Abstract: Connector receptacles that have a reduced height when combined with a printed circuit board and reduce wasted space inside an electronic device. One example provides a connector receptacle having contacts that may connect to edge contacts along an edge of a printed circuit board. This edge may be formed along a side of printed circuit board, by a hole or opening in a printed circuit board, or by a notch in a printed circuit board. Edge contacts may have straight surfaces, rounded surfaces, or they may have other types of surfaces. Connector receptacle contacts may have a “U,” fishhook, or other shape.

Abstract: Mechanisms to prevent access to electronic components in an electronic device when the electronic device is receiving power. On example may provide an electronic device including a receptacle, the receptacle including a button. The button may be configured to be depressed by a user, and otherwise to be in a normal state. When the button is depressed, it may act through a locking mechanism to unlock, open, or eject a door covering one or more sockets or electronic components. When the door is closed, the locking mechanism may either prevent the door from being opened, or may maintain the door in a closed state, unless the button is depressed. When a power plug is inserted in the receptacle, the power plug may prevent access to the button. Accordingly, when the power plug is inserted, the button may not be accessible to be depressed, and the door may remain closed.

Abstract: Connector receptacles that may have a reduced height when combined with a printed circuit board and reduce wasted space inside an electronic device. One example may provide a connector receptacle that fits in an opening in a printed circuit board. The connector receptacle may also be angled at an oblique angle relative to the printed circuit board such that its face may be flush with a highly stylized device enclosure.

Abstract: Sockets that provide easy access for users to change cards while allowing the use of thinner device enclosures. One example provides a socket having two positions. When the socket is in an open state, the card may be oriented in a direction substantially away from the main logic board. When the socket is in a closed state, the card moves such that it is oriented at least closer to being in parallel to the main logic board.

Abstract: Connector receptacles that may help maintain registration or alignment between a printed circuit board, a connector receptacle, and an opening in a device enclosure. One example may provide a connector receptacle having a housing including a passage. A pin may be placed in the passage such that a first portion extends away from a front of the housing and a rear portion extends away from a rear of the housing. The front portion may be arranged to fit in a cavity or opening in an inside surface of a device enclosure, while the rear portion may be arranged to fit in a cavity or opening in a top surface of a printed circuit board.

Abstract: Structures, methods, and apparatus that provide connector receptacles that have a reduced tendency to scratch and otherwise mar connector inserts, have an aesthetically-pleasing appearance, and have an improved tactile response when inserts are inserted. Various examples reduce scratches and wear by utilizing domes, cylinders, balls, or other structures as finger contacts in a connector receptacle. Another example provides aesthetically-pleasing connector receptacle enclosures by forming receptacle enclosures using the same type of material, or material having the same or similar color or texture, as is used for enclosing the electronic device that includes the receptacle. Another example provides an aesthetically-pleasing receptacle enclosure by forming receptacle enclosures that are, in part or in whole, contiguous or formed with the housing. Another embodiment provides a connector receptacle having a housing where a portion of the housing has been removed to save space.

Abstract: Sockets that provide easy access for users to change cards while allowing the use of thinner device enclosures. One example provides a socket having two positions. When the socket is in an open state, the card may be oriented in a direction substantially away from the main logic board. When the socket is in a closed state, the card moves such that it is oriented at least closer to being in parallel to the main logic board.

Abstract: Connectors having improved signal paths. An illustrative embodiment of the present invention may provide a connector having a pair of first contacts adjacent to each other. Two second contacts may be located on each side of and adjacent to the pair of first contacts. The second contacts may include a front beam portion that contacts a front shield located along a front face of the connector. The front shield may in turn connect to a top shield that at least partially covers a top, sides, and back of the connector.

Abstract: Structures, methods, and apparatus that provide connector receptacles that have a reduced tendency to scratch and otherwise mar connector inserts, have an aesthetically-pleasing appearance, and have an improved tactile response when inserts are inserted. Various examples reduce scratches and wear by utilizing domes, cylinders, balls, or other structures as finger contacts in a connector receptacle. Another example provides aesthetically-pleasing connector receptacle enclosures by forming receptacle enclosures using the same type of material, or material having the same or similar color or texture, as is used for enclosing the electronic device that includes the receptacle. Another example provides an aesthetically-pleasing receptacle enclosure by forming receptacle enclosures that are, in part or in whole, contiguous or formed with the housing. Another embodiment provides a connector receptacle having a housing where a portion of the housing has been removed to save space.

Abstract: Connector receptacles that may have a reduced height when combined with a printed circuit board and reduce wasted space inside an electronic device. One example may provide a connector receptacle that fits in an opening in a printed circuit board. The connector receptacle may also be angled at an oblique angle relative to the printed circuit board such that its face may be flush with a highly stylized device enclosure.

Abstract: Connectors having improved signal paths. An illustrative embodiment of the present invention may provide a connector having a pair of first contacts adjacent to each other. Two second contacts may be located on each side of and adjacent to the pair of first contacts. The second contacts may include a front beam portion that contacts a front shield located along a front face of the connector. The front shield may in turn connect to a top shield that at least partially covers a top, sides, and back of the connector.

Abstract: Audio jack optical modules that may have a reduced size. Various examples may provide an optical module for an audio jack where a driver circuit is omitted from the optical module and instead placed either elsewhere in the audio jack or separately outside the audio jack. In some examples, the driver may be integrated with a logic circuit, such as a coder-decoder (CODEC) or other logic circuit. Other examples may provide an optical module for an audio jack where a lens for a light-emitting diode is omitted. In some examples, a higher-power light-emitting diode may be used. These light-emitting diodes may be strong enough to provide a requisite amount of light to a detector in, or associated with, an audio plug.

Abstract: Connector receptacles that may help maintain registration or alignment between a printed circuit board, a connector receptacle, and an opening in a device enclosure. One example may provide a connector receptacle having a housing including a passage. A pin may be placed in the passage such that a first portion extends away from a front of the housing and a rear portion extends away from a rear of the housing. The front portion may be arranged to fit in a cavity or opening in an inside surface of a device enclosure, while the rear portion may be arranged to fit in a cavity or opening in a top surface of a printed circuit board.

Abstract: Mechanisms to prevent access to electronic components in an electronic device when the electronic device is receiving power. On example may provide an electronic device including a receptacle, the receptacle including a button. The button may be configured to be depressed by a user, and otherwise to be in a normal state. When the button is depressed, it may act through a locking mechanism to unlock, open, or eject a door covering one or more sockets or electronic components. When the door is closed, the locking mechanism may either prevent the door from being opened, or may maintain the door in a closed state, unless the button is depressed. When a power plug is inserted in the receptacle, the power plug may prevent access to the button. Accordingly, when the power plug is inserted, the button may not be accessible to be depressed, and the door may remain closed.

Abstract: Circuits, methods, and apparatus that provide connector receptacles having a smaller size. One example provides this smaller size by decreasing the depth of the connector receptacle. Contacts in the connector receptacle may be protected from damage due to improper insertion of a second electronic device or connection to a second electronic device. This protection may be achieved in various ways. In some examples, one or more components or one or more contacts may be used to block the improper insertion of a second electronic device or connection to a second electronic device. In other examples, one or more contacts may avoid damage by being located outside of an insertion path until a second electronic device or connection to a second electronic device is inserted. In other examples, instead of blocking or avoiding an improper insertion, the contacts may avoid damage by bending out of the way.

Abstract: Structures, methods, and apparatus that provide connector receptacles that have a reduced tendency to scratch and otherwise mar connector inserts, have an aesthetically-pleasing appearance, have an improved tactile response when inserts are inserted, or are very thin or have a low profile. Various examples reduce scratches and wear by utilizing domes, cylinders, balls, or other structures as finger contacts in a connector receptacle. Another example provides aesthetically-pleasing connector receptacle enclosures by forming receptacle enclosures using the same type of material, or material having the same or similar color or texture, as is used for enclosing the electronic device that includes the receptacle. Another example provides an aesthetically-pleasing receptacle enclosure by forming receptacle enclosures that are, in part or in whole, contiguous or formed with the housing. Another example provides a super-thin connector receptacle by removing fingers and portions of a shell along one or more sides.

Abstract: Wire-free, unibody jumpers that may be used with crimp terminals. These jumpers may connect two or more adjacent or nearby crimp terminal openings in a plug housing. One example may provide a jumper that is formed from a single piece of metal or other conductive material. In this example, a form may be stamped from a sheet of metal or other conductive material. A jumper may be made by folding or bending the stamped form. The jumper may then be inserted into two or more adjacent or nearby crimp terminal openings in a crimp terminal plug housing. In various examples, the folding or bending of the stamped form may be done in various ways.

Abstract: Structures, methods, and apparatus that provide connector receptacles that have a reduced tendency to scratch and otherwise mar connector inserts, have an aesthetically-pleasing appearance, and have an improved tactile response when inserts are inserted. Various examples reduce scratches and wear by utilizing domes, cylinders, balls, or other structures as finger contacts in a connector receptacle. Another example provides aesthetically-pleasing connector receptacle enclosures by forming receptacle enclosures using the same type of material, or material having the same or similar color or texture, as is used for enclosing the electronic device that includes the receptacle. Another example provides an aesthetically-pleasing receptacle enclosure by forming receptacle enclosures that are, in part or in whole, contiguous or formed with the housing.

Abstract: Sockets that provide easy access for users to change cards while allowing the use of thinner device enclosures. One example provides a socket having two positions. When the socket is in an open state, the card may be oriented in a direction substantially away from the main logic board. When the socket is in a closed state, the card moves such that it is oriented at least closer to being in parallel to the main logic board.

Abstract: Circuits, methods, and apparatus for improved audio connectors. One example provides an audio connector, that, for purposes of activating circuitry to receive signals from a microphone, does not detect the presence of an audio jack until the audio jack is inserted far enough into the audio connector that a microphone contact on the audio jack comes into contact with a microphone signal pin on the audio connector. To prevent the redirection of audio signals away from an audio jack when the audio jack is partially extracted from the audio connector, such partial extractions are not detected by audio signal pins.