Shock resistance optical resin lens and method of manufacture

A technology for optical resin lenses and manufacturing methods, applied in optics, optical components, optical components, etc., can solve the problems of low technical starting point, high dispersion, poor impact resistance, etc., to eliminate internal polymerization stress, ensure optical accuracy, and ensure optical quality effect

Active Publication Date: 2009-01-07
SHANGHAI CONANT OPTICS CO LTD
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

The domestic industry started late and the starting point of technology is low. In recent years, domestic production plants have imported high-refractive resin monomers from abroad to polymerize and process high-refractive optical resin lenses. Most of the high-refractive o

Method used

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  • Shock resistance optical resin lens and method of manufacture
  • Shock resistance optical resin lens and method of manufacture
  • Shock resistance optical resin lens and method of manufacture

Examples

Experimental program
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Effect test

Embodiment 1

[0026] First weigh 9.4Kg of the chemical monomer A component, seal and stir at room temperature (22°C-28°C) for 11 minutes, add 14g of dibutyltin dichloride catalyst and then seal and stir at room temperature (22°C-28°C) 30 minutes, then cool down to 8°C in an ice-water bath and maintain this temperature, add 10.6Kg of chemical monomer B component, stir at 8°C under vacuum (vacuum degree at -0.08Mpa) for 35 minutes, then stop stirring and keep the vacuum degree at - After 10 minutes at 0.08Mpa, keep the temperature at 8°C, pressurize it with nitrogen to 0.06Mpa, filter through a polytetrafluoroethylene filter membrane with a pore size of 0.3μm, and inject it into the mold (350 pieces) that has been closed. Thermosetting polymerization molding in the computer temperature-controlled curing furnace of the device. The curing temperature change steps are as follows: the starting temperature is 35°C, keep warm for 2 hours, rise to 50°C after 3 hours, rise to 70°C after 3 hours, then...

Embodiment 2

[0028] First weigh 10Kg of the chemical monomer A component, and then seal and stir at room temperature (22°C-28°C) for 10 minutes, then add 13g of dibutyltin dichloride catalyst and then seal and stir at room temperature (22°C-28°C) for 30 minutes. Minutes, then cool down to 6°C in an ice-water bath and maintain this temperature, add 10Kg of chemical monomer B component, stir at 6°C under vacuum (vacuum degree at -0.09Mpa) for 40 minutes, then stop stirring and keep the vacuum degree at -0.09Mpa After 12 minutes, keep the temperature at 8°C, pressurize it with nitrogen to 0.08Mpa, filter through a polytetrafluoroethylene filter membrane with a pore size of 0.3μ, and inject it into the mold that has been closed (360 pieces). Thermosetting molding in a computer temperature-controlled curing furnace, the curing temperature change steps are as follows: the initial temperature is 35°C, heat for 1 hour, rise to 45°C after 4 hours, rise to 65°C after 4 hours, then hold for 4 hours, a...

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Abstract

The invention relates to an impact resistance optical resin glasses and a manufacturing method thereof, which is characterized in that optical resins materials consist of materials which have A component and B component, and the weigh percentage ratio of the two components is that: A component: B component = 40-50: 60-50, wherein, the A component is prepared by bi-isocyanic acid hexyl ester with the weigh percentage ratio 44-56 percent and multivariate isocyanate-group compounds which have a benzene ring and have the weigh percentage ratio of 56-44 percent; the B component is prepared by the reaction products of pentaerythritol and 3-sulfhydryl-acrylic acid with the weigh percentage ratio 85-95 percent and tetrathio-pentaerythritol with the weigh percentage ratio 15-5 percent; a catalyst adopts double dodecyl halide stannous: R-D2Sn-R; and the addition amount of the catalyst is 0.05-0.12 percent of the total weight of the A and the B components. A computer temperature control curing oven which is provided with a quick cooling device is adopted by the invention, thus guaranteeing the optical precision and the optical quality of the glasses, well and uniformly mixing the raw materials and greatly improving the qualification rate of the glasses.

Description

technical field [0001] The invention relates to a manufacturing process of an optical resin lens, in particular discloses a high-refractive-index super-impact-resistant optical resin lens and a manufacturing method thereof. Background technique [0002] The optical resin lens production industry has developed rapidly in China and has become a new type of industry in China. High-refractive optical resin lenses are popular all over the country. They have the properties of light texture, compact structure, good optical performance, thin lenses and effective anti-ultraviolet rays. The domestic industry started late and the starting point of technology is low. In recent years, domestic production plants have imported high-refractive resin monomers from abroad for polymerization and processing to make high-refractive optical resin lenses. Most of the high-refractive optical resin lenses produced belong to acrylic (methacrylic acid) series. , high refraction optical resin lenses m...

Claims

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Application Information

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IPC IPC(8): G02C7/02G02B1/04B29C45/00B29K67/00B29K105/32B29L11/00
Inventor 贺建友罗有训郑育红张盛元
Owner SHANGHAI CONANT OPTICS CO LTD
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