Industry: Electronics & Semiconductor
Published Date: 2025-02-14
Pages: 110 Pages
Report ld: 3843239
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The global market for Closed Loop Hall Effect Current Sensor was estimated to be worth US$ million in 2024 and is forecast to a readjusted size of US$ million by 2031 with a CAGR of %during the forecast period 2025-2031.
The closed-loop Hall current sensor is also called zero-flux transformer or magnetic balance current sensor. The magnetic field generated by the primary current Ip in the magnetic core is compensated by the magnetic field generated by the secondary compensation coil current, so that the Hall device is in the To detect the working state of zero magnetic flux, the compensation current Is reflects the primary current Ip in proportion. The specific working process is: when a current passes through the main circuit, the magnetic field generated on the wire is gathered by the magnetic core and induced to the Hall device, and the generated signal output is used to drive the power tube and make it conduct, thereby obtaining a compensation Current Is. This current passes through the multi-turn winding to generate a magnetic field, which is exactly opposite to the magnetic field generated by the measured current, thus compensating the original magnetic field and gradually reducing the output of the Hall device. When the magnetic field generated by multiplying Ip and the number of turns is equal, Is will no longer increase. At this time, the Hall device plays the role of indicating zero magnetic flux. At this time, Ip can be tested by Is. When Ip changes, the balance is destroyed, and the Hall device has a signal output, that is, the above process is repeated to achieve balance again. Any change in the measured current will upset this balance. Once the magnetic field is out of balance, the Hall device has a signal output. After the power is amplified, a corresponding current flows through the secondary winding immediately to compensate the unbalanced magnetic field. From the magnetic field imbalance to the balance again, the time required is theoretically less than 1μs, which is a dynamic balance process.
North American market for Closed Loop Hall Effect Current Sensor was valued at $ million in 2024 and will reach $ million by 2031, at a CAGR of % during the forecast period of 2025 through 2031.
Asia-Pacific market for Closed Loop Hall Effect Current Sensor was valued at $ million in 2024 and will reach $ million by 2031, at a CAGR of % during the forecast period of 2025 through 2031.
Europe market for Closed Loop Hall Effect Current Sensor was valued at $ million in 2024 and will reach $ million by 2031, at a CAGR of % during the forecast period of 2025 through 2031.
The global key companies of Closed Loop Hall Effect Current Sensor include CR Magnetics Inc., CUI Devices, HARTING, Honeywell, LEM USA Inc., Mornsun America, LLC, Riedon, Tamura, etc. In 2024, the global five largest players hold a share approximately % in terms of revenue.
This report aims to provide a comprehensive presentation of the global market for Closed Loop Hall Effect Current Sensor, focusing on the total sales volume, sales revenue, price, key companies market share and ranking, together with an analysis of Closed Loop Hall Effect Current Sensor by region & country, by Type, and by Application.
The Closed Loop Hall Effect Current Sensor market size, estimations, and forecasts are provided in terms of sales volume (K Units) and sales revenue ($ millions), considering 2024 as the base year, with history and forecast data for the period from 2020 to 2031. With both quantitative and qualitative analysis, to help readers develop business/growth strategies, assess the market competitive situation, analyze their position in the current marketplace, and make informed business decisions regarding Closed Loop Hall Effect Current Sensor.
MARKET SEGMENTATION
CHAPTER OUTLINE
Chapter 1: Introduces the report scope of the report, global total market size (value, volume and price). This chapter also provides the market dynamics, latest developments of the market, the driving factors and restrictive factors of the market, the challenges and risks faced by manufacturers in the industry, and the analysis of relevant policies in the industry.
Chapter 2: Detailed analysis of Closed Loop Hall Effect Current Sensor manufacturers competitive landscape, price, sales and revenue market share, latest development plan, merger, and acquisition information, etc.
Chapter 3: Provides the analysis of various market segments by Type, covering the market size and development potential of each market segment, to help readers find the blue ocean market in different market segments.
Chapter 4: Provides the analysis of various market segments by Application, covering the market size and development potential of each market segment, to help readers find the blue ocean market in different downstream markets.
Chapter 5: Sales, revenue of Closed Loop Hall Effect Current Sensor in regional level. It provides a quantitative analysis of the market size and development potential of each region and introduces the market development, future development prospects, market space, and market size of each country in the world.
Chapter 6: Sales, revenue of Closed Loop Hall Effect Current Sensor in country level. It provides sigmate data by Type, and by Application for each country/region.
Chapter 7: Provides profiles of key players, introducing the basic situation of the main companies in the market in detail, including product sales, revenue, price, gross margin, product introduction, recent development, etc.
Chapter 8: Analysis of industrial chain, including the upstream and downstream of the industry.
Chapter 9: Conclusion.
QYRESEARCH'S STRENGTHS
Unlike generic global market reports, this study combines macro-level industry trends with hyper-local operational intelligence, empowering data-driven decisions across the Compound Chocolate value chain, addressing:
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TABLE OF CONTENTS
1 Market Overview
1.1 Closed Loop Hall Effect Current Sensor Product Introduction
1.2 Global Closed Loop Hall Effect Current Sensor Market Size Forecast
1.2.1 Global Closed Loop Hall Effect Current Sensor Sales Value (2020-2031)
1.2.2 Global Closed Loop Hall Effect Current Sensor Sales Volume (2020-2031)
1.2.3 Global Closed Loop Hall Effect Current Sensor Sales Price (2020-2031)
1.3 Closed Loop Hall Effect Current Sensor Market Trends & Drivers
1.3.1 Closed Loop Hall Effect Current Sensor Industry Trends
1.3.2 Closed Loop Hall Effect Current Sensor Market Drivers & Opportunity
1.3.3 Closed Loop Hall Effect Current Sensor Market Challenges
1.3.4 Closed Loop Hall Effect Current Sensor Market Restraints
1.4 Assumptions and Limitations
1.5 Study Objectives
1.6 Years Considered
2 Competitive Analysis by Company
2.1 Global Closed Loop Hall Effect Current Sensor Players Revenue Ranking (2024)
2.2 Global Closed Loop Hall Effect Current Sensor Revenue by Company (2020-2025)
2.3 Global Closed Loop Hall Effect Current Sensor Players Sales Volume Ranking (2024)
2.4 Global Closed Loop Hall Effect Current Sensor Sales Volume by Company Players (2020-2025)
2.5 Global Closed Loop Hall Effect Current Sensor Average Price by Company (2020-2025)
2.6 Key Manufacturers Closed Loop Hall Effect Current Sensor Manufacturing Base and Headquarters
2.7 Key Manufacturers Closed Loop Hall Effect Current Sensor Product Offered
2.8 Key Manufacturers Time to Begin Mass Production of Closed Loop Hall Effect Current Sensor
2.9 Closed Loop Hall Effect Current Sensor Market Competitive Analysis
2.9.1 Closed Loop Hall Effect Current Sensor Market Concentration Rate (2020-2025)
2.9.2 Global 5 and 10 Largest Manufacturers by Closed Loop Hall Effect Current Sensor Revenue in 2024
2.9.3 Global Top Manufacturers by Company Type (Tier 1, Tier 2, and Tier 3) & (based on the Revenue in Closed Loop Hall Effect Current Sensor as of 2024)
2.10 Mergers & Acquisitions, Expansion
3 Segmentation by Type
3.1 Introduction by Type
3.1.1 Single-Stage
3.1.2 Bipolar
3.2 Global Closed Loop Hall Effect Current Sensor Sales Value by Type
3.2.1 Global Closed Loop Hall Effect Current Sensor Sales Value by Type (2020 VS 2024 VS 2031)
3.2.2 Global Closed Loop Hall Effect Current Sensor Sales Value, by Type (2020-2031)
3.2.3 Global Closed Loop Hall Effect Current Sensor Sales Value, by Type (%) (2020-2031)
3.3 Global Closed Loop Hall Effect Current Sensor Sales Volume by Type
3.3.1 Global Closed Loop Hall Effect Current Sensor Sales Volume by Type (2020 VS 2024 VS 2031)
3.3.2 Global Closed Loop Hall Effect Current Sensor Sales Volume, by Type (2020-2031)
3.3.3 Global Closed Loop Hall Effect Current Sensor Sales Volume, by Type (%) (2020-2031)
3.4 Global Closed Loop Hall Effect Current Sensor Average Price by Type (2020-2031)
4 Segmentation by Application
4.1 Introduction by Application
4.1.1 AC
4.1.2 DC
4.2 Global Closed Loop Hall Effect Current Sensor Sales Value by Application
4.2.1 Global Closed Loop Hall Effect Current Sensor Sales Value by Application (2020 VS 2024 VS 2031)
4.2.2 Global Closed Loop Hall Effect Current Sensor Sales Value, by Application (2020-2031)
4.2.3 Global Closed Loop Hall Effect Current Sensor Sales Value, by Application (%) (2020-2031)
4.3 Global Closed Loop Hall Effect Current Sensor Sales Volume by Application
4.3.1 Global Closed Loop Hall Effect Current Sensor Sales Volume by Application (2020 VS 2024 VS 2031)
4.3.2 Global Closed Loop Hall Effect Current Sensor Sales Volume, by Application (2020-2031)
4.3.3 Global Closed Loop Hall Effect Current Sensor Sales Volume, by Application (%) (2020-2031)
4.4 Global Closed Loop Hall Effect Current Sensor Average Price by Application (2020-2031)
5 Segmentation by Region
5.1 Global Closed Loop Hall Effect Current Sensor Sales Value by Region
5.1.1 Global Closed Loop Hall Effect Current Sensor Sales Value by Region: 2020 VS 2024 VS 2031
5.1.2 Global Closed Loop Hall Effect Current Sensor Sales Value by Region (2020-2025)
5.1.3 Global Closed Loop Hall Effect Current Sensor Sales Value by Region (2026-2031)
5.1.4 Global Closed Loop Hall Effect Current Sensor Sales Value by Region (%), (2020-2031)
5.2 Global Closed Loop Hall Effect Current Sensor Sales Volume by Region
5.2.1 Global Closed Loop Hall Effect Current Sensor Sales Volume by Region: 2020 VS 2024 VS 2031
5.2.2 Global Closed Loop Hall Effect Current Sensor Sales Volume by Region (2020-2025)
5.2.3 Global Closed Loop Hall Effect Current Sensor Sales Volume by Region (2026-2031)
5.2.4 Global Closed Loop Hall Effect Current Sensor Sales Volume by Region (%), (2020-2031)
5.3 Global Closed Loop Hall Effect Current Sensor Average Price by Region (2020-2031)
5.4 North America
5.4.1 North America Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
5.4.2 North America Closed Loop Hall Effect Current Sensor Sales Value by Country (%), 2024 VS 2031
5.5 Europe
5.5.1 Europe Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
5.5.2 Europe Closed Loop Hall Effect Current Sensor Sales Value by Country (%), 2024 VS 2031
5.6 Asia Pacific
5.6.1 Asia Pacific Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
5.6.2 Asia Pacific Closed Loop Hall Effect Current Sensor Sales Value by Region (%), 2024 VS 2031
5.7 South America
5.7.1 South America Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
5.7.2 South America Closed Loop Hall Effect Current Sensor Sales Value by Country (%), 2024 VS 2031
5.8 Middle East & Africa
5.8.1 Middle East & Africa Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
5.8.2 Middle East & Africa Closed Loop Hall Effect Current Sensor Sales Value by Country (%), 2024 VS 2031
6 Segmentation by Key Countries/Regions
6.1 Key Countries/Regions Closed Loop Hall Effect Current Sensor Sales Value Growth Trends, 2020 VS 2024 VS 2031
6.2 Key Countries/Regions Closed Loop Hall Effect Current Sensor Sales Value
6.2.1 Key Countries/Regions Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
6.2.2 Key Countries/Regions Closed Loop Hall Effect Current Sensor Sales Volume, 2020-2031
6.3 United States
6.3.1 United States Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
6.3.2 United States Closed Loop Hall Effect Current Sensor Sales Value by Type (%), 2024 VS 2031
6.3.3 United States Closed Loop Hall Effect Current Sensor Sales Value by Application, 2024 VS 2031
6.4 Europe
6.4.1 Europe Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
6.4.2 Europe Closed Loop Hall Effect Current Sensor Sales Value by Type (%), 2024 VS 2031
6.4.3 Europe Closed Loop Hall Effect Current Sensor Sales Value by Application, 2024 VS 2031
6.5 China
6.5.1 China Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
6.5.2 China Closed Loop Hall Effect Current Sensor Sales Value by Type (%), 2024 VS 2031
6.5.3 China Closed Loop Hall Effect Current Sensor Sales Value by Application, 2024 VS 2031
6.6 Japan
6.6.1 Japan Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
6.6.2 Japan Closed Loop Hall Effect Current Sensor Sales Value by Type (%), 2024 VS 2031
6.6.3 Japan Closed Loop Hall Effect Current Sensor Sales Value by Application, 2024 VS 2031
6.7 South Korea
6.7.1 South Korea Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
6.7.2 South Korea Closed Loop Hall Effect Current Sensor Sales Value by Type (%), 2024 VS 2031
6.7.3 South Korea Closed Loop Hall Effect Current Sensor Sales Value by Application, 2024 VS 2031
6.8 Southeast Asia
6.8.1 Southeast Asia Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
6.8.2 Southeast Asia Closed Loop Hall Effect Current Sensor Sales Value by Type (%), 2024 VS 2031
6.8.3 Southeast Asia Closed Loop Hall Effect Current Sensor Sales Value by Application, 2024 VS 2031
6.9 India
6.9.1 India Closed Loop Hall Effect Current Sensor Sales Value, 2020-2031
6.9.2 India Closed Loop Hall Effect Current Sensor Sales Value by Type (%), 2024 VS 2031
6.9.3 India Closed Loop Hall Effect Current Sensor Sales Value by Application, 2024 VS 2031
7 Company Profiles
7.1 CR Magnetics Inc.
7.1.1 CR Magnetics Inc. Company Information
7.1.2 CR Magnetics Inc. Introduction and Business Overview
7.1.3 CR Magnetics Inc. Closed Loop Hall Effect Current Sensor Sales, Revenue, Price and Gross Margin (2020-2025)
7.1.4 CR Magnetics Inc. Closed Loop Hall Effect Current Sensor Product Offerings
7.1.5 CR Magnetics Inc. Recent Development
7.2 CUI Devices
7.2.1 CUI Devices Company Information
7.2.2 CUI Devices Introduction and Business Overview
7.2.3 CUI Devices Closed Loop Hall Effect Current Sensor Sales, Revenue, Price and Gross Margin (2020-2025)
7.2.4 CUI Devices Closed Loop Hall Effect Current Sensor Product Offerings
7.2.5 CUI Devices Recent Development
7.3 HARTING
7.3.1 HARTING Company Information
7.3.2 HARTING Introduction and Business Overview
7.3.3 HARTING Closed Loop Hall Effect Current Sensor Sales, Revenue, Price and Gross Margin (2020-2025)
7.3.4 HARTING Closed Loop Hall Effect Current Sensor Product Offerings
7.3.5 HARTING Recent Development
7.4 Honeywell
7.4.1 Honeywell Company Information
7.4.2 Honeywell Introduction and Business Overview
7.4.3 Honeywell Closed Loop Hall Effect Current Sensor Sales, Revenue, Price and Gross Margin (2020-2025)
7.4.4 Honeywell Closed Loop Hall Effect Current Sensor Product Offerings
7.4.5 Honeywell Recent Development
7.5 LEM USA Inc.
7.5.1 LEM USA Inc. Company Information
7.5.2 LEM USA Inc. Introduction and Business Overview
7.5.3 LEM USA Inc. Closed Loop Hall Effect Current Sensor Sales, Revenue, Price and Gross Margin (2020-2025)
7.5.4 LEM USA Inc. Closed Loop Hall Effect Current Sensor Product Offerings
7.5.5 LEM USA Inc. Recent Development
7.6 Mornsun America, LLC
7.6.1 Mornsun America, LLC Company Information
7.6.2 Mornsun America, LLC Introduction and Business Overview
7.6.3 Mornsun America, LLC Closed Loop Hall Effect Current Sensor Sales, Revenue, Price and Gross Margin (2020-2025)
7.6.4 Mornsun America, LLC Closed Loop Hall Effect Current Sensor Product Offerings
7.6.5 Mornsun America, LLC Recent Development
7.7 Riedon
7.7.1 Riedon Company Information
7.7.2 Riedon Introduction and Business Overview
7.7.3 Riedon Closed Loop Hall Effect Current Sensor Sales, Revenue, Price and Gross Margin (2020-2025)
7.7.4 Riedon Closed Loop Hall Effect Current Sensor Product Offerings
7.7.5 Riedon Recent Development
7.8 Tamura
7.8.1 Tamura Company Information
7.8.2 Tamura Introduction and Business Overview
7.8.3 Tamura Closed Loop Hall Effect Current Sensor Sales, Revenue, Price and Gross Margin (2020-2025)
7.8.4 Tamura Closed Loop Hall Effect Current Sensor Product Offerings
7.8.5 Tamura Recent Development
8 Industry Chain Analysis
8.1 Closed Loop Hall Effect Current Sensor Industrial Chain
8.2 Closed Loop Hall Effect Current Sensor Upstream Analysis
8.2.1 Key Raw Materials
8.2.2 Raw Materials Key Suppliers
8.2.3 Manufacturing Cost Structure
8.3 Midstream Analysis
8.4 Downstream Analysis (Customers Analysis)
8.5 Sales Model and Sales Channels
8.5.1 Closed Loop Hall Effect Current Sensor Sales Model
8.5.2 Sales Channel
8.5.3 Closed Loop Hall Effect Current Sensor Distributors
9 Research Findings and Conclusion
10 Appendix
10.1 Research Methodology
10.1.1 Methodology/Research Approach
10.1.1.1 Research Programs/Design
10.1.1.2 Market Size Estimation
10.1.1.3 Market Breakdown and Data Triangulation
10.1.2 Data Source
10.1.2.1 Secondary Sources
10.1.2.2 Primary Sources
10.2 Author Details
10.3 Disclaimer
TABLE OF FIGURES
List of Tables
List of Figures
KEY QUESTIONS ADDRESSED BY THE REPORT
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The closed-loop Hall current sensor is also called zero-flux transformer or magnetic balance current sensor. The magnetic field generated by the primary current Ip in the magnetic core is compensated by the magnetic field generated by the secondary compensation coil current, so that the Hall device is in the To detect the working state of zero magnetic flux, the compensation current Is reflects the primary current Ip in proportion. The specific working process is: when a current passes through the main circuit, the magnetic field generated on the wire is gathered by the magnetic core and induced to the Hall device, and the generated signal output is used to drive the power tube and make it conduct, thereby obtaining a compensation Current Is. This current passes through the multi-turn winding to generate a magnetic field, which is exactly opposite to the magnetic field generated by the measured current, thus compensating the original magnetic field and gradually reducing the output of the Hall device. When the magnetic field generated by multiplying Ip and the number of turns is equal, Is will no longer increase. At this time, the Hall device plays the role of indicating zero magnetic flux. At this time, Ip can be tested by Is. When Ip changes, the balance is destroyed, and the Hall device has a signal output, that is, the above process is repeated to achieve balance again. Any change in the measured current will upset this balance. Once the magnetic field is out of balance, the Hall device has a signal output. After the power is amplified, a corresponding current flows through the secondary winding immediately to compensate the unbalanced magnetic field. From the magnetic field imbalance to the balance again, the time required is theoretically less than 1μs, which is a dynamic balance process.
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The closed-loop Hall current sensor is also called zero-flux transformer or magnetic balance current sensor. The magnetic field generated by the primary current Ip in the magnetic core is compensated by the magnetic field generated by the secondary compensation coil current, so that the Hall device is in the To detect the working state of zero magnetic flux, the compensation current Is reflects the primary current Ip in proportion. The specific working process is: when a current passes through the main circuit, the magnetic field generated on the wire is gathered by the magnetic core and induced to the Hall device, and the generated signal output is used to drive the power tube and make it conduct, thereby obtaining a compensation Current Is. This current passes through the multi-turn winding to generate a magnetic field, which is exactly opposite to the magnetic field generated by the measured current, thus compensating the original magnetic field and gradually reducing the output of the Hall device. When the magnetic field generated by multiplying Ip and the number of turns is equal, Is will no longer increase. At this time, the Hall device plays the role of indicating zero magnetic flux. At this time, Ip can be tested by Is. When Ip changes, the balance is destroyed, and the Hall device has a signal output, that is, the above process is repeated to achieve balance again. Any change in the measured current will upset this balance. Once the magnetic field is out of balance, the Hall device has a signal output. After the power is amplified, a corresponding current flows through the secondary winding immediately to compensate the unbalanced magnetic field. From the magnetic field imbalance to the balance again, the time required is theoretically less than 1μs, which is a dynamic balance process.
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The closed-loop Hall current sensor is also called zero-flux transformer or magnetic balance current sensor. The magnetic field generated by the primary current Ip in the magnetic core is compensated by the magnetic field generated by the secondary compensation coil current, so that the Hall device is in the To detect the working state of zero magnetic flux, the compensation current Is reflects the primary current Ip in proportion. The specific working process is: when a current passes through the main circuit, the magnetic field generated on the wire is gathered by the magnetic core and induced to the Hall device, and the generated signal output is used to drive the power tube and make it conduct, thereby obtaining a compensation Current Is. This current passes through the multi-turn winding to generate a magnetic field, which is exactly opposite to the magnetic field generated by the measured current, thus compensating the original magnetic field and gradually reducing the output of the Hall device. When the magnetic field generated by multiplying Ip and the number of turns is equal, Is will no longer increase. At this time, the Hall device plays the role of indicating zero magnetic flux. At this time, Ip can be tested by Is. When Ip changes, the balance is destroyed, and the Hall device has a signal output, that is, the above process is repeated to achieve balance again. Any change in the measured current will upset this balance. Once the magnetic field is out of balance, the Hall device has a signal output. After the power is amplified, a corresponding current flows through the secondary winding immediately to compensate the unbalanced magnetic field. From the magnetic field imbalance to the balance again, the time required is theoretically less than 1μs, which is a dynamic balance process.
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The closed-loop Hall current sensor is also called zero-flux transformer or magnetic balance current sensor. The magnetic field generated by the primary current Ip in the magnetic core is compensated by the magnetic field generated by the secondary compensation coil current, so that the Hall device is in the To detect the working state of zero magnetic flux, the compensation current Is reflects the primary current Ip in proportion. The specific working process is: when a current passes through the main circuit, the magnetic field generated on the wire is gathered by the magnetic core and induced to the Hall device, and the generated signal output is used to drive the power tube and make it conduct, thereby obtaining a compensation Current Is. This current passes through the multi-turn winding to generate a magnetic field, which is exactly opposite to the magnetic field generated by the measured current, thus compensating the original magnetic field and gradually reducing the output of the Hall device. When the magnetic field generated by multiplying Ip and the number of turns is equal, Is will no longer increase. At this time, the Hall device plays the role of indicating zero magnetic flux. At this time, Ip can be tested by Is. When Ip changes, the balance is destroyed, and the Hall device has a signal output, that is, the above process is repeated to achieve balance again. Any change in the measured current will upset this balance. Once the magnetic field is out of balance, the Hall device has a signal output. After the power is amplified, a corresponding current flows through the secondary winding immediately to compensate the unbalanced magnetic field. From the magnetic field imbalance to the balance again, the time required is theoretically less than 1μs, which is a dynamic balance process.
Published: 2024-02-19
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The closed-loop Hall current sensor is also called zero-flux transformer or magnetic balance current sensor. The magnetic field generated by the primary current Ip in the magnetic core is compensated by the magnetic field generated by the secondary compensation coil current, so that the Hall device is in the To detect the working state of zero magnetic flux, the compensation current Is reflects the primary current Ip in proportion. The specific working process is: when a current passes through the main circuit, the magnetic field generated on the wire is gathered by the magnetic core and induced to the Hall device, and the generated signal output is used to drive the power tube and make it conduct, thereby obtaining a compensation Current Is. This current passes through the multi-turn winding to generate a magnetic field, which is exactly opposite to the magnetic field generated by the measured current, thus compensating the original magnetic field and gradually reducing the output of the Hall device. When the magnetic field generated by multiplying Ip and the number of turns is equal, Is will no longer increase. At this time, the Hall device plays the role of indicating zero magnetic flux. At this time, Ip can be tested by Is. When Ip changes, the balance is destroyed, and the Hall device has a signal output, that is, the above process is repeated to achieve balance again. Any change in the measured current will upset this balance. Once the magnetic field is out of balance, the Hall device has a signal output. After the power is amplified, a corresponding current flows through the secondary winding immediately to compensate the unbalanced magnetic field. From the magnetic field imbalance to the balance again, the time required is theoretically less than 1μs, which is a dynamic balance process.
Published: 2024-01-21
Pages: 92
REPORT COVERAGE
DESCRIPTION
OVERVIEW
MARKET SEGMENTATION
CHAPTER OUTLINE
QYRESEARCH'S STRENGTHS
TABLE OF CONTENTS
TABLE OF FIGURES
RLEATED REPORTS
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