This project redefines chemical resistance, field readability, and maintenance usability through a single, coherent industrial form language.
MS. Pressure Transmitter is a pressure transmitter that measures line pressure, displays values locally, and sends signals to a control system. This redesign goes beyond visual refinement, addressing both reliability in chemical environments and the operator experience in the field.
The display area is optimized for quick readability, while the control interface improves setting access without adding visual clutter. With the Teflon housing as a core material condition, the new design balances a clean presence with a function-driven structure that fits chemical process equipment.
SCHERIA 2026
Copyright 2026. SCHERIA. All right reserved.
It illustrates how an in-line pressure transmitter reads pressure within a flowing process line and converts it into a control-ready electrical signal. Fluid passes through the left and right ports, while line pressure is transferred through the wetted diaphragm to the sensing element, where it is converted into an electrical output for system integration. The front indicator is designed for fast, glanceable readability, and the concept includes orientation flexibility (rotational alignment) to keep the display legible in tight installation environments. The housing edges are refined with Universal Design-driven corner radii to reduce snagging and hand fatigue, improving safety, glove-friendly handling, cleaning, and serviceability expressing operational trust through form.
This design redefines an industrial pressure transmitter not as a mere component, but as a user-trust interface. From a Universal Design perspective, the edges and contact surfaces are refined with generous corner radii to reduce snagging and pressure points, ensuring safer, glove-friendly handling during installation, cleaning, and inspection. The front display is engineered with clear contrast to support error-free reading, keeping values legible even in dense piping layouts and low-light conditions. A dominant white main body establishes a calm, premium presence at compact scale, while black elements controls and functional interfaces are visually separated to clarify hierarchy and operation at a glance. The resulting white–black composition and precise curvature deliver premium confidence and unmistakable usability within industrial environments.
This design enables the top display and sensor module to rotate by 90°, allowing users to adjust the viewing angle to match installation constraints and personal ergonomics. The key is that the rotation leaves no visual or structural clutter: even after a 90° turn, the module fits flush with the main body, preserving a clean, unified silhouette as if it were a single integrated object. This flexibility helps optimize legibility across varied real-world conditions tight equipment spaces, piping orientation, and maintenance access. Soft corner radii further refine the tactile experience, reducing the harshness often associated with industrial components and making the device feel approachable and intuitive to handle. It is a field-driven premium interface that balances functional adaptability with disciplined form.
This design is built on a mold-free, CNC-only manufacturing strategy, elevating the machining process into the product’s core design language. Planes, curves, continuous corner radii, and tight assembly fit are engineered around subtractive precision rather than injection-molding constraints, achieving crisp edges and consistently refined surface quality that are distinctive to CNC fabrication. From the prototype stage, tolerances, assembly sequence, and part segmentation were defined to production standards so the prototype can transition directly into a manufacturable product with minimal translation. The result is a design that combines rapid development and production realism with a premium level of industrial refinement inside process equipment.
CMP (Chemical Mechanical Planarization/Polishing) is a critical semiconductor process step that achieves wafer surface planarity by combining controlled chemical reactions with mechanical abrasion. Inside the tool, the wafer is pressed against a polishing pad under defined pressure while slurry containing abrasive particles and reactive chemistry is supplied to remove material uniformly. Because line pressure and fluid delivery conditions directly affect removal rate, uniformity, and defect generation, a pressure transmitter becomes an essential interface within the CMP system. By monitoring and stabilizing pressure in slurry/chemical supply lines and related fluid paths, the transmitter supports consistent process control quietly enabling the precision required to make a surface “flat enough” for the next layer of fabrication.
These cross-sectional inspection images (X-ray/SEM-style) compare the wafer surface before and after CMP (Chemical Mechanical Planarization), clearly revealing how planarization is achieved. Prior to CMP, non-uniform film topography and step height remain over patterned features, leaving visible waviness and variation. After CMP, the surface is leveled into a uniform reference plane, creating a stable foundation for subsequent layers. CMP is therefore a critical step that resets the wafer to a flat baseline between build-up processes, and the difference is directly readable in the cross-section. To reproduce this planarization consistently, CMP tools tightly control slurry/chemical delivery and line pressure; here, the pressure transmitter serves as a key connection detail—sensing pressure in the fluid path and feeding it to the control system to reduce process drift and support uniform removal and surface quality.
This image symbolically depicts a common wet-process approach in wafer fabrication, where a chemical solution is precisely dispensed onto the wafer surface and then uniformity is achieved through rotation and/or controlled scanning. A nozzle delivers the fluid by micro-spraying or droplet dispensing at a defined height and position, while the wafer spins to spread the liquid by centrifugal force, equalizing film thickness and surface treatment. The same principle applies across multiple steps photoresist spin coating, cleaning/developing, or CMP slurry delivery where final quality depends on the repeatability of flow rate, pressure, dispense position, and timing. In other words, before patterns are formed, it is the controlled behavior of fluids that defines wafer uniformity, supported by measurement and control elements that stabilize the process conditions.
This image evokes the precision of semiconductor manufacturing, where dense microstructures are repeatedly patterned across a silicon wafer. Chip production progresses through many cycles of thin-film deposition (dielectrics and metals), photoresist coating, exposure to transfer circuit patterns, and development/etching to selectively remove material. Electrical properties are tuned through ion implantation and thermal processes, while interconnect metals are formed and CMP is used to re-planarize the surface, restoring a flat reference plane for the next layer. After these stacked structures are completed, the wafer is diced into individual dies, then packaged and tested to become finished chips ready for integration into electronic systems.
Copper is the primary metal that carries signals and power through semiconductor interconnects. This image draws on the texture of copper ore its rough mass and vein-like striations to visualize conductivity as a path formed within matter. Oxidized hues echo the passage of time, while the contrast between warm metallic glow and cool patina suggests the balance between performance and stability. Like mineral veins cutting through rock, semiconductor wiring becomes an ordered flow in a microscopic landscape a designed structure where current travels like a natural vein.
Key semiconductor materials are translated into natural forms, visually linking the product to the substance of the industry. The transparent crystalline structure of quartz an origin material for silicon symbolizes refined purity and the foundation of precision, while ore-like textures and vein patterns associated with copper evoke conductivity as a natural path for current. Within this material narrative, the pressure transmitter becomes an interface that reads invisible pressure and flow, bridging raw matter and engineered control. By pairing mineral crystallinity and metallic veins with a restrained industrial form, the composition quietly reveals the essence of semiconductor manufacturing: turning nature into precision through process.
Silicon begins with silica found in sand and quartz. The clarity of crystal evokes refinement: impurities removed, structure aligned, and matter disciplined into order. This image overlays that natural crystallinity with the logic of semiconductor precision, suggesting a transformation from raw particles to engineered performance. It captures a quiet narrative of materials: from the earth’s grain to the language of the chip, where nature’s formation becomes the foundation of technological exactness.
Address
39, Seocho-daero 77-gil, Seocho-gu
Seoul, Korea
Contact
ⓒ Scheria Inc., 2026
