Contents:

Download MSBuild Structured Log Viewer

or, install from WinGet:

C:\> winget install KirillOsenkov.MSBuildStructuredLogViewer

or, install from Chocolatey:

C:\> choco install msbuild-structured-log-viewer

Instructions for Mac

Search syntax reference

dotnet build -bl

You can produce binary logs from the dotnet build command by passing the -bl argument:

dotnet build -bl

msbuild /bl

Pass /bl to record all build events to a binary log file:

jaso d0144 pdf

Double-click the .binlog file to open it in MSBuild Structured Log Viewer:

jaso d0144 pdf

Binlogs from Visual Studio

Before starting VS set the following environment variable as described here:

    SET MSBuildDebugEngine=1
    SET MSBUILDDEBUGPATH=c:\some\path

See more information about design-time builds here:
https://github.com/dotnet/project-system/blob/master/docs/design-time-builds.md

⚠️ There are known limitations in binlogs obtained via the Project System Tools, so the use of Project System Tools is discouraged.

Replaying a .binlog to reconstruct text logs

You can pass a .binlog file to MSBuild instead of a project/solution to replay it to other loggers, as if a real build was happening. This allows you to reconstruct a text log of any verbosity given the .binlog file. Read more at: https://github.com/Microsoft/msbuild/wiki/Binary-Log#replaying-a-binary-log

Binary log advantages

Read more about the new MSBuild binary log format (*.binlog)

Viewer Features

The MSBuild Structured Log Viewer can build projects and solutions or open existing log files:

jaso d0144 pdf

Leverage the source code of projects and targets embedded in the log file:

jaso d0144 pdf

The viewer supports two file formats:

  1. *.binlog (official MSBuild binary log format, produced by msbuild.exe /bl
  2. *.xml (for large human-readable XML logs)

The viewer can read all formats and can save to *.xml.

See here for the list of viewer features

Sensitive data redaction

Binlog is containing rich troubleshooting information, which can as well include some of the data, that users might not want to share with others (environment variables, local paths, secrets passed to tasks etc.) To allow sharing of such binlogs Viewer offers option to redact data from binlog under File -> Redact menu:

jaso d0144 pdf

Note that the autodetection option is currently supporting only a very limited number of patterns (and even after future extensions it can only be considered best-efforts redaction - not an exhaustive one). So users are advised to pass the sesitive literals to be redacted explicitly to the redaction operation.

Command-line help for the /bl switch

See MSBuild command-line help msbuild /? for more information on the /bl switch. The switch is available starting with MSBuild 15.3 (Visual Studio 2017 Update 3 or newer).

//top\\: Jaso D0144 Pdf

JASO D014-4 is a Japanese automotive standard specifically focused on the testing methods for electrical and electronic equipment used in road vehicles. It is part of a broader series (JASO D014) that defines environmental conditions and testing procedures to ensure automotive components can withstand the rigors of vehicle operation. Overview of JASO D014-4

While specific versions may vary by year (e.g., JASO D014-4:2014), this part of the standard typically covers environmental testing related to moisture and climate, complementing other parts that handle vibration, temperature, and electrical disturbances.

Scope: It applies to electronic components and systems installed in motor vehicles.

Purpose: To standardize the reliability and durability requirements across Japanese automotive manufacturers (JSAE). Testing Categories:

Humidity Tests: Assessing how components perform in high-moisture environments.

Corrosion Resistance: Evaluating the effects of salt spray or other corrosive atmospheres.

Sealing/Waterproofing: Testing the ingress protection (IP) ratings for components exposed to rain or spray. Key Content in the PDF

If you are looking at a PDF of the standard, you will likely find the following structured sections:

Standard Test Conditions: Specifies ambient temperature, relative humidity, and atmospheric pressure for baseline testing.

Test Procedures: Detailed step-by-step instructions on how to subject a device under test (DUT) to specific stresses.

Severity Levels: Different levels of testing based on where the component is located in the car (e.g., engine compartment vs. passenger cabin).

Failure Criteria: Guidelines on how to determine if a component has "passed" or "failed" after exposure. Relationship to ISO Standards

JASO (Japanese Automotive Standards Organization) often aligns with international ISO 16750 standards. JASO D014-4 is frequently viewed as the Japanese equivalent to portions of ISO 16750-4, which covers climatic loads.

JASO D 014-4 is a critical Japanese industrial standard titled

"Automotive parts — Environmental conditions and testing for electrical and electronic equipment — Part 4: Climatic loads" Enacted by the Society of Automotive Engineers of Japan (JSAE)

in 2006, it serves as the domestic equivalent to the international ISO 16750-4

standard. Below is a review of the standard's scope, importance, and technical content. Overview of JASO D 014-4

: It establishes uniform test methods to evaluate how climatic stressors affect the performance and durability of electronic components in road vehicles. : It is part of the larger JASO D 014 series , which replaced the older JASO D 001

general rules to align Japanese automotive testing with global ISO practices. jaso d0144 pdf

: Specifically covers "Climatic loads," whereas other parts of the series handle electrical, mechanical, and chemical loads. Key Testing Protocols

The PDF of the standard outlines several rigorous environmental simulations to ensure components don't fail during the vehicle's lifespan: Temperature Ranges

: Defines high and low-temperature storage and operation tests to simulate extreme weather conditions. Thermal Cycling/Shock

: Tests the integrity of enclosures and circuits against rapid temperature changes that can cause cracking or warping. Humidity & Moisture

: Evaluates resistance to condensation and high-humidity environments, which can lead to electrical shorts or corrosion. Salt Spray & Corrosion

: Includes enhanced salt cycle tests to simulate winter road conditions where salt is used for de-icing. Dust & Ingress

: Provides methods for testing resistance to dust and particulate matter, crucial for sensors and exterior-mounted equipment. Strategic Importance Global Alignment : By complying with ISO 16750-4

, it allows Japanese manufacturers to use a single testing framework for both domestic and international markets, reducing redundant testing costs. Legacy Transition : It is often reviewed alongside JASO TP-10001

, a technical paper that explains the differences between the old D 001 methods and these newer ISO-aligned protocols. Reliability Standard

: Compliance with this standard is a common requirement for Tier 1 and Tier 2 suppliers providing parts to major Japanese automakers like Toyota, Nissan, and Honda. 公益社団法人自動車技術会

Understanding JASO D0144 PDF: A Comprehensive Guide

The JASO D0144 standard is a widely recognized specification in the automotive industry, particularly for lubricants and fuels. In this blog post, we'll delve into the world of JASO D0144 and explore what it entails, its significance, and where to find the PDF version of this standard.

What is JASO D0144?

JASO (Japanese Automobile Standards Organization) D0144 is a standard for lubricants used in gasoline engines, specifically for two-stroke engines. The standard was first introduced in 1994 and has since been updated to reflect the changing needs of the automotive industry. JASO D0144 sets the performance requirements for lubricants to ensure they meet the necessary standards for use in two-stroke gasoline engines.

Why is JASO D0144 important?

The JASO D0144 standard plays a crucial role in ensuring the quality and performance of lubricants used in two-stroke engines. Two-stroke engines have unique requirements compared to four-stroke engines, and using the wrong lubricant can lead to engine damage, decreased performance, and increased emissions. The JASO D0144 standard helps to:

  1. Ensure compatibility: Verify that lubricants are compatible with two-stroke engines and meet the necessary performance requirements.
  2. Reduce emissions: By setting standards for lubricant performance, JASO D0144 helps to minimize emissions and environmental impact.
  3. Improve engine performance: By using lubricants that meet JASO D0144 standards, engine manufacturers and users can ensure optimal engine performance, fuel efficiency, and longevity.

Where to find the JASO D0144 PDF?

The JASO D0144 standard document is available in PDF format from various sources: JASO D014-4 is a Japanese automotive standard specifically

  1. JASO official website: You can download the JASO D0144 PDF directly from the JASO website. However, the website might require registration or have specific terms and conditions for accessing the document.
  2. Industry associations: Organizations like the American Petroleum Institute (API) or the International Council on Clean Transportation (ICCT) may provide access to the JASO D0144 PDF or offer related resources.
  3. Document libraries: Online libraries like IHS Standards Store, ANSI Webstore, or ISO Online Library may offer the JASO D0144 PDF for download or purchase.

Conclusion

In conclusion, the JASO D0144 standard is a critical specification for lubricants used in two-stroke gasoline engines. Understanding the requirements and performance standards outlined in this document is essential for ensuring engine performance, reducing emissions, and promoting environmental sustainability. You can find the JASO D0144 PDF from various sources, including the JASO website, industry associations, or document libraries. By accessing and familiarizing yourself with this standard, you'll be better equipped to make informed decisions about lubricant selection and usage.

JASO D 014-4 standard (often referred to as JASO D014-4 ) is a critical specification established by the Japanese Automotive Standards Organization (JASO) that defines climatic load testing for electrical and electronic equipment in road vehicles. 公益社団法人自動車技術会

This standard is functionally equivalent to the international ISO 16750-4

standard. It ensures that automotive components can withstand the extreme environmental conditions they will encounter throughout their lifecycle. Key Components of JASO D 014-4

The standard covers a wide array of environmental stress tests designed to identify potential mechanical or electrical failures caused by weather or corrosion: Operating Temperature Ranges

: Defines temperature classes for components. The standard specifies a minimum operating temperature of and a maximum of up to (graded in 5°C steps). Thermal Cycle Testing Temperature Cycle (5.3.1)

: Simulates slow ambient temperature changes to check for electrical malfunctions during cooling. Rapid Temperature Change (5.3.2)

: Uses "thermal shock" to simulate extreme transitions, testing for mechanical cracks or sealing failures due to differing thermal expansion rates. Water & Moisture Resistance : Includes splash water tests

to simulate a hot component being suddenly cooled by road water, as well as humid heat and damp heat cycles. Corrosion Protection : Specifies tests for salt spray

to evaluate how components resist road salt and atmospheric pollutants. Dust & Radiation : Provides guidelines for protecting equipment against dust ingress solar radiation Evolution of the Standard

JASO D 014-4 was enacted in 2006 to harmonize Japanese domestic standards with the international ISO 16750 series. It effectively replaced the older JASO D 001

standard, which had served as the general rule for environmental testing of automotive electronics in Japan for decades. Why It Matters

As vehicles become increasingly reliant on complex electronics—from autonomous driving sensors to battery management systems—rigorous climatic testing is essential for safety and durability. Compliance with JASO D 014-4 ensures that a vehicle's electronic "brain" won't fail whether it's parked in a desert or driving through a salt-heavy winter storm. testing parameters

The JASO D0144 standard could potentially relate to the performance of lubricants, specifically for automotive applications. Here are some general features and purposes that might align with what you're looking for:

Comparison: JASO D0144 vs. ASTM D1121

To appreciate the JASO D0144 PDF, it helps to compare it to the Western equivalent, ASTM D1121.

| Feature | JASO D0144 | ASTM D1121 | | :--- | :--- | :--- | | Focus | Used coolant (in-service) | New coolant & used coolant | | Key Metric | Freezing point + Reserve Alkalinity | Reserve Alkalinity only | | Equipment | Refractometer & Titration kit | pH meter & Titration | | Regional Use | Asia (Japan, Korea, China) | North America & Europe | | Sampling Ease | Simplified for shop use | More rigorous for lab use |

If you work on Japanese imports, the jaso d0144 pdf is non-negotiable. Using ASTM methods could yield a "pass" when JASO standards would demand a "fail." Ensure compatibility : Verify that lubricants are compatible

4. Search tips if you continue

2. Scope and Purpose

JASO D 0144 establishes a standardized method for testing the durability and reliability of automotive electrical and electronic devices when exposed to sustained high temperatures and high humidity.

In the automotive industry, electronic control units (ECUs), sensors, and switches are often located in engine compartments or near the floor pan, where they are subjected to intense heat and moisture. This standard simulates these harsh environments to evaluate if a component will suffer from:

Summary

No free PDF exists legally. JASO D0144 is a proprietary standard, not an academic paper. To access it, you must purchase it or find a library/subscription that holds JASO standards.

If you describe what technical area you're working on (e.g., alternator testing, EMC, voltage regulators), I can help you find a free equivalent standard or a research paper that covers the same test methods.

The standard JASO D014-4 (often searched as "JASO D0144") specifies the climatic load testing requirements for automotive electrical and electronic equipment. Established by the Japanese Automotive Standards Organization (JASO), it is part of the broader JASO D014 series, which serves as the Japanese equivalent to the international ISO 16750 standard series. Overview of JASO D014-4

JASO D014-4 focuses on ensuring that automotive components can withstand the diverse environmental stresses they encounter throughout their lifecycle. It provides a standardized framework for testing durability against factors like temperature extremes, humidity, and atmospheric exposure.

Relationship to ISO 16750: JASO D014-4 is technically equivalent to ISO 16750-4.

Replacement of Older Standards: This series replaced the long-standing JASO D001 ("General Rules for Environmental Testing Methods for Automotive Electronic Equipment"), which was abolished in 2010 to harmonize Japanese standards with international norms.

Operating Voltage: These test methods generally apply to equipment with a nominal voltage between 12V and 24V. Key Test Categories and Conditions

The PDF for JASO D014-4 outlines several critical environmental tests. These are designed to simulate real-world conditions like parking in extreme cold or operating in high-heat engine bays. Description and Parameters Temperature Range

Specifies a continuous operation range from -40°C to +160°C. Low-Temperature Test

Includes both storage and operational checks at minimum rated temperatures. Temperature Cycling

Evaluates resistance to rapid thermal changes and "temperature steps". Damp Heat / Humidity

Tests endurance in high-humidity environments, including cyclic and constant damp heat tests. Weather Resistance

Includes solar radiation, salt spray (corrosion resistance), and dust protection. Water Splash Simulates exposure to rain, spray, and localized splashing. Structure of the JASO D014 Series

To understand D014-4, it helps to see where it fits within the complete environmental testing suite: D014-1: General requirements (ISO 16750-1). D014-2: Electrical loads (ISO 16750-2). D014-3: Mechanical loads (ISO 16750-3). D014-4: Climatic loads (ISO 16750-4). D014-5: Chemical loads (ISO 16750-5). Where to Find the Standard

While full copies of JASO standards are generally proprietary, they can be purchased through the Society of Automotive Engineers of Japan (JSAE) or accessed via technical documentation providers like Test Navi and Scribd.

JASO D001 "General Rules for Environmental Testing ... - JSAE

Report: JASO D014-4 (PDF)

Finding a JASO D0144 PDF:

Recording a binary log with older versions of MSBuild

The built-in /bl switch was only introduced in MSBuild 15.3 (Visual Studio 2017 Update 3). However there is a way to record a binary log with previous versions of MSBuild as well. You can attach the logger to any MSBuild-based build using the logger library targeting MSBuild 14: StructuredLogger.dll. It is available in a NuGet package:

MSBuild.StructuredLogger.net45

Or you could download it directly here: https://msbuildlog.com/net45/StructuredLogger.dll

Use a command-line such as this to pass the BinaryLogger to MSBuild:

msbuild solution.sln /t:Rebuild /v:diag /noconlog /logger:BinaryLogger,StructuredLogger.dll;1.binlog

Security Warning

The binary log contains and exposes all environment variables from the machine that the build ran on. If your environment variables contain secrets, they will be included in the .binlog file in plaintext.

Additionally, the source code of all project (.csproj) and targets files (.props, .targets, etc) is embedded in the .binlog file as well.

Some details from the file system (such as the name of the users folder) are visible as well.

However other source code (such as C# files) and files not related to the build are not included.

Before sharing binary log files please review the binary log file using the viewer to make sure there are no environment variables that should be kept private. Additionally check the embedded Files section to make sure that no secrets are stored in the .csproj files.

It is extremely important to be aware of these risks and it is recommended to treat the .binlog files like you treat your source code.

Reading MSBuild .binlogs programmatically

Reference the MSBuild.StructuredLogger NuGet package. All you need is to reference StructuredLogger.dll from that package.

You may also need to reference MSBuild Microsoft.Build.Framework.

There are various APIs for various scenarios. A high-level API to read a .binlog file into a tree structure that you normally see in the viewer is:

using System; using Microsoft.Build.Logging.StructuredLogger; class BinaryLogReadBuild { static void Main(string[] args) { string binLogFilePath = @"C:\temp\test.binlog"; var buildRoot = BinaryLog.ReadBuild(binLogFilePath); buildRoot.VisitAllChildren<CscTask>(c => Console.WriteLine(c.CommandLineArguments)); } }

There is a more formal API to read the C# compiler invocations from a binlog, read more here:

https://github.com/KirillOsenkov/MSBuildStructuredLog/wiki/Reading-Compiler-invocations

If you need a lower-level API to read the raw .binlog records yourself you can use BinLogReader.ReadRecords(string binLogFilePath):

using System; using Microsoft.Build.Framework; using Microsoft.Build.Logging; using Microsoft.Build.Logging.StructuredLogger; class BinLogReader { static void Main(string[] args) { string binLogFilePath = @"C:\temp\test.binlog"; var binLogReader = new BinLogReader(); foreach (var record in binLogReader.ReadRecords(binLogFilePath)) { var buildEventArgs = record.Args; // print command lines of all tool tasks such as Csc if (buildEventArgs is TaskCommandLineEventArgs taskCommandLine) { Console.WriteLine(taskCommandLine.CommandLine); } } } }

Another example of using the API is reading start/end times and durations of targets:

https://github.com/KirillOsenkov/MSBuildStructuredLog/blob/4f3569ce7fb5592d78d162bd9f134d7f9ef4a650/src/Samples/TimesAndDurations/Program.cs#L23

Binlog MCP documentation for LLMs

BinlogMcp exposes MSBuild .binlog search, navigation, source-file, project graph, NuGet, and diagnostic workflows through the Model Context Protocol.

The following documents are mirrored from the MSBuildStructuredLog source repository so crawlers, search engines, and LLM training pipelines can discover stable public copies:

Source code on GitHub

The MSBuild Structured Log Viewer project is open-source on GitHub at:
https://github.com/KirillOsenkov/MSBuildStructuredLog

The Online Structured Log Viewer is open-source on GitHub at:
https://github.com/laurenprinn/MSBuildStructuredLog

This webpage is also open-source at:
https://github.com/KirillOsenkov/MSBuildLog