Electric Digital Data Processing TRIZ Cases

Multiplexer circuitry routes UFS and PCIe signals through one M.2 connector, reducing PCB space and simplifying debugging compared to chip-on-board designs.

A PCIe device measures function throughputs to dynamically allocate traffic class values and optimize data transmission.

A bus arbitration switching circuit uses logic operations on location and bus information to route signals.

Toggling the USB VBUS line voltage enables direct data transfer between client devices, eliminating the energy and complexity costs of host or OTG controllers.

An electrically configurable option board interface adapts host circuitry to diverse peripheral devices through automated identification and dynamic signal routing.

A single wire bus system transmits clock, power, and data signals over one conductor to reduce component size.

An event trigger master manages peripheral requests via a command queue and state machine.

A virtual general purpose input output port maps unrelated pins to a single software interface using a multiplexer and select register.

A PLC expansion module uses a USB hub and controller to enable high-speed data exchange between the basic unit and peripheral devices.

Comparator circuitry detects communicational signaling type by comparing observed voltages against known thresholds, eliminating manual evaluation time.

Direct memory access via PCIe bypasses host system memory, eliminating data copies to reduce message latency.

A USB Type-C host connector detects device orientation using configuration channel terminals while distinguishing audio headsets from active cables.

A conversion device maps twin-wire bus signals onto a single-wire protocol using half-period clock timing.

A PCIe switch allocates port lanes using device self-identification logic.

A PCIe switch schedules message signal interrupts and read write requests to improve input output operations per second efficiency.

Dense bus interface units reduce wiring length between memory arrays and buffers, resolving speed and power trade-offs.

A programmable integrated circuit couples a static host interface to a dynamic kernel region for hardware acceleration.

A microcontroller intercepts write requests on a local serial port and transmits them over a network interface.

An I/O scheduler engine selects a subset of devices based on operating levels to optimize data operations.

A dedicated controller manages sensor states via I2C interfaces to isolate control logic from the main processor.

Group-specific identifiers map to device addresses, reducing latency and resource consumption by eliminating explicit sender bits in datagrams.

A modular external apparatus uses daisy-chained supplemental nodes to scale memory and compute power without altering host hardware.

A direct memory access circuit manages data transfer cycles through an autonomous register bank that initializes and updates parameters without constant CPU intervention.

Reuse intradie switching fabric for interdie communication to eliminate hardware duplication and reduce die area in stacked integrated circuits.

Dual-mode single-pair Ethernet interface resolves speed mismatch with multi-pair switches, eliminating expensive FPGA hardware.

A computing node transmits management messages over existing data links to a second chassis for protocol conversion.

Bridge circuit processes early read transaction requests to fetch data from low bandwidth slaves before scheduled access.

Dynamic priority assignment prevents lower priority device starvation while maintaining quality of service.

A trigger jack accessory stores configuration data on a jack interface to enable direct device communication.

Hierarchical cache mapping optimizes tensor data access patterns to resolve speed and power consumption trade-offs in multi-core processors.

A smart network interface card emulates external storage as local disk via a dedicated emulation layer.

A semiconductor device integrates memory, ID, and GF data into a single output path using a multiplexer and FIFO buffer for synchronized transmission.

A direct memory access engine incorporates an on-chip data generation module to autonomously produce data patterns.

Monitoring reference clock stability prevents premature reset expiration and lane reversal issues during NVMe device hot-plugging.

A host device routes CAN signals over a single USB-C connector using alternate mode switching.

A device controlling server identifies and instructs appropriate control-target devices to perform operations based on predefined linking rules.

Transaction identifier expansion circuitry maps initial identifiers to revised values based on target slave devices.

An optical module uses an MCU with multiple serial clock interfaces to drive chips sharing a single address.

Local event ring in island-based network flow processor routes event packets through configurable mesh data bus to resolve scalability bottlenecks.

Dynamic lane allocation via protocol encoders reduces chip area and power consumption across multiple interfaces.

Trigger data from connection modules shifts pipeline reading rules, maintaining processing order and preventing backlogs during configuration changes.

Pre-reading data segments converts Non-Posted requests to Posted mode, reducing transmission delay and improving bandwidth utilization.

A PCI-to-OCP bridge converts posted writes to non-posted transactions.

A retrieval module interfaces with avionics end systems to extract data frames independently.

Multiplexers identify connected devices as hosts or slaves, enabling direct communication between two hosts without dual master-slave functionality.

A ray tracing system divides pixel frames into regions assigned to multiple processing elements.

An interface card module connects a function chip via cable to reduce signal attenuation.

Hardware priority encoding and buffering prevent system deadlocks caused by software-based interrupt scanning, freeing processor resources.

Protocol conversion encapsulates I3C data in A-PHY payloads to resolve versatility and reliability trade-offs.

Merging the address channel with the write path eliminates sequential operations, reducing write latency while increasing bandwidth.