Abstract: Described are techniques for multi-tenant security. The techniques include detecting malicious activity on a compromised application in a multi-tenant host. The techniques further include automatically performing a live migration of each tenant of the multi-tenant host to a respective single-tenant host. The techniques further include mitigating the malicious activity on the compromised application that is migrated to a single-tenant host, and automatically performing another live migration of each benign tenant to a new multi-tenant host.

Abstract: A decontaminating pavement which can be applied as a flooring for playgrounds or similar surfaces, and includes at least one base made of black rubber that is ground and glued with a resin binder; and one upper layer of encapsulated and colored rubber, with resins, pigments, additives, and catalysts, wherein the surface of said upper layer is impregnated with a transparent film containing a photocatalytic additive which, in the presence of photons originating from sunlight or from a UV lamp, produces a NOx gas or particle decontamination or elimination effect. The photocatalytic additive forming the transparent film with which the surface layer is impregnated can be based on nano titanium. The upper layer of encapsulated rubber can include, as catalysts, an enhancer of the catalytic and aromatic/aliphatic binding effect which enhances and activates the effect of the photocatalytic additive of the film impregnating the surface of said upper layer.

Abstract: A composition comprising a first organic electron donor material having an absorption maximum greater than 900 nm; a second organic electron donor material having an absorption maximum at a shorter wavelength than the first organic electron donor material; and an organic electron acceptor material. The composition may be used in an organic photodetector.

Abstract: A composition comprising a first compound and a second compound of formula (I) wherein EDG is an electron-donating group comprising a polycyclic hetero aromatic group and each BAG is an electron-accepting group of formula (II) --- is a bond to EDG; each R10 is, independently in each occurrence, H or a substituent; each R11-R14 is, independently in each occurrence, H or an electron-withdrawing group; and of the first and second compounds of formula (I), the total number of electron-withdrawing groups R11-R14 is greater for the first compound of formula (I). The composition may further contain an electron donor capable of donating an electron to the compounds of formula (I). The composition may be used in the photoactive layer of an organic photodetector.

Abstract: [Object] To provide an optical element and an electronic apparatus that can be miniaturized, reduce a height, and increase a response speed as well as realizing modulation with a high transmitted light intensity or a high reflected light intensity. [Solving Means] An optical element according to the present technology includes a first light reflecting layer, a first dielectric thick film layer, a multilayer film laminate, a second dielectric thick film layer, and a second light reflecting layer. The first dielectric thick film layer is formed of a dielectric and arranged on the first light reflecting layer. The multilayer film laminate is a multilayer film laminate arranged on the first dielectric thick film layer and includes a plurality of transparent conductor thin films capable of controlling optical transition energy by a Fermi level adjustment and a dielectric thin film that is an atomic layer thin film arranged between a plurality of the transparent conductor thin films.

Abstract: Aspects of the present disclosure relate to a printing system. In one example, the printing system comprises a print substrate supply mechanism and a conveyor belt. The print substrate supply mechanism is to supply print substrate to the conveyor belt and the conveyor belt is to advance the supplied print substrate. During a substrate loading operation of the printing system, the print substrate supply mechanism prevents motion of the substrate such that when the conveyor belt is activated the supplied substrate slides over the conveyor belt.

Abstract: An example apparatus is disclosed for transporting a substrate through a printing device. The apparatus comprises a shaft to carry the substrate, a motor to rotatably drive the shaft, a motor driver to provide a control signal to the motor to drive the shaft, a transport arrangement to draw the substrate from the shaft, and a controller to cause the motor driver to drive the shaft at a predetermined rotational speed, to cause the transport arrangement to apply tension to the substrate, and to detect a winding direction of the substrate on the shaft based on the control signal.

Abstract: Curing apparatus, image forming apparatus and articles of manufacture are disclosed. An example curing apparatus includes a curing unit to heat an area adjacent a substrate travel path, the curing unit having a width less than a width of the substrate travel path, and a controller to reciprocate the curing unit within the substrate width.

Abstract: Aspects of the present disclosure relate to a printing system. In one example, the printing system comprises a print substrate supply mechanism and a conveyor belt. The print substrate supply mechanism is to supply print substrate to the conveyor belt and the conveyor belt is to advance the supplied print substrate. During a substrate loading operation of the printing system, the print substrate supply mechanism prevents motion of the substrate such that when the conveyor belt is activated the supplied substrate slides over the conveyor belt.

Abstract: Curing apparatus, image forming apparatus and articles of manufacture are disclosed. An example curing apparatus includes a curing unit to heat an area adjacent a substrate travel path, the curing unit having a width less than a width of the substrate travel path, and a controller to reciprocate the curing unit within the substrate width.

Abstract: Curing apparatus, image forming apparatus and articles of manufacture are disclosed. An example curing apparatus includes a curing unit to heat an area adjacent a substrate travel path, the curing unit having a width less than a width of the substrate travel path, and a controller to reciprocate the curing unit within the substrate width.

Abstract: The composition comprises: (a) a compound of formula (I), (b) a polymeric matrix comprising a crosslinked polymer, the matrix having a viscosity value comprised from 1×10?3 to 1×1012 Pa·s, (c) a redox pair, and (d) a solvent, the compound of formula (I) and the redox pair being embedded in the polymeric matrix; and wherein: R1 and R2 are selected from: a (C1-C20)alkyl; (C1-C20)alkyl substituted; a 2 to 20-member heteroalkyl; a 2 to 20-member heteroalkyl substituted; (C2-C20)alkenyl; (C2-C20)alkenyl substituted; (C2-C20)alkynyl; (C2-C20)alkynyl substituted; and a known ring system; R3 to R10 are selected from hydrogen; (C1-C20)alkyl; (C1-C20)alkyl substituted; and nitro; and X is a monocharged anion. The present invention also relates to processes for its preparation and to devices comprising it. The multichromic composition shows a short switching time and low transmission in the most visible range, which makes it effective in blocking the whole visible radiation in smart windows.

Abstract: A method includes identifying at least one of a type of a respective media to be printed on in the print zone and respective densities of portions of the image by an identification module. The method also includes independently adjusting a respective target curing temperature of each one of a plurality of heating modules disposed across the media transport path in a first direction to form the heating zone based on the at least one of the type of the respective media and the respective densities of the portions of the image identified by the identification module by a temperature adjustment module.

Abstract: Curing apparatus, image forming apparatus and articles of manufacture are disclosed. An example curing apparatus includes a curing unit to heat an area adjacent a substrate travel path, the curing unit having a width less than a width of the substrate travel path, and a controller to reciprocate the curing unit within the substrate width.

Abstract: Curing apparatus, image forming apparatus and articles of manufacture are disclosed. An example curing apparatus includes a curing unit to heat an area adjacent a substrate travel path, the curing unit having a width less than a width of the substrate travel path, and a controller to reciprocate the curing unit within the substrate width.

Abstract: In some examples, a first heating stage heats a print medium to a first temperature in a printing region when printing latex ink on the print medium, and a curing heating stage heats, in a curing zone, the print medium to a curing temperature greater than the first temperature to cure the latex ink on the print medium. A cooling stage located between the first and curing heating stages cools the print medium by directing a first part of airflow from the cooling stage to a printing zone, the cooling performed after the print medium has been heated by the first heating stage and prior to heating of the print medium by the curing heating stage. A second part of the airflow is directed from the cooling stage to the curing zone.

Abstract: Methods for curing ink printed on a print medium are disclosed. The methods comprise heating air to a temperature suitable for curing the ink, and blowing the air through a plurality of holes onto the print medium.

Abstract: A method includes identifying at least one of a type of a respective media to be printed on in the print zone and respective densities of portions of the image by an identification module. The method also includes independently adjusting a respective target curing temperature of each one of a plurality of heating modules disposed across the media transport path in a first direction to form the heating zone based on the at least one of the type of the respective media and the respective densities of the portions of the image identified by the identification module by a temperature adjustment module.

Abstract: In some examples, a first heating stage heats a print medium to a first temperature in a printing region when printing latex ink on the print medium, and a curing heating stage heats, in a curing zone, the print medium to a curing temperature greater than the first temperature to cure the latex ink on the print medium. A cooling stage located between the first and curing heating stages cools the print medium by directing a first part of airflow from the cooling stage to a printing zone, the cooling performed after the print medium has been heated by the first heating stage and prior to heating of the print medium by the curing heating stage. A second part of the airflow is directed from the cooling stage to the curing zone.

Abstract: A controller controls a first heating stage to heat a printing medium to a first temperature in a printing region when printing latex ink on the printing medium, and controls a second heating stage to heat the printing medium to a second temperature greater than the first temperature in a curing region to cure the latex ink on the medium. The controller controls a cooling stage located between the first and second heating stages to cool the printing medium after the printing medium has been heated by the first heating stage and prior to heating of the printing medium by the second heating stage.