Description:FIELD OF THE INVENTION

The present invention relates to a mechanism for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display, thereby ensuring that the fan blades assume a consistent and predetermined orientation when stationary.

BACKGROUND OF THE INVENTION

With evolving usage of display screens in all kinds of gadgets like smart phone, smart watch, TV, vehicles etc even fans have arrived in their smart versions (controlled by remote & phone app) and also will be available with display screens to give more technology driven appearance along with many other features. In cost-sensitive fan designs, integrating a smart screen may be impractical. However, a central stationary panel with a printed design or decorative casing can provide a similar aesthetic appeal at a lower cost. Throughout this disclosure, references to a "display screen" encompass not only digital displays but also decorative panels, printed designs, or other display modules. As far a round display screen is fixed to the bottom centre part of the fan (over the stationary central assembly), it is not a concern that where the fan blades stops once turned off and in which directions its blades point to; since round shape display screen is not a polygon. The moment we try a display screen which is in polygonal shapes similar to triangle, pentagon, hexagon, ditrigon etc it becomes a matter of concern that the fan blades must stop aligning with the corners (directions in which joints of the polygon shape points), instead of random directions, once the fan is turned off. Without this inventive feature, when fan blades directions are not aligned with polygon shaped display screen, fan appears to be unpleasant & disturbing to the viewer’s eyes as if something has gone wrong, malfunctioning or damaged or improperly designed product (fan). With this inventive feature, where the motion of fan blades are controlled in order to bring them in alignment with the polygon shaped display screen when fan blades stop moving, it appears to be mindfully designed and creates a harmony in itself.

SUMMARY OF THE INVENTION

The present invention relates to a mechanism of controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display, thereby ensuring that the fan blades assume a consistent and predetermined orientation when stationary.

In an embodiment, a mechanism for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display is provided. The mechanism comprising a metal down rod configured to hang the fan from ceiling, wherein the metal down rod is connected with a rotor housing to a ceiling mount, wherein the metal down rod configured to allow proper clearance and stability for the fan, wherein the rotor housing is an outer casing that houses a stator and permanent magnets of the fan; a stator fixed inside the rotor housing with a plurality of coils to generate electromagnetic field, wherein the plurality of coils include a first set of coils and a second set of coils, wherein the first set of coils act as electromagnets; a fan shaft fixed to the stator to form a stationary component of the fan even when fan is in motion; a plurality of fan blades mounted over the rotor housing, wherein the plurality of fan blades and the rotor housing rotates together when fan is switched on, wherein the shaft and stator remains stationary;
a ball bearing configured to reduce friction and allow smooth rotational movement of the fan blades, wherein the ball bearing is placed at base of the motor and in a rotor to ensure smooth operation of the fan; a mounting bracket configured to connect fan assembly to the ceiling, wherein the mounting bracket is typically fixed securely to the ceiling joist, wherein the mounting bracket is further configured to hold the fan rod, wherein the mounting bracket is fixed to the ceiling, ensuring the fan is securely attached to the ceiling; a display screen mounted over the stator or shaft’s bottom node which remain stationary; a processing unit configured to detect the rotation per minute (RPM) of the fan blades, wherein when the speed is turned to zero, then the plurality of blades slowly starts dropping its RPM, wherein when the lowest defined RPM reading is reached, then the processing unit automatically passes power to the first set of coils of the stator of the fan in order to polarized in such a way that the permanent magnets in the motor housing get attracted to the first set of the coils and stops blades in respect to the orientation of the display screen, wherein when current is passed only through the first set of coils then the first set of coils are configured to pull opposite poles of the permanent magnets of the rotor when the permanent magnets come closer to the first set of coils, wherein the first set of coils are activated only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value, wherein the display screen corners and fan blades are aligned in same direction due to the attraction between the first set of coils in stator and permanent magnets in the rotor.

In another embodiment, the down rod is inserted into a slot and bracket on the ceiling hook, wherein the down rod is secured with a pin or screw.

In another embodiment, the display screen configured to show settings like speed, temperature and fan mode whereas in case of a deco panel, only a graphic design is visible.

In another embodiment, the display screen is selected from a polygon like a triangle, square, hexagon or ditrigon as per the number of fan blades used in the fan, for example, for 3 blades fan the centre stationary panel can be triangular whereas, for a 4 blades fan, it can be square.

In another embodiment, surface of the display screen is selected from a flat, a concave and a convex surface.

In another embodiment, the placement of the fan blades over rotor housing module in such a way that permanent magnets are aligned with at least one of the fan blades direction, wherein the placement of the display screen over stator or shaft in such a way that the direction of alignment of the first set of coils is in same direction pointed by at least one of the corner of the display screen.

In another embodiment, a process for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display is provided. The process comprises detecting, by a processing unit, rotation per minute (RPM) of fan blades, wherein when the speed is turned to zero, then the plurality of blades slowly start dropping its RPM; generating electromagnetic field by a stator fixed inside the motor housing with a plurality of coils, wherein the plurality of coils include a first set of coils and a second set of coils, wherein the first set of coils act as electromagnets; passing, by the processing unit, power to the first set of coils of the stator of the fan in order to polarized in such a way that the permanent magnets in a motor housing get attracted to the first set of the coils and stops blades in respect to the orientation of the display screen; pulling opposite poles of the permanent magnets of the rotor by the first set of coils of the stator when the permanent magnets come closer to the first set of coils; activating the first set of coils only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value; and aligning the display screen corners and fan blades in same direction due to the attraction between the first set of coils in stator and permanent magnets in the rotor. It's noteworthy that the coil set of the stator is not exclusively reserved for the aforementioned function. Instead, an additional electromagnet set or similar technique can be provided specifically for this purpose.

In another embodiment, the placement of the fan blades over rotor in such a way that permanent magnets are aligned with at least one of the fan blades direction, wherein the placement of the display screen over stator in such a way that the direction of alignment of the first set of coils is in same direction pointed by at least one of the corner of the display screen. Note that in case of single ball bearing fan, the display screen can be fitted to the stator with or without mounting plate whereas in case of a double ball bearing fan, the display screen is fixed to the shaft lower node.
In another embodiment, the processing unit may include various components such as sensor, microcontroller, and required programming which enables the reading of the RPM of the fan blades in order to sense as when the RPM reaches a pre-defined lowest value so that current can be passed at that moment to the electromagnet or using similar component in order to attract the permanent magnets in the rotor housing, stopping the rotor housing along with fan blades in exact alignment with the corner of the polygonal shaped stationary display screen just like applying brakes to a moving wheel, using microcontroller and programming and other similar electrical and electronic components. Its important to note that the mechanism is not limited to the exact components used for performing this action, whereas the fundamental and principle of this functionality via electromagnets & permanent magnets remains there.

BRIEF DESCRIPTION OF FIGURES

These and other features, aspects, and advantages of the present disclosure will become better understood when the following detailed description is read with reference to the accompanying drawings in which like characters represent like parts throughout the drawings, wherein:
Figure 1, illustrates a flow chart of a process for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display in accordance with an embodiment of the present invention;
Figure 2, illustrates a block diagram for a system for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display in accordance with an embodiment of the present invention;
Figure 3a shows rotor & permanent magnets in accordance with an embodiment of the present invention;
Figure 3b shows stator placed inside rotor with its coils in accordance with an embodiment of the present invention;
Figure 3c show coils of the stator of the fan in accordance with an embodiment of the present invention;
Figure 3d shows how the permanent magnets finally stops at desired position attracted by electromagnets in accordance with an embodiment of the present invention;
Figure 4a illustrates placement of the fan blades over rotor housing in such a way that permanent magnets are aligned with at least one of the fan blade's direction;
Figure 4b illustrates placement of the display screen over stator in such a way that the direction of alignment of coils (shown with yellow line) is in same direction pointed by at least one of the corner of the polygonal display screen;
Figure 4c illustrates the resting position of the fan blades & rotor with this inventive feature where both the display screen corners and fan blades are aligned in same direction (shown with yellow line) due to the attraction between coils A & D in stator and permanent magnets in rotor;
Figure 5 illustrates a fan without inventive feature in motion & static position (in static position one can observe that fan blades are not properly aligned with polygon shaped display screen) and a fan with inventive feature in motion & static position (in static position one can observe that fan blades are aligned with polygon shaped display screen). When fan blades directions are not aligned with polygon shaped display screen, fan appears to be unpleasant & disturbing to the viewer’s eyes as if something has gone wrong, malfunctioning or damaged or improperly designed product (fan). With this inventive feature, where the motion of fan blades are controlled in order to bring them in alignment with the polygon shaped display screen when fan blades stop moving, it appears to be mindfully designed and creates a harmony in itself.
Figure 6, illustrates an exploded view of a ceiling fan with its components in accordance with an exemplary embodiment of the present invention. The fan blades are mounted on to rotor housing body and both rotates together whereas the shaft, stator and polygon shaped display screen remain stationary always (regardless of fan being switched on or off).
Further, skilled artisans will appreciate that elements in the drawings are illustrated for simplicity and may not have been necessarily been drawn to scale. For example, the flow charts illustrate the method in terms of the most prominent steps involved to help to improve understanding of aspects of the present disclosure. Furthermore, in terms of the construction of the device, one or more components of the device may have been represented in the drawings by conventional symbols, and the drawings may show only those specific details that are pertinent to understanding the embodiments of the present disclosure so as not to obscure the drawings with details that will be readily apparent to those of ordinary skill in the art having benefit of the description herein.

DETAILED DESCRIPTION:

For the purpose of promoting an understanding of the principles of the invention, reference will now be made to the embodiment illustrated in the drawings and specific language will be used to describe the same. It will nevertheless be understood that no limitation of the scope of the invention is thereby intended, such alterations and further modifications in the illustrated system, and such further applications of the principles of the invention as illustrated therein being contemplated as would normally occur to one skilled in the art to which the invention relates.
It will be understood by those skilled in the art that the foregoing general description and the following detailed description are exemplary and explanatory of the invention and are not intended to be restrictive thereof.
Reference throughout this specification to “an aspect”, “another aspect” or similar language means that a particular feature, structure, or characteristic described in connection with the embodiment is included in at least one embodiment of the present disclosure. Thus, appearances of the phrase “in an embodiment”, “in another embodiment” and similar language throughout this specification may, but do not necessarily, all refer to the same embodiment.

The terms "comprises", "comprising", or any other variations thereof, are intended to cover a non-exclusive inclusion, such that a process or method that comprises a list of steps does not include only those steps but may include other steps not expressly listed or inherent to such process or method. Similarly, one or more devices or sub-systems or elements or structures or components proceeded by "comprises...a" does not, without more constraints, preclude the existence of other devices or other sub-systems or other elements or other structures or other components or additional devices or additional sub-systems or additional elements or additional structures or additional components.

Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention belongs. The system, methods, and examples provided herein are illustrative only and not intended to be limiting.
Figure 1, illustrates a flow chart of a process for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display in accordance with an embodiment of the present invention. The process 100 includes
Step 102 discloses about detecting, by a processing unit, rotation per minute (RPM) of fan blades, wherein when the speed is turned to zero, then the plurality of blades slowly start dropping its RPM;
Step 104 discloses about generating electromagnetic field by a stator fixed inside the motor housing with a plurality of coils, wherein the plurality of coils include a first set of coils and a second set of coils, wherein the first set of coils act as electromagnets;
Step 106 discloses about passing, by the processing unit, power to the first set of coils of the stator of the fan in order to polarized in such a way that the permanent magnets in a motor housing get attracted to the first set of the coils and stops blades in respect to the orientation of the display screen;
Step 108 discloses about pulling opposite poles of the permanent magnets of the rotor by the first set of coils of the stator when the permanent magnets come closer to the first set of coils;
Step 110 discloses about activating the first set of coils only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value; and
Step 112 discloses about aligning, by bringing the fan blades to a halt in a precise direction, the blades come to rest pointing towards the corners of the polygonal-shaped display screen, due to the attractive forces between the first set of coils in the stator and the permanent magnets in the rotor.
In another embodiment, the placement of the fan blades over rotor housing in such a way that permanent magnets are aligned with at least one of the fan blades direction, wherein the placement of the display screen over stator in such a way that the direction of alignment of the first set of coils is in same direction pointed by at least one of the corner of the display screen.
In another embodiment, the process further comprising stopping, by a speed controller unit, bringing the fan blades to a halt in a precise direction, the blades come to rest pointing towards the corners of the polygonal-shaped display screen, due to the attractive forces between the first set of coils in the stator and the permanent magnets in the rotor.
Figure 2, illustrates a block diagram for a system for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display in accordance with an embodiment of the present invention. The system 200 includes a metal down rod 202 configured to hang the fan from ceiling, wherein the metal down rod 202 is connected with a fan shaft 204, wherein the metal down rod 202 configured to allow proper clearance and stability for the fan, wherein the shaft 204 is holding the fan assembly firmly.
In another embodiment, the system 200 further comprising a ball bearing 206 configured to reduce friction and allow smooth rotational movement of the fan blades, wherein the ball bearing 206 is placed over the shaft 204 and top-end of the rotor housing.
In another embodiment, the system 200 further comprising a fan stator 212 fixed to the shaft 204 and ball bearing 206 to form a stationary component of the fan even when fan is in motion;
In another embodiment, the system 200 further comprising a rotor housing 210 with permanent magnets in it, which is connected to fan shaft 206 enclosing stator with coils inside its housing and connected to a plurality of fan blades 208. A plurality of fan blades 208 mounted over the rotor housing 210, wherein the plurality of fan blades 208 and the rotor housing 210 rotates together when fan is switched on, wherein the shaft and stator remain stationary.
In another embodiment, the system 200 further comprising a mount plate 216 connected to the lower end of fan shaft 204 or over the stator 212, although it’s enclosed within the rotor housing 210; configured to hold display screen 220, hence the shaft, stator, mount plate and display screen 220 altogether form the stationary assembly of the fan.
In another embodiment, the system 200 further comprising a processing unit 214 configured to detect the rotation per minute (RPM) of the fan blades, wherein when the speed is turned to zero, then the plurality of blades slowly starts dropping its RPM, wherein the when the lowest defined RPM reading is reached, then the processing unit automatically passes power to the first set of coils of the stator of the fan in order to polarized in such a way that the permanent magnets in the rotor housing get attracted to the first set of the coils and stops blades in respect to the orientation of the display screen.
In another embodiment, the system 200 further comprising a speed controlling unit 218, connected to processing unit 214; configured to control the speed, turn off and on, the fan motion as per preference of the end user, where the processing unit 214 analyses the RPM of fan blades and configures the alignment of the fan blades at halt position with respect to the polygonal shape display screen corners.
In another embodiment, when current is passed only through the first set of coils then the first set of coils are configured to pull opposite poles of the permanent magnets of the rotor when the permanent magnets come closer to the first set of coils, wherein the first set of coils are activated only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value, wherein the display screen corners and fan blades are aligned in same direction due to the attraction between the first set of coils in stator and permanent magnets in the rotor.
In another embodiment, the down rod 202 is inserted into a slot and bracket on the mounting plate, wherein the down rod is secured with a pin or screw.
In another embodiment, the display screen 220 configured to show settings like speed, temperature and fan mode when it’s a digital screen, else in case of a decorative printed panel, it only configured to show decorative printed designs.
In another embodiment, the display screen 220 is selected from a polygon like a triangle, square, hexagon or ditrigon as per number of fan blades used in the fan.
In another embodiment, the surface of the display screen 220 is selected from a flat, a concave and a convex surface.
In another embodiment, the placement of the fan blades over rotor in such a way that permanent magnets are aligned with at least one of the fan blades direction, wherein the placement of the display screen 216 over stator in such a way that the direction of alignment of the first set of coils is in same direction pointed by at least one of the corner of the display screen.
In an embodiment, the system 200 further includes a processing unit 214 configured to stop fan blades and brings to specific rest position in order to align with directions of the polygon shaped display screen.
In another embodiment, the speed of fan blades is controlled by an end user through remote, wall mount regulator and smart phone.
In another embodiment, the device of the user is selected from, but not limited to remote, mobile phone, laptop, tab, watch, neck band, shoulder band, wall mount switch & regulator, smart switch etc.
In an embodiment, the present invention provides a system for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display, said system comprising:
a metal down rod configured to hang the fan from ceiling, wherein the metal down rod is connected with a motor housing to a ceiling mount, wherein the metal down rod configured to allow proper clearance and stability for the fan,;
a rotor housing is an outer casing that houses a stator and permanent magnets of the fan;
a stator fixed inside the rotor housing with a plurality of coils to generate electromagnetic field, wherein the plurality of coils include a first set of coils and a second set of coils, wherein the first set of coils act as electromagnets;
a fan shaft fixed to the stator to form a stationary component of the fan even when fan is in motion; a plurality of fan blades mounted over the rotor housing, wherein the plurality of fan blades and the rotor housing rotates together when fan is switched on, wherein the shaft and stator remains stationary;
a ball bearing configured to reduce friction and allow smooth rotational movement of the fan blades, wherein the ball bearing is placed at base of the motor and in a rotor to ensure smooth operation of the fan;
a mounting bracket configured to connect fan assembly to the ceiling, wherein the mounting bracket is typically fixed securely to the ceiling joist, wherein the mounting bracket is further configured to hold the fan rod, wherein the mounting bracket is fixed to the ceiling, ensuring the fan is securely attached to the ceiling;
a display screen mounted over the stator or shaft’s bottom node which remain stationary; a processing unit configured to detect the rotation per minute (RPM) of the fan blades, wherein when the speed is turned to zero, then the plurality of blades slowly starts dropping its RPM, wherein when the lowest defined RPM reading is reached, then the processing unit automatically passes power to the first set of coils of the stator of the fan in order to polarized in such a way that the permanent magnets in the motor housing get attracted to the first set of the coils and stops blades in respect to the orientation of the display screen, wherein when current is passed only through the first set of coils then the first set of coils are configured to pull opposite poles of the permanent magnets of the rotor when the permanent magnets come closer to the first set of coils, wherein the first set of coils are activated only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value, wherein the display screen corners and fan blades are aligned in same direction due to the attraction between the first set of coils in stator and permanent magnets in the rotor;
In an embodiment, the the down rod is inserted into a slot and bracket on the ceiling hook, wherein the down rod is secured with a pin or screw.
In an embodiment, the display screen configured to show settings like speed, temperature and fan mode whereas in case of a deco panel, only a graphic design is visible.
In an embodiment, the display screen is selected from a polygon like a triangle, square, hexagon or ditrigon as per the number of fan blades used in the fan, for example, for 3 blades fan the centre stationary panel can be triangular whereas, for a 4 blades fan, it can be square.
In an embodiment, the surface of the display screen is selected from a flat, a concave and a convex surface.
In an embodiment, the placement of the fan blades over rotor housing module in such a way that permanent magnets are aligned with at least one of the fan blades direction, wherein the placement of the display screen over stator or shaft in such a way that the direction of alignment of the first set of coils is in same direction pointed by at least one of the corner of the display screen.

In an embodiment, the present invention provides a process for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display, said process comprising:
detecting, by a processing unit, rotation per minute (RPM) of fan blades, wherein when the speed is turned to zero, then the plurality of blades slowly start dropping its RPM;
generating electromagnetic field by a stator fixed inside the motor housing with a plurality of coils, wherein the plurality of coils include a first set of coils and a second set of coils, wherein the first set of coils act as electromagnets;
passing, by the processing unit, power to the first set of coils of the stator of the fan in order to polarized in such a way that the permanent magnets in a motor housing get attracted to the first set of the coils and stops blades in respect to the orientation of the display screen;
pulling opposite poles of the permanent magnets of the rotor by the first set of coils of the stator when the permanent magnets come closer to the first set of coils;
activating the first set of coils only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value; activating the first set of coils only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value, wherein the coil set of the stator is not exclusively reserved for the aforementioned function, and wherein instead, an additional electromagnet set or similar technique is provided specifically for this purpose.
8. The process as claimed in claim 1, wherein the the placement of the fan blades over rotor in such a way that permanent magnets are aligned with at least one of the fan blades direction, wherein the placement of the display screen over stator in such a way that the direction of alignment of the first set of coils is in same direction pointed by at least one of the corner of the display screen, wherein in case of single ball bearing fan, the display screen can be fitted to the stator with or without mounting plate whereas in case of a double ball bearing fan, the display screen is fixed to the shaft lower node.
In an embodiment, the process further comprises aligning, by bringing the fan blades to a halt in a precise direction, the blades come to rest pointing towards the corners of the polygonal-shaped display screen, due to the attractive forces between the first set of coils in the stator and the permanent magnets in the rotor.
In an embodiment, the system further comprises the processing unit may include various components such as sensor, microcontroller, and required programming which enables the reading of the RPM of the fan blades in order to sense as when the RPM reaches a pre-defined lowest value so that current can be passed at that moment to the electromagnet or using similar component in order to attract the permanent magnets in the rotor housing, stopping the rotor housing along with fan blades in exact alignment with the corner of the polygonal shaped stationary display screen just like applying brakes to a moving wheel, using microcontroller and programming and other similar electrical and electronic components, wherein said mechanism includes additional components including at least one of separate electromagnets or similar equipment to control the permanent magnets bringing them to halt position; the polygon shape display screen can be replaced by a polygon shape deco panel or polygon shape printed graphic panel; whereas the fundamental and principle of this functionality via electromagnets & permanent magnets remains there.

Figure 3a shows rotor & permanent magnets in accordance with an embodiment of the present invention. Figure 3b shows stator placed inside rotor with its coils in accordance with an embodiment of the present invention. Figure 3c show coils of the stator of the fan in accordance with an embodiment of the present invention; and Figure 3d shows how the permanent magnets finally stops at desired position attracted by electromagnets. Coils acts like electromagnets while current is passed only through them so that they pull opposite poles of the permanent magnets coming closer to coils. These coils are activated only once the fan speed is turned to zero and RPM (speed) of blades (mounted over rotor) comes below a defined lowest RPM value (controlled by circuit).
Figure 4a illustrates placement of the fan blades over rotor in such a way that permanent magnets are aligned with at least one of the fan blades direction. Figure 4b illustrates placement of the display screen over stator in such a way that the direction of alignment of coils (shown with yellow line) is in same direction pointed by at least one of the corner of the polygonal display screen. Figure 4c illustrates the resting position of the fan blades & rotor with this inventive feature where both the display screen corners and fan blades are aligned in same direction (shown with yellow line) due to the attraction between coils A & D in stator and permanent magnets in rotor.
Figure 5 illustrates a fan without inventive feature in motion & static position (in static position one can observe that fan blades are not properly aligned with polygon shaped display screen) and a fan with inventive feature in motion & static position (in static position one can observe that fan blades are aligned with polygon shaped display screen).
Figure 6, illustrates an exploded view of a ceiling fan with its components in accordance with an exemplary embodiment of the present invention. In Figure 6, (a) stands for metal down rod, (b) for rotor-housing module, (c) for upper ball bearing, (d) for stator, (e) for mount plate, and (f) for stationary display screen. Alternatively there can be 2 ball bearings too, where the lower ball bearing exists below the stator, and below this lower ball bearing there would be a bottom cover panel which fixes to the rotor housing creating a complete housing closure for the stator, ball bearings and permanent magnets. In this case, the shaft bottom node is extended passing through the lower ball bearing, passing through a hold made at center of the bottom cover panel, so that the stationary display panel can be fixed direct with the support of this shaft, maintaining a minimal gap between bottom cover panel which rotates with rotor & the stationary panel.

The drawings and the forgoing description give examples of embodiments. Those skilled in the art will appreciate that one or more of the described elements may well be combined into a single functional element. Alternatively, certain elements may be split into multiple functional elements. Elements from one embodiment may be added to another embodiment. For example, orders of processes described herein may be changed and are not limited to the manner described herein. Moreover, the actions of any flow diagram need not be implemented in the order shown; nor do all of the acts necessarily need to be performed. Also, those acts that are not dependent on other acts may be performed in parallel with the other acts. The scope of embodiments is by no means limited by these specific examples. Numerous variations, whether explicitly given in the specification or not, such as differences in structure, dimension, and use of material, are possible. The scope of embodiments is at least as broad as given by the following claims.

Benefits, other advantages, and solutions to problems have been described above with regard to specific embodiments. However, the benefits, advantages, solutions to problems, and any component(s) that may cause any benefit, advantage, or solution to occur or become more pronounced are not to be construed as a critical, required, or essential feature or component of any or all the claims. , Claims:1. A system for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display, said system comprising:
a metal down rod configured to hang the fan from ceiling, wherein the metal down rod is connected with a motor housing to a ceiling mount, wherein the metal down rod configured to allow proper clearance and stability for the fan,;
a rotor housing is an outer casing that houses a stator and permanent magnets of the fan;
a stator fixed inside the rotor housing with a plurality of coils to generate electromagnetic field, wherein the plurality of coils include a first set of coils and a second set of coils, wherein the first set of coils act as electromagnets;
a fan shaft fixed to the stator to form a stationary component of the fan even when fan is in motion; a plurality of fan blades mounted over the rotor housing, wherein the plurality of fan blades and the rotor housing rotates together when fan is switched on, wherein the shaft and stator remains stationary;
a ball bearing configured to reduce friction and allow smooth rotational movement of the fan blades, wherein the ball bearing is placed at base of the motor and in a rotor to ensure smooth operation of the fan;
a mounting bracket configured to connect fan assembly to the ceiling, wherein the mounting bracket is typically fixed securely to the ceiling joist, wherein the mounting bracket is further configured to hold the fan rod, wherein the mounting bracket is fixed to the ceiling, ensuring the fan is securely attached to the ceiling;
a display screen mounted over the stator or shaft’s bottom node which remain stationary; a processing unit configured to detect the rotation per minute (RPM) of the fan blades, wherein when the speed is turned to zero, then the plurality of blades slowly starts dropping its RPM, wherein when the lowest defined RPM reading is reached, then the processing unit automatically passes power to the first set of coils of the stator of the fan in order to polarized in such a way that the permanent magnets in the motor housing get attracted to the first set of the coils and stops blades in respect to the orientation of the display screen, wherein when current is passed only through the first set of coils then the first set of coils are configured to pull opposite poles of the permanent magnets of the rotor when the permanent magnets come closer to the first set of coils, wherein the first set of coils are activated only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value, wherein the display screen corners and fan blades are aligned in same direction due to the attraction between the first set of coils in stator and permanent magnets in the rotor.

2. The system as claimed in claim 1, wherein the the down rod is inserted into a slot and bracket on the ceiling hook, wherein the down rod is secured with a pin or screw.

3. The system as claimed in claim 1, wherein the display screen configured to show settings like speed, temperature and fan mode whereas in case of a deco panel, only a graphic design is visible.

4. The system as claimed in claim 1, wherein the display screen is selected from a polygon like a triangle, square, hexagon or ditrigon as per the number of fan blades used in the fan, for example, for 3 blades fan the centre stationary panel can be triangular whereas, for a 4 blades fan, it can be square.

5. The system as claimed in claim 1, wherein surface of the display screen is selected from a flat, a concave and a convex surface.

6. The system as claimed in claim 1, wherein the the placement of the fan blades over rotor housing module in such a way that permanent magnets are aligned with at least one of the fan blades direction, wherein the placement of the display screen over stator or shaft in such a way that the direction of alignment of the first set of coils is in same direction pointed by at least one of the corner of the display screen.

7. The system as claimed in claim 1, further comprising the processing unit may include various components such as sensor, microcontroller, and required programming which enables the reading of the RPM of the fan blades in order to sense as when the RPM reaches a pre-defined lowest value so that current can be passed at that moment to the electromagnet or using similar component in order to attract the permanent magnets in the rotor housing, stopping the rotor housing along with fan blades in exact alignment with the corner of the polygonal shaped stationary display screen just like applying brakes to a moving wheel, using microcontroller and programming and other similar electrical and electronic components, wherein said mechanism includes additional components including at least one of separate electromagnets or similar equipment to control the permanent magnets bringing them to halt position; the polygon shape display screen can be replaced by a polygon shape deco panel or polygon shape printed graphic panel; whereas the fundamental and principle of this functionality via electromagnets & permanent magnets remains there.

8. A process for controlling the motion of fan blades, enabling them to come to rest in a precise alignment with a polygonal stationary central display, said process comprising:
detecting, by a processing unit, rotation per minute (RPM) of fan blades, wherein when the speed is turned to zero, then the plurality of blades slowly start dropping its RPM;
generating electromagnetic field by a stator fixed inside the motor housing with a plurality of coils, wherein the plurality of coils include a first set of coils and a second set of coils, wherein the first set of coils act as electromagnets;
passing, by the processing unit, power to the first set of coils of the stator of the fan in order to polarized in such a way that the permanent magnets in a motor housing get attracted to the first set of the coils and stops blades in respect to the orientation of the display screen;
pulling opposite poles of the permanent magnets of the rotor by the first set of coils of the stator when the permanent magnets come closer to the first set of coils;
activating the first set of coils only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value; activating the first set of coils only once the fan speed is turned to zero and RPM of the fan blades is below to a defined lowest RPM value, wherein the coil set of the stator is not exclusively reserved for the aforementioned function, and wherein instead, an additional electromagnet set or similar technique is provided specifically for this purpose.
9. The process as claimed in claim 8, wherein the the placement of the fan blades over rotor in such a way that permanent magnets are aligned with at least one of the fan blades direction, wherein the placement of the display screen over stator in such a way that the direction of alignment of the first set of coils is in same direction pointed by at least one of the corner of the display screen, wherein in case of single ball bearing fan, the display screen can be fitted to the stator with or without mounting plate whereas in case of a double ball bearing fan, the display screen is fixed to the shaft lower node.

10. The process as claimed in claim 8, further comprising aligning, by bringing the fan blades to a halt in a precise direction, the blades come to rest pointing towards the corners of the polygonal-shaped display screen, due to the attractive forces between the first set of coils in the stator and the permanent magnets in the rotor.