Description:FILED OF THE DISCLOSURE

The present disclosure relates to the field of automobiles. In particular, the present disclosure relates a coil placement mechanism for wireless charger assembly.

BACKGROUND

Generally, vehicles such as, four wheelers are equipped with a wireless charger adapted to charge the electronic gadgets such as, but not limited to, mobile phones. The wireless charger may include a transmitter coil and a holder adapted to be aligned with the coil to hold the coil. The transmitter coil is required to be aligned centrally with respect to the holder.

Conventionally, the transmitter coil is assembled on the holder. However, positioning of the transmitter coil at correct position is a challenge in manual operation by using the existing apparatus due to various dimensional tolerances. A variation in the dimensions of the transmitter coil may lead to generate uncertainty in central position of the transmitter coil with respect to the holder. This affects the functionality of the wireless charger. Further, the transmitter coil may shift from its centre. Shifting of the transmitter coil from the defined area leads to greatly reduced performance of wireless charger.

Accordingly, there is an immense need to develop an assembling apparatus that can overcome one or more technical problems of the existing art.

SUMMARY

This summary is provided to introduce a selection of concepts, in a simplified format, that are further described in the detailed description of the disclosure. This summary is neither intended to identify key or essential inventive concepts of the disclosure and nor is it intended for determining the scope of the disclosure.

The present disclosure relates to a coil placement mechanism for a wireless charger having a coil and a coil holding member. The coil placement mechanism may include a base plate, a pair of upper jaws, and a pair of lower jaws. The base plate may include a first face and a second face opposite to the first face. The pair of upper jaws is installed on the first face of the base plate and adapted to slide longitudinally along the first face. The pair of lower jaws is installed on the second face and adapted to slide transversely along the second face. The pair of upper jaws and the pair of lower jaws are adapted to form an adjustable mount adapted to receive and align the coil with respect to a center of the first face.

In an embodiment, a plurality of guide members is disposed on the first face of the base plate for guiding the coil holding member adapted to be joined with the coil.

In an embodiment, the base plate may include a pair of upper rails and a pair of lower rails. The pair of upper rails is positioned parallel to each other on the first face to support the pair of upper jaws. The pair of upper rails is adapted to guide the longitudinal sliding of the pair of upper jaws. The pair of lower rails is positioned orthogonally to the pair of upper rails on the second face to support the pair of lower jaws. The pair of lower rails is positioned parallel to each other and adapted to guide the transverse sliding of the pair of lower jaws.

In an embodiment, the base plate may include an upper protrusion and a lower protrusion. The upper protrusion is positioned in between the pair of upper rails on the first face. The upper protrusion is adapted to accommodate an upper pinion. The lower protrusion is positioned in between the pair of lower rails on the second face, and the lower protrusion is adapted to accommodate a lower pinion.

In an embodiment, the pair of upper jaws may include a first upper jaw and a second upper jaw. The first upper jaw is installed on the first face of the base plate. The second upper jaw is installed parallel to the first upper jaw on the first face of the base plate.

In an embodiment, the pair of lower jaws may include a first lower jaw and a second lower jaw. The first lower jaw is installed orthogonally with respect to the first upper jaw and the second upper jaw on the second face of the base plate. The second lower jaw is installed parallel to the first lower jaw on the second face of the base plate.

In an embodiment, each of the first upper jaw and the second upper jaw may include a first rack adapted to engage with the upper pinion to execute the sliding of the first upper jaw and the second upper jaw. Each of the first lower jaw and the second lower jaw may include a second rack adapted to engage with the lower pinion to execute the sliding of the first lower jaw and the second lower jaw.

In an embodiment, a pair of upper resilient members is attached with the first face and the pair of upper jaws for providing a resilient force to the pair of upper jaws. A pair of lower resilient members is attached with the second face and the pair of lower jaws for providing the resilient force to the pair of lower jaws.

In an embodiment, the pair of upper jaws may include a first upper end and a second upper end positioned opposite to the first upper end. The second upper end may include a first flange protruded from a surface of pair of the upper jaws to support the coil.

In an embodiment, the pair of lower jaws may include a first lower end and a second lower end positioned opposite to the first lower end. The second lower end may include a second flange protruded from a surface of pair of lower jaws to support the coil.

In an embodiment, one of the coil and the coil holding member may include a layer of adhesives.

To further clarify advantages and features of the present disclosure, a more particular description of the disclosure will be rendered by reference to specific embodiments thereof, which is illustrated in the appended drawings. It is appreciated that these drawings depict only typical embodiments of the disclosure and are therefore not to be considered limiting of its scope. The disclosure will be described and explained with additional specificity and detail with the accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS
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 an exploded view of a coil placement mechanism for a wireless charger assembly, according to an embodiment of the present disclosure;
Figure 2 illustrates a perspective view of the coil placement mechanism for the wireless charger assembly, according to an embodiment of the present disclosure;
Figure 3 illustrates a perspective view of a base plate of the coil placement mechanism, according to an embodiment of the present disclosure;
Figure 4 illustrates a perspective view of a coil to be positioned in the coil placement mechanism according to an embodiment of the present disclosure;
Figure 5 illustrates a perspective view of the coil positioned in the coil placement mechanism, according to an embodiment of the present disclosure;
Figure 6 illustrates a perspective view of a coil holding member to be joined with the coil positioned in the coil placement mechanism, according to an embodiment of the present disclosure; and
Figure 7 illustrates a perspective view of the coil holding member joined with the coil positioned in the coil placement mechanism, according to an embodiment of the present disclosure.

Further, skilled artisans will appreciate that elements in the drawings are illustrated for simplicity and may not have 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

While the embodiments in the disclosure are subject to various modifications and alternative forms, the specific embodiment thereof has been shown by way of example in the figures and will be described below. It should be understood, however, that it is not intended to limit the disclosure to the particular forms disclosed, but on the contrary, the disclosure is to cover all modifications, equivalents, and alternatives falling within the scope of the disclosure.

It is to be noted that a person skilled in the art would be motivated from the present disclosure to modify a coil placement mechanism for a wireless charger assembly as disclosed herein. However, such modifications should be construed to be within the scope of the disclosure. Accordingly, the drawings show only those specific details that are pertinent to understand the embodiments of the present disclosure, so as not to obscure the disclosure with details that will be readily apparent to those of ordinary skill in the art having benefit of the description herein.

Accordingly, the switching unit for a vehicle described with reference to the figures and specific embodiments; this description is not meant to be constructed in a limiting sense. Various alternative embodiments from part of the present disclosure.

Details of a coil placement mechanism 100 are explained with respect to Figures 1 to 3. Specifically, Figure 1 illustrates an exploded view of the coil placement mechanism 100 while Figure 2 illustrates a perspective view of the coil placement mechanism 100. Further, Figure 3 illustrates a perspective view of a base plate 102 of the coil placement mechanism 100.

Referring to Figures 1, 2 and 3, a coil placement mechanism 100 is provided for a wireless charger having a coil 200 and a coil holding member 202. The wireless charger may be equipped with a vehicle. The coil placement mechanism 100 is adapted to centrally align the coil 200. Further, the coil holding member 202 is aligned over the coil to join the coil 200 with the coil holding member 202. The coil placement mechanism 100 may include a base plate 102, a pair of upper jaws 104, 106, and a pair of lower jaws 108, 110. The base plate 102 may include a first face 132 and a second face 134 opposite to the first face 132.

Further, the pair of upper jaws 104, 106 is installed on the first face 132 of the base plate 102. The pair of lower jaws 108, 110 is installed on the second face 134 of the base plate 102. In an example, the pair of lower jaws 108, 110 is installed orthogonally with respect to the pair of upper jaws 104, 106 on the second face 134 of the base plate 102. The pair of upper jaws 104, 106 is adapted to slide longitudinally along the first face 132, and the pair of lower jaws 108, 110 is adapted to slide transversely along the second face 134.

In one example, the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 are adapted to form an adjustable mount adapted to receive and align the coil 200 with respect to a center of the first face 132. The center of the first face 132 may be referred to as center of base plate 102. The adjustable mount may facilitate the coil placement mechanism 100 to accommodate the coils with different aspect ratios. Thus, the coil placement mechanism 100 may be used to for various coils having different dimensions as per the requirement of the vehicle. In an embodiment, the first face 132 of the base plate 102 may be an upper face 132 and the second face 134 of the base plate 102 may be a bottom face 134. The pair of upper jaws 104, 106 may slide parallel to each other to support the coil 200. The pair of lower jaws 108, 110 may slide parallel to each other to support the coil 200.

The pair of upper jaws 104, 106 may be installed at high altitude with respect to the pair of lower jaws 108, 110. The pair of upper jaws 104, 106 may include a first upper jaw 104 and a second upper jaw 106, as shown in Figures 1 and 2. The first upper jaw 104 is installed on the first face 132 of the base plate 102. The second upper jaw 106 may be installed parallel to the first upper jaw 104 on the first face 132 of the base plate 102. The first upper jaw 104 and the second upper jaw 106 are adapted to slide longitudinally along the upper face 132. Further, the pair of lower jaws 108, 110 may include a first lower jaw 108 and a second lower jaw 110, as shown in Figures 1 and 2. The first lower jaw 108 is installed orthogonally with respect to the first upper jaw 104 and the second upper jaw 106 on the bottom face 134 of the base plate 102. The second lower jaw 110 may be installed parallel to the first lower jaw 108 on the bottom face 134 of the base plate 102. The first lower jaw 108 and the second lower jaw 110 are adapted to slide transversely along the bottom face 134. The sliding movement of the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 towards outside may cause their expansion.

According to the present disclosure, the expansion of the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 forms the adjustable mount to accommodate and align the coil 200 with respect to the center of the upper face 132. In an embodiment, the sliding movement of the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 may be controlled manually. In another embodiment, the sliding movement of the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 may be controlled by at least one motor and at least one sensor.

Each of the first upper jaw 104 and the second upper jaw 106 may include a first upper end and a second upper end positioned opposite to the first upper end. The second upper end may include a first flange 112 protruded from each of the first upper jaw 104 and the second upper jaw 106. Each of the first lower jaw 108 and the second lower jaw 110 may include a first lower end and a second lower end positioned opposite to the first lower end. The second lower end may include a second flange 114 protruded from each of the first upper jaw 104 and the second upper jaw 106. The first flange 112 and the second flange 114 may support the coil 200 from all four directions.

The pair of upper jaws 104, 106 may include a pair of upper slots 116, 118, and the pair of lower jaws 108, 110 may include a pair of lower slots 120, 122, as shown in Figure 1. The pair of upper slots 116, 118 may include a first upper slot 116 and a second upper slot 118. The first upper slot 116 is positioned in the first upper jaw 104, and the second upper slot 118 is positioned in the second upper jaw 106. The pair of lower slots 120, 122 may include a first lower slot 120 and a second lower slot 122. The first lower slot 120 is positioned in the first lower jaw 108, and the second lower slot 122 is positioned in the second lower jaw 110. Each of the first upper jaw 104 and the second upper jaw 106 may include a first rack 124. Each of the first lower jaw 108 and the second lower jaw 110 may include a second rack 126. Each of the first rack 124 and the second rack 126 may include a first plurality of teeth.

In one example, the base plate 102 is adapted to support one or more components of the coil placement mechanism 100. The base plate 102 may include a pair of upper rails 128, 130 and a pair of lower rails (not shown). The pair of upper rails 128, 130 may be positioned parallel to each other on the first face 132 to support the pair of upper jaws 104, 106, as shown in Figure 2. The pair of lower rails may be positioned orthogonally with respect to the pair of upper rails 128, 130 on the second face 134 to support the pair of lower jaws 108, 110. The pair of lower rails may be positioned parallel to each other. The pair of upper slots 116, 118 may be slidably placed over the pair of upper rails 128, 130. The pair of lower slots 120, 122 may be slidably placed over the pair of lower rails.

The pair of upper rails 128, 130 may include a first upper rail 128, and a second upper rail 130. The pair of lower rails may include a first lower rail, and a second lower rail. The first upper slot 116 may be placed on the first upper rail 128, and the second upper slot 118 may be placed on the second upper rail 130, as shown in Figure 2. The first lower slot 120 may be placed on the first lower rail, and the second lower slot 122 may be placed on the second lower rail. The first upper slot 116 and the second upper slot 118 are adapted to guide the longitudinal sliding of the first upper jaw 104 and the second upper jaw 106 respectively along the upper face 132. The first lower slot 120, and the second lower slot 122 are adapted to guide the transverse sliding of the first lower jaw 108 and the second lower jaw 110 respectively along the bottom face 134.

The base plate 102 may include a plurality of upper protruded members 136, 138 and a plurality of lower protruded members (not shown). The plurality of upper protruded members 136, 138 is positioned on the upper face 132 to support a pair of upper resilient members 140, 142. The plurality of lower protruded members positioned on the bottom face 134 to support a pair of lower resilient members 144, 146. The plurality of upper protruded members 136, 138 may include a first upper protruded member 136 and a second upper protruded member 138. The plurality of lower protruded members may include a first lower protruded member and a second lower protruded member.

The pair of upper resilient members 140, 142 is attached with the upper face 132 and the pair of upper jaws 104, 106 for providing a resilient force to the pair of upper jaws 104, 106, as shown in Figure 1. In an embodiment, the pair of upper resilient members 140, 142 may be embodied as a pair of upper springs 140, 142. The pair of upper springs 140, 142 may include a first upper spring 140 and a second upper spring 142, as shown in Figure 2. One end of the first upper spring 140 may be attached to the first upper protruded member 136 and another end may be attached to the first upper jaw 104. One end of the second upper spring 142 may be attached to the second upper protruded member 138 and another end is attached to the second upper jaw 106.

Further, the pair of lower resilient members 144, 146 is attached with the bottom face 134 and the pair of lower jaws 108, 110 for providing the resilient force to the pair of lower jaws 108, 110. In an embodiment, the pair of lower resilient members 144, 146 may be embodied as a pair of lower springs 144, 146. The pair of lower springs 144, 146 may include a first lower spring 144 and a second lower spring 146. One end of the first lower spring 144 is attached to the first lower protruded member and another end is attached to the first lower jaw 108. One end of the second lower spring 146 is attached to the second lower protruded member and another end is attached to the second lower jaw 110. The pair of upper springs 140, 142 and the pair of lower springs 144, 146 are adapted to pull the upper jaws 104, 106, and a pair of lower jaws 108, 110 respectively towards their original position.

The base plate 102 may include an upper protrusion 148 and a lower protrusion (not shown). The upper protrusion 148 may be positioned in between the first upper rail 128 and the second upper rail 130 on the upper face 132, as shown in Figure 2. The lower protrusion may be positioned in between the first lower rail and the second lower rail on the bottom face 134. The upper protrusion 148 is adapted to accommodate an upper pinion 150. The lower protrusion is adapted to accommodate a lower pinion 152. The upper pinion 150 is positioned in between the first upper jaw 104 and the second upper jaw 106 to engage with the first rack 124. The engagement of the upper pinion 150 and the first rack 124 facilitates the sliding of the first upper jaw 104 and the second upper jaw 106.

Further, the lower pinion 152 is positioned in between the first lower jaw 108 and the second lower jaw 110 to engage with the second rack 126. The engagement of the lower pinion 152 and the second rack 126 facilitates the sliding of the first lower jaw 108 and the second lower jaw 110. Each of the upper pinion 150 and the lower pinion 152 may include a second plurality of teeth. In the sliding conditions, the first plurality of teeth may engage with the second plurality of teeth. In another embodiment, a cylindrical member may be positioned on the base plate 102. A half-portion of the cylindrical member may be positioned on the upper face 132, and another half may be positioned on the bottom face 134. The cylindrical member may accommodate the upper pinion 150 and the lower pinion 152.

A plurality of guide members 154, 156 is disposed on the upper face 132 of the base plate 102, as shown in Figure 3. The plurality of guide members 154, 156 may guide the coil holding member 202 adapted to be joined with the coil 200. In an embodiment, the plurality of guide members 154, 156 may be embodied as a plurality of pins. In another embodiment, the plurality of guide members 154, 156 may have a L-shape. The plurality of guide members 154, 156 may include a first guide member 154 and a second guide member 156 disposed diagonally on the upper face 132.

Each of the first guide member 154 and the second guide member 156 may be formed of a metallic material. In another embodiment, each of the first guide member 154 and the second guide member 156 may be formed of a polymeric material. In an embodiment, the first guide member 154 and the second guide member 156 may be installed on the upper face 132 of the base plate 102 by using a plurality of fasteners. In another embodiment, the first guide member 154 and the second guide member 156 may be integrated with the upper face 132 of the base plate 102 by using a plurality of fasteners.

Details of an assembly of the coil 200 and the coil holding member 202 by using the coil placement mechanism 100 are explained with respect to Figures 4 to 7. Specifically, Figure 4 illustrates a perspective view of a coil 200 to be positioned in the coil placement mechanism 100, while Figure 5 illustrates a perspective view of the coil positioned in the coil placement mechanism 100. Further, Figure 6 illustrates a perspective view of a coil holding member 202 to be joined with the coil 200 positioned in the coil placement mechanism 100 while Figure 7 illustrates a perspective view of the coil holding member 202 joined with the coil 200 positioned in the coil placement mechanism 100.

Referring to Figure 4 to 7, the coil 200 is adapted to be positioned on the upper face 132 of the base plate 102. The sliding movement of the pair of upper jaws 104, 106 and the pair lower jaws 108, 110 may form the adjustable mount to accommodate the coil 200. The adjustable mount may align the coil 200 in the center of the upper face 132. The coil 200 may include a plurality of connectors adapted to be connected with a power source. In an embodiment, the coil 200 may be embodied as transmitter coil 200. The coil 200 may include a first surface, and a second surface opposite to the first surface. The second surface of the coil 200 may include a layer of adhesives adapted to be joined with the coil holding member 202. The dimensions of the coil 200 may vary according to the requirements of the vehicle in which the coil 200 is required to fitted.

Further, the coil 200 holding member is adapted to be joined with the coil 200. One surface of the coil holding member 202 may include the layer of adhesives adapted to join with the second surface of the coil 200. The surface of the coil holding member 202 having the layer of adhesives may be covered with a backing. The coil 200 may be installed over the coil holding member 202. The coil holding member 202 may be installed in an internal part of the vehicle, and the coil 200 may be accessible from the outside.

Initially, the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 of the base plate 102 may be expanded to generate the space for accommodating the coil 200. Herein, the expansion of the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 to forms the adjustable mount adapted to receive the coil 200. Then, the coil 200 is positioned on the upper face 132 of the base plate 102 in between the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110. The coil 200 is positioned in such a manner that the second face 134 of the coil 200 may be on top. The pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 are returned to the original positions under the application of the pair of upper springs 140, 142 and the pair of lower springs 144, 146. With this movement, the coil 200 may be aligned with respect to a center of the upper face 132. The first flange 112 and the second flange 114 comes in contact with the coil 200 for supporting the coil 200 from all four directions. The coil 200 may be centrally aligned on the base plate 102.

Further, the backing may be removed from the coil 200 to make the layer of adhesives accessible. Then, the coil holding member 202 is positioned in between the plurality of guide members 154, 156 and pushed towards the coil 200. The plurality of guide members 154, 156 guide the coil holding member 202 to align properly with the coil 200. The coil holding member 202 may be pushed the along plurality of guide members 154, 156. The coil holding member 202 may be pushed till the adhesives of the coil 200 comes in the contact with the surface of the coil holding member 202. The coil 200 may stick on the coil holding member 202. Then, the joining of the coil 200 and the coil holding member 202 forms the wireless charger. The assembly of coil 200 and coil holding member 202 may be removed from the coil placement mechanism 100 and fitted in the wireless charger such that the coil 200 is accessible to a user.

The coil placement mechanism 100 of the present disclosure includes the sliding movement of the pair of upper jaws 104, 106 and the pair of lower jaws 108, 110. The pair of upper jaws 104, 106 and the pair of lower jaws 108, 110 form the mount which may adjust according to the dimension of the coil 200. Thus, the coil placement mechanism 100 may be used to accommodate the coils with different aspect ratios. The coils of different dimensions may be placed on the coil holding member 202 using the coil placement mechanism 100. This reduces the overall cost of the assembly of the coil 200 and the coil holding member 202. The coil placement mechanism 100 is easy to operate, and the usage of the coil placement mechanism 100 reduces the assembly time. Further, the adjustable mount may align the coil 200 with respect to a center of the first face 132, which improves the performance of the wireless charger.

While various aspects and embodiments have been disclosed herein, other aspects and embodiments will be apparent to those skilled in the art. The various aspects and embodiments disclosed herein are for purposes of illustration and are not intended to be limiting, with the true scope and spirit being indicated by the following claims. , Claims:1. A coil placement mechanism (100) for a wireless charger assembly having a coil (200) and a coil holding member (202), the coil placement mechanism (100) comprising:
a base plate (102) having a first face (132) and a second face (134) opposite to the first face (132);
a pair of upper jaws (104, 106) installed on the first face (132) of the base plate (102) and adapted to slide longitudinally along the first face (132);
a pair of lower jaws (108, 110) installed on the second face (134) and adapted to slide transversely along the second face (134);
wherein the pair of upper jaws (104, 106) and the pair of lower jaws (108, 110) are adapted to form an adjustable mount adapted to receive and align the coil (200) with respect to a center of the first face (132).

2. The coil placement mechanism (100) as claimed in claim 1, comprising
a plurality of guide members (154, 156) disposed on the first face (132) of the base plate (102) for guiding the coil holding member (202) adapted to be joined with the coil (200).

3. The coil placement mechanism (100) as claimed in claim 1, wherein the base plate (102) comprising:
a pair of upper rails (128, 130) positioned parallel to each other on the first face (132) to support the pair of upper jaws (104, 106), the pair of upper rails (128, 130) adapted to guide the longitudinal sliding of the pair of upper jaws (104, 106); and
a pair of lower rails positioned orthogonally to the pair of upper rails (128, 130) on the second face (134) to support the pair of lower jaws (108, 110), the pair of lower rails positioned parallel to each other, the pair of lower rails adapted to guide the transverse sliding of the pair of lower jaws (108, 110).

4. The coil placement mechanism (100) as claimed in claim 3, wherein the base plate (102) comprising:
an upper protrusion (148) positioned in between the pair of upper rails (128, 130) on the first face (132), the upper protrusion (148) is adapted to accommodate an upper pinion (150);
a lower protrusion positioned in between the pair of lower rails on the second face (134), the lower protrusion is adapted to accommodate a lower pinion (152).

5. The coil placement mechanism (100) as claimed in claim 1, wherein the pair of upper jaws (104, 106) comprising:
a first upper jaw (104) installed on the first face (132) of the base plate (102);
a second upper jaw (106) installed parallel to the first upper jaw (104) on the first face (132) of the base plate (102).

6. The coil placement mechanism (100) as claimed in claim 5, wherein the pair of lower jaws (108, 110) comprising:
a first lower jaw (108) installed orthogonally with respect to the first upper jaw (104) and the second upper jaw (106) on the second face (134) of the base plate (102);
a second lower jaw (110) installed parallel to the first lower jaw (108) on the second face (134) of the base plate (102).

7. The coil placement mechanism (100) as claimed in claims 5 and 6, wherein
each of the first upper jaw (104) and the second upper jaw (106) comprising a first rack (124) adapted to engage with the upper pinion (150) to execute the sliding of the first upper jaw (104) and the second upper jaw (106); and
each of the first lower jaw (108) and the second lower jaw (110) comprising a second rack (126) adapted to engage with the lower pinion (152) to execute the sliding of the first lower jaw (108) and the second lower jaw (110).

8. The coil placement mechanism (100) as claimed in the claim 1, comprising:
a pair of upper resilient members (140, 142) attached with the first face (132) and the pair of upper jaws (104, 106) for providing a resilient force to the pair of upper jaws (104, 106);
a pair of lower resilient members (144, 146) attached with the second face (134) and the pair of lower jaws (108, 110) for providing the resilient force to the pair of lower jaws (108, 110).

9. The coil placement mechanism (100) as claimed in the claim 1, wherein the pair of upper jaws (104, 106) comprising:
a first upper end;
a second upper end positioned opposite to the first upper end, the second upper end comprising a first flange (112) protruded from the pair of the upper jaws (104, 106) to support the coil (200).

10. The coil placement mechanism (100) as claimed in the claim 1, wherein the pair of lower jaws (108, 110) comprising:
a first lower end;
a second lower end positioned opposite to the first lower end, the second lower end comprising a second flange (114) protruded from the pair of lower jaws (108, 110) to support the coil (200).

11. The coil placement mechanism (100) as claimed in claim 1, wherein one of the coil (200) and the coil holding member (202) comprising a layer of adhesives.