Screening Casings TRIZ Cases

Enclosed wireless modules inside the truck-trailer connector maintain a short, shielded link for reliable high-speed data transfer across repeated coupling cycles.

A thermally coupled separator splits battery electronics into shielded zones, cutting EMI while moving heat to coolant paths.

A conductive back cover with grounding protrusions cuts PCB EMI noise while adding rigidity and enabling a thinner vehicle display.

A ferrite-backed shield beside a wired port attenuates magnetic noise, protecting nearby wireless antennas in compact devices.

Stacked IGBT and power supply cooling layers enlarge coolant space, improve heat dissipation, and reduce electromagnetic interference.

A lightweight insulating enclosure uses conductive layers and grounding features to shield battery-pack electronics while improving service access.

Symmetric matching traces around HDMI clock pairs equalize parasitics, cutting EMI and preserving signal quality on longer mainboard routes.

A loss-free dielectric interlayer improves impedance matching and broadens wave absorber bandwidth without the mass penalty of heavy lossy layers.

A flexible snap-on cover encloses protruding fastener ends to reduce abrasion, smooth electric fields, and protect cable sleeves.

A low-resistance ground bus bar enables surface grounding in a non-metallic high-voltage junction box to improve radiated noise absorption.

Conductive housing and propeller guard strips shield UAV electronics from arcs and EMI near high-voltage lines, improving stable inspection flight.

A conductive surface between internal supports lets non-conductive vehicle body panels dissipate stray current with lower cost and complexity.

Separate shielded chassis with air gaps and heat spreaders cool vehicle head-unit boards while blocking EMI and protecting interface components.

Electromagnetic shielding inside a sealed truck-trailer connector enables reliable high-speed wireless data transfer with less interference and wear.

A conductive handle frame creates uniform grounding in a power tool, improving EMC and ESD compliance while simplifying assembly.

A conductive surface spread between internal bodywork structures dissipates unwanted currents in non-conductive vehicle panels while simplifying molding.

A conductive housing and cooling plate split RF and power sections to block spurious emissions and improve MRI amplifier EMC.

A conductive housing and cooling plate isolate RF, power, and control modules to suppress EMI and common-mode currents in MRI amplifiers.

Environmental sensing and composite shielding let an induction lamp string balance EMI suppression, lighting output, and heat dissipation.

Conductive members in a resin ECU case create local shielding to improve EMC while preserving ICT, AOI, and X-ray inspection.

Detachable extension circuits add camera or base-station functions after delivery while preserving air tightness, heat dissipation, and stable connection.

A standardized cooling blade with liquid cooling and EMI shielding simplifies vehicle compute unit integration across interchangeable modules.

Segmenting the enclosure into EMC-secured and unsecured zones allows wireless communication without protrusions that disrupt stacking.

A shield conductive path uses a non-contact cover body to surround the inner conductor connecting portion for stable signal transmission.

An integrated cold-shrink cover assembly with a Faraday cage reduces voltage stress on buried cable joints.

A movable shielding case isolates the magnetic field of a main control member using a vertical lifting mechanism.

Multi-functional clips secure electronic units to vehicle panels while conducting heat away from internal components.

Internal radiator thermally couples to a cover inner surface within an optical machine module housing.

Extending high-tension pads to the peripheral edge prevents void formation and electrical discharges between shielding layers and voltage conductors.

A wearable device hinge incorporates a hole to radiate processor heat outside the housing.

Asymmetric dimples on a shield case generate airflow turbulence, reducing temperatures of heat-generating elements without increasing manufacturing complexity.

A double-walled electronics housing channels liquid through a labyrinth-like interspace between nested shells.

A shield assembly uses a spring contact between tabs and a conductive rail to provide mechanical and electrical coupling.

Segmented shielding case with sliding limiting structures reduces assembly difficulty and prevents damage during maintenance.

Folds on a base heat sink and a nested secondary unit increase surface area to manage thermal energy within constrained EMI shield volume.

Conductive shielding parts surround the substrate and cable to block electromagnetic noise, resolving interference that degrades image quality.

An inspection window in the housing wall allows visual verification of the locking mechanism engagement without compromising enclosure reliability.

A biased filler assembly seals optical cage openings using conductive spring members, preventing EMI noise emission when pluggable modules are absent.

Rotating the pickup area in place reduces residual stress and prevents frame distortion during reflow soldering.

Metal plates and a cover suppress electromagnetic wave entry into the substrate, reducing noise interference for stable operation.

Integrating an annular electromagnetic wave absorption component with a resin tape restricts movement and improves handling of bundled electric wires.

An integrated fin pack dissipates heat while attenuating electromagnetic radiation through embedded conductive traces.

A sensing element detects the belt position to dynamically adjust the opening, balancing electromagnetic shielding with heat dissipation.

Composite wall structure protects industrial electronics in space by shielding radiation and managing heat without heavy space-grade parts.

Sandwiched metal layers between plastic shells reduce weight and corrosion without compromising bending workability.

Plastic clamshell housing uses snap fits to attach components, eliminating metal parts that complicate recycling.

Adhesive seals overlapping shell-like shielding plates to reduce electromagnetic interference while compensating for thermal expansion.

An RF isolation container uses a counterweight to bias the lid open and an electromagnet to lock the base, eliminating repetitive strain from manual pressure.

A self-biasing heat sink uses a compliant contact portion to maintain thermal coupling with processors.