Abstract: A method of improved screening to increase stability in flexographic printing is provided. The method is performed by a flexographic printing system. The flexographic printing system includes a computer system and a flexographic printing device. The method includes analyzing the first proposed graphical input of the printing job to identify at least one highlight area containing a plurality of halftone graphical elements in the first proposed graphical input, determining an amount of white space between the plurality of the halftone graphical elements in the first proposed graphical input, assigning at least one graphical element to be placed in a spatial relationship with each of the plurality of the halftone graphical elements, generating a second proposed graphical input by placing the at least one graphical elements on the first proposed graphical input based on the respective assignment, and instructing the flexographic printing device to print the second proposed graphical input.

Abstract: A method of improved screening to increase stability in flexographic printing is provided. The method is performed by a flexographic printing system. The flexographic printing system includes a computer system and a flexographic printing device. The method includes analyzing the first proposed graphical input of the printing job to identify at least one highlight area containing a plurality of halftone graphical elements in the first proposed graphical input, determining an amount of white space between the plurality of the halftone graphical elements in the first proposed graphical input, assigning at least one graphical element to be placed in a spatial relationship with each of the plurality of the halftone graphical elements, generating a second proposed graphical input by placing the at least one graphical elements on the first proposed graphical input based on the respective assignment, and instructing the flexographic printing device to print the second proposed graphical input.

Abstract: An apparatus for controlling a small computer system interface (SCSI) peripheral via a universal serial bus (USB) port of a computing device is provided. The apparatus includes a programmable circuit board (PCB) having firmware encoded thereon. The firmware is configured to convert USB signals to SCSI signals and to further convert SCSI signals to USB signals. The apparatus also includes a power supply configured to provide power to the PCB. The apparatus further includes a SCSI interface coupled to the PCB and configured to receive a SCSI cable to provide connectivity to the SCSI peripheral. The apparatus additionally includes a USB interface coupled to the PCB and configured to receive a USB cable to provide connectivity to the computing device via the USB port of the computing device.

Abstract: An apparatus for controlling a small computer system interface (SCSI) peripheral via a universal serial bus (USB) port of a computing device is provided. The apparatus includes a programmable circuit board (PCB) having firmware encoded thereon. The firmware is configured to convert USB signals to SCSI signals and to further convert SCSI signals to USB signals. The apparatus also includes a power supply configured to provide power to the PCB. The apparatus further includes a SCSI interface coupled to the PCB and configured to receive a SCSI cable to provide connectivity to the SCSI peripheral. The apparatus additionally includes a USB interface coupled to the PCB and configured to receive a USB cable to provide connectivity to the computing device via the USB port of the computing device.