Abstract: A system and method of wirelessly communicating a camera synchronization from a camera body to a remote device with a wireless camera flash synchronizer that prior to detecting a synchronization signal loads transmit frequency information to a transceiver and automatically switches from a wireless receive mode to a wireless transmit mode after detecting a first signal from a camera that is generated after the activation of a camera trigger.

Abstract: A system and method for serially communicating actual flash data related to a remote lighting device to a camera body via a hot shoe connector. In one example, a wireless communication device connected to the hot shoe connector of the camera body receives a request for a flash data from the camera body via the hot shoe connector. The wireless communication device responds via the hot shoe with actual information from one or more remote light devices.

Abstract: A system and method for setting the power operating condition of a photographic wireless communication device. An information representing a shutter speed of a camera body is detected from the camera body. A shutter speed of the camera body is determined from the information representing a shutter speed. The power operating condition of the photographic wireless communication device is automatically set based on the shutter speed of the camera body.

Abstract: A single oscillator synchronizer system and method that automatically switches from a wireless receive mode of the oscillator to a wireless transmit mode of the oscillator upon the detection of a synchronization (synch) signal of a camera body. In one example, a method of wirelessly communicating a camera synchronization from a camera body to a remote device with a wireless camera flash synchronizer connected to a synchronization connector of the camera body, the wireless camera flash synchronizer including a transceiver having an oscillator element with a wireless receive mode and a wireless transmit mode, the oscillator element configured to be in only one of the wireless receive mode and wireless transmit mode at a time is provided. In another example, a wireless camera flash synchronizer that automatically switches from a wireless receive mode to a wireless transmit mode upon detection of a synch signal of a camera body is provided.

Abstract: A system and method for controlling one or more remote photographic flash devices from a camera body. Wireless functionality within a camera body provides wireless communication of a signal from within the camera body to one or more remote devices. In one example, a flash synchronization signal of the camera body may be wirelessly communicated using a wireless communication functionality within the camera body and an external antenna to one or more remote flash devices for triggering the one or more remote flash devices.

Abstract: A system and method for removable connection of an antenna element to a first flash synchronization connector of a camera body having wireless communication capability therein. An electrical event may be produced when the antenna element is connected to the first flash synchronization connector, the electrical event providing an indication to the wireless communication capability of the presence of the antenna element.

Abstract: A drive signal is generated having at least one pulsed curvilinear waveform shape. This drive signal is applied to a fluid dispenser to cause fluid ejection. Additionally, a drive signal is generated having one or more non-sinusoidal curvilinear waveform shapes. This drive signal is applied to a fluid dispenser to cause fluid ejection. Still further, a drive signal is generated having multiple segments including at least one segment having a curvilinear waveform shape. This drive signal is applied to a fluid dispenser to cause fluid ejection.

Abstract: A single oscillator synchronizer system and method that automatically switches from a wireless receive mode of the oscillator to a wireless transmit mode of the oscillator upon the detection of a synchronization (synch) signal of a camera body. In one example, a method of wirelessly communicating a camera synchronization from a camera body to a remote device with a wireless camera flash synchronizer connected to a synchronization connector of the camera body, the wireless camera flash synchronizer including a transceiver having an oscillator element with a wireless receive mode and a wireless transmit mode, the oscillator element configured to be in only one of the wireless receive mode and wireless transmit mode at a time is provided. In another example, a wireless camera flash synchronizer that automatically switches from a wireless receive mode to a wireless transmit mode upon detection of a synch signal of a camera body is provided.

Abstract: A method of color-correcting a projected image is disclosed, including providing image data for a desired image, projecting the desired image onto a surface to produce a reflected image, comparing the reflected image to the image data to determine an observed difference, and modifying the projected image to reduce the observed difference.

Abstract: A system and method of alerting a wireless communication capability of a camera body to the presence of an external antenna element present in electrical communication with a pre-existing port of the camera body that was originally not designed for an external antenna. The wireless communication capability may be activated and/or deactivated by an electrical event produced when a connector of the external antenna is connected to the pre-existing port.

Abstract: A microcontroller radio card (2) for insertion into a first device, e.g., a camera (10) to allow for remote operation of a second device, e.g., a flashpack (22), utilizing the existing controls of the first device. The card includes a base (34) populated with various microelectronic devices for transmitting and or receiving RF or other signals used in the control and operation of the second device. A central processing unit (CPU) (41) translates signals received from the first device and controls the generation of corresponding signals to be transmitted to the second device in response to the signals received from the first device. Signals are transmitted to the second device via a transceiver chip (43).

Abstract: The present invention is a replaceable ink container for use in an off-axis printing system. The printing system is responsive to electrical signals from the replaceable ink container for controlling printer parameters. The ink container has a leading edge and a trailing edge relative to the direction of insertion into the printing system. The replaceable ink container includes a plurality of electrical contacts disposed on the leading edge toward a first side. The plurality of electrical contacts are configured for engaging corresponding electrical printer contacts associated with the printing system. Also included is a fluid outlet disposed on the leading edge toward a second side opposite the first side and spaced from the plurality of electrical contacts. The fluid outlet is in fluid communication with the replaceable ink container. The fluid outlet is configured for engaging a fluid inlet associated with the printing system.

Abstract: A method of color-correcting a projected image is disclosed, including providing image data for a desired image, projecting the desired image onto a surface to produce a reflected image, comparing the reflected image to the image data to determine an observed difference, and modifying the projected image to reduce the observed difference.

Abstract: A microcontroller radio card (2) for insertion into a first device, e.g., a camera (10) to allow for remote operation of a second device, e.g., a flashpack (22), utilizing the existing controls of the first device. The card includes a base (34) populated with various microelectronic devices for transmitting and or receiving RF or other signals used in the control and operation of the second device. A central processing unit (CPU) (41) translates signals received from the first device and controls the generation of corresponding signals to be transmitted to the second device in response to the signals received from the first device. Signals are transmitted to the second device via a transceiver chip (43).

Abstract: An adhesive joint with an ink trap is provided. The joint may be employed in a cartridge for an inkjet printer. The cartridge includes a headland region attached to a printhead assembly by an adhesive layer. The adhesive joint between the headland region and the printhead assembly include notches for retaining additional adhesive in order to reduce degradation of adhesive due to ink penetration. A method of assembling the printer cartridge to include an ink trap in the adhesive joint is also provided.

Abstract: A self-cleaning print head for an ink jet printer directs ink to a substrate to be marked. The print head has a drop generator with a body that has a front face, an ink supply conduit and at least one orifice extending through the front face. The orifice also defines a nozzle for ejecting ink droplets. A solvent supply conduit is provided for supplying solvent to the front face of the drop generator, and a drain conduit is provided for suctioning the solvent from the front face and into the drain conduit. The supply conduit and the drain conduit have openings on the front face disposed relative to each other and the orifice(s) so that the solvent released from the supply conduit moves along the front face, adjacent the orifice(s) and into the drain conduit regardless of the spatial orientation of the print head. This allows the solvent to move residue from the front face and into the drain conduit no matter the orientation of the print head.

Abstract: The present invention is a replaceable ink container for use in an ink-jet printer of the type having a scanning carriage having a plurality of ink-jet printheads mounted therein. The scanning carriage is capable of movement along a scan axis in a print zone portion and in a non-print zone portion. The selective activation of the plurality of ink-jet printheads in the print zone forms images on print media. The replaceable ink container includes an ink reservoir in fluid communication with at least one of the plurality of ink jet printheads. The reservoir includes a fluid outlet that is configured for engaging a corresponding fluid inlet associated with the ink-jet printer. Also included is a housing associated with the ink reservoir and the fluid outlet. With the ink container properly inserted into the ink-jet printer the housing has a width, parallel to the scan axis, that is sized to be less than a non-print zone width minus a sum of widths associated with remaining ink containers.

Abstract: The present invention is a replaceable ink container for use in a printing system. The printing system is of the type having a printhead mounted in a scanning carriage and a supply station for receiving the replaceable ink container. The supply station is in fluid communication with the printhead. The replaceable ink container includes a fluid outlet configured for engaging corresponding fluid inlet portions on the supply station. Also included is a first and second guide feature disposed on an outer surface of the replaceable ink container. The first and second guide features'are disposed and arranged to engage corresponding first and second guiding features disposed on opposite ends of the supply station to guide the replaceable ink container into the supply station to fluidically couple the fluid outlet and corresponding fluid inlet.

Abstract: A closed ink replenishment system for replenishing the supply of ink in negative pressure spring-bag reservoirs in a printer/plotter. A tube runs between each cartridge reservoir and an auxiliary reservoir mounted to the printer/plotter frame to form the closed ink system. As ink is depleted from the spring-bag reservoir during printing operation, the negative pressure in the cartridge increases, drawing ink through the tube from the auxiliary reservoir into the cartridge until the negative pressure decreases to an equilibrium point. As a result, the volume of ink within the spring-bag reservoir remains substantially constant so long as there is ink remaining within the auxiliary reservoir. This maintains the print quality. The auxiliary reservoir is a flat bag mounted on a spring-biased platform, which acts as a height regulating system. As ink is depleted from the auxiliary bag, the height of the platform and bag increases to maintain a constant pressure and elevation head at the spring-bag reservoir.

Abstract: Fluid sampling device for use in obtaining a precise volume of fluid to be sampled from sealed pressure vessels equipped with a hydraulic fitting to which the fluid sampling devices are connectable. The first embodiment of the device a fluid float chamber with an internally sealable top opening which opens into an upper fluid passage. A floating ball is located in the fluid float chamber and is sized to be sealable at the top opening. A non-floatable ball is sized to seat on a lower seat through which fluid can enter the fluid float chamber. A vacuum line connects between the top opening and the sealed pressure vessel. The second embodiment of the device has a vacuum chamber into which is received a fluid sample container. A fluid supply tube connects between the vacuum chamber and the fluid inlet. A fluid overflow tube also connects between the vacuum chamber and the vacuum cylinder.