI type pins, which is an electronic signal that refers to the data output of the master, in this case the microcontroller, represented by (301), and the data input to the slave, which is (702). Pin (17) is a data receive (RX) connection from the microcontroller (301) to (702), and this pin (17) is connected to the (SCK) type section, which is a clock signal that manages the data and performs synchronization. In the case of Figure 1, pin (29), which is a port-C used for resetting, is connected to a resistor (201) with a range of 1 kilo ohm to 20 kilo ohms and is powered and connected by the 2V to 48V supply represented by (901). Pin (29) is also connected to (601). which is a reset port with part (602) which is a reset button that is connected to a ground (GND) terminal,This part (601) is also connected to part (702), and this part (702) has a plurality of (PWM) type pulse width modulator pins, represented by parts (33), (34), (35), and (36), which are of the (PWM) type. Pulse width modulation is a technique in which the duty cycle of a periodic signal is modified to transmit information over a communication channel or to control the amount of energy sent to a load. This is useful because it can modulate the rotation speed of electric motors, for example. It can be used for alternating current, direct current, or analog signals, and can also be transmitted via Wi-Fi or Bluetooth. Therefore, this set of parts controls a high moment (on or power) to a low moment (off or disconnected), that is, from high frequencies to low frequencies or vice versa. They are also used in conjunction with high-frequency MOSFETs and low-frequency relays.Therefore, this plurality of pins (PWM) are also connected in the diagram represented by part (103) (see figure 3).

[0036] Returning to Figure 1, the set or plurality of configurable bidirectional input / output pins (28), (27), (26), and (25) are C-ports, which are 8-bit bidirectional ports. Their pins can be configured as digital inputs or outputs, so this plurality of pins is also connected in the electronic diagram (103) (see Figure 3). This plurality of configurable bidirectional input / output pins is bridged to a joint connection with a plurality of pulse-width modulator (PWM) pins, represented by parts (33), (34), (35), and (36), together with a plurality of associated resistors (202), (203), (204), and (205) with ranges from 100 ohms to 500 ohms. This plurality of jumpers is connected to a plurality of capacitors (504), (505), and (506). and (507) with ranges of 0.1 microfarads to 10 microfarads and these jointly connected to a plurality of associated resistors (207), (210), (211) and (212) with ranges from 1 kilo ohm to 8 kilo ohm jointly giving a technical solution of being a pulse controller by means of configurable inputs and outputs by means of pulse width modulation with a synchronized signal by means of an (SCK) that manages the signals, being grounded by a plurality of capacitors jointly grounded to the same ground (GND).

[0037] Returning to Figure 1, the GND or ground ports are represented by pins (3), (5), and (21). The VCC ports, or direct current or continuous voltage ports (i.e., pure and unaltered current), are represented by pins (4) and (6). These pins are bridged, so they are also powered and connected by the component (901). Because pins (6) and (4) are bridged, they are also connected to a capacitor represented by (503) with a range of 0.1 microfarads to 10 microfarads, and this capacitor is also connected to GND and powered by (901). The B ports, which are bidirectional 8-bit wide ports (7) and (8), are connected to a transistor (401) with a range of 10 megahertz (MHz) to 20 MHz. Subsequently, they are connected to a plurality of capacitors (501) and (502), both with a range of 15 picofarads to 30 picofarads, both being connected to a GND ground.

[0038] Pins (9) and (10), which are D ports, i.e., an 8-pin directional port with Schmitt Trigger input, are both connected to (803), which is represented in the diagram by (109) (see figure 9). This is a common-base terminal block transistor module, and they are powered and connected by the 2V to 48V source represented by part (903). Pins (10) and (9) go in the (RXD) and (TXD) sections of part (803). Pin (11), which is a D port, i.e., an 8-pin directional port with Schmitt Trigger input, and pin (12), which is a B port, i.e., an 8-bit wide bidirectional port, are both connected in the diagram represented by (102) (see figure 2), being connections with part (11) with the resistor represented by (208) with ranges from 1 kilo ohm to 20 kilo ohm, and part (12) with the resistor (209) with ranges from 1 kilo ohm to 20 kilo ohm,The resistor (208) is connected to the transistor (402) with a range of 10 megahertz or (MHz) to 20 MHz and this is connected to a ground (GND) and also to a “Jack” or analog audio connectors being of the type LED on / off switches represented by the piece (704) the connection is made by means of the negative pole of (704) and its positive pole is connected and powered by the source of between 2V to 48V represented by the piece (902),On the other hand, pin (12) has resistor (209) and has the same connection as the previous case, so (209) is connected to transistor (403) with ranges of 10 megahertz or (MHz) to 20 MHz and this is connected to a ground (GND) and also to a “Jack” or analog audio connectors being of the type LED switches of fall sensors represented by the part (705) the connection is made by means of the negative pole of (705) and its positive pole is connected and powered by the source of between 2V to 48V represented by the part (902).

[0039] Returning to Figure 1, pins (13) and (14), being B ports, are bidirectional 8-bit wide ports connected to the diagram represented by (110) (see Figure 10). Pin (13) connects to the (TX) output of part (801), which is an audio player module with a card slot or storage module (SD, USB, or solid-state drive). Pin (14) connects to the (RX) output of part (801). Additionally, pin (24) (see Figure 1), a C port, is connected. This is an 8-bit bidirectional port whose pins can be configured as digital inputs or outputs. It connects to the diagram represented by part (110) (see Figure 10). Pin (24) is connected to part (801) in the "BUSY" or occupied section, meaning the data is ready for transmission. to be read or also that the signal was sent correctly,Additionally, it can be observed in diagram (110) that a connection is made with an analog audio jack or connector to a speaker represented by part (703), and that its positive and negative ports are connected to module (801). This module (801) has a ground pin (GND) and a set of pins: (37) which is a right analog-to-digital converter (DAC), (38) which is a left analog-to-digital converter (DAC), (39) which is an I / O input / output, (40) which is an I / O input / output, (41) which is a USB+ port, (42) which is a USB- port, (43) which is an ADKEY port for controlling a DFPlayer, which is a mini MP3 audio player, and (44) which is an ADKEY port for controlling a DFPlayer, which is a mini MP3 audio player. This diagram is powered and connected by (901).

[0040] Returning to Figure 1, where pins (15), (16), and (17) were defined, these are B ports, meaning bidirectional 8-bit wide ports that are also connected in the electronic diagram represented by part (105). These are connected to the "Jack" or analog audio connector, which functions as a serial peripheral interface bus or SPI bus, represented by part (701). This has a connection to an "RST" or AC phase converter (601), which is also connected to a reset button (see Figure 1). Returning to Figure 5, it can be seen that it is powered and connected by (901) and by ground (GND). It should be mentioned that pins (15) and (16) are connected to MOSI type pins, which is a signal in electronics that refers to the data output of the master. In this case, the master is the microcontroller, represented by part (301), and the data input to the slave that is the piece (701 ),In the case of pin (17), it's a data receive (RX) pin from the microcontroller (301) to (701), and this pin (17) is connected to the (SCK) part, which is a clock signal that manages the data and performs synchronization. Returning to Figure 1, where pins (18), which is AVCC (the power supply pin for the converter), (20), which is AREF (the analog reference pin that provides the reference voltage for the analog-to-digital converter ADC, pin (19), and (21), which is ground (GND), were defined, pins (20) and (18) are bridged to a power supply provided by (901). Pins (19) and (22) are an ADC (analog-to-digital converter) that is capable of converting an analog voltage input into a binary value.

[0041] Returning to Figure 1 where pin (23) is defined as a C-port, which is an 8-bit bidirectional port and its pins can be configured as digital inputs or outputs, it is also connected in the electrical diagram represented by part (106) (see Figure 6) where it makes a connection with the negative port of the "Jack" or analog audio connector with a fall sensor port represented by part (707), on the negative side of part (707) a power connection is made to (901) and likewise a connection is made with a resistor (206) with ranges from 1 kilo ohm to 20 kilo ohm and this resistor is connected to a ground (GND).

[0042] Figure 7 shows an electrical diagram represented by part (107) containing a plurality of analog audio “Jacks” or connectors with an on / off switch represented by part (706) as well as a “Jack” with a terminal block represented by (708) and which are connected to a voltage regulator module that functions as a step-down DC-DC converter represented by part (804). It is mentioned that block (708) makes the connection with its positive pin to the negative pin of part (706), and this part (706) makes the connection with its positive pin to the positive input side of part (804), and in a similar way, part (708) makes its connection through its negative pin to the negative input side of (804). Subsequently, this part (804) on its positive output side is connected to the power supply (901) and its negative output side is connected to a ground (GND).Returning to Figure 1 where pin (30) is defined as a data transmission pin and pin (31) is a data reception pin that both (30) and (31) are connected to the electrical diagram (108) (see Figure 8) where the connection of (30) and (31) with the part (802) is shown, which is a terminal block module that also contains an output for receiving the voltage that is connected to the power supply (902) and is also connected to a ground (GND).

[0043] Finally, in Figure 19 you can see the rear view of a PCB represented by part (1003) which is created for the manufacture of the power control center, with Figure 19 a) showing numerical indicators of the parts that make it up and Figure 20 b) showing only the layout and connection between pins. In addition, you can see in Figure 20 the top view of the PCB (1003) created for the manufacture of the power control center, with Figure 20 a) showing numerical indicators of the parts that make it up and Figure 20 b) showing only the layout and connection between pins.

[0044] The technical advantages of the described invention are:

[0045] 1. A speaker power control center device comprising a base box (1001) having a plurality of holes at the ends to allow for cable passage and PCB cooling (1003), as well as a plurality of internal screw supports for connecting the base (1001) and the cover (1002) containing a plurality of holes on the back of (1002) with the ratio of being radially distributed based on a ratio of a plurality of radii inscribed within a maximum radius with ranges from origin radius 1 to origin radius n of between 3mm to 5mm and being a plurality of homogeneous holes of between 0.5mm to 2.5mm.

[0046] 2. A PCB (1003) which is subdivided into a set of diagrams that have different technical solutions within the invention, composed of the microcontroller (301) and containing a plurality of ports or pins which are constituted as follows, the 8-pin directional port with Schmitt Trigger input, pin change switch pins, in addition, with a plurality of fixed and configurable B, C and D ports or pins for the power supply voltage for the converter, a pin which makes the analog reference and which makes the reference voltage of the analog-to-digital converter ACD, a data transmission pin and the data reception pin which are connected to the analog audio connector having a plurality of (PWM) pulse width modulator pins being represented by parts (33), (34),(35) and (36) which are of the (PWM) type, which is pulse width modulation, which is a technique in which the duty cycle of a periodic signal is modified to transmit information through a communication channel or to control the amount of energy sent to a load. This is useful because the rotation speed of external or third-party devices can be modulated by means of alternating or direct current or analog, also transmitted by Wi-Fi or Bluetooth.Therefore, this set of parts controls a high moment (on or power) to a low moment (off or disconnected), that is, from high frequencies to low frequencies or vice versa, also being used in conjunction with high-frequency MOSFETs and low-frequency relays, which, by means of a plurality of resistors with ranges from 1 kilo ohm to 20 kilo ohms and a plurality of transistors with ranges from 10 megahertz or (MHz) to 20 MHz, are connected to a plurality of analog audio connectors to turn on, turn off with LED and sound or ADKEY speakers to control a DFPlayer for a mini MP3 audio player, terminal blocks, with the function of being a serial peripheral interface bus or SPI bus which is represented by part (701) and this has a connection to an “RST” or AC phase converter part (601) powered by a plurality of sources between 2V and 48V,to connect a plurality of pins (10) and (9) that go in the (RXD) sections for receiving data and (TXD) for transmitting data of parts (801), an audio player module with a card slot or storage module of type SD, USB or solid state (SSD) (802), (803) and (804), to send and receive signals in a verified manner being in conjunction with a plurality of analog, digital, analog-to-digital, digital-to-analog converters, to convert input and output signals and remotely control external devices by means of Bluetooth, Wi-Fi and with USB inputs, connected to a voltage regulator module that fulfills the function of a step-down DC-DC converter represented by part (804), with a plurality of associated resistors (202), (203), (204) and (205) with ranges from 100 ohm to 500 ohm, this plurality of jumpers is connected with a plurality of jumpers with a plurality of capacitors (504), (505),(506) and (507) with ranges from 0.1 microfarads to 10 microfarads and these jointly connected to a plurality of associated resistors (207), (210), (211) and (212) with ranges from 1 kilo ohm to 8 kilo ohm jointly giving a technical solution of being a pulse controller by means of inputs and outputs configurable by means of pulse width modulation with a signal synchronized by means of an (SCK) that manages the signals, being grounded by a plurality of capacitors grounded jointly to the same ground (GND), with a plurality of capacitors store the energy in the form of an electric field with a synchronization of signals by means of a capacitor represented by (503) with ranges from 0.1 microfarads to 10 microfarads and is also connected to a ground GND and is fed by (901),The B ports, which are bidirectional 8-bit wide ports (7) and (8), are connected to a transistor (401) with a frequency range of 10 megahertz (MHz) to 20 MHz, connected to a plurality of capacitors (501) and (502), both with a capacitance range of 15 picofarads to 30 picofarads, both connected to a ground (GND), powered and connected by the 2V to 48V source represented by part (901). The pins are a plurality of bidirectional pins with a MOSI data output, which is an electronic signal that refers to the data output of the master; in this case, the master is the microcontroller (301), and the data input to the slave is (702). There are pins to receive data (RX) from the microcontroller (301) to (702), and this pin (17) is connected to the (SCK) type part, which is a clock signal that manages the data and performs synchronization,with a pin (29) for reset that is connected to part (601) which is a reset port with part (602) which is a reset button to restart the device if necessary,

[0047] 3. Concentrate, manage, condition and interpret digital and analog signals from other external modules such as sensors and additional gadgets.

[0048] 4. Communication between the invented device and external modules via Bluetooth wireless communication, mobile application, and for wireless communication with the controller.

[0049] 5. Communication by audio playback based on the interpretation of the environment to reproduce alerts and auditory messages through managing, conditioning and interpreting digital and analog signals from other external modules such as sensors and additional gadgets and with buttons to configure operating modes.

[0050] 6. The device can configure operating modes of an external module by means of an App or Bluetooth connection.

[0051] 7. It facilitates and makes more intuitive the connection of external components with the invented device.

[0052] 8. Communication bridge between sensors and control module.

[0053] The technical advantages of the described invention include greater ease of operation for the user, as well as the freedom from cables thanks to the system's wireless functionality. Furthermore, a talking power control center that communicates its status and actions offers several advantages compared to one that does not. Auditory communication allows operators or users to quickly understand system conditions and make informed decisions in real time. Additionally, a talking power control center is more accessible to people with visual impairments, as it provides auditory feedback that enables them to interact with the system effectively. Finally, auditory feedback allows operators to identify and address problems or anomalies in the system more quickly, which can improve the efficiency and safety of the electrical installation.In summary, a talking power control center that communicates its status and actions offers advantages in terms of auditory feedback, accessibility, and response time compared to one that does not. These advantages can improve efficiency and safety in the management and control of electrical power in various applications and technical fields.

Claims

CLAIMS Having sufficiently described my invention, I consider as a novelty, and therefore claim as my exclusive property, the contents of the following clauses:

1. A speaker power control center device characterized by being composed of a base box (1001) having a plurality of holes at the ends to allow the passage of cables and cooling of the PCB (1003), as well as a plurality of internal screw supports to connect the base (1001) and the cover (1002) containing a plurality of holes on the back of (1002) with the ratio of being radially distributed based on a ratio of a plurality of radii inscribed within a maximum radius with ranges from origin radius 1 to origin radius n of between 3mm to 5mm and being a plurality of homogeneous holes of between 0.5mm to 2.5mm; a PCB (1003) which is subdivided into a set of diagrams that have different technical solutions within the invention, composed of the microcontroller (301) and which contains a plurality of ports or pins which are constituted as follows, the 8-pin directional port with Schmitt Trigger type input, pin change switch pins in addition, with a plurality of fixed and configurable B, C and D ports or pins for the power supply voltage for the converter, a pin which makes the analog reference and which makes the reference voltage of the analog to digital converter ACD, a data transmission pin and the data reception pin which are connected to the analog audio connector having a plurality of (PWM) type pulse width modulator pins being represented by the pieces (33), (34), (35) and (36) which are of. This type (PWM) is pulse-width modulation, a technique in which the duty cycle of a periodic signal is modified to transmit information over a communication channel or to control the amount of power sent to a load. This is useful because the rotational speed of external or third-party devices can be modulated by means of alternating or direct current (AC) or analog signals, also transmitted via Wi-Fi or Bluetooth. This set of components controls a high state (on or power) to a low state (off or disconnected), that is, from high to low frequencies or vice versa. It is also used in conjunction with high-frequency MOSFETs and low-frequency relays. It uses a plurality of resistors with ranges from 1 kiloohm to 20 kiloohms and a plurality of transistors with ranges from 10 megahertz (MHz) to 20 MHz, connected to a plurality of analog audio connectors to turn on.Turn off with LED and sound or ADKEY speakers to control a DFPlayer for a mini MP3 audio player, terminal blocks, with the function of being a serial peripheral interface bus or SPI bus which is represented by part (701) and this has a connection to an “RST” or AC phase converter part (601) powered by a plurality of sources between 2V and 48V, to connect a plurality of pins (10) and (9) which go in the (RXD) sections to receive data and (TXD) to transmit data of parts (801) an audio player module with card slot or storage module whether SD, USB or solid state (SSD) type (802) (803) and (804), to send and receive signals in a verified manner being jointly; with a plurality of analog, digital, analog-to-digital, and digital-to-analog converters, for converting input and output signals and remotely controlling external devices via Bluetooth, Wi-Fi, and with,TI USB inputs, connected to a voltage regulator module that functions as a step-down DC-DC converter represented by part (804), with a plurality of associated resistors (202), (203), (204) and (205) with ranges from 100 ohm to 500 ohm, this plurality of jumpers is connected with a plurality of jumpers with a plurality of capacitors (504), (505), (506) and (507) with ranges from 0.1 microfarads to 10 microfarads and these jointly connected to a plurality of associated resistors (207), (210), (211) and (212) with ranges from 1 kilo ohm to 8 kilo ohm jointly giving a technical solution of being a pulse controller by means of inputs and outputs configurable by means of pulse width modulation with a signal synchronized by means of an (SCK) that manages the signals, being grounded by a plurality of capacitors grounded jointly to the same ground (GND), with a plurality of capacitors store the energy in the form of an electric field with a synchronization of signals by means of a capacitor represented by (503) with ranges of 0.1 microfarad to 10 microfarad and is equally connected to a GND ground and is powered by (901); The B ports, which are bidirectional ports of 8 bits width (7) and (8), are connected to a transistor (401) with ranges of 10 megahertz or (MHz) to 20 MHz, connected with a plurality of capacitors (501) and (502), both with ranges of 15 picofarads to 30 picofarads, both being connected to a GND ground, powered and connected by the source of between 2V and 48V represented by the part (901). The pins are a plurality of bidirectional pins with a MOSI type data output, which is a signal in electronics that refers to the data output of the master, in this case the master is the microcontroller (301), and the data input to the slave is (702), with pins to receive data (RX) from the microcontroller (301) to (702), and this pin (17) is connected to the (SCK) type part, which is a signal. clock that manages the data and performs synchronization, with a pin (29) for reset that is connected to part (601) which is a reset port with part (602) which is a reset button to restart the device if necessary 2. A speaker power control center device according to claim 1 characterized by having Bluetooth and WiFi connectivity via an application.

3. A talking power control center device according to claim 1 characterized by audibly reporting its status and actions to the operator.

4. A speaker power control center device according to claim 1 characterized by managing the sensor system with which it is connected and powered.

5. A speaker power control center device according to claim 1 is characterized by individually connecting various types of motors that may or may not have mechanical steering and that operate at a voltage of 24V.

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