Abstract: A method for operating an inkjet printer includes identifying a pattern of ink drops ejected from an inkjet with reference to image data for a printed image, identifying a waveform component for an electrical signal operating the inkjet to eject an ink drop in the pattern of ink drops with reference to at least a portion of the image data, and generating the electrical signal with the identified waveform component to eject the ink drop in the pattern of ink drops at a first velocity onto a first location of an image receiving surface.

Abstract: A method for operating an inkjet printer includes identifying a pattern of ink drops ejected from an inkjet with reference to image data for a printed image, identifying a waveform component for an electrical signal operating the inkjet to eject an ink drop in the pattern of ink drops with reference to at least a portion of the image data, and generating the electrical signal with the identified waveform component to eject the ink drop in the pattern of ink drops at a first velocity onto a first location of an image receiving surface.

Abstract: A method compensates for changes in drop mass of drops ejected by ink jets in a printhead of an ink jet imaging device. The method includes identifying an average of differences between drop placement position for ink drops on an image receiving member and default ink drop positions. The average of the differences is used to adjust a parameter of one or more ink jet driving signals in response to the average of the differences being greater than a predetermined threshold.

Abstract: A method evaluates image quality in an ink printing system and generates data values for altering the operation of the ink printing system. The method includes generating an ink image on an ink image receiving member that corresponds to a digital image stored in the ink printing system, generating a scanned image signal corresponding to the ink image, generating firing signal waveform adjustments and image data adjustments with reference to the scanned image signal corresponding to the ink image, and operating a printhead in an ink imaging system with reference to the firing signal waveform adjustments and the image data adjustments.

Abstract: A method compensates for changes in drop mass of drops ejected by ink jets in a printhead of an ink jet imaging device. The method comprises identifying an average drop placement position for a printhead with reference to ink drop positions on an image receiving member and adjusting a parameter of one or more ink jet driving signals in response to the average drop placement position being greater than a predetermined threshold.

Abstract: A method of compensating for changes in drop mass of drop emitted by at least one ink jet of an ink jet imaging device is provided. The method comprises identifying a drop placement position on an image receiving member of an ink jet imaging device for at least one ink jet of a print head. The identified drop placement position for the at least one ink jet is compared to a default drop placement position for the at least one ink jet to determine a difference in drop placement position. A drive signal for the at least one ink jet is then adjusted in accordance with the difference in drop placement position.

Abstract: A print system senses the type of a recording medium. The print system modifies the amount of marking material on an imaging drum when the sensed the recording medium type requires a modification to the amount of marking material on the imaging drum. Moreover, the print system changes a transfix parameter when the sensed the recording medium type requires a modification to the transfix parameter.

Abstract: A method evaluates image quality in an ink printing system and generates data values for altering the operation of the ink printing system. The method includes generating an ink image on an ink image receiving member that corresponds to a digital image stored in the ink printing system, generating a scanned image signal corresponding to the ink image, generating firing signal waveform adjustments and image data adjustments with reference to the scanned image signal corresponding to the ink image, and operating a printhead in an ink imaging system with reference to the firing signal waveform adjustments and the image data adjustments.

Abstract: A method of compensating for changes in drop mass of drop emitted by at least one ink jet of an ink jet imaging device is provided. The method comprises identifying a drop placement position on an image receiving member of an ink jet imaging device for at least one ink jet of a print head. The identified drop placement position for the at least one ink jet is compared to a default drop placement position for the at least one ink jet to determine a difference in drop placement position. A drive signal for the at least one ink jet is then adjusted in accordance with the difference in drop placement position.

Abstract: A print system senses the type of a recording medium. The print system modifies the amount of marking material on an imaging drum when the sensed the recording medium type requires a modification to the amount of marking material on the imaging drum. Moreover, the print system changes a transfix parameter when the sensed the recording medium type requires a modification to the transfix parameter.

Abstract: A connector is provided for electrically interconnecting the conductors of a flat flexible circuit to the conductors of a complementary mating connecting device. The connector includes a body member on which the flexible circuit is positioned. A latch arm projects from the body member for latching the connector to the complementary mating connecting device. A resilient web joins the latch arm to the body member for performing the functions of providing an anti-overstress structure and a spring device for the latch arm, as well as an anti-snagging feature for the connector.

Abstract: An electrical connector assembly is provided for interconnecting a plurality of discrete electrical wires to the conductors of a flat flexible circuit. The assembly includes a first connector having a dielectric housing. A plurality of discrete conductive terminals are mounted on the housing and are adapted for termination to the electrical wires. The terminals have contact portions for engaging the conductors of the flat flexible circuit. A second connector is adapted for mating with the first connector. The second connector includes a body member for positioning the flat flexible circuit, with the conductors of the circuit positioned for engaging the conductive terminals when the connectors are mated. A yieldable backing structure is provided on the body member beneath the flexible circuit for resiliently biasing the conductors of the circuit against the terminals of the first connector.

Abstract: A connector (10,10A,10B) is provided for electrically interconnecting the conductors (12,40) of a flat mating connecting device. The connector includes a body member (22,48,50) having an edge about which the flexible circuit is wrapped. Locating pegs (20) on the body member engage and hold the flexible circuit (14,42) about the edge. A resilient strip (30) on the body member at the edge thereof spring loads the flexible circuit to enhance engagement thereof with the locating pegs.

Abstract: A female connector is adapted for electrically interconnecting the conductors of a flat flexible circuit to the conductors of a complementary mating connecting device. The connector includes a female housing having wall portions defining a cavity for receiving the flexible circuit. The wall portions are relatively movable between an open condition allowing a yieldable backing structure to be assembled on a cavity-side of at least one of the wall portions and a closed condition defining the cavity. The yieldable backing structure resiliently biases the conductors of the flexible circuit received in the cavity against the conductors of the mating connecting device when the connector is mated with the device.

Abstract: A male connector is provided for electrically interconnecting the conductors of a flat flexible circuit to the conductors of a complementary mating connecting device. The connector includes a male body member on which the flexible circuit is positioned, with the conductors of the circuit facing away from the body member. A yieldable backing structure is disposed on the body member beneath the flexible circuit for resiliently biasing the conductors of the circuit against the conductors of the mating connecting device when the connector is mated with the device.

Abstract: A connector (10,10A) is provided for electrically interconnecting the conductors (12) of a flat flexible circuit (14)to the conductors of a complementary mating connecting device. The connector includes a body member (22) on which a first length (14a) of the flexible circuit (14) is fixed. A second length (14b) of the circuit extends away from the body member. A resilient strain relief component (33) on the body member (22) is engageable with the flexible circuit (14) to locate the second length (14b) of the flexible circuit in a plane offset from the plane of the first length (14a) of the circuit. Therefore, pulling forces on the second length (14b) of the flexible circuit away from the body member biases the circuit against the resilient strain relief component (33). The body member may be a two-part housing (46) relatively movable between open and closed positions. A flexible molded-in-place (56) hinge joins the housing parts to accommodate their movement.

Abstract: A connector system for terminating a shielded flat flexible circuit includes a connector body member on which the circuit is positionable. The body member is conductive and includes at least one projection. A flat flexible circuit includes a plurality of signal conductors and at least one grounding conductor. The circuit includes a hole for receiving the projection of the body member in engagement with the grounding conductor to thereby common the grounding conductor with the conductive connector body member.

Abstract: A connector is provided for electrically interconnecting the conductors of a flat flexible circuit to the conductors of a complementary mating connecting device. The connector includes a carrier on which the flexible circuit is positioned with the conductors of the circuit facing away from the carrier. A housing has an opening for receiving the carrier. The carrier is slidably mounted into the opening in the housing to a preliminary loading position for receiving the mating connecting device between the carrier and the housing. The carrier is pivotable from the preliminary loading position to a final connecting position whereat the conductors of the flat circuit are biased against the conductors on the mating connecting device.