Abstract: A controlling apparatus includes: an acquisition unit configured to acquire sheet information of each of a plurality of pages included in job data for executing print processing in a printing apparatus; a decision unit configured to decide a print speed in the print processing based on the sheet information acquired by the acquisition unit; and a control unit configured to control the printing apparatus based on the print speed decided by the decision unit and data generated from the job data and processible by the printing apparatus. Even in a case where sheet types represented by the pieces of sheet information are mixed in the plurality of pages, the decision unit decides a print speed to be commonly applied to the sheet types of the plurality of pages.

Abstract: An information processing apparatus includes an obtaining unit that obtains a job including a plurality of pages, and a determining unit that determines a page group constituted by consecutive sheets of a same sheet type, from the plurality of pages included in the job obtained by the obtaining unit. A setting unit sets a transport speed of sheets in the page group determined by the determining unit.

Abstract: A printing apparatus operable to perform printing based on print job data, the printing apparatus comprising a determination unit configured to determine a print speed for when the printing is performed, a switching unit configured to switch print speeds during the printing, and an analysis unit configured to analyze the print job data, wherein the analysis unit analyzes whether sheets that are print targets according to the print job data include a plurality of sheet types, and wherein the switching unit switches print speeds during the printing based on a productivity of printing for each sheet type when printing is performed for the sheets and a productivity of printing for a case where print speeds are switched by the switching unit.

Abstract: There is provided with an information processing apparatus. An obtaining unit obtains a job including a plurality of pages. A determining unit determines a page group constituted by consecutive sheets of a same sheet type, from the plurality of pages included in the job obtained by the obtaining unit. A setting unit sets a transport speed of sheets in the page group determined by the determining unit.

Abstract: An inspection apparatus is provided, which is operable to inspect a cut sheet that is supplied to a post-processing apparatus that post-processes sheets in units of books and on which an image has been formed by an image forming apparatus. The inspection apparatus inspects an image formed on a sheet for each sheet; manages results of sheet inspection by the inspection unit for respective books including a plurality of sheets; and notifies, the post-processing apparatus of a result of inspecting a book including the sheet that is based on the managed sheet inspection results.

Abstract: A control apparatus includes: an acquisition unit configured to analyze a job used to execute print processing and acquire sheet information of a page included in the job; and a control unit configured to decide a print speed in the print processing based on a result acquired by the acquisition unit and execute the print processing using the decided print speed. The control unit causes the acquisition unit to acquire the sheet information of each of a predetermined number of pages of a plurality of pages included in the job, accumulates the sheet information in a storage unit, decides the print speed based on the accumulated result, and executes the print processing using the decided print speed.

Abstract: An inspection apparatus is provided, which is operable to inspect a cut sheet that is supplied to a post-processing apparatus that post-processes sheets in units of hooks and on which an image has been formed by an image forming apparatus. The inspection apparatus inspects an image formed on a sheet for each sheet; manages results of sheet inspection by the inspection unit for respective books including a plurality of sheets; and notifies, the post-processing apparatus of a result of inspecting a book including the sheet that is based on the managed sheet inspection results.

Abstract: An information processing apparatus interprets quality requirement data of a print job received externally, analyzes print data of the print job, and compares an interpretation result of the quality requirement data and an analysis result of the print data. As a result of the comparison, in a case where an object, which is comprised in a print image, corresponding to the quality requirement data of the print job and the print data are inconsistent, a warning screen is displayed.

Abstract: An inspection apparatus is provided, which is operable to inspect a cut sheet that is supplied to a post-processing apparatus that post-processes sheets in units of hooks and on which an image has been formed by an image forming apparatus. The inspection apparatus inspects an image formed on a sheet for each sheet; manages results of sheet inspection by the inspection unit for respective books including a plurality of sheets; and notifies, the post-processing apparatus of a result of inspecting a book including the sheet that is based on the managed sheet inspection results.

Abstract: The information processing apparatus interprets quality requirement data of a print job received from an external, analyzes print data of the print job, and compares an interpretation result of the quality requirement data and an analysis result of the print data. Also, the information processing apparatus, as a result of the comparison, in a case where an object, which is comprised in a print image, corresponding to the quality requirement data of the print job and the print data are inconsistent, displays a warning screen on a display unit.

Abstract: The purpose of the present invention is to provide a graphene which has high dispersibility, high electrical conductivity and oxidation resistance namely a graphene which has high electrochemical stability. In order to achieve the above-described purpose, a surface-treated graphene according to the present invention is obtained by having a compound represented by general formula (1) or a neutralized salt thereof adhere to a graphene.

Abstract: A graphene material in a specific form is provided that has a high dispersibility and can maintain a high electric conductivity and ion conductivity when used as material for electrode manufacturing. A graphene dispersion liquid is provided including graphene dispersed in a solvent having a N-methyl pyrolidone content of 50 mass % or more and, when diluted with N-methylpyrolidone to a graphene weight fraction of 0.000013, giving a diluted solution having a weight-based absorptivity coefficient, which is calculated by Equation (1) given below, of 25,000 cm?1 or more and 200,000 cm?1 or less at a wavelength of 270 nm: weight-based absorptivity coefficient (cm?1)=absorbance/{0.000013×cell's optical path length (cm)}.

Abstract: The purpose of the present invention is to provide a graphene which has high dispersibility, high electrical conductivity and oxidation resistance namely a graphene which has high electrochemical stability. In order to achieve the above-described purpose, a surface-treated graphene according to the present invention is obtained by having a compound represented by general formula (1) or a neutralized salt thereof adhere to a graphene.

Abstract: A graphene material in a specific form is provided that has a high dispersibility and can maintain a high electric conductivity and ion conductivity when used as material for electrode manufacturing. A graphene dispersion liquid is provided including graphene dispersed in a solvent having a N-methyl pyrolidone content of 50 mass % or more and, when diluted with N-methylpyrolidone to a graphene weight fraction of 0.000013, giving a diluted solution having a weight-based absorptivity coefficient, which is calculated by Equation (1) given below, of 25,000 cm-1 or more and 200,000 cm-1 or less at a wavelength of 270 nm: weight-based absorptivity coefficient (cm?1)=absorbance/{0.000013×cell's optical path length (cm)}.