Abstract: An electromagnetic interference shield system, is provided. Each EMI shield may include a frame providing the structure around the electronic device components to be shielded, and a cover operative to be placed over the frame to prevent electromagnetic radiation from passing over the frame. Each frame may be coupled to a circuit board, and enclose electronic components in need of shielding. Each cover may be coupled to its corresponding frame using at least one snap that extends from the periphery of the cover towards the frame and circuit board. To minimize the space taken by the EMI shields, the snaps of adjacent covers may be offset or staggered so that opposing snaps engage voids left between snaps of the opposing cover, thus reducing the space needed between adjacent EMI shields by up to the width of a snap.

Abstract: Methods and apparatus for aligning a display stack with respect to a housing associated with a portable electronic device are disclosed. According to one aspect of the present invention, a chassis arrangement suitable for use in aligning a display stack with respect to a housing includes a first portion, a second portion, and a coupling arrangement. The first portion is configured to engage the display stack, and the second portion is configured to enable the display stack to be manipulated when the display stack is engaged by the first portion. The coupling arrangement couples the first portion with the second portion, and is configured to enable the second portion to be detached from the first portion.

Abstract: An electromagnetic interference shield system is provided. Each EMI shield may include a frame providing the structure around the electronic device components to be shielded, and a cover operative to be placed over the frame to prevent electromagnetic radiation from passing over the frame. Each frame may be coupled to a circuit board, and enclose electronic components in need of shielding. Each cover may be coupled to its corresponding frame using at least one snap that extends from the periphery of the cover towards the frame and circuit board. To minimize the space taken by the EMI shields, the snaps of adjacent covers may be offset or staggered so that opposing snaps engage voids left between snaps of the opposing cover, thus reducing the space needed between adjacent EMI shields by up to the width of a snap.

Abstract: Methods and apparatus for aligning a display stack with respect to a housing associated with a portable electronic device are disclosed. According to one aspect of the present invention, a chassis arrangement suitable for use in aligning a display stack with respect to a housing includes a first portion, a second portion, and a coupling arrangement. The first portion is configured to engage the display stack, and the second portion is configured to enable the display stack to be manipulated when the display stack is engaged by the first portion. The coupling arrangement couples the first portion with the second portion, and is configured to enable the second portion to be detached from the first portion.

Abstract: A battery assembly for use in an electronic device is provided. The battery assembly may include a battery cell (e.g., a rechargeable battery cell), a battery connector for providing power from the battery cell to the electronic device, and a flex circuit electrically coupling the battery cell to the electronic device. The battery connector may be located adjacent the battery cell, and may include one or more alignment mechanisms for ensuring that conductive pads of the battery connector align properly with corresponding conductive elements of the electronic device. The battery cell may be fixed to the electronic device using an adhesive layer (e.g., double sided tape) placed between the cell and the electronic device. A tab may extend beyond the periphery of the battery cell to allow a user to pull or peal the battery cell from the electronic device for replacement or repair. In some embodiments, a tool may be used to grasp the tab.

Abstract: A cantilevered push button adapted for accepting an input on an electrical or electronic device is disclosed. The button can include an elongated button top component disposed about an exterior surface of an electrical or electronic device such that it is accessible to a user, and having two opposing distal ends associated with separate user inputs. A first fulcrum is located between the first distal end and the midpoint of the elongated button top component, while a second fulcrum is located between the second distal end and the midpoint. A first electrical contact is associated with the first distal end, such that when a user presses on the first distal end, the elongated button top component pivots about the second fulcrum and the first electrical contact is actuated. A second electrical contact is similarly associated with the second distal end and first fulcrum.

Abstract: A constraint mechanism for receiving an audio plug in an electronic device is provided. The constraint mechanism may include a conductive tube operative to receive the audio plug. In addition, the constraint mechanism may include several features operative to engage corresponding features of the electronic device to prevent the constraint mechanism from moving in any direction (e.g., which could cause damage in the electronic device if the audio jack was forced to move by an impact on the audio plug). For example, the constraint mechanism may include a center wall to prevent yawing, and rear tabs to prevent pitching. As another example, the constraint mechanism may include a side plate operative to be coupled to the electronic device to prevent rolling. In some embodiments, the constraint mechanism may include an asymmetrical tube entrance for ensuring the proper alignment of the constraint mechanism with an electronic device opening.

Abstract: A battery assembly for use in an electronic device is provided. The battery assembly may include a battery cell (e.g., a rechargeable battery cell), a battery connector for providing power from the battery cell to the electronic device, and a flex circuit electrically coupling the battery cell to the electronic device. The battery connector may be located adjacent the battery cell, and may include one or more alignment mechanisms for ensuring that conductive pads of the battery connector align properly with corresponding conductive elements of the electronic device. The battery cell may be fixed to the electronic device using an adhesive layer (e.g., double sided tape) placed between the cell and the electronic device. A tab may extend beyond the periphery of the battery cell to allow a user to pull or peal the battery cell from the electronic device for replacement or repair. In some embodiments, a tool may be used to grasp the tab.

Abstract: A cantilevered push button adapted for accepting an input on an electrical or electronic device is disclosed. The button can include an elongated button top component disposed about an exterior surface of an electrical or electronic device such that it is accessible to a user, and having two opposing distal ends associated with separate user inputs. A first fulcrum is located between the first distal end and the midpoint of the elongated button top component, while a second fulcrum is located between the second distal end and the midpoint. A first electrical contact is associated with the first distal end, such that when a user presses on the first distal end, the elongated button top component pivots about the second fulcrum and the first electrical contact is actuated. A second electrical contact is similarly associated with the second distal end and first fulcrum.

Abstract: Improved approaches for providing electromagnetic interference shielding to one or more electrical components within a housing of a portable electronic device are disclosed. According to one aspect of certain embodiments, an electromagnetic shield can be attached to one or more edges of a substrate (e.g., printed circuit board) provided within a housing of a portable electronic device. Advantageously, this allows the substrate space to be efficiently utilized such that relatively wide electrical components can be provided on the substrate without having to further increase the width of the substrate to provide space for an EMI shielding structure and its attachment to the substrate. The housing of the portable electronic device can be compact, such as a low profile housing.

Abstract: A constraint mechanism for receiving an audio plug in an electronic device is provided. The constraint mechanism may include a conductive tube operative to receive the audio plug. In addition, the constraint mechanism may include several features operative to engage corresponding features of the electronic device to prevent the constraint mechanism from moving in any direction (e.g., which could cause damage in the electronic device if the audio jack was forced to move by an impact on the audio plug). For example, the constraint mechanism may include a center wall to prevent yawing, and rear tabs to prevent pitching. As another example, the constraint mechanism may include a side plate operative to be coupled to the electronic device to prevent rolling. In some embodiments, the constraint mechanism may include an asymmetrical tube entrance for ensuring the proper alignment of the constraint mechanism with an electronic device opening.

Abstract: A constraint mechanism for receiving an audio plug in an electronic device is provided. The constraint mechanism may include a conductive tube operative to receive the audio plug. In addition, the constraint mechanism may include several features operative to engage corresponding features of the electronic device to prevent the constraint mechanism from moving in any direction (e.g., which could cause damage in the electronic device if the audio jack was forced to move by an impact on the audio plug). For example, the constraint mechanism may include a center wall to prevent yawing, and rear tabs to prevent pitching. As another example, the constraint mechanism may include a side plate operative to be coupled to the electronic device to prevent rolling. In some embodiments, the constraint mechanism may include an asymmetrical tube entrance for ensuring the proper alignment of the constraint mechanism with an electronic device opening.

Abstract: Methods and apparatus for aligning a display stack with respect to a housing associated with a portable electronic device are disclosed. According to one aspect of the present invention, a chassis arrangement suitable for use in aligning a display stack with respect to a housing includes a first portion, a second portion, and a coupling arrangement. The first portion is configured to engage the display stack, and the second portion is configured to enable the display stack to be manipulated when the display stack is engaged by the first portion. The coupling arrangement couples the first portion with the second portion, and is configured to enable the second portion to be detached from the first portion.

Abstract: Methods and apparatus for using an insert molding process to form a tactilely seamless overall part from component parts that are made from different materials are disclosed. According to one aspect of the present invention, a housing includes a first part formed from a first material and a second part formed from a second material that is of a different type than the first material. The first part includes a first external surface and a first bonding surface, and the second part includes a second external surface and a second bonding surface. The second bonding surface can be integrally bonded to the first bonding surface so that the first external surface and the second external surface form a gap-free overall surface.

Abstract: A tamper resistant label adapted to indicate whether a device has been opened is disclosed. The label can be flat and flexible, having a first distal end with an adhesive substance on its top side and a second distal end having an adhesive substance on its bottom side. The first distal end can be affixed to a first object, while the second distal end can be affixed to a second object separate from the first object, with the first and second objects then being coupled together to form a single device. The adhesives can render the label difficult to remove. A middle portion between the first and second distal ends can include one or more directional changes therein such that the entire label does not lie in a straight line. A substantial opening of the single device can then tear or damage the label, indicating that an opening has occurred.

Abstract: Techniques or processes for providing markings on products are disclosed. The markings provided on products can be textual and/or graphic. The techniques or processes can provide high resolution markings on surfaces that are flat or curved. In one embodiment, the products have housings and the markings are to be provided on the housings. For example, the housing for a particular product can include an outer housing surface and the markings can be provided on the outer housing surface.

Abstract: A cantilevered push button adapted for accepting an input on an electrical or electronic device is disclosed. The button can include an elongated button top component disposed about an exterior surface of an electrical or electronic device such that it is accessible to a user, and having two opposing distal ends associated with separate user inputs. A first fulcrum is located between the first distal end and the midpoint of the elongated button top component, while a second fulcrum is located between the second distal end and the midpoint. A first electrical contact is associated with the first distal end, such that when a user presses on the first distal end, the elongated button top component pivots about the second fulcrum and the first electrical contact is actuated. A second electrical contact is similarly associated with the second distal end and first fulcrum.

Abstract: A battery assembly for use in an electronic device is provided. The battery assembly may include a battery cell (e.g., a rechargeable battery cell), a battery connector for providing power from the battery cell to the electronic device, and a flex circuit electrically coupling the battery cell to the electronic device. The battery connector may be located adjacent the battery cell, and may include one or more alignment mechanisms for ensuring that conductive pads of the battery connector align properly with corresponding conductive elements of the electronic device. The battery cell may be fixed to the electronic device using an adhesive layer (e.g., double sided tape) placed between the cell and the electronic device. A tab may extend beyond the periphery of the battery cell to allow a user to pull or peal the battery cell from the electronic device for replacement or repair. In some embodiments, a tool may be used to grasp the tab.

Abstract: An electromagnetic interference shield system is provided. Each EMI shield may include a frame providing the structure around the electronic device components to be shielded, and a cover operative to be placed over the frame to prevent electromagnetic radiation from passing over the frame. Each frame may be coupled to a circuit board, and enclose electronic components in need of shielding. Each cover may be coupled to its corresponding frame using at least one snap that extends from the periphery of the cover towards the frame and circuit board. To minimize the space taken by the EMI shields, the snaps of adjacent covers may be offset or staggered so that opposing snaps engage voids left between snaps of the opposing cover, thus reducing the space needed between adjacent EMI shields by up to the width of a snap.

Abstract: A constraint mechanism for receiving an audio plug in an electronic device is provided. The constraint mechanism may include a conductive tube operative to receive the audio plug. In addition, the constraint mechanism may include several features operative to engage corresponding features of the electronic device to prevent the constraint mechanism from moving in any direction (e.g., which could cause damage in the electronic device if the audio jack was forced to move by an impact on the audio plug). For example, the constraint mechanism may include a center wall to prevent yawing, and rear tabs to prevent pitching. As another example, the constraint mechanism may include a side plate operative to be coupled to the electronic device to prevent rolling. In some embodiments, the constraint mechanism may include an asymmetrical tube entrance for ensuring the proper alignment of the constraint mechanism with an electronic device opening.