Method for realizing multi-mode intelligent disinfection and purification treatment by disinfection and purification equipment

Abstract

The invention discloses a method for realizing multi-mode intelligent disinfection and purification treatment of disinfection and purification equipment. The method comprises the following steps: S1, mounting the disinfection and purification equipment; after the disinfection and purification equipment is installed, the next step is executed; s2, mode selection, wherein mode selection comprises a first mode, a second mode, a third mode and a fourth mode; s3, executing the first mode; s4, executing the mode II; s5, executing the mode 3; and S6, executing the fourth mode. The air disinfection and purification is achieved through different modes, bacteria and viruses can be effectively disinfected, and it can be guaranteed that the purified air cannot cause harm to the human body.

Description

Technical Field

[0001] The present invention relates to the technical field of air purification equipment, and particularly to a method for realizing multi-mode intelligent disinfection and purification treatment by a disinfection and purification device. Background Art

[0002] An air purifier, also known as an "air cleaner", air freshener, or purifier, refers to a device that can adsorb, decompose, or transform various air pollutants (generally including PM2.5, dust, pollen, odors, decoration pollutants such as formaldehyde, bacteria, allergens, etc.). The existing air purifiers in the prior art mainly use a filtration module to adsorb various dusts or impurities in the air, and then use ultraviolet rays and plasma purification, etc. to achieve disinfection. They can not only effectively remove bacteria and viruses in the air, but also generate ozone that causes greater harm to the human body after plasma purification. Summary of the Invention

[0003] The present invention aims to at least solve the technical problems existing in the prior art, and particularly innovatively proposes a method for realizing multi-mode intelligent disinfection and purification treatment by a disinfection and purification device, which can not only effectively filter impurities in the air, but also effectively remove bacteria and viruses in the air, and ensure that the purified air will not cause harm to the human body.

[0004] To achieve the above object of the present invention, the present invention provides a method for realizing multi-mode intelligent disinfection and purification treatment by a disinfection and purification device, including the following steps:

[0005] S1, installation of the disinfection and purification device; after installing the disinfection and purification device, proceed to the next step;

[0006] S2, mode selection, the mode selection includes Mode 1, Mode 2, Mode 3, and Mode 4;

[0007] If Mode 1 is selected, then execute step S3;

[0008] If Mode 2 is selected, then execute step S4;

[0009] If Mode 3 is selected, then execute step S5;

[0010] If Mode 4 is selected, then execute step S6;

[0011] S3, execute Mode 1; determine whether to switch the mode:

[0012] If the mode is switched, then execute step S2;

[0013] If the mode is not switched, then continue to maintain the current mode;

[0014] S4, execute Mode 2; determine whether to switch the mode:

[0015] If the mode is switched, step S2 is executed;

[0016] If the mode is not switched, the current mode is continued to be maintained;

[0017] S5. Execute mode three; determine whether to switch the mode:

[0018] If the mode is switched, step S2 is executed;

[0019] If the mode is not switched, the current mode is continued to be maintained;

[0020] S6. Execute mode four; determine whether to switch the mode:

[0021] If the mode is switched, step S2 is executed;

[0022] If the mode is not switched, the current mode is continued to be maintained.

[0023] In a preferred embodiment of the present invention, the operation control method of mode one in step S3 includes the following steps:

[0024] S31. The controller sends a control signal to the high-temperature purification module, and this control signal is to control the high-temperature purification module to work. After the high-temperature purification module works for t1 s, the next step is executed;

[0025] S32. The controller sends a control signal to the photocatalyst module, and this control signal is to control the photocatalyst module to work. After the photocatalyst module works for t2 s, the next step is executed;

[0026] S33. The controller sends a control signal to the ultraviolet module, and this control signal is to control the ultraviolet module to work. After the ultraviolet module works for t3 s, the next step is executed;

[0027] S34. The controller sends a control signal to the plasma module, and this control signal is to control the plasma module to work. After the plasma module works for t4 s, the next step is executed;

[0028] S35. The controller sends a control signal to the blower, and this control signal is to control the blower to work, and the blower works.

[0029] In a preferred embodiment of the present invention, the operation control method of mode two in step S4 includes the following steps:

[0030] S41. The controller sends a control signal to the high-temperature purification module, and this control signal is to control the high-temperature purification module to work. After the high-temperature purification module works for t1 s, the next step is executed;

[0031] S42. The controller sends a control signal to the ultraviolet module, and this control signal is to control the ultraviolet module to work. After the ultraviolet module works for t3 s, the next step is executed;

[0032] S43, the controller sends a control signal to the plasma module. This control signal is for controlling the operation of the plasma module. After the plasma module operates for t4s, proceed to the next step;

[0033] S44, the controller sends a control signal to the fan. This control signal is for controlling the operation of the fan, and the fan operates.

[0034] In a preferred embodiment of the present invention, in step S5, the operation control method of mode three includes the following steps:

[0035] S51, the controller sends a control signal to the high-temperature purification module. This control signal is for controlling the operation of the high-temperature purification module. After the high-temperature purification module operates for t1s, proceed to the next step;

[0036] S52, the controller sends a control signal to the photocatalyst module. This control signal is for the photocatalyst module to operate. After the photocatalyst module operates for t2s, proceed to the next step;

[0037] S53, the controller sends a control signal to the plasma module. This control signal is for controlling the operation of the plasma module. After the plasma module operates for t4s, proceed to the next step;

[0038] S54, the controller sends a control signal to the fan. This control signal is for controlling the operation of the fan, and the fan operates.

[0039] In a preferred embodiment of the present invention, in step S6, the operation control method of mode four includes the following steps:

[0040] S61, the controller sends a control signal to the high-temperature purification module. This control signal is for controlling the operation of the high-temperature purification module. After the high-temperature purification module operates for t1s, proceed to the next step;

[0041] S62, the controller sends a control signal to the plasma module. This control signal is for controlling the operation of the plasma module. After the plasma module operates for t4s, proceed to the next step;

[0042] S63, the controller sends a control signal to the fan. This control signal is for controlling the operation of the fan, and the fan operates.

[0043] In a preferred embodiment of the present invention, in step S2, the mode is selected through the control panel or a handheld remote control;

[0044] Or / and it also includes setting the mode intensity through a mobile phone.

[0045] In a preferred embodiment of the present invention, in step S1, the disinfection and purification equipment includes a pipeline multi-mode disinfection and purification equipment and a human-machine coexisting multi-mode disinfection and purification equipment.

[0046] In a preferred embodiment of the present invention, in step S2, the method of selecting modes one to eight includes the following steps:

[0047] S2-1, Determine whether the mode button is pressed:

[0048] If the mode button is pressed, display mode one on the display screen. The description of mode one is that the plasma module, ultraviolet module, photocatalyst module, high-temperature purification module, and fan operate; proceed to the next step;

[0049] If the mode button is not pressed, continue to wait and execute step S2-1;

[0050] S2-2, Determine whether the start button is pressed:

[0051] If the start button is pressed, execute mode one;

[0052] If the start button is not pressed, maintain the current state; execute step S2-2 or S2-3;

[0053] S2-3, Determine whether the mode button is pressed:

[0054] If the mode button is pressed, display mode two on the display screen. The description of mode two is that the plasma module, ultraviolet module, and high-temperature purification module, and fan operate; proceed to the next step;

[0055] If the mode button is not pressed, continue to wait and execute step S2-3;

[0056] S2-4, Determine whether the start button is pressed:

[0057] If the start button is pressed, execute mode two;

[0058] If the start button is not pressed, maintain the current state; execute step S2-4 or S2-5;

[0059] S2-5, Determine whether the mode button is pressed:

[0060] If the mode button is pressed, display mode three on the display screen. The description of mode three is that the plasma module, photocatalyst module, and high-temperature purification module, and fan operate; proceed to the next step;

[0061] If the mode button is not pressed, continue to wait and execute step S2-5;

[0062] S2-6, Determine whether the start button is pressed:

[0063] If the start button is pressed, execute Mode 3;

[0064] If the start button is not pressed, maintain the current state; execute Step S2-6 or S2-7;

[0065] S2-7, determine whether the mode button is pressed:

[0066] If the mode button is pressed, display Mode 4 on the display screen. The description of Mode 4 is that the plasma module, high-temperature purification module, and fan are running; execute the next step;

[0067] If the mode button is not pressed, continue to wait and execute Step S2-7;

[0068] S2-8, determine whether the start button is pressed:

[0069] If the start button is pressed, execute Mode 4;

[0070] If the start button is not pressed, maintain the current state; execute Step S2-8 or S2-9;

[0071] S2-9, determine whether the mode button is pressed:

[0072] If the mode button is pressed, display Mode 5 on the display screen. The description of Mode 5 is that the ultraviolet module, photocatalyst module, and fan are running; execute the next step;

[0073] If the mode button is not pressed, continue to wait and execute Step S2-9;

[0074] S2-10, determine whether the start button is pressed:

[0075] If the start button is pressed, execute Mode 5;

[0076] If the start button is not pressed, maintain the current state; execute Step S2-10 or S2-11;

[0077] S2-11, determine whether the mode button is pressed:

[0078] If the mode button is pressed, display Mode 6 on the display screen. The description of Mode 6 is that the ultraviolet module and fan are running; execute the next step;

[0079] If the mode button is not pressed, continue to wait and execute Step S2-11;

[0080] S2-12, determine whether the start button is pressed:

[0081] If the start button is pressed, execute Mode 6;

[0082] If the start button is not pressed, maintain the current state; execute step S2-12 or S2-13;

[0083] S2-13, determine whether the mode button is pressed:

[0084] If the mode button is pressed, display Mode Seven on the display screen. The description of Mode Seven is that the photocatalyst module and the fan are running; execute the next step;

[0085] If the mode button is not pressed, continue to wait and execute step S2-13;

[0086] S2-14, determine whether the start button is pressed:

[0087] If the start button is pressed, execute Mode Seven;

[0088] If the start button is not pressed, maintain the current state; execute step S2-14 or S2-15;

[0089] S2-15, determine whether the mode button is pressed:

[0090] If the mode button is pressed, display Mode Eight on the display screen. The description of Mode Eight is that the fan is running; execute the next step;

[0091] If the mode button is not pressed, continue to wait and execute step S2-15;

[0092] S2-16, determine whether the start button is pressed:

[0093] If the start button is pressed, execute Mode Eight;

[0094] If the start button is not pressed, maintain the current state; execute step S2-16 or S2-1.

[0095] The present invention also discloses a computer system, including:

[0096] A processor;

[0097] A memory for storing instructions executable by the processor;

[0098] Wherein, when the processor is configured to execute the executable instructions, the disinfection and purification device realizes the multi-mode intelligent disinfection and purification processing method.

[0099] The present invention also discloses a computer-readable storage medium, including:

[0100] A memory, on which a computer program is stored;

[0101] A processor, configured to execute the program in the memory to implement the multi-mode intelligent disinfection and purification processing method of the disinfection and purification device.

[0102] In a preferred embodiment of the present invention, the human-machine co-existing multi-mode disinfection and purification equipment includes a housing. A moving component for driving the entire device to move is provided below the housing. An air inlet is provided on the bottom surface of the housing, and an air outlet is provided on the top surface of the housing. A blower for realizing air flow is provided inside the housing. A filter component for removing impurities in the air and a disinfection component for disinfecting bacteria and viruses in the air are provided inside the housing; the disinfection component includes a plasma module, an ultraviolet module, and a high-temperature purification module, and the high-temperature purification module is arranged above the plasma module.

[0103] In a preferred embodiment of the present invention, the filter component includes a primary filter, a medium filter, and a high-efficiency filter resistant to high temperatures. The primary filter and the medium filter are sequentially arranged above the air inlet from bottom to top, and the high-efficiency filter is arranged below the air outlet; the plasma module and the ultraviolet module are arranged above the medium filter, and the high-temperature purification module is arranged below the high-efficiency filter.

[0104] In a preferred embodiment of the present invention, the blower is arranged below the high-temperature purification module.

[0105] In a preferred embodiment of the present invention, the housing includes a front cover and a rear shell arranged front and back. Either the left or right side of the front cover is hinged to the rear shell, and the other side is locked to the rear shell through a door lock.

[0106] In a preferred embodiment of the present invention, a plurality of installation partitions for facilitating the installation of the filter component and the disinfection component are arranged at intervals up and down inside the housing, and through holes for air circulation are provided on each installation partition. Side baffles for restricting the positions of the filter component and the disinfection component are provided on the left and right sides of some installation partitions.

[0107] In a preferred embodiment of the present invention, a control box for controlling the operation of the filter component and the disinfection component is equipped inside the housing, and a control panel for interacting with the control box is equipped on the front side surface of the housing. A junction box for supplying power to the entire device is equipped on the rear side of the housing.

[0108] In a preferred embodiment of the present invention, an air outlet net for preventing blockage after impurities enter is provided at the air outlet.

[0109] In a preferred embodiment of the present invention, the pipeline multi-mode disinfection and purification equipment includes a main frame for installing each module. An air inlet is provided on the left side of the main frame, and an air outlet is provided on the right side of the main frame. A fan for realizing air flow is provided inside the main frame, and a filter assembly for removing impurities in the air and a disinfection assembly for disinfecting bacteria and viruses in the air are provided inside the main frame; the disinfection assembly includes a plasma module, an ultraviolet module, a photocatalyst module, and a high-temperature purification module, and the high-temperature purification module is arranged on the right side of the plasma module.

[0110] In a preferred embodiment of the present invention, the filter assembly includes a primary filter, a medium filter, and a high-efficiency filter resistant to high temperatures. The primary filter and the medium filter are sequentially arranged on the right side of the air inlet from left to right, and the high-efficiency filter is arranged on the left side of the air outlet; the plasma module, the ultraviolet module, and the photocatalyst module are arranged on the right side of the medium filter, and the high-temperature purification module is arranged on the left side of the high-efficiency filter.

[0111] In a preferred embodiment of the present invention, the fan is arranged on the left side of the high-temperature purification module.

[0112] In a preferred embodiment of the present invention, a control box for controlling the operation of the filter assembly and the disinfection assembly is equipped inside the main frame, and a control panel for interacting with the control box is equipped on the front side of the main frame.

[0113] In a preferred embodiment of the present invention, a junction box for supplying power to the entire equipment is equipped on the rear side of the main frame.

[0114] In summary, due to the adoption of the above technical solutions, the present invention can filter impurities in the air through the filter assembly and disinfect bacteria and viruses through the disinfection assembly, thereby ensuring the air purification effect; and the disinfection assembly includes a plasma module, an ultraviolet module, a photocatalyst module, and a high-temperature purification module, which can not only effectively disinfect bacteria and viruses, but also eliminate the ozone generated by the plasma module through heating, thereby ensuring that the purified air will not cause harm to the human body.

[0115] The additional aspects and advantages of the present invention will be partially given in the following description, partially become obvious from the following description, or be understood through the practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0116] The above and / or additional aspects and advantages of the present invention will become obvious and easy to understand from the description of the embodiments in conjunction with the following drawings, where:

[0117] Figure 1 is a schematic block diagram of the process of the present invention.

[0118] Figure 2 For the three-dimensional view of Embodiment 1 of the present invention Figure 1 .

[0119] Figure 3 It is a schematic diagram of Embodiment 1 of the present invention.

[0120] Figure 4 For the three-dimensional view of Embodiment 1 of the present invention Figure 2 (without the rear shell).

[0121] Figure 5 For the three-dimensional view of Embodiment 2 of the present invention Figure 1 .

[0122] Figure 6 For the three-dimensional view of Embodiment 2 of the present invention Figure 2 .

[0123] Figure 7 It is a schematic diagram of Embodiment 2 of the present invention.

[0124] Figure 8 It is a schematic diagram after removing the sealing cover from the main body frame in Embodiment 2 of the present invention.

[0125] Reference numerals: air inlet - 01, air outlet - 02, housing - 10, front cover - 11, rear shell - 12, mounting partition - 13, side baffle - 14, air outlet net - 15, moving assembly - 20, fan - 30, filter assembly - 40, primary filter - 41, intermediate filter - 42, high - efficiency filter - 43, disinfection and sterilization assembly - 50, plasma module - 51, ultraviolet module - 52, high - temperature purification module - 53, control box - 60, control panel - 70, junction box - 80; maintenance groove - 03, opening groove - 04, bending and flanging - 05, main body frame - 06, sealing cover - 07, mounting plate - 08, fan mounting plate - 09, lifting lug - 16, adapter - 17, photocatalyst module - 54. Detailed implementation manners

[0126] The following details the embodiments of the present invention. The examples of the embodiments are shown in the drawings, where the same or similar reference numerals denote the same or similar elements or elements with the same or similar functions throughout. The embodiments described below with reference to the drawings are exemplary and are only used to explain the present invention and should not be construed as a limitation of the present invention.

[0127] The present invention discloses a method for realizing multi - mode intelligent disinfection and purification treatment of a disinfection and purification device, as Figure 1 shown, including the following steps:

[0128] S1, installation of the disinfection and purification device; after installing the disinfection and purification device, proceed to the next step;

[0129] S2, Mode Selection, the mode selection includes Mode 1, Mode 2, Mode 3, and Mode 4;

[0130] If Mode 1 is selected, then execute Step S3;

[0131] If Mode 2 is selected, then execute Step S4;

[0132] If Mode 3 is selected, then execute Step S5;

[0133] If Mode 4 is selected, then execute Step S6;

[0134] S3, Execute Mode 1; Determine whether to switch modes:

[0135] If switching modes, then execute Step S2;

[0136] If not switching modes, then continue to maintain the current mode;

[0137] S4, Execute Mode 2; Determine whether to switch modes:

[0138] If switching modes, then execute Step S2;

[0139] If not switching modes, then continue to maintain the current mode;

[0140] S5, Execute Mode 3; Determine whether to switch modes:

[0141] If switching modes, then execute Step S2;

[0142] If not switching modes, then continue to maintain the current mode;

[0143] S6, Execute Mode 4; Determine whether to switch modes:

[0144] If switching modes, then execute Step S2;

[0145] If not switching modes, then continue to maintain the current mode.

[0146] In a preferred embodiment of the present invention, the operation control method of Mode 1 in Step S3 includes the following steps:

[0147] S31, The controller sends a control signal to the high-temperature purification module 53, and this control signal is to control the high-temperature purification module 53 to work. After the high-temperature purification module 53 works for t1 s, execute the next step;

[0148] S32, The controller sends a control signal to the photocatalyst module 54, and this control signal is to control the photocatalyst module 54 to work. After the photocatalyst module 54 works for t2 s, execute the next step;

[0149] S33. The controller sends a control signal to the ultraviolet module 52. This control signal is for controlling the operation of the ultraviolet module 52. After the ultraviolet module 52 operates for t3 s, the next step is executed;

[0150] S34. The controller sends a control signal to the plasma module 51. This control signal is for controlling the operation of the plasma module 51. After the plasma module 51 operates for t4 s, the next step is executed;

[0151] S35. The controller sends a control signal to the blower 30. This control signal is for controlling the operation of the blower 30, and the blower 30 operates. In this embodiment, t1 to t4 are set according to the actual situation. t1 to t4 can be 1.5 to 7.5, and specifically, t1 to t4 can be 2, 2.5, 2.5, and 3.5 respectively. The above mode is the first control mode of the pipeline multi-mode disinfection and purification equipment.

[0152] In a preferred embodiment of the present invention, in step S4, the operation control method of mode two includes the following steps:

[0153] S41. The controller sends a control signal to the high-temperature purification module 53. This control signal is for controlling the operation of the high-temperature purification module 53. After the high-temperature purification module 53 operates for t1 s, the next step is executed;

[0154] S42. The controller sends a control signal to the ultraviolet module 52. This control signal is for controlling the operation of the ultraviolet module 52. After the ultraviolet module 52 operates for t3 s, the next step is executed;

[0155] S43. The controller sends a control signal to the plasma module 51. This control signal is for controlling the operation of the plasma module 51. After the plasma module 51 operates for t4 s, the next step is executed;

[0156] S44. The controller sends a control signal to the blower 30. This control signal is for controlling the operation of the blower 30, and the blower 30 operates.

[0157] In a preferred embodiment of the present invention, in step S5, the operation control method of mode three includes the following steps:

[0158] S51. The controller sends a control signal to the high-temperature purification module 53. This control signal is for controlling the operation of the high-temperature purification module 53. After the high-temperature purification module 53 operates for t1 s, the next step is executed;

[0159] S52. The controller sends a control signal to the photocatalyst module 54. This control signal is for the photocatalyst module 54 to operate. After the photocatalyst module 54 operates for t2 s, the next step is executed;

[0160] S53, the controller sends a control signal to the plasma module 51. This control signal is for controlling the operation of the plasma module 51. After the plasma module 51 operates for t4 s, proceed to the next step;

[0161] S54, the controller sends a control signal to the blower 30. This control signal is for controlling the operation of the blower 30. The blower 30 operates.

[0162] In a preferred embodiment of the present invention, in step S6, the operation control method of mode four includes the following steps:

[0163] S61, the controller sends a control signal to the high-temperature purification module 53. This control signal is for controlling the operation of the high-temperature purification module 53. After the high-temperature purification module 53 operates for t1 s, proceed to the next step;

[0164] S62, the controller sends a control signal to the plasma module 51. This control signal is for controlling the operation of the plasma module 51. After the plasma module 51 operates for t4 s, proceed to the next step;

[0165] S63, the controller sends a control signal to the blower 30. This control signal is for controlling the operation of the blower 30. The blower 30 operates.

[0166] In a preferred embodiment of the present invention, there is also mode five. The operation control method of mode five includes the following steps:

[0167] S71, the controller sends a control signal to the photocatalyst module 54. This control signal is for the photocatalyst module 54 to operate. After the photocatalyst module 54 operates for t2 s, proceed to the next step;

[0168] S72, the controller sends a control signal to the ultraviolet module 52. This control signal is for controlling the operation of the ultraviolet module 52. After the ultraviolet module 52 operates for t3 s, proceed to the next step;

[0169] S73, the controller sends a control signal to the blower 30. This control signal is for controlling the operation of the blower 30. The blower 30 operates.

[0170] In a preferred embodiment of the present invention, there is also mode six. The operation control method of mode six includes the following steps:

[0171] S81, the controller sends a control signal to the ultraviolet module 52. This control signal is for controlling the operation of the ultraviolet module 52. After the ultraviolet module 52 operates for t3 s, proceed to the next step;

[0172] S82, the controller sends a control signal to the blower 30. This control signal is for controlling the operation of the blower 30. The blower 30 operates.

[0173] In a preferred embodiment of the present invention, there is also a Mode Seven, and the operation control method of Mode Seven includes the following steps:

[0174] S91. The controller sends a control signal to the photocatalyst module 54. This control signal makes the photocatalyst module 54 work. After the photocatalyst module 54 works for t2 s, the next step is executed;

[0175] S92. The controller sends a control signal to the blower 30. This control signal controls the blower 30 to work, and the blower 30 works.

[0176] In a preferred embodiment of the present invention, there is also a Mode Eight, and the operation control method of Mode Eight includes the following steps:

[0177] The controller sends a control signal to the blower 30. This control signal controls the blower 30 to work, and the blower 30 works.

[0178] In a preferred embodiment of the present invention, when switching from mode i to mode j, where i and j are one of one to eight and i≠j, it is only necessary to make the corresponding module work or not work. For example, when switching from mode one to mode two, the controller sends a control signal to the photocatalyst module 54, and the control signal is that the photocatalyst module 54 does not work. After the photocatalyst module 54 receives the control signal sent by the controller, the photocatalyst module 54 does not work; when switching from mode two to mode one, the controller sends a control signal to the photocatalyst module 54, and the control signal is that the photocatalyst module 54 works. After the photocatalyst module 54 receives the control signal sent by the controller, the photocatalyst module 54 works; when switching from mode one to mode five, the controller first sends a control signal to the plasma module 51, and the control signal is that the plasma module 51 does not work. After the plasma module 51 receives the control signal sent by the controller, the plasma module 51 does not work; the controller then sends a control signal to the high-temperature purification module 53, and the control signal is that the high-temperature purification module 53 does not work. After the high-temperature purification module 53 receives the control signal sent by the controller, the high-temperature purification module 53 does not work; for another example, when switching from mode five to mode one, the controller first sends a control signal to the high-temperature purification module 53, and the control signal is that the high-temperature purification module 53 works. After the high-temperature purification module 53 receives the control signal sent by the controller, the high-temperature purification module 53 works; the controller then sends a control signal to the plasma module 51, and the control signal is that the plasma module 51 works. After the plasma module 51 receives the control signal sent by the controller, the plasma module 51 works; for another example, when switching from mode six to mode seven, the controller first sends a control signal to the photocatalyst module, and the control signal is that the photocatalyst module works. After the photocatalyst module receives the control signal sent by the controller, the photocatalyst module works; the controller then sends a control signal to the ultraviolet module, and the control signal is that the ultraviolet module does not work. After the ultraviolet module receives the control signal sent by the controller, the ultraviolet module does not work.

[0179] In a preferred embodiment of the present invention, in step S2, the mode is selected through a control panel or a handheld remote control.

[0180] Modes one to eight are the working modes of the pipeline multi-mode disinfection and purification equipment.

[0181] Modes two, four, six, and eight are the working modes of the human-machine coexistence multi-mode disinfection and purification equipment; among them, the working mode of the human-machine coexistence multi-mode disinfection and purification equipment generates fresh air from bottom to top to better perform disinfection and purification.

[0182] Preferably, a two-dimensional code is printed on the control panel or the handheld remote control. By scanning the two-dimensional code with a mobile phone, the control interface can be entered. The control interface includes a virtual button area and a display area. The virtual button area includes a mode virtual button, a start virtual button, a stop virtual button, an up virtual button, a down virtual button, a left virtual button, and a right virtual button. At this time, the wireless transceiver module also includes a WiFi module to realize mobile phone control. After setting the mode intensity, a password needs to be input to confirm. The specific operation is as follows:

[0183] First step, obtain the input password and convert the obtained password into a two-dimensional code pattern;

[0184] Second step, extract the two-dimensional code pattern in the order of white as 0 and black as 1 from left to right and top to bottom to obtain a password string;

[0185] Third step, convert the password string into hexadecimal, and transmit the hexadecimal password string and the modified mode intensity parameter to the controller connected to the control panel. After receiving the hexadecimal password string and the modified mode intensity parameter, the control panel executes the next step;

[0186] Fourth step, convert the received hexadecimal password string into binary, and mark the unmarked two-dimensional code pattern (without black and white colors) in the order of 0 as white and 1 as black from left to right and top to bottom to obtain a new two-dimensional code pattern;

[0187] Fifth step, scan the new two-dimensional code pattern to obtain a verification password;

[0188] If the verification password is consistent with the password stored in the controller, the controller replaces the previous mode intensity parameter with the received mode intensity parameter;

[0189] Otherwise, it is not replaced. Such an operation can ensure the security of the mode intensity parameter change and prevent arbitrary changes.

[0190] In a preferred embodiment of the present invention, the installation of the disinfection and purification equipment in step S1 is as follows:

[0191] If it is a pipeline multi-mode disinfection and purification equipment, install the pipeline multi-mode disinfection and purification equipment on the pipeline through an adapter; lift the pipeline multi-mode disinfection and purification equipment through a lifting lug.

[0192] If it is a human-machine coexistence multi-mode disinfection and purification equipment, place the human-machine coexistence multi-mode disinfection and purification equipment in the room;

[0193] Connect the power supply through a junction box.

[0194] In a preferred embodiment of the present invention, the method of selecting modes one to eight in step S2 includes the following steps:

[0195] S2-1, Determine whether the mode button is pressed:

[0196] If the mode button is pressed, display mode one on the display screen. The description of mode one is that the plasma module 51, the ultraviolet module 52, the photocatalyst module 54, the high-temperature purification module 53, and the fan 30 are running; proceed to the next step;

[0197] If the mode button is not pressed, continue to wait and execute step S2-1;

[0198] S2-2, Determine whether the start button is pressed:

[0199] If the start button is pressed, execute mode one; proceed to the next step;

[0200] If the start button is not pressed, maintain the current state; execute step S2-2 or S2-3;

[0201] S2-3, Determine whether the mode button is pressed:

[0202] If the mode button is pressed, display mode two on the display screen. The description of mode two is that the plasma module 51, the ultraviolet module 52, the high-temperature purification module 53, and the fan 30 are running; proceed to the next step;

[0203] If the mode button is not pressed, continue to wait and execute step S2-3;

[0204] S2-4, Determine whether the start button is pressed:

[0205] If the start button is pressed, execute mode two; proceed to the next step;

[0206] If the start button is not pressed, maintain the current state; execute step S2-4 or S2-5;

[0207] S2-5, Determine whether the mode button is pressed:

[0208] If the mode button is pressed, display mode three on the display screen. The description of mode three is that the plasma module 51, the photocatalyst module 54, the high-temperature purification module 53, and the fan 30 are running; proceed to the next step;

[0209] If the mode button is not pressed, continue to wait and execute step S2-5;

[0210] S2-6, Determine whether the start button is pressed:

[0211] If the start button is pressed, execute mode three; proceed to the next step;

[0212] If the start button is not pressed, the current state is maintained; step S2-6 or S2-7 is executed;

[0213] S2-7, determine whether the mode button is pressed:

[0214] If the mode button is pressed, mode four is displayed on the display screen. The description of mode four is that the plasma module 51, the high-temperature purification module 53, and the fan 30 are running; execute the next step;

[0215] If the mode button is not pressed, continue to wait and execute step S2-7;

[0216] S2-8, determine whether the start button is pressed:

[0217] If the start button is pressed, execute mode four; execute the next step;

[0218] If the start button is not pressed, the current state is maintained; step S2-8 or S2-9 is executed;

[0219] S2-9, determine whether the mode button is pressed:

[0220] If the mode button is pressed, mode five is displayed on the display screen. The description of mode five is that the ultraviolet module 52, the photocatalyst module 54, and the fan 30 are running; execute the next step;

[0221] If the mode button is not pressed, continue to wait and execute step S2-9;

[0222] S2-10, determine whether the start button is pressed:

[0223] If the start button is pressed, execute mode five; execute the next step;

[0224] If the start button is not pressed, the current state is maintained; step S2-10 or S2-11 is executed;

[0225] S2-11, determine whether the mode button is pressed:

[0226] If the mode button is pressed, mode six is displayed on the display screen. The description of mode six is that the ultraviolet module 52 and the fan 30 are running; execute the next step;

[0227] If the mode button is not pressed, continue to wait and execute step S2-11;

[0228] S2-12, determine whether the start button is pressed:

[0229] If the start button is pressed, execute mode six; execute the next step;

[0230] If the start button is not pressed, the current state is maintained; step S2-12 or S2-13 is executed;

[0231] S2-13, determine whether the mode button is pressed:

[0232] If the mode button is pressed, mode seven is displayed on the display screen. The description of mode seven is that the photocatalyst module 54 and the fan 30 are running; execute the next step;

[0233] If the mode button is not pressed, continue to wait and execute step S2-13;

[0234] S2-14, determine whether the start button is pressed:

[0235] If the start button is pressed, execute mode seven; execute the next step;

[0236] If the start button is not pressed, the current state is maintained; execute step S2-14 or S2-15;

[0237] S2-15, determine whether the mode button is pressed:

[0238] If the mode button is pressed, mode eight is displayed on the display screen. The description of mode eight is that the fan 30 is running; execute the next step;

[0239] If the mode button is not pressed, continue to wait and execute step S2-15;

[0240] S2-16, determine whether the start button is pressed:

[0241] If the start button is pressed, execute mode eight; execute step S2-1;

[0242] If the start button is not pressed, the current state is maintained; execute step S2-16 or S2-1.

[0243] The present invention also discloses a computer system, including:

[0244] A processor;

[0245] A memory for storing processor-executable instructions;

[0246] Wherein, when the processor is configured to execute the executable instructions, the disinfection and purification device realizes the multi-mode intelligent disinfection and purification processing method.

[0247] The present invention also discloses a computer-readable storage medium, including:

[0248] A memory, on which a computer program is stored;

[0249] A processor for executing the program in the memory to implement the multi-mode intelligent disinfection and purification processing method of the disinfection and purification device.

[0250] The present invention also discloses a multi-mode disinfection and purification equipment for human-machine coexistence, such as Figures 2 to 4 shown, mainly composed of a housing 10, a moving component 20, a fan 30, a filter component 40, and a disinfection component 50. Among them, the moving component 20 is arranged below the housing 10 and is used to drive the entire device to move. An air inlet 01 is arranged on the bottom surface of the housing 10, and an air outlet 02 is arranged on the top surface of the housing. The fan 30 is arranged inside the housing 10 and is used to realize the air inlet from the air inlet 01 and the air outlet from the air outlet 02. Both the filter component 40 and the disinfection component 50 are arranged inside the housing 10. The filter component 40 is used to remove impurities in the air, and the disinfection component 50 is used to disinfect bacteria and viruses in the air. Among them, the walking component adopts a universal wheel with a braking function in the prior art.

[0251] The disinfection component includes a plasma module 51, an ultraviolet module 52, and a high-temperature purification module 53, and the high-temperature purification module 53 is arranged above the plasma module 51, that is, the high-temperature purification module 53 is arranged behind the plasma module 51 along the air flow direction. Among them, the control end of the plasma module 51 is connected to the plasma module control end of the controller, the control end of the ultraviolet module 52 is connected to the ultraviolet module control end of the controller, and the control end of the high-temperature purification module 53 is connected to the high-temperature purification module control end of the controller.

[0252] The filter component 40 includes a primary filter 41, a medium filter 42, and a high-efficiency filter 43 resistant to high temperatures. The primary filter 41 and the medium filter 42 are arranged above the air inlet 01 from bottom to top in sequence, and the high-efficiency filter 43 is arranged below the air outlet 02. The plasma module 51 and the ultraviolet module 52 are arranged above the medium filter 42, and the high-temperature purification module 53 is arranged below the high-efficiency filter 43. That is, the primary filter 41, the medium filter, the plasma module 51, the ultraviolet module 52, the high-temperature purification module 53, and the high-efficiency filter 43 are arranged from bottom to top in sequence.

[0253] Preferably, the medium filter adopts F7 grade, the high-efficiency filter adopts H14 grade, the high-temperature purification module includes a heat-insulating and heat-preserving housing with heat-insulating and heat-preserving functions. There are several heating tubes at the middle position inside the heat-insulating and heat-preserving housing, and a heating mesh is arranged near the upper end inside the heat-insulating and heat-preserving housing to ensure that the air can be evenly heated.

[0254] Preferably, the fan 30 is arranged below the high-temperature purification module 53, so that the air passing through the fan is not heated air, which is convenient for protecting the service life of the fan. The control end of the fan 30 is connected to the fan control end of the controller.

[0255] The disinfection and purification process of the whole device is as follows: After the air enters from the air inlet, it first passes through the primary filter to remove larger impurities such as hair, and then enters the intermediate filter to remove smaller impurities. Then, through the combined action of plasma and ultraviolet rays, the sterilization and disinfection effect is achieved, and then it enters the high-temperature purification module. Through high temperature, not only further sterilization and disinfection are achieved, but also the ozone generated in the plasma module can be effectively removed. Finally, the disinfected and purified air is further filtered by the high-efficiency filter. Therefore, the whole disinfection and purification process can not only achieve a high level of purification effect, but also ensure that no harmful gases to the human body are generated.

[0256] To facilitate the installation of each module, a number of installation partitions 13 for facilitating the installation of the filter components and disinfection components are arranged at intervals up and down in the housing 10, and through holes for air circulation are provided on each installation partition 13. Side baffles 14 for restricting the positions of the filter components and disinfection components are arranged on the left and right sides of some installation partitions 13. Specifically, installation partitions for supporting the primary filter are arranged below the primary filter, below the plasma module, above the ultraviolet module, above the fan, above the high-temperature purification module, and above the high-efficiency filter. Side baffles are arranged on the installation partitions below the primary filter, below the plasma module, above and below the high-efficiency filter. And on the side baffles on both sides of the primary filter, intermediate installation plates for facilitating the installation of the intermediate filter and intermediate side baffles for restricting the intermediate filter are provided, so that both the primary filter and the intermediate filter can be installed in the housing in a pull-out manner, thus facilitating the cleaning of the primary filter and the intermediate filter.

[0257] At the same time, the housing 10 includes a front cover 11 and a rear shell 12 arranged front and back, and either the left or right side of the front cover 11 is hinged to the rear shell 12, and the other side is locked to the rear shell 12 through a door lock, so that the front cover can be opened as needed to maintain or replace each module.

[0258] Since the air outlet is arranged at the upper end of the housing, preferably, an air outlet net 15 for preventing blockage caused by impurities entering is arranged at the air outlet 02.

[0259] For the convenience of the operation of each module, a control box 60 for controlling the operation of the filtering component and the disinfection and sterilization component is provided inside the housing 10. A controller is provided inside the control box 60, and a control panel 70 for interacting with the control box is provided on the front side of the housing 10. A wireless transceiver module connected to the controller is provided inside the control panel 70, and the wireless transceiver module is used to receive instructions from a handheld remote control; and start buttons, mode buttons, stop buttons and a display screen for a fan and various modes are provided on the control panel and the handheld remote control. A remote controller and a remote control wireless transceiver module are provided inside the handheld remote control. When it is the control panel, the data terminal of the start button is connected to the start button data acquisition terminal of the controller, the data terminal of the stop button is connected to the stop button data acquisition terminal of the controller, the data terminal of the mode button is connected to the mode button data acquisition terminal of the controller, and the display terminal of the display screen is connected to the display screen display terminal of the controller; when it is the handheld remote control, the data terminal of the start button is connected to the start button data acquisition terminal of the remote controller, the data terminal of the stop button is connected to the stop button data acquisition terminal of the remote controller, the data terminal of the mode button is connected to the mode button data acquisition terminal of the remote controller, and the display terminal of the display screen is connected to the display screen display terminal of the remote controller; the data terminal of the remote control wireless transceiver module is connected to the remote control wireless transceiver module data terminal of the remote controller; upper buttons, lower buttons, left buttons and right buttons can also be provided on the control panel and the handheld remote control, and the setting of the mode intensity can be realized by cooperating the up, down, left and right buttons with the mode button; where the mode can be that the plasma module, the ultraviolet module and the high-temperature purification module all work, or only the high-temperature purification module works. The control box adopts a module with functions such as information transmission, information reception, and information processing in the prior art, and the control panel adopts a module with a human-computer interaction function and a display screen in the prior art. To enable the entire device to match the access of various power supplies, a junction box 80 for supplying power to the entire device is provided on the rear side of the housing 10, and the junction box is provided with an air circuit breaker for protecting the device circuit.

[0260] The present invention also discloses a pipeline multi-mode disinfection and purification device, as Figures 5 to 8 shown, which mainly consists of a main body frame 06, a filter component 40 and a disinfection and sterilization component 50. Among them, the main body frame 06 is welded by multiple sheet metal parts and can be used for installing each module. An air inlet 01 is provided on the left side of the main body frame 06, and an air outlet 02 is provided on the right side of the main body frame 06. The filter component 40 and the disinfection and sterilization component 50 are both arranged inside the main body frame. The filter component 40 is used to remove impurities in the air, and the disinfection and sterilization component 50 is used to disinfect and sterilize bacteria and viruses in the air.

[0261] The disinfection and purification component includes a plasma module 51, an ultraviolet module 52, a photocatalyst module 54, and a high-temperature purification module 53. The high-temperature purification module 53 is arranged on the right side of the plasma module 51, that is, the high-temperature purification module 53 is arranged on the rear side of the plasma module 51 along the air flow direction. Among them, the control end of the plasma module 51 is connected to the plasma module control end of the controller, the control end of the ultraviolet module 52 is connected to the ultraviolet module control end of the controller, the control end of the high-temperature purification module 53 is connected to the high-temperature purification module control end of the controller; the control end of the photocatalyst module 54 is connected to the photocatalyst module control end of the controller.

[0262] The filter component 40 includes a primary filter 41, a secondary filter 42, and a high-efficiency filter 43 with high temperature resistance. The primary filter 41 and the secondary filter 42 are arranged on the right side of the air inlet 01 in sequence from left to right, and the high-efficiency filter 43 is arranged on the left side of the air outlet 02. The plasma module 51, the ultraviolet module 52, and the photocatalyst module 54 are arranged on the right side of the secondary filter 42, and the high-temperature purification module 53 is arranged on the left side of the high-efficiency filter 43. That is, the primary filter 41, the secondary filter, the plasma module 51, the ultraviolet module 52, the photocatalyst module 54, the high-temperature purification module 53, and the high-efficiency filter 43 are arranged in sequence from left to right.

[0263] Preferably, the secondary filter adopts the F7 grade, the high-efficiency filter adopts the H14 grade, and the high-temperature purification module includes a heat-insulating and heat-preserving housing (not shown in the figure) with heat-insulating and heat-preserving functions. There are several heating tubes at the middle position inside the heat-insulating and heat-preserving housing, and a heating net is arranged near the upper end inside the heat-insulating and heat-preserving housing to ensure that the air can be heated evenly.

[0264] Preferably, the fan 30 is arranged on the left side of the high-temperature purification module 53, so that the air passing through the fan is not heated air, which is convenient for protecting the service life of the fan. The control end of the fan 30 is connected to the fan control end of the controller.

[0265] The disinfection and purification process of the whole device is as follows: After the air enters from the air inlet, it first passes through the primary filter to remove larger impurities such as hair, then enters the secondary filter to remove smaller impurities, and then through the combined action of plasma, ultraviolet, and photocatalyst to achieve the effect of sterilization and disinfection, and then enters the high-temperature purification module. Through high temperature, not only further sterilization and disinfection are achieved, but also the ozone generated in the plasma module can be effectively removed. Finally, the disinfected air is further filtered through the high-efficiency filter. Therefore, the whole disinfection and purification process can not only achieve a high level of purification effect, but also ensure that no harmful gases to the human body are generated.

[0266] To facilitate the operation of each module, a control box 60 for controlling the operation of the filtering component and the disinfection and sterilization component is provided within the main body frame 06. A controller is provided within the control box 60, and a control panel 70 for interacting with the control box is provided on either the front or rear side of the main body frame 06. Preferably, the control panel 70 is on the same side as the sealing cover. A wireless transceiver module connected to the controller is provided within the control panel 70, and the wireless transceiver module is used to receive instructions from a handheld remote control. Additionally, a blower, start buttons, mode buttons, stop buttons, and a display screen for various modes are provided on the control panel and the handheld remote control. A remote controller and a remote control wireless transceiver module are provided within the handheld remote control. When it is the control panel, the data terminal of the start button is connected to the start button data acquisition terminal of the controller, the data terminal of the stop button is connected to the stop button data acquisition terminal of the controller, the data terminal of the mode button is connected to the mode button data acquisition terminal of the controller, and the display terminal of the display screen is connected to the display screen display terminal of the controller. When it is the handheld remote control, the data terminal of the start button is connected to the start button data acquisition terminal of the remote controller, the data terminal of the stop button is connected to the stop button data acquisition terminal of the remote controller, the data terminal of the mode button is connected to the mode button data acquisition terminal of the remote controller, and the display terminal of the display screen is connected to the display screen display terminal of the remote controller. The data terminal of the remote control wireless transceiver module is connected to the data terminal of the remote controller's remote control wireless transceiver module. Additionally, up buttons, down buttons, left buttons, and right buttons can be provided on the control panel and the handheld remote control, and the mode intensity can be set by cooperating the up, down, left, and right buttons with the mode button. The mode can be such that the plasma module, ultraviolet module, photocatalyst module, and high-temperature purification module all operate, or only the high-temperature purification module operates, or the plasma module, ultraviolet module, and high-temperature purification module all operate. The control box uses modules in the prior art with functions such as information transmission, information reception, and information processing, and the control panel uses modules in the prior art with human-computer interaction functions and a display screen. To enable the entire device to match the access of various power supplies, a junction box 80 for powering the entire device is provided on the main body frame, and the junction box is equipped with an air circuit breaker for protecting the device circuit.

[0267] To facilitate the installation and disassembly of each module, a number of maintenance slots 03 for facilitating the cleaning and maintenance of the disinfection and purification module are provided at intervals on either the front or rear side of the main body frame 06, and a sealing cover 07 fixed to the main body frame 06 by a bolt assembly is provided on the maintenance slot 03. Preferably, all the sealing covers are provided on the same side.

[0268] The bolt assembly includes a nut and a bolt. The nut is welded to the inner side of the main body frame, and the bolt passes through the sealing cover and the main body frame from outside to inside and is tightened on the nut. Preferably, a spring washer and a gasket are provided between the bolt and the sealing cover.

[0269] An installation groove for installing each disinfection and purification module is provided inside the main body frame 06, and the installation groove is formed by installation plates 08 that are arranged opposite to each other up and down and are in a U shape, so that each module can be installed in the installation groove by means of plug-in installation, thereby facilitating the cleaning of each disinfection module, especially the filtration module.

[0270] Preferably, a fan installation plate 09 for installing a fan is provided inside the main body frame 06, and an air passing opening is provided at the position corresponding to the outlet of the fan on the fan installation plate 09. Adapter joints 17 for facilitating connection with other pipes are provided on both the left and right sides of the main body frame 06.

[0271] Preferably, hoisting lugs 16 for facilitating the hoisting of the entire device are provided at both the front and rear ends of the top surface of the main body frame 06. All the hoisting lugs 16 are horizontally arranged, and an opening groove 04 is provided at one end of the hoisting lug 16 away from the main body frame 06. Bent flanges 05 with opposite directions are provided on both the left and right sides of the opening groove 04, and the bent flanges 05 of the two hoisting lugs 16 corresponding to each other in the front and rear directions are in opposite directions. Through the setting of the opening groove, it is convenient for the lifting rope of the hoisting device to be clamped, and at the same time, the setting of the bent flanges can effectively prevent the lifting rope from slipping out.

[0272] Although the embodiments of the present invention have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the claims and their equivalents.

Claims

1. A method for realizing multi-mode intelligent disinfection and purification treatment by a disinfection and purification device, characterized in that It includes the following steps: S1, Installation of disinfection and purification equipment; After installing the disinfection and purification equipment, proceed to the next step; S2, Mode selection, and the modes include Mode 1, Mode 2, Mode 3, and Mode 4; If Mode 1 is selected, then execute Step S3; If Mode 2 is selected, then execute Step S4; If Mode 3 is selected, then execute Step S5; If Mode 4 is selected, then execute Step S6; S3, Execute Mode 1; Determine whether to switch modes: If switching modes, then execute Step S2; If not switching modes, then continue to maintain the current mode; S4, Execute Mode 2; Determine whether to switch modes: If switching modes, then execute Step S2; If not switching modes, then continue to maintain the current mode; S5, Execute Mode 3; Determine whether to switch modes: If switching modes, then execute Step S2; If not switching modes, then continue to maintain the current mode; S6, Execute Mode 4; Determine whether to switch modes: If switching modes, then execute Step S2; If not switching modes, then continue to maintain the current mode.

2. The multi-mode intelligent disinfection and purification processing method implemented by the disinfection and purification device according to claim 1, characterized in that, The operation control method of Mode 1 in Step S3 includes the following steps: S31, The controller sends a control signal to the high-temperature purification module (53), and this control signal is to control the high-temperature purification module (53) to work. After the high-temperature purification module (53) works for t1 s, proceed to the next step; S32, The controller sends a control signal to the photocatalyst module (54), and this control signal is to control the photocatalyst module (54) to work. After the photocatalyst module (54) works for t2 s, proceed to the next step; S33, The controller sends a control signal to the ultraviolet module (52), and this control signal is to control the ultraviolet module (52) to work. After the ultraviolet module (52) works for t3 s, proceed to the next step; S34, The controller sends a control signal to the plasma module (51), and this control signal is to control the plasma module (51) to work. After the plasma module (51) works for t4 s, proceed to the next step; S35, The controller sends a control signal to the fan (30), and this control signal is to control the fan (30) to work, and the fan (30) works.

3. The multi-mode intelligent disinfection and purification processing method implemented by the disinfection and purification device according to claim 1, characterized in that, The operation control method of Mode 2 in Step S4 includes the following steps: S41, The controller sends a control signal to the high-temperature purification module (53), and this control signal is to control the high-temperature purification module (53) to work. After the high-temperature purification module (53) works for t1 s, proceed to the next step; S42, The controller sends a control signal to the ultraviolet module (52), and this control signal is to control the ultraviolet module (52) to work. After the ultraviolet module (52) works for t3 s, proceed to the next step; S43, The controller sends a control signal to the plasma module (51), and this control signal is to control the plasma module (51) to work. After the plasma module (51) works for t4 s, proceed to the next step; S44, The controller sends a control signal to the fan (30), and this control signal is to control the fan (30) to work, and the fan (30) works.

4. The multi-mode intelligent disinfection and purification processing method implemented by the disinfection and purification equipment according to claim 1, characterized in that, The operation control method of Mode 3 in Step S5 includes the following steps: S51. The controller sends a control signal to the high-temperature purification module (53). This control signal is for controlling the operation of the high-temperature purification module (53). After the high-temperature purification module (53) operates for t1 s, the next step is executed; S52. The controller sends a control signal to the photocatalyst module (54). This control signal is for controlling the operation of the photocatalyst module (54). After the photocatalyst module (54) operates for t2 s, the next step is executed; S53. The controller sends a control signal to the plasma module (51). This control signal is for controlling the operation of the plasma module (51). After the plasma module (51) operates for t4 s, the next step is executed; S54. The controller sends a control signal to the fan (30). This control signal is for controlling the operation of the fan (30). The fan (30) operates.

5. The multi-mode intelligent disinfection and purification processing method implemented by the disinfection and purification device according to claim 1, characterized in that In step S6, the operation control method of mode four includes the following steps: S61. The controller sends a control signal to the high-temperature purification module (53). This control signal is for controlling the operation of the high-temperature purification module (53). After the high-temperature purification module (53) operates for t1 s, the next step is executed; S62. The controller sends a control signal to the plasma module (51). This control signal is for controlling the operation of the plasma module (51). After the plasma module (51) operates for t4 s, the next step is executed; S63. The controller sends a control signal to the fan (30). This control signal is for controlling the operation of the fan (30). The fan (30) operates.

6. The multi-mode intelligent disinfection and purification processing method implemented by the disinfection and purification equipment according to claim 1, characterized in that, In step S2, the mode is selected through the control panel or the handheld remote control; Or / and it also includes setting the mode intensity through the mobile phone.

7. The multi-mode intelligent disinfection and purification processing method implemented by the disinfection and purification equipment according to claim 1, characterized in that In step S1, the disinfection and purification equipment includes a pipeline multi-mode disinfection and purification equipment and a human-machine coexistence multi-mode disinfection and purification equipment.

8. The multi-mode intelligent disinfection and purification processing method implemented by the disinfection and purification equipment according to claim 1, characterized in that, In step S2, the method of selecting modes one to eight includes the following steps: S2-1. Determine whether the mode button is pressed: If the mode button is pressed, mode one is displayed on the display screen. The description of mode one is that the plasma module (51), the ultraviolet module (52), the photocatalyst module (54), the high-temperature purification module (53), and the fan (30) operate; the next step is executed; If the mode button is not pressed, continue to wait and execute step S2-1; S2-2. Determine whether the start button is pressed: If the start button is pressed, execute mode one; If the start button is not pressed, maintain the current state; execute step S2-2 or S2-3; S2-3. Determine whether the mode button is pressed: If the mode button is pressed, mode two is displayed on the display screen. The description of mode two is that the plasma module (51), the ultraviolet module (52), and the high-temperature purification module (53), and the fan (30) operate; the next step is executed; If the mode button is not pressed, continue to wait and execute step S2-3; S2-4. Determine whether the start button is pressed: If the start button is pressed, execute mode two; If the start button is not pressed, maintain the current state; execute step S2-4 or S2-5; S2-5. Determine whether the mode button is pressed: If the mode button is pressed, Mode 3 will be displayed on the display screen. The description of Mode 3 is that the plasma module (51), photocatalyst module (54), high-temperature purification module (53) and the fan (30) are running; proceed to the next step; If the mode button is not pressed, continue to wait and execute Step S2-5; S2-6, Determine whether the start button is pressed: If the start button is pressed, execute Mode 3; If the start button is not pressed, maintain the current state; execute Step S2-6 or S2-7; S2-7, Determine whether the mode button is pressed: If the mode button is pressed, Mode 4 will be displayed on the display screen. The description of Mode 4 is that the plasma module (51), high-temperature purification module (53) and the fan (30) are running; proceed to the next step; If the mode button is not pressed, continue to wait and execute Step S2-7; S2-8, Determine whether the start button is pressed: If the start button is pressed, execute Mode 4; If the start button is not pressed, maintain the current state; execute Step S2-8 or S2-9; S2-9, Determine whether the mode button is pressed: If the mode button is pressed, Mode 5 will be displayed on the display screen. The description of Mode 5 is that the ultraviolet module (52), photocatalyst module (54) and the fan (30) are running; proceed to the next step; If the mode button is not pressed, continue to wait and execute Step S2-9; S2-10, Determine whether the start button is pressed: If the start button is pressed, execute Mode 5; If the start button is not pressed, maintain the current state; execute Step S2-10 or S2-11; S2-11, Determine whether the mode button is pressed: If the mode button is pressed, Mode 6 will be displayed on the display screen. The description of Mode 6 is that the ultraviolet module (52) and the fan (30) are running; proceed to the next step; If the mode button is not pressed, continue to wait and execute Step S2-11; S2-12, Determine whether the start button is pressed: If the start button is pressed, execute Mode 6; If the start button is not pressed, maintain the current state; execute Step S2-12 or S2-13; S2-13, Determine whether the mode button is pressed: If the mode button is pressed, Mode 7 will be displayed on the display screen. The description of Mode 7 is that the photocatalyst module (54) and the fan (30) are running; proceed to the next step; If the mode button is not pressed, continue to wait and execute Step S2-13; S2-14, Determine whether the start button is pressed: If the start button is pressed, execute Mode 7; If the start button is not pressed, maintain the current state; execute Step S2-14 or S2-15; S2-15, Determine whether the mode button is pressed: If the mode button is pressed, Mode 8 will be displayed on the display screen. The description of Mode 8 is that the fan (30) is running; proceed to the next step; If the mode button is not pressed, continue to wait and execute Step S2-15; S2-16, Determine whether the start button is pressed: If the start button is pressed, execute Mode 8; If the start button is not pressed, maintain the current state; execute Step S2-16 or S2-1.

9. A computer system, characterized in that, Including: A processor; A memory for storing processor-executable instructions; Wherein, when the processor is configured to execute the executable instructions, it implements the multi-mode intelligent disinfection and purification processing method of the disinfection and purification device according to any one of claims 1 to 8.

10. A computer-readable storage medium, characterized in that, It includes: A memory storing a computer program thereon; A processor for executing the program in the memory to implement the multi-mode intelligent disinfection and purification processing method of the disinfection and purification device according to any one of claims 1 to 8.

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