日本ローターバッハ Product Lineup

◆ High-performance SoCs and processors widely equipped with ARM Cortex-A/R cores Cortex-A: A high-performance processor capable of running rich operating systems such as Linux and Android Cortex-R: Cores chosen for fields requiring real-time control and functional safety ◆ Features of the TRACE32 debugger and trace solution for efficient software development - In addition to basic debugging features like Go/Break and memory dump, it streamlines debugging tasks with complex break condition settings - Debugging that recognizes information from other operating systems, including Stack, even in environments using multiple rich OSs or RTOSs on multiple cores - Enhances debugging efficiency by adding extended features to the debugger for detailed analysis of chip internals/externals through trace and logic analyzer functions - Collaboration with environments that allow for early development even when the actual chip is not available, such as virtual targets ◆ Other features of TRACE32 - The debugging hardware is not exclusive to Arm and can be used with other devices, making it reusable without waste. ☆ Representative processors equipped with Arm Cortex-A/-R cores Renesas: RZ family, NXP: i.MX, Ti: Sitara, etc.

◆ ARM Cortex-M integrated into various microcontrollers and processors A debugger and trace solution for efficiently advancing software development. ◆ Features of TRACE32 that accelerate the development of ARM Cortex-M microcontrollers - In addition to basic debugging functions, it facilitates efficient debugging tasks by allowing the setting of complex break conditions and referencing information about the embedded OS. - In addition to the debugger, adding expansion modules enables real-time tracing and external signal measurement, providing a more detailed understanding of the microcontroller's behavior, with enhanced analysis functions for when issues arise. - Various tracing options are available, from affordable to high-bandwidth/high-speed tracing, tailored to the difficulty of development and budget. - Freely configurable to match the debugging scene. The debugging hardware can be used across all cores, ensuring it is not wasted and can be used for a long time. ☆ Representative microcontrollers equipped with Arm Cortex-M cores Renesas: RA, ST Micro: STM32, S32K, Infineon: XMC, NXP: LPC, Kinetis, MXRT1xxx

This is a debugger and trace tool designed to facilitate smooth software development for ARM Cortex-M series microcontrollers and processors. ☆ Simple yet high-performance - Integrated debugger and trace functionality: Achieve efficient development with a single system. - While there are limitations on expandability and the size of the built-in trace memory, it offers debugging capabilities that are comparable to high-end models. - Supports debugging of multi-core devices. ☆ Advanced trace support - Supports up to 4-pin parallel trace ports: Visualize complex processes! - Simultaneously check software operations and external signals: Enables detailed analysis in conjunction with a logic analyzer. ☆ Representative products featuring Arm Cortex-M cores - Renesas: RA family - ST Micro: STM32 family - Infineon: XMC1000/4000/7000 - NXP: LPC series, Kinetis series, i.MXRT1100/1000 series, and many others.

◆Strengths of TRACE32 in RISC-V Development The RISC-V architecture is highly attractive because it can be flexibly deployed according to scale and performance, ranging from RV32 (32-bit) microcontrollers to RV64 (64-bit) application processors. With TRACE32, you can support a wide range from small RISC-V microcontrollers to large multi-core SoCs. It provides a highly reliable and precise debugging and tracing environment for the increasingly complex RISC-V development. ◆What TRACE32 Can Do - Support for multi-core and heterogeneous core environments - Even in SoC configurations that include multiple RISC-V cores, simultaneous control and analysis can be performed through a single debugging interface. - Not only RISC-V cores but also cores from other architectures (e.g., ARM) can be supported simultaneously. - Enhanced tracing capabilities - Compatible with various trace systems dedicated to RISC-V (e.g., SiFive Nexus, RISC-V Trace Encoder, etc.) - Supports both on-chip and off-chip → Real-time recording of program flow for "visualization." - Effective for analyzing execution timing, interrupts, performance evaluation, and bug identification!

As embedded software becomes increasingly large-scale and complex year by year, when low-reproducibility bugs occur, it inevitably requires a tremendous amount of time and personnel to investigate their causes, which can easily lead to delays in development plans. Particularly with the rise of multi-core processing and asynchronous operations, tracking bugs with limited occurrence conditions becomes difficult with conventional methods, further increasing investigation costs. How to tackle these "elusive bugs" has become an important theme in modern embedded development. Tracing is an essential technology for analyzing difficult-to-reproduce issues and performance challenges, as it can visualize execution history and timing without stopping the system and in a non-intrusive manner. If debugging is a snapshot of a moment, tracing can be likened to a movie. To achieve both shorter development periods and improved quality, the use of tracing has now become one of the important foundations of development. μTrace (Micro Trace) allows for the use of both debugging and tracing in a single device, providing functionality equivalent to our high-end products. The supported cores are Arm Cortex-M and RISC-V RV32 cores, which are low-power, highly real-time, and have become the standard for microcontrollers worldwide.

This is a debugger and trace tool designed to facilitate smooth software development for RISC-V microcontrollers and processors. ☆ Simple yet highly functional - Integrated debugger and trace functionality: Achieves efficient development with a single system. - While there are limitations on expandability and the size of the onboard trace memory, it offers debugging capabilities that are comparable to high-end models. - Supports debugging of multi-core devices. ☆ Advanced trace support - Supports up to four-pin parallel trace ports: Visualizes complex processes! - Allows simultaneous confirmation of software movements and external signals: Enables detailed analysis in conjunction with a logic analyzer. ☆ Our press release regarding RISC-V support https://jp.lauterbach.com/press-releases/support-for-infineons-automotive-risc-v?p=2 https://jp.lauterbach.com/press-releases/lauterbach-accelerates-development-on-tenstorrent-automotive-risc-v-socs

The importance of tracing is increasing! With the high performance and multi-core development of industrial electronic devices, embedded software is rapidly becoming large-scale and complex. To identify bugs and optimize performance with limited resources, efficient debugging methods are becoming essential. Traditional Go/Break-centered debugging methods require a lot of time and effort to pinpoint causes, and limitations are starting to become apparent in large-scale software. Tracing is an indispensable technology for analyzing difficult-to-reproduce issues and performance challenges, as it can visualize execution history and timing non-intrusively and without stopping the system. If Go/Break debugging is a snapshot of a moment, tracing can be considered a movie. Even when bugs only appear in real-time, they can still be detected. To achieve both shorter development cycles and improved quality, the use of tracing has now become one of the important foundations of development.