Abstract:
An electronics assembly includes multiple electronic components coupled to a fabric. Each of the multiple electronic components includes one or more electrical connection points, such as a bond pad or solder bump. The electronics assembly also includes one or more electrically conductive wire braids, one electrically conductive wire braid coupled to one electrical connection point on an electronic component. One of the electrically conductive wire braids interconnects two electronic components, thereby providing an electrical connection between the two electronic components. The electrically conductive wire braid can be attached to the fabric by an adhesive, a stitched thread, which can be either electrically insulated or electrically conductive, or both adhesive and stitched thread. The fabric can be a wearable fabric, such as a shirt or pants, or other form to be worn by a user, such as an armband, waistband, hat or shoes.

Description:
RELATED APPLICATIONS 
     This Patent Application claims priority under 35 U.S.C. 119 (e) of the U.S. Provisional Application, Ser. No. 61/913,830, filed Dec. 9, 2013, and entitled “METAL FABRIC STITCHING AND STRETCHABLE BATTERIES”. This application incorporates U.S. Provisional Application, Ser. No. 61/913,830 in its entirety by reference. 
    
    
     FIELD OF THE INVENTION 
     The present invention is generally directed to the field of wearable electronics. More specifically, the present invention is directed to wearable electronics fabric having multiple electronic components with electrical connectivity provided by stitched electrically conductive wire and metal wire braid. 
     BACKGROUND OF THE INVENTION 
     Electronic devices are increasingly being developed so as to be worn by a user, such as in wearable electronics. Many wearable electronics are designed as stand alone devices having an electronic component attached to band that is used for securing the device to a user, such as a wristwatch having a wrist-band or a heart-rate monitor having a band that wraps around a users chest. The electronic component of such devices often includes a housing with an integrated clasp or securing means for attaching to the band. Adhesive can also be used to secure the electronic component to the band. Instead of stand-alone devices, other wearable electronics are being integrated with clothing. Adhesives can also be used in these applications to secure the electronic component to a clothing fabric. 
     Metal wires are commonly used as electrical conductors between electronic devices. As applied to wearable electronics, providing electrical connectivity to or between one or more worn electrical devices is typically done using a separate electrical cable that includes a metal wire. However, having loose cables is often a nuisance and ungainly. 
     SUMMARY OF THE INVENTION 
     Embodiments of an electronics assembly are directed to multiple electronic components coupled to a fabric. Each of the multiple electronic components includes one or more electrical connection points, such as a bond pad or solder bump. The electronics assembly also includes one or more electrically conductive wire braids, one electrically conductive wire braid coupled to one electrical connection point on an electronic component. The electrically conductive wire braid includes a plurality of individual electrically conductive wires braided together. One of the electrically conductive wire braids interconnects two electronic components, thereby providing an electrical connection between the two electronic components. In some embodiments, the electrically conductive wire braid is attached to the fabric by an adhesive. In other embodiments, the electrically conductive wire braid is attached to the fabric using a stitched thread, which can be either electrically insulated thread or another electrically conductive wire. In some embodiments, the fabric is a wearable fabric, such as a shirt or pants, or other form to be worn by a user, such as an armband, waistband, hat or shoes. 
     In an aspect, an electronics assembly is disclosed that includes a fabric, a first electronic component, a second electronic component and an electrically conductive wire braid. The first electronic component includes a first electrical connection point, and the second electronic component includes a second electrical connection point. The electrically conductive wire braid is coupled to the fabric. The electrically conductive wire braid includes a first portion coupled to the first electrical connection point of the first electronic component and a second portion coupled to the second electrical connection point of the second electronic component such that an electrical connection is formed between the first electrical connection point and the second electrical connection point via the electrically conductive wire braid. In some embodiments, the first electrical connection point and the second electrical connection point are each a bond pad. In some embodiments, the first electrical connection point and the second electrical connection point are each a solder bump. In some embodiments, the first electrical connection point is coupled to the first portion of the electrically conductive wire braid and the second electrical connection point is coupled to the second portion of the electrically conductive wire braid via a solder joint, a welded joint or an electrically conductive adhesive. In some embodiments, the electrically conductive wire braid is coupled to the fabric using an adhesive. In other embodiments, the electrically conductive wire braid is coupled to the fabric using a non-electrically conductive thread stitched to the fabric and to the electrically conductive wire braid. In still other embodiments, the electrically conductive wire braid is coupled to the fabric using an electrically conductive thread stitched to the fabric and to the electrically conductive wire braid. In some embodiments, the electrically conductive wire braid includes a plurality of electrically conductive wires. In some embodiments, each of the plurality of electrically conductive wires is a metal wire made of one or more of copper, silver, nickel and their alloys. Each of the plurality of electrically conductive wires can include an electrically conductive plating finish. In some embodiments, the electrically conductive wire braid includes a plurality of electrically conductive wires braided together. In some embodiments, the electronics assembly further includes an encapsulation layer coupled to the first electronic component, the second electronic component and the electrically conductive wire braid. In some embodiments, the first electronic component includes a third electrical connection point, and the electronics assembly further includes a second electrically conductive wire braid coupled to the third electrical connection point. In some embodiments, the electronics assembly further includes an electrically conductive wire stitched to the fabric and to the second electrically conductive wire braid such that an electrical connection is formed between the electrically conductive wire and the second electrically conductive wire braid. In some embodiments, the second electrically conductive wire braid is coupled to the fabric using an adhesive. In other embodiments, the second electrically conductive wire braid is coupled to the fabric using a non-electrically conductive thread stitched to the fabric and to the second electrically conductive wire braid. In still other embodiments, the second electrically conductive wire braid is coupled to the fabric using a second electrically conductive thread stitched to the fabric and to the second electrically conductive wire braid. In some embodiments, the fabric includes an insulated wire including an inner metal wire and an outer insulation layer, further wherein the electrically conductive wire is electrically coupled to the inner metal wire of the insulated wire. In some embodiments, the electrically conductive wire stitched to the fabric includes two separate wires, wherein the two separate wires include a metal wire and an insulation wire. In some embodiments, the electronics assembly is wearable. 
     In another aspect, a method of making an electronics assembly is disclosed. The method includes attaching a first electrical connection point of a first electronic component to a first portion of an electrically conductive wire braid, thereby forming an electrical connection between the electrically conductive wire braid and the first electrical connection point. The method also includes attaching a second electrical connection point of a second electronic component to a second portion of the electrically conductive wire braid, thereby forming an electrical connection between the electrically conductive wire braid and the second electrical connection point such that an electrical connection is formed between the first electrical connection point and the second electrical connection point via the electrically conductive wire braid. The method also includes attaching the electrically conductive wire braid to a fabric. In some embodiments, attaching the first electrical connection point of the first electronic component to the first portion of the electrically conductive wire braid and attaching the second electrical connection point of the second electronic component to the second portion of the electrically conductive wire braid includes soldering, welding or using an electrically conductive adhesive. In some embodiments, attaching the electrically conductive wire braid to the fabric includes using an adhesive. In other embodiments, attaching the electrically conductive wire braid to the fabric includes stitching a non-electrically conductive thread to the electrically conductive wire braid and to the fabric. In still other embodiments, attaching the electrically conductive wire braid to the fabric includes stitching an electrically conductive thread to the electrically conductive wire braid and to the fabric. In some embodiments, the method also includes adding an encapsulation layer coupled to the first electronic component, the second electronic component and the electrically conductive wire braid. In some embodiments, the first electronic component includes a third electrical connection point, and the electronics assembly further includes a second electrically conductive wire braid, wherein the method further includes attaching a first portion of the second electrically conductive wire braid to the third electrical connection point. In some embodiments, the method also includes stitching an electrically conductive wire to the fabric and to a second portion of the second electrically conductive wire braid such that an electrical connection is formed between the electrically conductive wire and the second electrically conductive wire braid. In some embodiments, the method also includes attaching the second electrically conductive wire braid to the fabric using an adhesive. In other embodiments, the method also includes the second electrically conductive wire braid to the fabric using a non-electrically conductive thread stitched to the fabric and to the second electrically conductive wire braid. In still other embodiments, the method also includes attaching the second electrically conductive wire braid to the fabric using a second electrically conductive thread stitched to the fabric and to the second electrically conductive wire braid. In some embodiments, the fabric includes an insulated wire including an inner metal wire and an outer insulation layer, and the method further includes electrically coupling the electrically conductive wire to the inner metal wire of the insulated wire. In some embodiments, the electrically conductive wire stitched to the fabric includes two separate wires, wherein the two separate wires include a metal wire and an insulation wire, and stitching the electrically conductive wire to the fabric includes stitching the two separate wires. In some embodiments, the electronics assembly is wearable. 
    
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
       Several example embodiments are described with reference to the drawings, wherein like components are provided with like reference numerals. The example embodiments are intended to illustrate, but not to limit, the invention. The drawings include the following figures: 
         FIG. 1  illustrates a cut out side view of an electronic component coupled to a fabric according to an embodiment. 
         FIG. 2  illustrates a top down view of the wire braid of  FIG. 1  according to an embodiment. 
         FIG. 3  illustrates a method of making an electronics assembly according to an embodiment. 
         FIG. 4  illustrates another method of making an electronics assembly according to an embodiment. 
         FIG. 5  illustrates yet another method of making an electronics assembly according to an embodiment. 
         FIG. 6  illustrates a cut out side view of two electronic components coupled to a fabric according to an embodiment. 
         FIG. 7  illustrates a cut out side view of two electronic components coupled to a fabric according to another embodiment. 
         FIG. 8  illustrates a method of making an electronics assembly having multiple electronic components according to an embodiment. 
         FIG. 9  illustrates another method of making an electronics assembly having multiple electronic components according to an embodiment. 
     
    
    
     DETAILED DESCRIPTION OF THE EMBODIMENTS 
     Embodiments of the present application are directed to multiple electronic components coupled to a fabric and methods of attaching the electronic components to the fabric and providing electrical connectivity between the electronic components. Those of ordinary skill in the art will realize that the following detailed description of the products and methods are illustrative only and is not intended to be in any way limiting. Other embodiments of the products and methods will readily suggest themselves to such skilled persons having the benefit of this disclosure. 
     Reference will now be made in detail to implementations of the products and methods as illustrated in the accompanying drawings. The same reference indicators will be used throughout the drawings and the following detailed description to refer to the same or like parts. In the interest of clarity, not all of the routine features of the implementations described herein are shown and described. It will, of course, be appreciated that in the development of any such actual implementation, numerous implementation-specific decisions must be made in order to achieve the developer&#39;s specific goals, such as compliance with application and business related constraints, and that these specific goals will vary from one implementation to another and from one developer to another. Moreover, it will be appreciated that such a development effort might be complex and time-consuming, but would nevertheless be a routine undertaking of engineering for those of ordinary skill in the art having the benefit of this disclosure. 
       FIG. 1  illustrates a cut out side view of an electronic component coupled to a fabric according to an embodiment. As used herein, the term “fabric” generally applies to cloth or other similar materials made of threads, fibers, filaments or the like, generally referred to herein as “threads”. Materials used for threads can include, but are not limited to, cotton, wool, nylon, polyester or other synthetic materials. An electronic component  10  is coupled to a fabric  2  via one or more electrically conductive wire braids  4 . The electronic component  10  can be any conventional electronic component including, but not limited to, an active electronic component such as an integrated circuit, a passive electronic component such as a resistor, a capacitor and an inductor, and a power supply. 
     Off-component electrical connectivity can be provided by electrical connection points, such as electrical connection point  8 . In the exemplary configuration shown in  FIG. 1 , the electronic component  10  includes two electrical connection points  8 . It is understood that the electronic component can include more or less than two electrical connection points, and that the electrical connection points can be alternatively positioned than that shown in  FIG. 1 . Examples of electrical connection points include, but are not limited to, bond pads and solder bumps. It is understood that other types of conventional electrical connection points can be used. In some embodiments, there is one electrically conductive wire braid  4  coupled to each electrical connection point  8 . The wire braid  4  can be attached by soldering, welding or using electrically conductive adhesive. It is understood that other conventional methods can be used to provide a mechanical and electrical connection between the electrical connection point and the wire braid. 
     As shown in  FIG. 1 , a first portion of the wire braid  4  is coupled to the electrical connection point  8  of the electronic component  10 , and a second portion of the wire braid  4  extends beyond a footprint of the electronic component  10 . The second portion of the wire braid  4  is stitched to the fabric  2  using an electrically conductive stitched wire  6 . 
     In some embodiments, the wire braid is made of a plurality of electrically conductive wires braided together.  FIG. 2  illustrates a top down view of the wire braid  4  of  FIG. 1  according to an embodiment. The wire braid  4  is made of a plurality of electrically conductive wires  16  braided together. In some embodiments, the electrically conductive wires  16  are metal wires. Examples of such metal wires include, but are not limited to, copper, silver, steel, nickel, and their alloys. In some embodiments, the metal wires are coated with a plating finish to protect from corrosion and enhance electrical conductivity. Examples of such plating finishes include, but are not limited to, gold flash over nickel, silver, or solder. The gauge of the metal wire can vary by application. In general, the gauge and density of the electrically conductive wires  16  is configured to enable a stitching needle to penetrate between adjacent electrically conductive wires. Further, the geometry of the wire braid  4  can vary by application. In the exemplary configuration shown in  FIG. 2 , the wire braid  4  is a strand. It is understood that the wire braid can be alternatively shaped. It is also understood that the braiding pattern formed by the plurality of electrically conductive wires can vary from that shown in  FIG. 2 . In some embodiments, the wire braid is a desoldering metal braid, also called a solder wick or desolder wick, which is a braid made of copper wire and the braid is coated with rosin flux. 
     Referring again to  FIG. 1 , the stitched wire  6  is coupled to the wire braid  4  and to the fabric  2  with sufficient force to provide an electrical connection between the wire braid  4  and the stitched wire  6 . Although the primary function of the stitched wire  6  is to provide electrical connection to the wire braid  4 , the stitched wire  6  provides a secondary function of securing the wire braid  4  to the fabric  2 . However, in some embodiments, the stitched wire  6  is stitched to only a small area of the wire braid  4 . Attaching a larger area of the wire braid  4  to the fabric  2  is typically advisable for increased durability and long term attachment. In some embodiments, the wire braid  4  is coupled to the fabric  2  by an adhesive. The adhesive can be any conventional adhesive sufficient to adhere a wire braid to a fabric, such as an epoxy or glue. In some embodiments, the adhesive is selectively applied such that none of the stitched wire passes through adhesive. In other embodiments, the wire braid  4  is coupled to the fabric  2  by another stitched thread, which can be either electrically conductive or electrically insulated. This stitched thread can be applied over a greater area of the wire braid  4  than the stitched wire  6 . For example the stitched thread can be applied around a perimeter of the wire braid  4 . 
     In some embodiments, the stitched wire  6  is stitched using any conventional stitching process that uses two threads. In this case, the stitched wire  6  includes two wires, a first wire is electrically conductive and a second wire, a bobbin wire, is electrically insulated so that the two wires do not short together. In some embodiments, the first wire is made of electrically conductive material such as metal, carbon fiber, nylon wire coated with silver finish, or metal particles embedded polymer wire. Examples of metal wire include, but are not limited to, copper, silver, steel, nickel or their alloys. The metal wire can also be coated with different finishes such as gold flash over nickel, silver or solder. In some embodiments, the second wire is made of electrically insulated material such as nylon or polyester. It is understood that alternative electrically conductive materials can be used for the first wire and alternative electrically insulated materials can be used for the second wire. For simplicity, the stitched wire is generally referred to herein as being electrically conductive, even in those configurations where a second insulated wire is used in the stitching process. 
     In some embodiments, an encapsulation layer is added over the electronic component  10 , the wire braid  4  and the stitched wire  6 , such as an encapsulation layer  12  shown in  FIG. 3-5 . A backside encapsulation layer is also added over the stitched wire  6  on the backside of the fabric  2 . In some embodiments, the encapsulation layer is an elastic material, such as an elastic polymer, or elastomer, which is a polymer with viscoelasticity. It is understood that alternative elastic substrates can be used including, but not limited to, silicone, urethane, latex and spandex, also referred to as elastane. The encapsulation layer provides environmental protection as well as electrical isolation of individual electrical connection points and wires. 
     The number and positions of the electrical connection points and corresponding wire braids extending from the electronic component varies by application. One or more wire braids can extend laterally from the electronic component in any direction. One or more stitches can be used to stitch electrically conductive wire to any given wire braid. The number and placement of electrically conductive wire stitches per wire braid can vary. For example, the wire braid  4  shown in  FIG. 1  has three stitches of the electrically conductive wire  6 . It is understood that there can be more or less than three stitches. 
     In some embodiments, the fabric includes one or more insulated wires intermixed with the fabric threads. An example of a fabric having intermixed insulated wires is found in the co-pending U.S. patent application Ser. No. 14/194,497, titled “Magnet Wire for Wearable Electronics Fabric”, which is hereby incorporated in its entirety by reference. In some embodiments, the insulated wire includes an inner metal wire and an outer insulation layer. In some embodiments, the electrically conductive wire stitched to the wire braid is also electrically coupled to the metal wire within the insulated wire of the fabric. 
     As used herein, the term “intermix” generally refers to mixing or blending together and is applied herein to describe the manner by which an insulated wire, such as a magnet wire, is integrated as part of a fabric. The magnet wire is intermixed with the fabric using conventional methodologies, for example weaving, stitching, felting or knitting, and is intended to include, but not be limited to, such similar concepts as intertwining, interweaving, interspersing, interlacing, intermingling and the like of the magnet wire and fabric threads. 
     Magnet wire is typically made of a copper or aluminum wire coated with a very thin layer of insulation. Magnet wire is referred to as “magnet” due to its electromagnetic applications. Magnet wires can be used in the construction of transformers, inductors, motors, speakers, hard disk head actuators, potentiometers, electromagnets, and other applications which require tight coils of wire. The metal wire itself is most often fully annealed, electrolytically refined copper. Smaller diameter magnet wire usually has a round cross section. An example of this kind of wire is used for things such as electric guitar pickups. Thicker magnet wire is often square or rectangular with rounded corners to provide more current flow per coil length. 
     In some embodiments, magnet wire includes one to four layers of polymer film insulation, often of two different compositions, to provide a tough, continuous insulating layer. Materials used for magnet wire insulating films can include, but are not limited to, polyvinyl formal (Formvar™), polyurethane, polyamide, polyester, polyester-polyimide, polyamide-polyimide (or amide-imide), and polyimide. Polyimide insulated magnet wire is capable of operation at up to 250° C. In other embodiments, different types of insulation are used including, but not limited to, fiberglass yarn with varnish, aramid paper, kraft paper, mica, and polyester film. It is understood that are types of magnet wires can be used, for example a silver wire having various insulators, such as polytetrafluoroethylene (Teflon™), such as that found in the audio industry. For ease of manufacturing, newer magnet wires can have insulation that acts as a flux when burnt during soldering. This results in magnet wires having electrical connections at the ends that can be made without stripping off the insulation first. Older magnet wires do not have this type of insulation and can require sandpapering or scraping to remove the insulation before soldering. 
     There are various methodologies of making the electronic assembly including the electronics component, the wire braid and the fabric.  FIG. 3  illustrates a method of making an electronics assembly according to an embodiment. For exemplary purposes, the method of  FIG. 3  is described in terms of the electronic assembly of  FIG. 1 . At the step  20 , the electronic component  10  is obtained. The electronic component includes one or more electrical connection points. In the exemplary case of the electronic component  10 , there are two electrical connection points  8 . 
     At the step  22 , the electrically conductive wire braid  4  is obtained. In the exemplary case where there are two electrical connection points  8 , there are two separate wires braids  4 , one for each electrical connection point  8 . In some embodiments, a long strand of wire braid is cut into individual wire braids. Each wire braid  4  can be selectively formed into application specific shapes based on design requirements and constraints. 
     At the step  24 , one wire braid  4  is attached to one electrical connection point  8 . The wire braid  4  can be attached by soldering, welding or using electrically conductive adhesive. It is understood that other conventional methods can be used to provide a mechanical and electrical connection between the electrical connection point and the wire braid. The wire braid  4  is shaped and attached such that once attached to the electrical connection point a portion of the wire braid extends laterally beyond a footprint of the electronic component  10 . 
     At the step  26 , the wire braids  4  are attached to the fabric  2 . In some embodiments, the wire braids  4  are attached to the fabric  2  using an adhesive, which can be pre-applied to the wire braids  4 , the fabric  2  or both. In some embodiments, a curing step is performed to secure the wire braids  4  and the fabric  2  to the adhesive. 
     At the step  28 , each wire braid  4  is stitched to the fabric  2  using electrically conductive stitched wire  6 . An optional additional step can be performed where the stitched wire  6  is electrically coupled to an insulated wire (not shown) intermixed in the fabric  2 . Another optional additional step can be performed wherein a first end of the stitched wire  6  is stitched to the wire braid  4 , as shown in  FIG. 3 , and a second end of the stitched wire  6  is stitched to another wire braid (not shown), where this other wire braid can be coupled to the electrical connection point of a different electronic component. 
     At the step  30 , an encapsulation layer  12  is added over the electronic component  10 , the wire braids  4  and the stitched wires  6 . 
     Steps  24  and  26  are shown as attaching the wire braids  4  to the electrical connection points  8  prior to attaching the wire braids  4  to the fabric  2 . This process can be reversed.  FIG. 4  illustrates another method of making an electronics assembly according to an embodiment. The method of  FIG. 4  is similar to that of the method of  FIG. 3  except that the wire braids  4  are first attached to the fabric  2 , then the electrical connection points  8  are attached to the wire braids  4 . Specifically, at the step  40 , the electronic component  10  is obtained. At the step  42 , the electrically conductive wire braids  4  are obtained. At the step  44 , the wire braids  4  are attached to the fabric  2 . In some embodiments, the wire braids  4  are attached to the fabric  2  using an adhesive, which can be pre-applied to the wire braids  4 , the fabric  2  or both. In some embodiments, a curing step is performed to secure the wire braids  4  and the fabric  2  to the adhesive. 
     At the step  46 , the electronic component  10  is attached to the wire braids  4  such that one electrical connection point  8  is attached to a corresponding one wire braid  4 . The wire braids  4  can be attached by soldering, welding or using electrically conductive adhesive. It is understood that other conventional methods can be used to provide a mechanical and electrical connection between the electrical connection point and the wire braid. Each wire braid  4  is shaped and attached such that once attached to the electrical connection point a portion of the wire braid extends laterally beyond a footprint of the electronic component  10 . 
     At the step  48 , each wire braid  4  is stitched to the fabric  2  using electrically conductive stitched wire  6 . An optional additional step can be performed where the stitched wire  6  is electrically coupled to an insulated wire (not shown) intermixed in the fabric  2 . Another optional additional step can be performed wherein a first end of the stitched wire  6  is stitched to the wire braid  4 , as shown in  FIG. 4 , and a second end of the stitched wire  6  is stitched to another wire braid (not shown), where this other wire braid can be coupled to the electrical connection point of a different electronic component. 
     At the step  50 , the encapsulation layer  12  is added over the electronic component  10 , the wire braids  4  and the stitched wires  6 . 
     It is understood that the wire braids  4  can be attached to the fabric using alternative conventional attachment means.  FIG. 5  illustrates yet another method of making an electronics assembly according to an embodiment. The method of  FIG. 5  is similar to that of the method of  FIG. 4  except that each wire braid is attached to the fabric by using a stitched thread. Specifically, at the step  60 , the electronic component  10  is obtained. At the step  62 , the electrically conductive wire braids  4  are obtained. At the step  64 , the wire braids  4  are attached to the fabric  2 . Each wire braid  4  is stitched to the fabric  2  using a stitched thread  14 , which can be electrically conductive or electrically insulated. This stitched thread can be applied over a greater area of the wire braid  4  than the stitched wire  6 . For example, a stitched thread can be applied around a perimeter of each wire braid  4 . 
     At the step  66 , the electronic component  10  is attached to the wire braids  4  such that one electrical connection point  8  is attached to a corresponding one wire braid  4 . The wire braid  4  can be attached by soldering, welding or using electrically conductive adhesive. It is understood that other conventional methods can be used to provide a mechanical and electrical connection between the electrical connection point and the wire braid. The wire braid  4  is shaped and attached such that once attached to the electrical connection point a portion of the wire braid extends laterally beyond a footprint of the electronic component  10 . 
     At the step  68 , each wire braid  4  is stitched to the fabric  2  using electrically conductive stitched wire  6 . Portions of the electrically conductive stitched wire  6  and the stitched thread  14  may overlap. An optional additional step can be performed where the electrically conductive stitched wire  6  is electrically coupled to an insulated wire (not shown) intermixed in the fabric  2 . Another optional additional step can be performed wherein a first end of the electrically conductive stitched wire  6  is stitched to the wire braid  4 , as shown in  FIG. 5 , and a second end of the electrically conductive stitched wire  6  is stitched to another wire braid (not shown), where this other wire braid can be coupled to the electrical connection point of a different electronic component. 
     At the step  70 , the encapsulation layer  12  is added over the electronic component  10 , the wire braids  4  and the electrically conductive stitched wires  6 . If the stitched thread  14  is electrically conductive, then the encapsulation layer  12  is also added over the stitched thread  14 . 
     The exemplary configurations described above are directed to a single electronic component coupled to the fabric. It is understood that alternative configurations are configured that include more than one electronic component coupled to the fabric. Electrical connections between two electronic components can be provided using one or more electrically conductive wire braids.  FIG. 6  illustrates a cut out side view of two electronic components coupled to a fabric according to an embodiment. The electronics assembly shown in  FIG. 6  is similar to the electronics assembly of  FIG. 1  with the addition of a second electronic component coupled to the fabric, and the two electronics components electrically coupled using an electrically conductive wire braid. An electronic component  110  is coupled to a fabric  102  via wire braid  104  and wire braid  112 . In the exemplary configuration shown in  FIG. 6 , the electronic component  110  includes two electrical connection points, electrical connection point  108  and electrical connection point  118 . 
     As shown in  FIG. 6 , a first portion of the wire braid  104  is coupled to the electrical connection point  118  of the electronic component  110 , and a second portion of the wire braid  104  extends beyond a footprint of the electronic component  110 . The second portion of the wire braid  104  is stitched to the fabric  102  using an electrically conductive stitched wire  106 . 
     An electronic component  130  is coupled to the fabric  102  via wire braid  124  and wire braid  112 . In the exemplary configuration shown in  FIG. 6 , the electronic component  130  includes two electrical connection points, electrical connection point  128  and electrical connection point  132 . A first portion of the wire braid  124  is coupled to the electrical connection point  128  of the electronic component  130 , and a second portion of the wire braid  124  extends beyond a footprint of the electronic component  130 . The second portion of the wire braid  124  is stitched to the fabric  102  using an electrically conductive stitched wire  126 . 
     The wire braid  112  provides an electrical connection between the electronic component  110  and the electronic component  130 . A first portion of the wire braid  112  is coupled to the electrical connection point  108  of the electronic component  110 , and a second portion of the wire braid  112  is coupled to the electrical connection point  132  of the electronic component  130 . 
     Similarly to the single electronic component embodiments described above, the wire braids  104 ,  112  and  124  can be further secured to the fabric. As shown in  FIG. 6 , the wire braid  112  is stitched to the fabric  102  using stitched thread  114 , which can be either electrically conductive or electrically insulated. Although not shown in  FIG. 6 , the wire braid  104  and the wire braid  124  can be stitched to the fabric  102  using an additional stitched thread, which can be either electrically conductive or electrically insulated. In other embodiments, the wire braid  112  is coupled to the fabric  102  by an adhesive without using a stitched thread, such as shown in  FIG. 7 . The adhesive can be any conventional adhesive sufficient to adhere a wire braid to a fabric, such as an epoxy or glue. In some embodiments, the adhesive is selectively applied such that none of the stitched wire passes through adhesive. In still other embodiments, the wire braids can be secured to the fabric using both stitched thread and adhesive. 
     In some embodiments, an encapsulation layer is added over the electronic components  110  and  130 , the wire braids  104 ,  112  and  124  and the stitched wires  106  and  126 , such as an encapsulation layer  134  shown in  FIG. 8-9 . A backside encapsulation layer is also added over the stitched wires  106  and  126  on the backside of the fabric  102 . In the case where the stitched thread  114  is electrically conductive, the encapsulation layer also covers the stitched thread  114 . 
     Although  FIG. 6  shows only a single wire braid interconnect between the two electronic components, it is understood that two electronic components can be electrically interconnected using more than one wire braid. 
     There are various methodologies of making the electronic assembly including the multiple electronic components, the wire braids and the fabric.  FIG. 8  illustrates a method of making an electronics assembly having multiple electronic components according to an embodiment. For exemplary purposes, the method of  FIG. 8  is described in terms of the electronic assembly of  FIG. 6 . At the step  150 , the wire braid  104  is coupled to the electrical connection point  118  of the electronic component  110 , and the wire braid  112  is coupled to the electrical connection point  108 . The wire braids  104  and  112  can be attached by soldering, welding or using electrically conductive adhesive. It is understood that other conventional methods can be used to provide a mechanical and electrical connection between the electrical connection point and the wire braid. The wire braids  104  and  112  are shaped and attached such that once attached to their corresponding electrical connection points a portion of each wire braid extends laterally beyond a footprint of the electronic component  110 . 
     At the step  152 , the wire braids  104  and  112  are attached to the fabric  102 . In some embodiments, the wire braids  104  and  112  are attached to the fabric  102  using an adhesive, which can be pre-applied to the wire braids  104  and  122 , the fabric  102  or to each. In some embodiments, a curing step is performed to secure the wire braids  104  and  112  and the fabric  102  to the adhesive. The portion of the wire braid  104  that extends beyond a footprint of the electronic component  110  is stitched to the fabric  102  using stitched electrically conductive wire  106 . A portion of the wire braid  112  that extends beyond a footprint of the electronic component  110  is stitched to the fabric  102  using a stitched thread  113 . The stitched thread  113  can be electrically conductive or electrically insulated. Only a portion of the wire braid  112  is stitched at this step to leave the second portion of the wire braid  112  available for attaching to the electrical connection point  132  of the electronic component  130 . The portion of the wire braid  112  left unstitched is greater than the second portion so as to leave sufficient space such that when the electronic component  130  is subsequently attached to the second portion of the wire braid  112  the stitched thread  113  is undamaged by the attachment process. An optional additional step can be performed where the stitched electrically conductive wire  106  is electrically coupled to an insulated wire (not shown) intermixed in the fabric  102 . 
     At the step  154 , the wire braid  124  is attached to the fabric  102 , and the electronic component  130  is coupled to the wire braids  112  and  124 . Specifically, the second portion of the wire braid  112  is coupled to the electrical connection point  132  of the electronic component  130 , and the first portion of the wire braid  124  is coupled to the electrical connection point  128  of the electronic component  130 . The second portion of the wire braid  124  extends beyond a footprint of the electronic component  130 . In some embodiments, the wire braid  124  is attached to the fabric  102  using an adhesive, which can be pre-applied to the wire braid  124 , the fabric  102  or both. In some embodiments, a curing step is performed to secure the wire braid  124  and the fabric  102  to the adhesive. In some embodiments, the wire braid  124  is first attached to the fabric  102 , then the electronic component  130  is coupled to the wire braids  112  and  124 . In other embodiments, the wire braid  124  is first attached to the electronic component  130  at the electrical connection point  128 , then the assembled electronic component  130  and wire braid  124  are attached as an assembly to the wire braid  112  and to the fabric  102 . 
     At the step  156 , the second portion of the wire braid  124  is stitched to the fabric  102  using stitched electrically conductive wire  126 . The wire braid  124  can be further secured to the fabric  102  using an option additional stitched thread, which can be either electrically conductive or electrically insulated. The remaining unstitched portion of the wire braid  112  that extends beyond a footprint of the electronic component  110  and the electronic component  130  is stitched to the fabric  102  using a stitched thread  115 . The stitched thread  115  can be electrically conductive or electrically insulated. The combination of the stitched thread  113  and the stitched thread  115  constitutes the stitched thread  114  in  FIG. 1 . 
     At the step  158 , the encapsulation layer  134  is added over the electronic components  110  and  130 , the wire braids  104 ,  112  and  124  and the stitched wires  106  and  126 . The encapsulation layer  134  includes backside encapsulation added over the stitched wires  106  and  126  on the backside of the fabric  102 . In the case where the stitched threads  113  and  115  are electrically conductive, the encapsulation layer  134  also covers the stitched threads  113  and  115 . 
     It is understood that the sequence of attaching the various electronic components, wire braids and fabric can vary from the exemplary methods of assembly described above. For example, the two electronic components and the wire braids can be entirely assembled as a sub-assembly prior to attaching to the fabric.  FIG. 9  illustrates another method of making an electronics assembly having multiple electronic components according to an embodiment. The method of  FIG. 9  is similar to that of the method of  FIG. 8  except that two electronic components  110  and  130  and the wire braids  104 ,  112  and  124  are entirely assembled as a sub-assembly prior to attaching to the fabric  102 . At the step  160 , the wire braid  104  is coupled to the electrical connection point  118  of the electronic component  110 , the first portion of the wire braid  112  is coupled to the electrical connection point  108  of the electronic component  110 , the second portion of the wire braid  112  is coupled to the electrical connection point  132  of the electronic component  130 , and the wire braid  124  is coupled to the electrical connection point  128  of the electronic component  130 . The electronic components  110  and  130  coupled to the wire braids  104 ,  112  and  124  form a sub-assembly. 
     At the step  162 , the sub-assembly is coupled to the fabric  102 . Specifically, the wire braids  104 ,  112  and  124  coupled to the fabric  102 . In some embodiments, the wire braids  104 ,  112  and  124  are attached to the fabric  102  using an adhesive, which can be pre-applied to the wire braids  104 ,  112  and  124 , the fabric  102  or to each. In some embodiments, a curing step is performed to secure the wire braids  104 ,  112  and  124  and the fabric  102  to the adhesive. 
     At the step  164 , a stitching step is performed. The portion of the wire braid  104  that extends beyond a footprint of the electronic component  110  is stitched to the fabric  102  using stitched electrically conductive wire  106 . The portion of the wire braid  124  that extends beyond a footprint of the electronic component  130  is stitched to the fabric  102  using stitched electrically conductive wire  126 . In some embodiments, the portion of the wire braid  112  that extends beyond the footprint of the electronic component  110  and the footprint of the electronic component  130  is stitched to the fabric  102  using a stitched thread  114 . The stitched thread  114  can be electrically conductive or electrically insulated. The wire braid  104  can be further secured to the fabric  102  using an option additional stitched thread (not shown), which can be either electrically conductive or electrically insulated. The wire braid  124  can be further secured to the fabric  102  using an option additional stitched thread (not shown), which can be either electrically conductive or electrically insulated. An optional additional step can be performed where the stitched electrically conductive wire  106  is electrically coupled to an insulated wire (not shown) intermixed in the fabric  102 . Similarly, the stitched electrically conductive wire  126  can be electrically coupled to an insulated wire (not shown) intermixed in the fabric  102 . 
     At the step  166 , the encapsulation layer  134  is added over the electronic components  110  and  130 , the wire braids  104 ,  112  and  124  and the stitched wires  106  and  126 . The encapsulation layer  134  includes backside encapsulation added over the stitched wires  106  and  126  on the backside of the fabric  102 . In the case where the stitched thread  114  is electrically conductive, the encapsulation layer  134  also covers the stitched thread  114 . 
     It is understood that the sequence of attaching the various electronic components, wire braids and fabric can vary from the exemplary methods of assembly described above. It is also understood that one, some or all of the wire braids can be attached to the fabric using any combination of adhesive or stitching. It is also understood that other conventional means for attaching wire braids to fabric can be used to secure the wire braids to the fabric. 
     In some embodiments, either of the stitched electrically conductive wires can be used to connect to other electronic components, or to intervening insulated wires woven into the fabric, which in turn may be electrically coupled to other electronic components via stitched electrically conductive wires. 
     Although embodiments of the electronics assembly are described above as wearable electronics assembly, the general concepts described herein can be applied generally to electronics coupled to fabrics, wearable or otherwise. 
     The present application has been described in terms of specific embodiments incorporating details to facilitate the understanding of the principles of construction and operation of the products and methods. Many of the components shown and described in the various figures can be interchanged to achieve the results necessary, and this description should be read to encompass such interchange as well. As such, references herein to specific embodiments and details thereof are not intended to limit the scope of the claims appended hereto. It will be apparent to those skilled in the art that modifications can be made to the embodiments chosen for illustration without departing from the spirit and scope of the application.