A fluid applicator configured to apply a fluid to at least one substrate feature. The includes compressible reticulated media including an input interface configured for coupling with a fluid reservoir, and a substrate interface having an applicator profile corresponding to a feature profile of the at least one substrate feature. Reticulations extend from the input interface to the substrate interface, and the reticulations are distributed across the applicator profile. The compressible reticulated media includes filling and dispensing configurations. In the dispensing configuration the substrate interface is configured for engagement with the at least one substrate feature, the compressible reticulated media is compressed, and according to the compression the fluid is applied across the feature profile. In the filling configuration the compressible reticulated media is configured for expansion relative to the dispensing configuration, and the fluid infiltrates the reticulations according to the expansion.

Disclosed is a developing device for developing a substrate, comprising: a developing tank, a recovery box and a conveying unit provided right above the developing tank and configured to convey the substrate; wherein the developing tank comprises a first tank, a second tank and a third tank, which are spaced and are sequentially arranged; the recovery box comprises a first box and a second box; the first tank is communicated with the first box; as the substrate is arranged in the second tank, the second tank is communicated with the first box; as the substrate is arranged in the third tank, the third tank is communicated with the second box. The developing device can solve the technical problems of separately recovering the developers doped with different photoresist concentrations during the development of the substrate to reduce the cost of diluting the developer concentration in the recovery box.

Systems for the manufacturing of waveguide cells in accordance with various embodiments can be configured and implemented in many different ways. In many embodiments, various deposition mechanisms are used to deposit layer(s) of optical recording material onto a transparent substrate. A second transparent substrate can be provided, and the three layers can be laminated to form a waveguide cell. Suitable optical recording material can vary widely depending on the given application. In some embodiments, the optical recording material deposited has a similar composition throughout the layer. In a number of embodiments, the optical recording material spatially varies in composition, allowing for the formation of optical elements with varying characteristics. Regardless of the composition of the optical recording material, any method of placing or depositing the optical recording material onto a substrate can be utilized.

A combination nozzle and a device for applying a viscous material, particularly an adhesive, to a component edge includes two wide-slot nozzles lying close to one another. The first nozzle applies the viscous material and the second nozzle supplies a gas such as air for shaping the applied material bead. A nozzle mount has a guide roller placed on and movable about the edge of the component during application. A connector element via a connecting mechanism allows movement of the nozzle mount parallel to the surface normal on the component edge to press the guide roller against the edge during the application process by a spring mechanism. With the proposed combination nozzle and the proposed device, an optimal wetting of the component edge with the viscous material can be achieved, and additionally the component tolerances are compensated without the necessity of an elaborate sensor system.

Systems for the manufacturing of waveguide cells in accordance with various embodiments can be configured and implemented in many different ways. In many embodiments, various deposition mechanisms are used to deposit layer(s) of optical recording material onto a transparent substrate. A second transparent substrate can be provided, and the three layers can be laminated to form a waveguide cell. Suitable optical recording material can vary widely depending on the given application. In some embodiments, the optical recording material deposited has a similar composition throughout the layer. In a number of embodiments, the optical recording material spatially varies in composition, allowing for the formation of optical elements with varying characteristics. Regardless of the composition of the optical recording material, any method of placing or depositing the optical recording material onto a substrate can be utilized.

Systems for the manufacturing of waveguide cells in accordance with various embodiments can be configured and implemented in many different ways. In many embodiments, various deposition mechanisms are used to deposit layer(s) of optical recording material onto a transparent substrate. A second transparent substrate can be provided, and the three layers can be laminated to form a waveguide cell. Suitable optical recording material can vary widely depending on the given application. In some embodiments, the optical recording material deposited has a similar composition throughout the layer. In a number of embodiments, the optical recording material spatially varies in composition, allowing for the formation of optical elements with varying characteristics. Regardless of the composition of the optical recording material, any method of placing or depositing the optical recording material onto a substrate can be utilized.