Abstract: In one embodiment, a device includes a processor configured to receive a request, populate at least one large language model (LLM) prompt template yielding a plurality of populated LLM prompts representing a split LLM prompt of the request such that each of the populated LLM prompts is based on the request, provide the populated LLM prompts as input to the LLM, and receive respective text responses from the LLM based on processing the populated LLM prompts as input, and a memory to store data used by the processor.

Abstract: In one embodiment, a device includes a processor configured to execute a software application to populate a large language model (LLM) prompt template yielding a populated LLM prompt including a categorical question for an LLM to perform a categorization task, the categorical question including given categories and decoy categories, provide the populated LLM prompt as input to the LLM, and receive a text response from the LLM based on processing the populated LLM prompt as input, the text response of the LLM including a categorical answer indicating one of the given categories or one of the decoy categories, and a memory to store data used by the processor.

Abstract: A method for producing threat detection rules includes obtaining a set of one or more threat detection rules, wherein each threat detection rule in the set indicates, when applied to a process running in a computer, whether the process is benign or malicious based on a respective group of one or more features selected from a defined list of features. A series of iterations that expand the set is executed, by (i) selecting, from the set, a threat detection rule that meets a selection criterion, (ii) generating one or more expanded threat detection rules, by adding one or more additional features from the list to the selected threat detection rule, and (iii) adding the one or more expanded threat detection rules to the set. Following the series of iterations, the expanded set of threat detection rules is output.

Abstract: A system for forming an image on a flexographic media includes a digital front end that provides a screened image; locating transition points from data regions to non-data regions in said screened image; determining a distance between pixels in adjacent data and non-data regions; if the distance is greater than a predetermined distance modify said screened image to remove a shoulder of pixels at the transition point; and an imaging device the screen modified image on the flexographic media.

Abstract: A method for forming an image on a flexographic media includes providing a screened image; locating transition points from data regions to non-data regions in said screened image; determining a distance between pixels in adjacent data regions for each transition point; if the distance is greater than a predetermined distance, modify said screened image to remove a shoulder of pixels in contact with the transition point; and forming the modified screened image on the flexographic media.

Abstract: A system for forming an image on a flexographic media includes a digital front end that provides a screened image; locating transition points from data regions to non-data regions in said screened image; determining a distance between pixels in adjacent data and non-data regions; if the distance is greater than a predetermined distance modify said screened image to remove a shoulder of pixels at the transition point; and an imaging device the screen modified image on the flexographic media.

Abstract: A method for forming an image on a flexographic media includes providing a screened image; locating transition points from data regions to non-data regions in said screened image; determining a distance between pixels in adjacent data regions for each transition point; if the distance is greater than a predetermined distance, modify said screened image to remove a shoulder of pixels in contact with the transition point; and forming the modified screened image on the flexographic media.

Abstract: A system for preparing a flexographic printing plate having a printing layer, a second layer, and a cushion layer includes a first laser for imaging a first zone on a bottom surface of the cushion layer; and wherein the first laser or a second laser images a first area of a top surface of the printing layer which corresponds to the first zone.

Abstract: A method of preparing a flexographic printing plate includes providing a flexographic plate having a printing layer wherein the printing layer is a top layer, a second layer wherein the second layer is a support layer, and a cushion layer wherein the cushion layer is a bottom layer; imaging a first zone on a surface of the cushion layer; and imaging a first area of a surface of the printing layer wherein the first area corresponds to the first zone.

Abstract: A system for preparing a flexographic printing plate having a printing layer, a second layer, and a cushion layer includes a first laser for imaging a first zone on a bottom surface of the cushion layer; and wherein the first laser or a second laser images a first area of a top surface of the printing layer which corresponds to the first zone.

Abstract: A system for engraving flexographic printing plates, is presented. A flexographic plate (104) is mounted on an imaging drum 404. Printable areas (204, 304) on the flexographic plate are engraved by an imaging source (408) configured to engrave fine detail information. Non-printable areas (208) are engraved on the flexographic plate by a second imaging source (412, coarse imaging source) capable to engrave substantially deeper (208, 520) than the depth of engraving used for the printable areas. Synchronizing (424) between the fine imaging source and the coarse imaging source, by directing the fine and coarse sources operate simultaneously, whereby the fine source images on the printable areas and the coarse source images the non-printable areas. In addition the fine source engraves the printable data areas (704) and non-printable support areas (708) underneath the printable areas. The non-printable support areas are engraved to be substantially wider than the printable data areas.

Abstract: A system for engraving flexographic printing plates, is presented. A flexographic plate (104) is mounted on an imaging drum 404. Printable areas (204, 304) on the flexographic plate are engraved by an imaging source (408) configured to engrave fine detail information. Non-printable areas (208) are engraved on the flexographic plate by a second imaging source (412, coarse imaging source) capable to engrave substantially deeper (208, 520) than the depth of engraving used for the printable areas. Synchronizing (424) between the fine imaging source and the coarse imaging source, by directing the fine and coarse sources operate simultaneously, whereby the fine source images on the printable areas and the coarse source images the non-printable areas. In addition the fine source engraves the printable data areas (704) and non-printable support areas (708) underneath the printable areas. The non-printable support areas are engraved to be substantially wider than the printable data areas.

Abstract: A method for engraving flexographic printing plates (104) includes providing a flexographic plate. Printable areas (204) on the flexographic plate are engraved with a first imaging source. Non-printable areas (208) on the flexographic plate are engraved with a second imaging source wherein a depth of engraving of the non-printable areas is substantially deeper than the depth of engraving of the printable areas. The first imaging source and second imaging source are synchronized. The first imaging source (408) and second imaging source (412) are operated simultaneously. The first imaging source engraves the printable data areas and engraves non-printable support areas adjacent the printable areas.