TW201521619A - An active venting system and devices incorporating active venting system - Google Patents

Abstract

An active venting system for venting air from devices covering mouth and nose, said active venting system comprises: a power source; a blower coupled to the power source; and an electronic device or a printed circuit board coupled to the blower, wherein the blower is turned on or off by the electronic device or printed circuit board to vent exhaled or dead air from the respirator body. Also, provided are respiratory devices comprising the active venting system.

Description

Active ventilation system and equipment containing an active ventilation system

The present disclosure generally relates to an Active Venting System (AVS) for use in protective equipment and respiratory equipment (eg, masks, helmets) that cover the wearer's nose and face. In particular, the present invention relates to a breathing apparatus having an active venting system for effectively removing exhaled air during each breathing cycle.

Protective equipment and respiratory devices (such as masks, helmets, etc.) that cover the nose and face of the wearer require a ventilation system during their operation to remove warm and moist exhaled air from within them. The ventilation system may or may not have forced ventilation.

US 20110083255 discloses a ventilation system for a sports helmet having an air venting opening, wherein at least some of the venting openings have a cover that at least partially covers the venting opening. The cover partially or completely releases the vent opening through the tilt of the rotating shaft. When the lid is actuated, one end of the lid is raised above the surface of the surrounding helmet while the other end of the lid is lowered below the level of the surrounding helmet surface. Therefore, the air inside the sports helmet is discharged by the user, rather than through forced ventilation.

N95 masks and respirators are used as protective gear for airborne contaminants such as smog and flu. Commercially available non-forced ventilation products are categorized into two main categories: disposable disposable respirators and reusable respirators with removable filter cartridges. These products without forced ventilation are usually equipped with a one-way combined valve (passive valve) to allow exhaled air to escape. However, these passive valves are highly effective in removing warm and humid exhaled air. It depends on the depth and pressure of breathing.

Typically, exhaled air is forced through the filter due to the limited window of the one-way valve. As warm exhaled air flows through the cold filter, the moisture in the warm exhaled air condenses, partially or completely blocking the air passages in the filter. The reduction in the size of the air passage directly increases the air resistance, and the increase in air resistance causes difficulty in breathing. In addition, the lack of a proper exhalation path causes hot and humid exhaled air to circulate within the body of the respirator, thus causing discomfort to the user.

To overcome this problem, a respirator with forced air or air supply powered by a fan and/or blower is available. These devices are designed to supply large air streams of up to 800 L/min to suit the individual's breathing needs. These products are typically bulky and require a large power supply to maintain long air flow and pressure. To meet the high airflow rate, the power supply is typically external and not part of the body of the respirator. Therefore, these products are not suitable for everyday use by the general public.

Accordingly, there is a need for an active ventilation system that can be comfortably used for extended periods of time when incorporated into a respiratory or protective device and that is suitable for the general public. In addition, such devices are required to minimize contact with the face of hot and humid exhaled air that causes discomfort to the wearer, and to have effective means of expelling heat and moisture during each exhalation cycle.

The following summary is provided to facilitate an understanding of some of the innovative features of the disclosed embodiments and is not intended to be exhaustive. A full understanding of various aspects of the embodiments herein can be obtained by considering the entire specification, the scope of the claims, the drawings and the abstract.

Accordingly, it is an object of the disclosed embodiments to provide an active venting system for venting air from a device that covers the mouth and nose, the active venting system including: a power source; a blower coupled to the power source; and coupled to An electronic device or printed circuit board of the blower, wherein the blower is turned on or off by the electronic device or printed circuit board to discharge exhaled air from the respirator body.

Accordingly, it is an object of the disclosed embodiments to provide active ventilation wherein the blower is a microfan.

Accordingly, it is an object of the disclosed embodiments to provide an active venting system in which an electronic device or printed circuit board triggers appropriate control signals for the blower to adjust the speed and amount of air flow.

Accordingly, it is an object of the disclosed embodiments to provide an active ventilation system in which the active ventilation system maintains conduction throughout the life of the application.

Accordingly, it is an object of the disclosed embodiments to provide an active ventilation system in which the active ventilation system is manually closed after use.

Accordingly, it is an object of the disclosed embodiments to provide an active venting system in which the power source is a detachable and rechargeable power source.

Accordingly, it is an object of the disclosed embodiments to provide an active venting system in which a power source is supplied with wires or cables connected to a mains power source.

Accordingly, it is an object of the disclosed embodiments to provide an active venting system in which a power source can be recharged through a USB mini-cable connected to a power bank while the active venting system is still operating.

Accordingly, it is an object of the disclosed embodiments to provide an active ventilation system in which the power source can be charged while the active ventilation system is in use.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device comprising: a respirator body that covers a wearer's face and mouth to form a relatively closed region that is sealed from ambient air; at least one first filter, integrated Disposed within the respirator body for filtering intake air; and at least one active venting system functionally coupled to the respirator body, wherein the active venting system operates to vent air from the respirator body, wherein The active ventilation system includes: a power source; a blower coupled to the power source; and an electronic device or a printed circuit board coupled to the blower, wherein the blower is turned on or off by the electronic device or the printed circuit board to exhale air Discharge from the body of the respirator.

Accordingly, it is an object of the disclosed embodiments to provide a breathing apparatus, further comprising at least one air guide that is placed Around the active ventilation system, and around the nose and mouth area of the wearer to direct and separate the exhaled air and inhaled air.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device wherein the air guide is positioned at an angle that is oblique relative to an ergonomic facial contour to remove excess exhaled air.

Accordingly, it is an object of the disclosed embodiments to provide a breathing apparatus that further includes at least one gap between the air guide and the base of the respirator body to be expelled from excess exhaled air through the active venting system In the case, excessive exhaled air is allowed to escape.

Accordingly, it is an object of the disclosed embodiments to provide a breathing apparatus wherein the active venting system is attached to a one-way control valve having a membrane to continuously prevent ambient air from entering the ventilator body through the blower inlet or outlet.

Accordingly, it is an object of the disclosed embodiments to provide a breathing apparatus wherein the one-way control valve with a membrane is attached to an inlet or outlet of the blower.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device wherein the active ventilation system is attached to a second filter to prevent ambient air from entering the respirator body.

Accordingly, it is an object of the disclosed embodiments to provide a breathing apparatus in which a second filter is attached to an inlet or outlet of the blower.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device wherein the active ventilation system is attached to a latch to prevent ambient air from entering the respirator body.

Accordingly, it is an object of the disclosed embodiments to provide a breathing apparatus wherein the latch is attached to an inlet or outlet of the blower.

Accordingly, it is an object of the disclosed embodiments to provide a breathing apparatus wherein the latch body is embedded with a sensor that automatically closes when the power of the active venting system is exhausted.

Accordingly, it is an object of the disclosed embodiments to provide a breathing apparatus The latch body is manually closed by a user to block the blower opening.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device wherein the respirator body, the active venting system, and the air guide can be folded together into a pocket size.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device wherein the respirator body is disposable or reusable.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device wherein the respirator body is an air filter respirator that partially or fully covers the wearer's face.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device wherein the respirator body is an air purifying respirator.

Accordingly, it is an object of the disclosed embodiments to provide a respiratory device wherein the respirator body is an escape mask.

Accordingly, it is another object of the disclosed embodiments to provide a breathing apparatus that is particularly lightweight, compact, and inexpensive to produce, and that utilizes an ultra low power micro-blower.

In order to better understand the above and other aspects of the present invention, the preferred embodiments are described below, and in conjunction with the drawings, the detailed description is as follows:

100‧‧‧ breathing equipment

102‧‧‧ Respirator body

104‧‧‧Filter

106‧‧‧Air guide

108‧‧‧Active ventilation system

110‧‧‧Base

112‧‧‧ gap

136‧‧‧hot air zone

138, 140‧‧‧ arrows

142, 144‧‧ air flow

146‧‧‧ cool air zone

148‧‧‧ Reverse direction

150‧‧‧fasteners

152‧‧‧ film

154‧‧‧Second filter

160‧‧‧Latch

161‧‧‧Latch holder

222‧‧‧ housing

224‧‧‧Electronic devices or printed circuit boards

226‧‧‧Power supply

228‧‧‧Blowers

230‧‧‧ sensor

232‧‧‧ blower outlet

234‧‧‧ openings

302‧‧‧ arrow

The above summary of the exemplary embodiments, as well as the following detailed description, The exemplary construction of the present disclosure is shown in the drawings for the purpose of illustrating the disclosure. However, the disclosure is not limited to the specific methods and tools disclosed herein. Wherever possible, the same elements have been indicated by the same numerals.

1A-1B is an exemplary side view of the breathing apparatus; FIG. 2 is an exemplary side view of the breathing apparatus of FIG. 1 showing the direction of air flow during the exhalation phase; and FIG. 3 is an active ventilation system, air guide An exemplary top perspective view of a respiratory device with a filter; Figure 4 is an exemplary perspective view of the air guide within the breathing apparatus; Figure 5 is an exemplary perspective view of the active venting system; and Figure 6 is an exemplary top perspective view of the breathing apparatus showing hot air during exhalation Generation of a zone; Figure 7 is an exemplary top perspective view of the respiratory device showing the generation of a cool air zone during inhalation; and Figure 8 is an exemplary top perspective view of the respiratory device showing one embodiment of a blower with a filter Figure 9 is an exemplary side view of another embodiment of a blower having a one-way control valve; and Figure 10 is an exemplary side view of another embodiment of an active venting system attached to the latch body.

The specific configurations discussed in these non-limiting examples may be changed, and are cited only to illustrate at least one embodiment and not to limit the scope thereof.

The invention relates to an active ventilation system, comprising: a power source; a blower coupled to the power source; and an electronic device or a printed circuit board coupled to the blower, wherein the blower is electrically connected through the electronic device or the printed circuit board Or closed to expel exhaled air from the respirator body.

When the respirator body is worn, the exhalation nozzle is blocked and air is recirculated, resulting in an increase in heat, moisture, and carbon dioxide within the respirator body. The active ventilation system of the present invention solves this problem by mimicking the natural way of breathing. The subject ventilation system has sufficient power to expel the exhalation, up to 1 m away. Therefore, the exhaled air is prevented from being recirculated within the respirator body.

The active venting system of the present invention not only removes heat and moisture but also removes carbon dioxide. The active ventilation system can be adapted for use in all types of protective equipment such as helmets. The active ventilation system is more suitable for use on an escape mask. Escape masks are often used in emergencies and cover the entire head or enter any breathing apparatus Inside. The breathing apparatus has a folding mechanism for easy storage and portability.

One embodiment of the respiratory device 100 illustrated in FIG. 1A shows a side view of the respiratory device 100. The respiratory device 100 includes a respirator body 102 having one or more filters 104 and an active venting system 108. FIG. 1B illustrates a side view of a respiratory device 100 in accordance with another embodiment of the present invention, wherein the respiratory device 100 further includes an air guide 106. The side view of the respiratory device 100 depicted in Figures 1A-1B depicts only one filter 104. The filter 104 is integrally disposed on the surface of the respirator body 102 to filter the intake air passing through the respirator body 102. The filter 104 can be, for example, a disposable or replaceable air filter, and is not limited to being made of paper, foam or woven fiberglass. The filter 104 can have a plurality of perforations through which air is filtered prior to entering the respirator body 102. In the illustrated embodiment, two filters 104, one air guide 106, and an active venting system 108 are provided with the respirator body 102, however, it is possible to apply the teachings of the present invention with a plurality of such elements. It should be noted that Figures 2-10 are illustrations of various views of Figure 1B.

As depicted in Figures 1B, 2, and 4, the air guide 106 is placed adjacent the base 110 of the respirator body 102 to direct exhaled air from the nostrils and to exhale the air in the nostril area. The nearby inhalation air is separated. As an embodiment, the air guide 106 is a circular shape in the form of a ring and is made, for example, of silicone or a flexible polymer. The air guide 106 is attached to the inside of the respirator body 102 by molding or thermal engagement.

In the depicted embodiment as shown in FIGS. 1A-1B and 3, the active ventilation system 108 is also placed adjacent the base 110 of the respirator body 102 such that the active ventilation system 108 is at the periphery of the air guide 106. Inside. The active ventilation system 108 is secured to the interior surface of the respirator body 102 and is used to remove exhaled air from the respiratory device 100. The positioning of the active venting system 108 along with the air guide 106 helps to remove exhaled air during the exhalation cycle. The active ventilation system 108 can remain conductive throughout its operation, or it can be timed to operate only during the exhalation cycle. In the latter case, active ventilation is initiated through the embedded sensor System 108. The speed and amount of air flow can be adjusted by controlling the micro-blower (as explained in Figure 5) disposed in the active venting system 108 using suitable control signals. The filter 104, air guide 106, and active venting system 108 are positioned to create different air zones such that the inhaled air flows through an area separate from the exhaled air and the inhaled air does not mix with the exhaled air.

FIG. 3 depicts a top perspective view of the respiratory device 100. The positioning of the filter 104, air guide 106, and active venting system 108 is shown in the ventilator body 102. In one embodiment, the air guide 106 is positioned just below the nostrils such that the exhaled air drops directly into the space defined by the air guide 106. Due to this positioning, the air guide 106 effectively directs the exhaled air into the active ventilation system 108 (arrow 302 shown in FIG. 2) and prevents warm exhaled air from being directed to other portions of the respirator body 102. Thus, the air guide 106 creates a warm air zone (described further in FIG. 6) that is isolated from the rest of the respirator body 102 along the exhalation flow. Exhaled air is then removed by the active ventilation system 108. Additionally, a gap 112 (shown in Figures 2 and 4) is disposed between the air guide 106 and the respirator body 102 for escaping the exhaled air if the speed of the active venting system 108 is not fast enough. . The gap 112 further allows some warm exhaled air to temporarily escape along the side of the respirator body 102, rather than being reflected back to the face after hitting the surface of the respirator body 102.

Thus, ambient air from outside the respirator body 102 flows through the air filter 104 into a relatively closed region within the respirator body 102 during the inhalation cycle. The internal air guide 106 and the active venting system 108 effectively remove the normally hot and humid exhaled air during each exhalation cycle.

Referring to FIG. 4, a perspective view of a respiratory device 100 showing an air guide 106 having a gap 112 is disclosed. The air guide 106 is positioned adjacent the base 110 of the respirator body 102 such that one or more gaps 112 are disposed between the respirator body 102 and the air guide 106. The gap 112 redirects air to other areas of the ventilator body 102 during an exhalation cycle. If the air is not expelled quickly, the air guide 106 allows excess warm air to follow along The surface of the respirator body 102 flows. The air guide 106 creates a warm air zone that is isolated from the rest of the respirator body 102 and the skin. It should be noted that the air guide 106 does not contact the face and can be tilted within the body of the respirator to capture the most exhaled air. This slanted air guide 106 forms a passage for the exhaled air from the wearer's mouth and nose to enter the active venting system 108.

An embodiment of the active venting system of the present invention has been disclosed in FIG. The active venting system 108 has a housing 222 that houses an electronic device or printed circuit board 224, a power source 226, and a blower 228, and optionally has a sensor 230. It should be noted that other placements of different components of the active venting system 108 are possible and are within the scope of the present invention. Electronic device 224 may be a processing unit that controls the functionality of the various components of main body ventilation system 108. Alternatively, electronic device 224 may include batteries and circuitry only for embodiments in which blower 228 is always on. The electronic device 224 is coupled to the power source 226 , the blower 228 , and the sensor 230 . The blower 228 is operated by a power source 226, such as a rechargeable battery. The power source 226 can be removed and the power source 226 can be charged at desired intervals. According to one embodiment of the invention, the active ventilation system may include a second filter (not shown).

The blower 228 is turned on or off by an electronic device or printed circuit board 224 to expel exhaled air. The electronic device or printed circuit board 224 triggers appropriate control signals for the blower 228 to adjust the speed and amount of air flow. According to one embodiment of the invention, the active venting system 108 maintains conduction throughout the life of the application. The active ventilation system 108 can be manually closed after use.

According to one embodiment of the invention, the power source 226 is a detachable and rechargeable power source.

In one embodiment, the supply power source 226 is provided in a manner that is connected to a wire or cable of the main power source. In another embodiment, the power supply 226 is recharged through a universal serial bus (USB) microcable to the mobile power source while the active venting system is still operating.

In one embodiment, the blower 228 can be provided, for example A micro-blower or micro-fan with an air flow of 0-25 L/min. Blower 228 allows for active air exchange within respirator body 102 during an exhalation cycle. The sensor 230 can be, for example, a piezoelectric sensor and is embedded on the interior surface of the respirator body 102 on the front of the nose or mouth to sense exhaled air during each breathing cycle. Sensor 230 in turn communicates with electronic device 224 to control the operation of blower 228. Thereafter, the blower 228 effectively vents the respirator body 102 during each breathing cycle. In the absence of the sensor 230, the blower 228 is set to be always on.

It should be noted that the blower 228 in the active venting system 108 can be a series of different miniature fans, either of the shaft type or of the centrifugal type. In one embodiment, the blower 228 is a shaft type microfan that draws air from one direction and exits the shaft along the axis of the fan from the other direction. Another embodiment of the invention uses a miniature fan of the centrifugal type. Another embodiment uses a centrifugal fan of the blower type. Both centrifugal micro fans and blower type centrifugal micro fans draw air from one (or more) directions and are discharged through the other (or more) directions.

In one embodiment, the blower 228 can generate forced ventilation to expel excess heat and moisture from the blower outlet 232 during each breathing cycle. Additionally, an opening 234 for the blower outlet can expel exhaled air from the respirator body 102. Additionally, exhaled air may be filtered through a selective filter prior to exhaled air exiting the respirator body 102. It should be noted that the blower 228 discharges the air discharged by the user, which is carbon dioxide gas, together with heat and moisture.

The present invention greatly improves the user's breathing comfort over a long period of time. The blower 228 driven by the sensor 230 is energy efficient and consumes significantly less power than conventional systems. In addition, the respiratory device 100 is light, small, and portable due to the use of a micro blower/fan. The present invention is an ideal solution for users who stay in harsh environments with air pollution or pollution for a long time.

Figure 6 depicts the function of the respiratory device 100 during the exhalation phase. Due to the oblique positioning of the air guide 106, the exhaled air is concentrated in the area surrounded by the air guide 106. The air guide 106 directs exhaled air from the nostrils in this region, and a hot air region 136 is generated inside the respirator body 102. The sensor 230 depicted in FIG. 5 senses exhaled air, based on which the electronic device 224 activates the blower 228. The blower 228 then vents the exhaled air to the atmosphere as indicated by arrow 138.

It should be noted that most of the exhaled air is expelled through the active ventilation system 108. However, some exhaled air may escape from the gap 112 as indicated by arrow 140. The gap 112 allows excess exhaled air to escape to the side of the respirator body 102 when the speed of the active venting system 108 is insufficient to completely expel the exhaled air.

During inhalation, as shown in FIG. 7, clean air enters the respirator body 102 via the filter 104, as shown by air flow 144. This creates a cool air zone 146 inside the respirator body 102. During inhalation, most of the air does not enter through the blower outlet 232 because the blower 228 operates to vent air, thereby preventing dust particles from entering through the blower outlet 232 anyway. However, in an alternative embodiment, in order to prevent external dust particles from entering the ventilator body 102 through the blower outlet 232 (shown in Figure 5), as shown by air flow 142, a filter and a one-way valve may be used, As described in Figures 8-9.

Figure 8 depicts an embodiment in which the second filter 154 is placed across the blower suction inlet. The second filter 154 captures particles and prevents particles from entering the respirator body 102 when air is being drawn through the blower outlet 232 in the reverse direction 148 during inhalation. This embodiment has the additional advantage of minimizing the humid air inside the respirator body 102 being drawn into the blower motor and minimizing aging of the electronic device 224 during exhalation. It should be noted that the second filter 154 can be attached to the blower inlet or outlet without limitation.

In the case where the second filter 154 is not used, the blower discharges air even during inhalation. Therefore, because the blower continuously discharges air, the ring Ambient air does not enter the respirator body 102.

Figure 9 shows a second embodiment which uses membrane 152 to implement a one-way control valve. Membrane 152 allows air to flow out through blower outlet 232, but prevents air from entering in the opposite direction. The membrane 152 is attached to the blower outlet 232 by the use of fasteners 150. It should be understood that a variety of mechanical devices allow the membrane to be held above the blower outlet 232. It should be noted that a one-way control valve with a membrane can be attached to the blower inlet or outlet without limitation.

FIG. 10 shows another embodiment in which the active venting system 108 is attached to the latch body 160 by means of a latch body holder 161 to prevent ambient air from entering the ventilator body 102. The latch 160 is embedded with a sensor that automatically turns off when the power of the active venting system 108 is exhausted. Additionally, if desired, the user can manually operate the closure latch 160 to block the blower opening. It should be noted that the latch body 160 can be attached to the blower inlet or outlet without limitation.

From the above description, it should be noted that the air guide 106 positioned at the bottom of the ventilator body 102, along with the active venting system 108, creates a dedicated path for effectively expelling exhaled air from the ventilator body 102. In fact, a dedicated path is formed due to the positioning of the filter 104, air guide 106, and active venting system 108. The inhaled air flows through an area separate from the exhaled air, and the inhaled air does not mix with the exhaled air, which forms a separate air zone.

Additionally, the active ventilation system 108 can be adapted to and attached to any respirator or protective equipment. The respirator body can be used, for example, a disposable N95 respirator. In the respirator body of the N95 respirator, an opening can be cut and the active venting system 108 can be attached to the opening. Similarly, the active ventilation system 108 can be mounted to the respirator body 102 of other respirators (both disposable or non-disposable). The disposable respirator may be, for example, but not limited to, a silicone/rubber respirator, a full face or a half face, a respirator with a filter or canister.

From the above description, it will be appreciated that this breathing apparatus with an active venting system and an internal air guide can provide filtered clean air to the wearer, vent the exhaled air during each breathing cycle, and vent the respirator the Lord body. All of these features will provide the user with an improved breathing experience due to active air exchange within the body of the respirator.

It should be understood that the variations discussed above, as well as other features and functions, or alternatives thereof, can be combined into many other different systems or applications as desired. Moreover, the scope of the appended claims should also cover various alternatives, modifications, variations or improvements which are presently unforeseen or unanticipated and can be subsequently made by those of ordinary skill in the art.

Although the embodiments of the present disclosure have been fully described in great detail to cover the possible aspects, those skilled in the art will appreciate that other versions of the present disclosure are also possible.

In conclusion, the present invention has been disclosed in the above preferred embodiments, and is not intended to limit the present invention. A person skilled in the art can make various changes and modifications without departing from the spirit and scope of the invention. Therefore, the scope of the invention is defined by the scope of the appended claims.

108‧‧‧Active ventilation system

222‧‧‧ housing

224‧‧‧Electronic devices or printed circuit boards

226‧‧‧Power supply

228‧‧‧Blowers

230‧‧‧ sensor

232‧‧‧ blower outlet

234‧‧‧ openings

Claims (28)

An active venting system for venting air from a device that covers a mouth and a nose, the active venting system comprising: a power source; a blower coupled to the power source; and an electronic device or printed circuit board coupled to the blower And wherein the blower is turned on or off by the electronic device or the printed circuit board to discharge exhaled air or stagnant air from the respirator body. The active ventilation system of claim 1, wherein the air blower is a micro fan. The active venting system of claim 1, wherein the electronic device or the printed circuit board triggers a suitable control signal for the blower to adjust the speed and amount of air flow. The active ventilation system of claim 1, wherein the active ventilation system maintains conduction throughout the period of use. The active ventilation system of claim 1, wherein the active ventilation system is manually closed after use. The active venting system of claim 1, wherein the power source is a detachable and rechargeable power source. The active venting system of claim 1, wherein the power source is supplied with a wire or cable connected to a main power source. The active venting system of claim 1, wherein the power source is rechargeable via a USB microcable connected to the mobile power source while the active venting system is still operating. The active ventilation system of any one of claims 1 to 8, wherein the device is a unit covering a face and a mouth, such as a protective gear and a breathing apparatus. The active venting system of claim 1, wherein the active venting system is capable of charging the power source while in use. A breathing apparatus comprising: a respirator body covering a wearer's face and mouth to form a relatively closed area sealed from ambient air; at least one first filter integrally disposed within the respirator body for filtering intake air; And at least one active ventilation system functionally coupled to the respirator body, wherein the active ventilation system is operative to expel air from the respirator body, wherein the active ventilation system comprises: a power source; a blower coupled to The power source; and an electronic device or printed circuit board coupled to the blower, wherein the blower is turned on or off by the electronic device or the printed circuit board to discharge exhaled air from the respirator body. The breathing apparatus of claim 11, further comprising at least one air guide disposed around the active ventilation system and surrounding the wearer's nose and mouth area to guide and Exhale air and inhale air separately. The breathing apparatus of claim 12, wherein the air guide is positioned at an angle that is inclined relative to an ergonomic facial contour to remove excess exhaled air. The breathing apparatus of claim 12 or 13, further comprising at least one gap between the air guide and the base of the respirator body to prevent excess exhaled air from passing through the active ventilation system In the case of discharge, the excess exhaled air is allowed to escape. The breathing apparatus of any one of clauses 11 to 14, wherein the active venting system is attached to a one-way control valve having a membrane to continuously prevent ambient air from entering through the blower inlet or outlet Inside the respirator body. The breathing apparatus of claim 15, wherein the one-way control valve having the membrane is attached to an inlet or an outlet of the blower. The breathing apparatus of any one of clauses 11 to 16, wherein the active ventilation system is attached to a second filter to prevent ambient air from entering Enter the respirator body. The breathing apparatus of claim 17, wherein the second filter is attached to an inlet or an outlet of the blower. The breathing apparatus of any one of clauses 11 to 18, wherein the active venting system is attached to a latch to prevent ambient air from entering the ventilator body. The breathing apparatus of claim 19, wherein the latch is attached to an inlet or an outlet of the blower. The breathing apparatus of claim 19, wherein the latch body is embedded with a sensor that automatically turns off when the power of the active venting system is exhausted. The breathing apparatus of any one of claims 18 to 20, wherein the latch body is manually closed by a user to block the blower opening. The breathing apparatus of any one of claims 12 to 22, wherein the respirator body, the active venting system, and the air guide are foldable together into a pocket size. The breathing apparatus of any one of claims 12 to 23, wherein the respirator body is an air filter respirator. The breathing apparatus of any one of claims 12 to 24, wherein the respirator body is an air purifying respirator. The breathing apparatus of any one of claims 12 to 23, wherein the respirator body is one of a disposable or non-disposable mask. The breathing apparatus of any one of claims 12 to 23, wherein the respirator body is an escape mask. The breathing apparatus of any one of claims 12 to 23, wherein the respirator body is disposable or reusable.