Abstract: A paper forming mold, comprising a roller (1). A number of through micropores are formed on a wall of the roller (1), and one or more patterns and characters of a normal watermark, a white watermark, a windowed security thread, and a paper marker are carved on the wall of the roller (1). The paper forming mold has a high reproducibility for an original watermark design draft, improves consistency, clarity, three-dimensionality, detail refinement and richness of the watermark in paper, and thus enhances the anti-counterfeiting function of the watermarked paper; the service life of the paper forming mold is prolonged; and the automation level of paper forming mold manufacturing is improved, and the labor intensity is greatly reduced.

Abstract: A paper forming mold, comprising a roller (1). A number of through micropores are formed on a wall of the roller (1), and one or more patterns and characters of a normal watermark, a white watermark, a windowed security thread, and a paper marker are carved on the wall of the roller (1). The paper forming mold has a high reproducibility for an original watermark design draft, improves consistency, clarity, three-dimensionality, detail refinement and richness of the watermark in paper, and thus enhances the anti-counterfeiting function of the watermarked paper; the service life of the paper forming mold is prolonged; and the automation level of paper forming mold manufacturing is improved, and the labor intensity is greatly reduced.

Abstract: A substrate having a superhydrophobic surface and methods of manufacturing the same and uses thereof. The substrate comprises a frame of a first material of interconnected structures exhibiting cavities having the shape of inverted pyramids; and a second material comprising hydrophobic structures filling the cavities, wherein the sidewalls of the inverted pyramids form an angle ? of 105°<?<135° against the surface. The hydrophobic structures, such as nanoparticles, provide excellent water repellency, whereas the structures formed by a mechanically durable substrate material, typically comprising microstructures, act as armor to resist abrasion. The substrates are robust, durable and abrasion resistant and can be used as surfaces in self-cleaning, anti-fouling or heat transfer materials as well as in transparent surfaces, in particular in solar cells.

Abstract: A pipette based on surface charges includes a pipette body. A plurality of support rods are provided below the pipette body. Connecting rods are provided at the lower ends of two adjacent support rods. A substrate is provided between the connecting rods. A porous SiO2 coating is provided on the substrate. A hydrophobic molecule layer is provided on the surface coating by the vapor deposition method. A superamphiphobic surface is formed on the substrate by the surface coating and the hydrophobic molecule layer. The substrate and the surface coating are made of dielectric materials. A circular limit plate is provided above the pipette body. The pipette body, the support rods, the connecting rods and the limit plate are integrally formed, and are electrically non-conductive. An electrically conductive sliding rod is movably provided within the pipette body and the limit plate.

Abstract: A wear-resistant self-cleaning solar cell panel includes a transparent substrate. A plurality of continuous microstructures are arranged on the transparent substrate, and each microstructure is an inverted pyramid or an inverted conical hole, and the microstructure is filled with a plurality of superhydrophobic nanomaterials, the microstructures and the superhydrophobic nanomaterials jointly constitute a composite surface of the solar cell panel. An angle of a side wall of the inverted pyramid or the inverted conical hole is ?, wherein 30°<?<90°. A side length of the microstructure is a, wherein 1 ?m<a<2 mm. A spacing between adjacent microstructures is b, wherein 10 nm<b<2 mm. The superhydrophobic nanomaterials are filled into the microstructure by an in-situ deposition method or an indirect filling method.

Abstract: A wear-resistant self-cleaning solar cell panel includes a transparent substrate. A plurality of continuous microstructures are arranged on the transparent substrate, and each microstructure is an inverted pyramid or an inverted conical hole, and the microstructure is filled with a plurality of superhydrophobic nanomaterials, the microstructures and the superhydrophobic nanomaterials jointly constitute a composite surface of the solar cell panel. An angle of a side wall of the inverted pyramid or the inverted conical hole is ?, wherein 30°<?<90°. A side length of the microstructure is a, wherein 1 ?m<a<2 mm. A spacing between adjacent microstructures is b, wherein 10 nm<b<2 mm. The superhydrophobic nanomaterials are filled into the microstructure by an in-situ deposition method or an indirect filling method.

Abstract: A pipette based on surface charges includes a pipette body. A plurality of support rods are provided below the pipette body. Connecting rods are provided at the lower ends of two adjacent support rods. A substrate is provided between the connecting rods. A porous SiO2 coating is provided on the substrate. A hydrophobic molecule layer is provided on the surface coating by the vapor deposition method. A superamphiphobic surface is formed on the substrate by the surface coating and the hydrophobic molecule layer. The substrate and the surface coating are made of dielectric materials. A circular limit plate is provided above the pipette body. The pipette body, the support rods, the connecting rods and the limit plate are integrally formed, and are electrically non-conductive. An electrically conductive sliding rod is movably provided within the pipette body and the limit plate.

Abstract: The present invention relates. to methods and devices for exchanging gas molecules between a gaseous medium and a liquid medium which are particularly suited for applications such as blood oxygenation in heart-lung machines and gas scrubbing. The method of the invention comprises the following steps: a) providing a liquid medium having a surface tension in the range of from 0.02 N/m to 0.06 N/m, b) providing a gaseous medium, c) providing a membrane on an interface between the liquid medium and the gaseous medium, wherein the membrane comprises i) a carrier substrate with through-going openings having a mean diameter in the range from 0.2 ??? to 200 ???, and ii) a porous superamphiphobic coating layer with openings having a mean diameter in the range from 0.

Abstract: Novel heterocyclo compounds represented by Formula I wherein X, R1, R2, R3, R4, R5, R6 and n are as described herein are provided. The compounds may be prepared as pharmaceutical compositions, and may be used for the prevention and treatment of a variety of cancer conditions in mammals including humans, including prostate, colon, bladder, melanoma, liver, breast, cervical, ovarian, esophagi, glialblastoma, pancreatic and lung cancer.

Abstract: The present invention relates. to methods and devices for exchanging gas molecules between a gaseous medium and a liquid medium which are particularly suited for applications such as blood oxygenation in heart-lung machines and gas scrubbing. The method of the invention comprises the following steps: a) providing a liquid medium having a surface tension in the range of from 0.02 N/m to 0.06 N/m, b) providing a gaseous medium, c) providing a membrane on an interface between the liquid medium and the gaseous medium, wherein the membrane comprises i) a carrier substrate with through-going openings having a mean diameter in the range from 0.2 ??? to 200 ???, and ii) a porous superamphiphobic coating layer with openings having a mean diameter in the range from 0.

Abstract: The present invention relates to a process for particle synthesis on a superamphiphobic or superoleophobic surface comprising at least the followings steps: a) providing a substrate having at least one superamphiphobic or superoleophobic surface, i.e. a surface exhibiting an apparent macroscopic contact angle of at least 140° with respect to 10 ?l sized drops of liquids having a surface tension of not more than 0.

Abstract: Disclosed are heterocyclo compounds that have a formula represented by the following: and wherein X, R1, R2, R3, R4, R5, R6 and n are as described herein. The compounds may be prepared as pharmaceutical compositions, and may be used for the prevention and treatment of a variety of cancer conditions in mammals including humans, including by way of non-limiting example, prostate, colon, bladder, melanoma, liver, breast, cervical, ovarian, esophagi, glialblastoma, pancreatic and lung cancer.