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市場調查報告書
商品編碼
1324354
2030 年 PMI(材料識別)市場預測:按型態、產品、技術、最終用戶和地區進行的全球分析Positive Material Identification Market Forecasts to 2030 - Global Analysis By Form (Portable Analyzers and Benchtop Analyzers), Offering (Equipment and Services), Technique, End User and By Geography |
據Stratistics MRC預測,2023年全球PMI(材料識別)市場規模將達28.9億美元,預計2030年將達到55.6億美元,預測期內年複合成長率為9.7%。
材料可靠識別是使用各種無損程序評估和識別材料的過程,以確保預期材料是實際材料。它還可以確定物質的金屬合金成分。 PMI 也是一種在實驗室或使用攜帶式設備的現場使用的試驗錯程序。 PMI 可用於確保供應的材料符合適當的標準和要求。為了品質和安全控制,PMI 分析並確定材料等級和合金成分。
加壓系統破裂、應力腐蝕開裂和流動促進腐蝕等機械完整性故障是工業事故的常見原因。進行材料鑑定以避免生產過程中產品出現缺陷。它們受到廣泛追捧,以防止石油、天然氣、發電和製藥廠等最終用戶行業發生故障。用於在使用前和使用過程中檢查關鍵零件和焊縫。材料可靠性鑑定是一種常見的無損檢測程序,必須遵守各種法規和法律。全球大型基礎設施項目數量的不斷增加以及PMI測試和檢驗服務外包給第三方服務的趨勢正在促進市場擴張。
硫、磷和碳無法使用 PMI(材料識別)程序進行分離。非金屬很難用PMI來識別,存在於金屬和非金屬之間的元素也很難分析。 PMI很難正確檢測非金屬以及金屬與非金屬之間存在的元素。這阻礙了市場的擴張。
有關材料混淆、錯誤標籤運輸和越來越多的大型基礎設施項目的法規預計將為該行業提供有利的預測,並進一步加快未來 PMI(材料識別)市場的成長速度。此外,新型品管體系意識的增強、老化資產效率的下降以及相關的營運安全需求將為市場開拓提供廣闊的前景。
為了品質和安全控制,PMI(材料識別)用於分析和識別材料等級和合金成分。 PMI(材料識別)必須非常小心地進行。建立和營運 PMI(材料識別)活動需要專家。預計這方面將在預測期內對 PMI(材料識別)市場構成挑戰。
COVID-19 的爆發正在造成嚴重的經濟和社會混亂。此次疫情影響了許多企業的供應鍊和價值鏈。 PMI(材料識別)市場也不例外。從整個行業的角度評估 COVID-19 大流行的影響,包括需求方和供應方。疫情發生後,市場開始擴大。
攜帶式分析儀領域預計將出現良好的成長。攜帶式分析儀因其低成本和小尺寸而廣受歡迎。攜帶式分析儀可以檢查任何形狀的任何零件,包括板材、管道、法蘭、焊縫、閥門和其他系統零件。這些分析儀的一些用途包括黃金測試、礦石品位控制、礦物探勘、扭曲分析、金屬回收和地球化學測繪。
預計石油、天然氣行業在預測期內將出現最快的年複合成長率。在石油、天然氣作業中,避免極其危險的化學品和有毒物質的排放非常重要。此外,不可逆轉的事故和損壞、管道洩漏、過早更換管道、財產損失、現場意外停電(精製、化工廠、天然氣處理設施等)等都是這些設施面臨的事件類型。的主要困難。 PMI 分析儀有助於檢驗這些零件和管道所需的規格。因此,石油、天然氣行業的需求預計將增加。
預計亞太地區在預測期內將佔據最大的市場佔有率。預計亞太地區在預測期內將保持最大的市場佔有率。亞太地區國家積極製造國防飛機,PMI 技術在航太和國防工業中的使用預計將擴大。該地區的新興經濟體正在迅速擴張電子、汽車和醫療保健等最終用戶行業。該地區許多基礎設施開發項目正在建設中,推動了市場成長。
預計北美在預測期內的年複合成長率最高。該地區大型基礎設施項目正在迅速增加。該地區的汽車需求預計將急劇增加,從而需要增加汽車產量。公司必須以最佳方式運作以滿足這一需求,而 PMI 程序的應用可以幫助實現這一目標。這一要素正在推動該地區的市場。
According to Stratistics MRC, the Global Positive Material Identification Market is accounted for $2.89 billion in 2023 and is expected to reach $5.56 billion by 2030 growing at a CAGR of 9.7% during the forecast period. Positive Material Identification (PMI) is the process of evaluating and identifying materials using a range of non-destructive procedures to confirm that the intended materials are the actual materials. It may determine the metallic alloy composition of a substance. It is also a tried-and-true procedure that may be utilized in a lab or out in the field using portable instruments. PMI can be used to ensure that supplied materials meet the appropriate standards and requirements. For quality and safety control, it analyzes and identifies material grade and alloy composition.
Mechanical integrity failures, such as pressurized system rupture, stress corrosion cracking, and flow accelerated corrosion, are common causes of industrial accidents. Positive material identification is used to avoid product failure during production. It is extensively sought in end-user industries such as oil and gas, power generation, and pharmaceutical factories to prevent failure. It is used to examine important components and welds before and during service. Positive Material Identification is a common non-destructive testing procedure that must follow a variety of rules and laws. A increasing number of large-scale infrastructure projects worldwide, as well as a propensity to outsource PMI testing and inspection services to third-party services, have all contributed to market expansion.
Sulfur, phosphorus, and carbon cannot be separated using positive material identification procedures. Non-metals are difficult to identify using PMI, and elements that exist between metals and nonmetals are difficult to analyze. PMI has a tough time properly detecting nonmetals and elements between metals and nonmetals. This factor is impeding market expansion.
The restrictions concerning material mix-ups, mislabeled shipments, and the rising number of large-scale infrastructure projects are expected to provide profitable prospects for the industry, which will further accelerate the growth rate of the positive material identification market in the future. Furthermore, the rising awareness of novel quality control systems, along with the diminishing efficiency of aged assets and the resulting requirement for operational safety, will provide significant market development prospects.
For quality and safety control, positive material identification (PMI) is used to analyze and identify material grade and alloy composition. Positive material identification must be done with extreme caution. Installation and operation of positive material identification (PMI) activities require specialized professionals. Over the forecast period, this aspect is expected to represent a challenge to the positive material identification market.
The COVID-19 outbreak has caused enormous economic and social turmoil. The epidemic has had an impact on many firms' supply chains and value chains. The market for positive material identification (pmi) is no exception. The impact of the COVID-19 pandemic will be assessed from the standpoint of the whole industry, encompassing both the demand and supply sides. The market began to expand following the outbreak.
The portable analyzers segment is estimated to have a lucrative growth. The low cost and small size of portable analyzers have contributed to their widespread use. Portable analyzers may examine any portion of any shape, including plates, pipes, flanges, welds, and valves, as well as other system components. Gold testing, ore grade control, mineral exploration, soli analysis, metal recovery, and geochemical mapping are some of the uses for these analyzers.
The oil & gas segment is anticipated to witness the fastest CAGR growth during the forecast period. The avoidance of the discharge of extremely dangerous chemicals and poisonous substances is critical in the oil and gas business. Furthermore, irreversible accidents and damages, pipe leaks, early pipe replacements, property damage, and unanticipated outages at sites (such as refineries, chemical plants, and gas processing facilities) are some of the key difficulties that these facilities confront. PMI analyzers aid in the verification of these components' and piping's required specifications. As a result, the demand for these analyzers in the oil and gas sector is expected to rise.
Asia Pacific is projected to hold the largest market share during the forecast period. During the projection period, Asia Pacific is expected to retain the biggest market share. APAC countries are active in the manufacture of defense aircraft, which is predicted to expand the use of PMI methodologies in the aerospace and defense industry. In the region's emerging economies, end-user industries such as electronics, automobiles, and healthcare are rapidly expanding. Many infrastructure development projects are under construction in this region, which is propelling market growth.
North America is projected to have the highest CAGR over the forecast period. The number of large-scale infrastructure projects in this region is rapidly increasing. The demand for autos in this region is expected to rise dramatically, necessitating an increase in vehicle production. Companies must function optimally to meet this requirement, and the application of PMI procedures can assist them do so. This factor is driving the market in this region.
Some of the key players profiled in the Positive Material Identification Market include: Olympus, Thermo Fisher, Bruker, Hitachi, Ametek, Shimadzu, Panalytical, Intertek, Bureau Veritas, TUV Rheinland, Applus, Element Materials Technology, Tribogeincs, QSX Instruments and Torontech.
In July 2022, Thermo Fisher Scientific has launched a new handheld X-ray fluorescence analyser called IonicX XRF Analyzer to help pharmaceutical and biopharmaceutical manufacturers to verify the identity of ionic salts in warehouses within seconds.
In November 2020, Hitachi launched PMI-MASTER Smart portable optical emission spectrometer. It delivers rapid material verification and metal sorting. PMI-MASTER is capable of measuring the carbon content across different steel grades and the nitrogen content of duplex steels, the PMI-MASTER Smart's fast start-up times supports PMI safety inspection and flow accelerated corrosion analysis (FAC) across your facility.