Abstract: A raster image processor (RIP) system is used in a printing system to process a variety of different jobs. A front end receives the jobs and determines the job type. The job types include a print job, a preview job, and an estimation job. Depending on the type of job, the front end configures the RIPs within RIP system accordingly to process the job. The RIPs may process the job in parallel, with a high performance RIP processing the first page of the job. If the job is not processed in parallel, then the front end assigns the job to a very high performance RIP. The front end also assigns the preview job to a preview RIP and the estimation job to an estimation RIP. The front end configures RIPs as needed.

Abstract: A front end of a raster image processing (RIP) system decides a starting storage location and a storage hierarchy. The hierarchy dictates where the rendered pages of a job will be stored. At least one page of a first set of pages of a job are stored at a memory for the RIP system. At least one page of a second set of pages of the job are stored in a storage drive when the memory is not available. The type of job also dictates that the rendered pages of the job are stored in the storage drive. Complex pages also are stored in the storage drive while simple pages are discarded. The processing operations are managed so that the print engine is running efficiently.

Abstract: A front end of a raster image processing (RIP) system decides a starting storage location and a storage hierarchy. The hierarchy dictates where the rendered pages of a job will be stored. At least one page of a first set of pages of a job are stored at a memory for the RIP system. At least one page of a second set of pages of the job are stored in a storage drive when the memory is not available. The type of job also dictates that the rendered pages of the job are stored in the storage drive. Complex pages also are stored in the storage drive while simple pages are discarded. The processing operations are managed so that the print engine is running efficiently.

Abstract: A front end of a raster image processing (RIP) system decides a starting storage location and a storage hierarchy. The hierarchy dictates where the rendered pages of a job will be stored. At least one page of a first set of pages of a job are stored at a memory for the RIP system. At least one page of a second set of pages of the job are stored in a storage drive when the memory is not available. The type of job also dictates that the rendered pages of the job are stored in the storage drive. Complex pages also are stored in the storage drive while simple pages are discarded. The processing operations are managed so that the print engine is running efficiently.

Abstract: A print job intended for subsequent printing operations includes complex and simple pages. Each page is analyzed for a page complexity determination. A base page weight related to engine speed of the print engine is compared against a page weight of the page to determine whether the page is complex. A complex page is one with a page weight equal to or greater than the base page weight. If the page is complex, then it is rendered by the RIP system and stored. If the page is simple, then it is not rendered but will be rendered when the job is printed as it can be rendered at engine speed. A complexity model and complexity rules also are used to enhance the determination process.

Abstract: A raster image processor (RIP) system is used in a printing system to process a variety of different jobs. A front end receives the jobs and determines the job type. The job types include a print job, a preview job, and an estimation job. Depending on the type of job, the front end configures the RIPs within RIP system accordingly to process the job. The RIPs may process the job in parallel, with a high performance RIP processing the first page of the job. If the job is not processed in parallel, then the front end assigns the job to a very high performance RIP. The front end also assigns the preview job to a preview RIP and the estimation job to an estimation RIP. The front end configures RIPs as needed.

Abstract: A raster image processor (RIP) system is used in a printing system to process a variety of different jobs. A front end receives the jobs and determines the job type. The job types include a print job, a preview job, and an estimation job. Depending on the type of job, the front end configures the RIPs within RIP system accordingly to process the job. The RIPs may process the job in parallel, with a high performance RIP processing the first page of the job. If the job is not processed in parallel, then the front end assigns the job to a very high performance RIP. The front end also assigns the preview job to a preview RIP and the estimation job to an estimation RIP. The front end configures RIPs as needed.

Abstract: A raster image processor (RIP) system is used in a printing system to process a variety of different jobs. A front end receives the jobs and determines the job type. The job types include a print job, a preview job, and an estimation job. Depending on the type of job, the front end configures the RIPs within RIP system accordingly to process the job. The RIPs may process the job in parallel, with a high performance RIP processing the first page of the job. If the job is not processed in parallel, then the front end assigns the job to a very high performance RIP. The front end also assigns the preview job to a preview RIP and the estimation job to an estimation RIP. The front end configures RIPs as needed.

Abstract: A front end of a raster image processing (RIP) system decides a starting storage location and a storage hierarchy. The hierarchy dictates where the rendered pages of a job will be stored. At least one page of a first set of pages of a job are stored at a memory for the RIP system. At least one page of a second set of pages of the job are stored in a storage drive when the memory is not available. The type of job also dictates that the rendered pages of the job are stored in the storage drive. Complex pages also are stored in the storage drive while simple pages are discarded. The processing operations are managed so that the print engine is running efficiently.

Abstract: A raster image processor (RIP) system is used in a printing system to process a variety of different jobs. A front end receives the jobs and determines the job type. The job types include a print job, a preview job, and an estimation job. Depending on the type of job, the front end configures the RIPs within RIP system accordingly to process the job. The RIPs may process the job in parallel, with a high performance RIP processing the first page of the job. If the job is not processed in parallel, then the front end assigns the job to a very high performance RIP. The front end also assigns the preview job to a preview RIP and the estimation job to an estimation RIP. The front end configures RIPs as needed.

Abstract: A raster image processor (RIP) system is used in a printing system to process a variety of different jobs. A front end receives the jobs and determines the job type. The job types include a print job, a preview job, and an estimation job. Depending on the type of job, the front end configures the RIPs within RIP system accordingly to process the job. The RIPs may process the job in parallel, with a high performance RIP processing the first page of the job. If the job is not processed in parallel, then the front end assigns the job to a very high performance RIP. The front end also assigns the preview job to a preview RIP and the estimation job to an estimation RIP. The front end configures RIPs as needed.

Abstract: A printing system includes a printing device. The printing device includes a raster image processor (RIP) system that renders pages of a print job for printing. The RIP system processes pages of the print job in parallel. It also processes job is parallel. If an error occurs when processing a page using a standard RIP, then the RIP system activates a failover RIP. The failover RIP uses a different strategy for processing the page than a standard RIP. The failover RIP is configured to implement the strategy. A failover queue is used to store error pages to wait for processing by the failover queue. The processed page is outputted from the failover RIP to a front end of the RIP system.

Abstract: A raster image processor (RIP) system is used in a printing system to process a variety of different jobs. A front end receives the jobs and determines the job type. The job types include a print job, a preview job, and an estimation job. Depending on the type of job, the front end configures the RIPs within RIP system accordingly to process the job. The RIPs may process the job in parallel, with a high performance RIP processing the first page of the job. If the job is not processed in parallel, then the front end assigns the job to a very high performance RIP. The front end also assigns the preview job to a preview RIP and the estimation job to an estimation RIP. The front end configures RIPs as needed.

Abstract: A printing system includes a digital front end (DFE) system connected to a plurality of printing devices. The DFE system manages printing operations to the plurality of printing devices. The DFE system also includes a printing device connectivity manager to manage connections with the printing devices. Printing connectivity modules are installed at the printing device connectivity manager using application programming interfaces (APIs) that are loaded at the creation of the printing connectivity modules. The DFE system also includes a display device connectivity manager to manage connections with display devices using display connectivity modules and display connectivity APIs. The DFE system also includes a storage connectivity manager to manage data storage and storage devices using storage connectivity modules and storage connectivity APIs.

Abstract: A printing system includes a digital front end (DFE) system connected to a plurality of printing devices. The DFE system manages printing operations to the plurality of printing devices. The DFE system also includes a printing device connectivity manager to manage connections with the printing devices. Printing connectivity modules are installed at the printing device connectivity manager using application programming interfaces (APIs) that are loaded at the creation of the printing connectivity modules. The DFE system also includes a display device connectivity manager to manage connections with display devices using display connectivity modules and display connectivity APIs. The DFE system also includes a storage connectivity manager to manage data storage and storage devices using storage connectivity modules and storage connectivity APIs.

Abstract: Methods, systems, and storage media for outline character printing on a printing device are disclosed. Exemplary implementations may: allocate cache memory of a printing device for registration of an outline character; register outline character data wherein the metadata portion comprises a description of the outline character and the data portion comprises a scanline table for the outline character; receive a print job data at the printing device; determine the print job data identifies the outline character in the cache memory at the printing device; render the scanline table accessed from the cache memory as a pattern of pixels for the outline character for the print job data received; and print, on the printing device, the pattern of pixels rendered from the scanline table accessed from the cache memory for the print job data received.

Abstract: A printing system includes a digital front end (DFB) system connected to a plurality of printing devices. The DFE system manages printing operations to the plurality of printing devices. The DFE system also includes a printing device connectivity manager to manage connections with the printing devices. Printing connectivity modules are installed at the printing device connectivity manager using application programming interfaces (APIs) that are loaded at the creation of the printing connectivity modules. The DFE system also includes a display device connectivity manager to manage connections with display devices using display connectivity modules and display connectivity APIs. The DFE system also includes a storage connectivity manager to manage data storage and storage devices using storage connectivity modules and storage connectivity APIs.

Abstract: Systems and methods for pseudo spot color printing on a printing device include receiving a print job specifying a spot color at a printing device not accommodating ink corresponding to the specified spot color, determining and storing a plurality of process color planes associated with corresponding process color inks accommodated by the printing device, and storing the plurality of process color planes in a memory of the printing device. A single spot color plane is determined and stored for the specified spot color. A plurality of other common planes is determined and stored. Upon reaching an end of the surface of the print job, the single spot color plane is converted to a plurality of spot color planes, which is merged with the plurality of spot color planes prior to printing a corresponding portion of the print job.

Abstract: The disclosure is directed towards methods and apparatus to detect effective tiling area and fill tiles efficiently. The method improves efficiency by not filling tiles within an inner box in a shape having a large unfilled area. One example method includes detecting an inner box, determining whether the detected inner box is big enough for pre-clipping, and confirming that the outer clip path contains the inner box. When filling tiles into a bounding rectangle tiling area, it is determined if a particular tile (or tile(s)) falls into an inner box or not, and if the tile falls in the inner box, that particular tile is not filled. According to one embodiment, the inner box is an internal rectangle that contains a maximum area in which it is unnecessary to fill tiles.

Abstract: The disclosure is directed towards methods and apparatus to detect effective tiling area and fill tiles efficiently. The method improves efficiency by not filling tiles within an inner box in a shape having a large unfilled area. One example method includes detecting an inner box, determining whether the detected inner box is big enough for pre-clipping, and confirming that the outer clip path contains the inner box. When filling tiles into a bounding rectangle tiling area, it is determined if a particular tile (or tile(s)) falls into an inner box or not, and if the tile falls in the inner box, that particular tile is not filled. According to one embodiment, the inner box is an internal rectangle that contains a maximum area in which it is unnecessary to fill tiles.