エンジニアリングと知識

基礎とエンジニアリング

チップへの直接液体冷却: 高密度データセンターの熱管理の未来

AI-driven power densities have exploded from 4 kW to 30+ kW per rack, pushing traditional air cooling past its limits. This guide breaks down single-phase and two-phase direct-to-chip cooling architectures, compares low-GWP refrigerant options like R-1233zd(E) and R-1336mzz(Z) against safety and pressure trade-offs, and covers the hose, tubing, and quick-disconnect design choices engineers need to specify reliable, sustainable thermal management for high-density GPU and CPU clusters.

ダクトワークの気流バランス

Learn the essential techniques for balancing ductwork air flow to maximize HVAC efficiency and ensure consistent indoor comfort.

主要なHVACシステムと機器

Master the essentials of selecting, sizing, and operating major HVAC systems and equipment for optimal building performance.

Copeland冷凍マニュアルのダウンロード

Access our comprehensive collection of Copeland Refrigeration Manuals to streamline your equipment installation, system maintenance, and engineering fundamentals.

氷貯蔵システム

Explore the principles and engineering behind ice storage systems to efficiently manage thermal energy and optimize HVAC performance.

膨張タンクのサイズ計算式

Learn the essential formulas and step-by-step methods required to accurately size an expansion tank for hydronic heating and cooling systems.

4-Pipe And 2-Pipe Heating And Cooling Plants

Learn the core differences between 4-pipe and 2-pipe heating and cooling plants to determine the most efficient system design for your building’s HVAC needs.

水管と火管ボイラー

Learn the key differences between water tube and fire tube boilers to choose the right system for your industrial steam and heating needs.

キャピラリーチューブ冷凍

Learn the fundamental principles and engineering behind capillary tube refrigeration systems to effectively optimize cooling performance and efficiency.

冷蔵式と計算

Master essential refrigeration formulas and calculations to solve fundamental engineering challenges efficiently.


標準とコンプライアンス

HVAC 換気設計: 空気取り入れ口の最小分離距離

Air intake minimum separation distance represents critical design criteria for ensuring adequate outdoor air quality by maintaining appropriate distances between fresh air intakes and potential contamination sources.

HVAC 負荷推定: ダイバーシティ係数

Diversity factor represents a critical design parameter in HVAC load calculations, accounting for the statistical probability that all heat-generating components in a building will not operate simultaneously

HVAC 負荷の推定: 浸透熱の利得と損失

Infiltration represents uncontrolled air exchange between outdoor and indoor environments, significantly impacting both heating and cooling loads in all building types. Accurate infiltration estimation is essential for

HVAC 負荷の推定: 機器および家電製品からの内部熱利得

Equipment and appliances represent significant internal heat sources in modern buildings, often comprising the largest component of cooling loads in commercial and industrial facilities. Accurate estimation of

HVAC負荷推定:人と居住者からの内部熱ゲイン

Internal heat gain from people represents a significant component of HVAC cooling loads, particularly in high-occupancy buildings. Accurate estimation of occupant heat gain is essential for proper

HVAC負荷推定:グレージングU値とシェーディング係数(SC)値

Fenestration thermal and solar properties are critical parameters in HVAC load calculations, significantly impacting both heating and cooling loads. Understanding glazing U-values and shading coefficients is essential

HVAC負荷推定:壁、屋根、パーティションの構造U値

Building envelope thermal properties form the backbone of HVAC load calculations, directly determining heat transfer rates and system sizing requirements. Accurate U-value determination is essential for

HVAC 乾湿プロセス: チャート、計算、および空気処理アプリケーション

Psychrometric processes form the scientific foundation of HVAC system design, enabling engineers to analyze air conditions and design effective air treatment systems. Understanding these processes is essential

HVACデザイン方程式:空気、ファン、ポンプ、および水素システムの計算

HVAC engineers rely on fundamental equations to design, size, and optimize mechanical systems. These mathematical relationships form the backbone of proper system design, ensuring accurate performance predictions

HVAC機器の寿命に関するASHRAEガイドライン

Learn how to apply ASHRAE guidelines on HVAC equipment life expectancy to optimize your building’s maintenance schedules and replacement budgeting.


デジタルツールとリソース

HVAC機器寿命計算機

プロのHVAC機器の寿命計算機を作成しました。このアプリケーションは、さまざまなHVAC機器タイプの残りの耐用年数を決定するための包括的な計算を提供します。

最新のHVACアプリケーション向けのBIMソフトウェアソリューション

As the HVAC industry continues to evolve in 2025, Building Information Modeling (BIM) has become an indispensable tool for professionals seeking to optimize design, installation,

McQuayソフトウェアのダウンロード

Explore a comprehensive guide on locating and downloading McQuay software tools to streamline your HVAC system design and selection processes.

ベル&ゴセットセレクションソフトウェア

Streamline your HVAC system design process by exploring the advanced capabilities and features of Bell & Gossett selection softwares.

配管ツール(Excelファイル)

Access and download essential piping tools in Excel format to streamline your engineering and design calculations.

ダイキン Revit ファイル

Access and download Daikin Revit files to seamlessly integrate accurate 3D BIM models into your HVAC design and engineering workflows.

Cooltools ソフトウェアのダウンロード

CoolTools is modern adaptation of CoolPack. CoolTools is a collection of simulation models for refrigeration systems and each of them has a specific purpose e.g. cycle analysis, sizing of main components, energy analysis and optimization.

冷媒のpH図(パート2)

Learn how to effectively read and utilize a refrigerant pressure-enthalpy (Ph) diagram to analyze and optimize HVAC system performance.

クールセレクターのダウンロード

Coolselector®2 (from Danfoss company) helps to optimize energy consumption and increase efficiency in any HVACR system. Run unbiased calculations based on a set of operating conditions — such as cooling capacity, refrigerant, evaporation, and condensation temperature — and then select the best components for your design.

エアコン凝縮液計算機

Learn how to accurately determine HVAC drainage requirements with our easy-to-use Air Conditioning Condensate calculator.