Abstract:
Disclosed are various embodiments that facilitate client-side encryption of form data. A network page that includes client-side code that encrypts one or more data items using a public key is sent to the client. The data items are provided by a user in one or more form fields of the network page. The data items and one or more unencrypted data items are obtained from the client over an encrypted channel. The data items are encrypted using the public key when the data items have not been encrypted by the client-side encryption code. The data items are sent in an encrypted state to a server over an internal network. A firewall is interposed between the internal network and the server to protect the server from the internal network.
Abstract:
Flexographic printing plates and other relief images can be formed from a laser-ablatable element having a laser-ablatable layer that is from about 300 to about 4,000 μm thickness. The laser-ablatable layer includes a film-forming material that is a laser-laser-ablatable material or the film-forming material has dispersed therein a laser-ablatable material. The laser-ablatable material is a polymeric material that when heated to 300° C. at a rate of 10° C./minute, loses at least 60% of its mass to form at least one predominant low molecular weight product. The laser-ablatable material also comprises at least 0.01 weight % of a depolymerization catalyst that is a Lewis acid or organometallic based catalyst. The element can be imaged by ablation at an energy of at least 1 J/cm2 to provide a relief image.
Abstract translation:柔版印刷版和其它浮雕图像可以由具有约300至约4,000μm厚度的激光可烧蚀层的激光可烧蚀元件形成。 激光烧蚀层包括作为激光可激光材料的成膜材料,或者成膜材料中分散有激光可烧蚀材料。 激光可烧蚀材料是一种聚合材料,当以10℃/分钟的速率加热至300℃时,其损失至少60%的质量以形成至少一种主要的低分子量产物。 激光可烧蚀材料还包含至少0.01重量%的解聚催化剂,其是路易斯酸或有机金属基催化剂。 该元件可以以至少1J / cm 2的能量消融成像,以提供浮雕图像。
Abstract:
The present invention provides a processless printing plate precursor including a thermally sensitive layer applied onto a substrate. The thermally sensitive layer includes polycyanoacrylate particles having a major dimension between about 50 and about 500 nm, and a mean major dimension of no greater than about 350 nm. The printing plate precursor may be exposed to radiation and may then be developed “on press” with a suitable fountain solution.
Abstract:
Various imaging members including lithographic imaging members can be prepared by applying to a support, an aqueous formulation comprising one or more imaging components to form an imaging layer. Over the imaging layer is directly applied a non-aqueous inverse emulsion comprising highly hydrophilic, water-swellable microgel particles dispersed in a water-immiscible organic solvent to form a protective layer. This protective layer provides physical durability but it is still readily removed during or after imaging with water or fountain solutions.
Abstract:
A thermal imaging member can be imaged using infrared radiation such as from an IR-emitting laser and used for lithographic printing. The imaging member includes a support having an ink-repellant thermally sensitive imaging layer and an ink-repellant surface layer that is swellable in waterless ink solvents. Imaging ablates the imaging and surface layers, but minimal debris is generated so wiping or washing is not required. The imaging layer including a thermally sensitive copolymer of silicone “soft” segments and thermally sensitive “hard” segments, as well as a photothermal conversion material that is IR radiation sensitive.
Abstract:
A thermally imagable element suitable for use as a lithographic printing plate is disclosed. Imagable element contains an ink repellent, thermally sensitive surface layer on a substrate. The surface layer contains an ink repellent, thermally sensitive co-polymer which is both thermally sensitive and has the physical properties needed for handling and printing. The thermally sensitive co-polymer contains two types of segments: (a) soft silicone segments, which repel ink, and (b) hard segments, which provide physical integrity and impart thermal sensitivity to the co-polymer. The element can be imaged by imagewise expose either by infrared radiation or by heat. The process requires no wet development step and no wiping. Thermally labile crosslinked polymers are also disclosed.
Abstract:
This invention relates to a dye-donor element for thermal dye transfer comprising a support having thereon a dye layer comprising an image dye in a polymeric binder, and wherein the dye layer also contains a stabilizer comprising an oligomeric, polycarbonate polyol having a molecular weight between about 1000 and about 10,000.
Abstract:
A thermal dye transfer assemblage comprising:(a) a dye-donor element comprising a support having thereon a dye layer comprising a dye dispersed in a polymeric binder, the dye being substituted with a reactive primary or secondary aliphatic or primary aromatic amino group, and(b) a dye-receiving element comprising a support having thereon a dye image-receiving layer, the dye-receiving element being in a superposed relationship with the dye-donor element so that the dye layer is in contact with the dye image-receiving layer, the dye image-receiving layer comprising a polymer containing a plurality of .beta.-diketone, .beta.-ketoester or .beta.-ketoamide functional groups.
Abstract:
A dye-receiving element for thermal dye transfer includes a support having on one side thereof a dye image-receiving layer. Receiving elements of the invention are characterized in that the dye image-receiving layer primarily comprises a crosslinked polymer network formed by the reaction of multifunctional isocyanates with polycarbonate polyols having two terminal hydroxy groups and an average molecular weight of about 1000 to about 10,000.
Abstract:
Disclosed are various embodiments for generating classifications for items from normalized item attributes. Multiple attribute options are maintained for an item. Each of the attribute options is associated with a respective range of values on a normalized scale for an attribute. Multiple item classifications are generated for one of the attribute options by mapping the respective range of values for the one of the attribute options to one or more item classifications on each of multiple scales of classification for the attribute.