Alcom electronics 2024 Medical Power Solution Guide
Product Information
Specifications
- Brand: Minmax
- Product Type: Medical Safety Power Solutions
- Model: 2024
- Country of Origin: Belgium, The Netherlands
- Year of Establishment: 1990
Product Usage Instructions
- Introduction and Applications
The Medical Safety Power Solutions by Minmax are engineered to meet the requirements of the IEC 60601 standards for medical electrical equipment and systems. - Highlighted Performance
The product line includes Medical Safety 1-20W DC-DC Converters and Medical Safety 24-60W AC-DC Power Supplies, designed for successful application in medical settings. - Isolation Voltage and Safety Distance
In the 3rd Edition of the IEC 60601-1 Standard, the isolation voltage and safety distance requirements have been defined to ensure proper insulation and protection. The test voltages and clearance distances must meet the specified criteria for different types of insulation.
Frequently Asked Questions (FAQ)
- Q: What are the key features of Minmax Medical Safety Power Solutions?
A: The key features include compliance with medical safety standards, reliable performance, and specific models for different power requirements in medical applications. - Q: How can I ensure the proper use of these products in a medical setting?
A: It is essential to follow the guidelines provided in the user manual, ensure correct installation by qualified personnel, and regularly inspect the equipment for any signs of damage or malfunction.
PREFACE
MEDICAL SAFETY POWER SOLUTIONS ENGINEERED BY MINMAX
- MINMAX has an extensive history and experience with the design of medical safety DC-DC converters and AC–DC power supplies for demanding applications in both medical and healthcare instrumentation that require medical safety and a reinforced insulation system. MINMAX offers a large standard range of high-isolation and reinforced insulated medical safety DC-DC converters with a power ranging from 1 to 20 W and AC–DC power supplies with a power ranging from 24 to 60 W.
- Given the requirements for medical/healthcare applications for I/O isolation, MINMAX Medical Safety Power Solutions are rated from 3000 to 5000 VAC and possess reinforced insulation and a low leakage current for operator protection (2xMOOP) or patient protection (2xMOPP).
- All medical safety products meet the latest medical safety standards (ANSI/AAMI ES 60601-1 and IEC/EN rd 60601-1 3 edition) and are approved for nominal working voltages of 250 Vrms or higher.
- MINMAX medical safety DC-DC converters and AC–DC power supplies offer cost-effective power solutions for demanding medical and healthcare applications in dental chairs, oral care equipment, infusion pumps, medical assist devices, medical oxygen monitors, medical carts, CT scanning, ultrasound, and many pieces of medical auxiliary equipment.
MEDICAL SAFETY INTRODUCTION AND APPLICATIONS
HISTORY OF THE EDITIONS OF MEDICAL SAFETY STANDARD IEC 60601
- Medical Safety Standard IEC 60601 was first published in 1977; the internationally accepted and approved IEC 60601 standard is the fundamental document that addresses many risks and has been developed to help alleviate safety issues associated with electrical medical and healthcare equipment.
- The standard consists of four distinct parts: the base standard (60601-1), collateral standards (60601-1-x), particular standards (60601-2-x), and performance standards (60601-3-x).
- The base standard, IEC 60601-1, has been adopted in most major countries as a national standard.
- The 3rd edition of the approved IEC 60601-1 medical safety standard was first published by the IEC in 2005 (IEC 60601:2005). The IEC 60601 standard was adopted by the European Union in 2006 and published as EN 60601-1:2006. The 3 edition standard was also published in 2006 by the USA but is different from the 2 edition published by UL. The 3 edition was published by the American Association for Medical Instrumentation (AAMI) and published as ANSI/AAMI ES 60601:2006. Canada published this medical safety standard in 2008 as CAN/ CSA 60601:2008.
The 3 edition of Medical Safety Standard IEC 60601 went into effect at different times depending on the region.
- In Europe, the 2 editions of the IEC 60601-1 standard were withdrawn; all products including both new products introduced to the market and products already on sale need to be certified under the 3 editions of the EN 60601-1 standard before the cessation date. The original cessation date for the 2 edition in the United States is July 1, 2013. The FDA announced an extension to give US medical device designers a slight reprieve, setting the updated transition date to December 31, 2013, and the effective date for the released 3 edition was January 1, 2014. Unlike the EU, the FDA only requires that new products after this date be certified to the ANSI/AAMI ES 60601-1 standard; existing products do not.
- In Canada, the original cessation date for the 2 edition was delayed, as in the USA, with an updated transition date of June 30, 2014. The effective date for the released 3 edition was July 1, 2014. However, only new products after this date need to satisfy the 3 edition.
- All MINMAX medical safety AC–DC power supplies and medical safety DC-DC converters have been certified to the approved 3 edition standard (with twice the means of protection for the majority of power supplies) and also tested against the 2 edition.also tested against the 2 edition.
CHANGES FROM THE 2 EDITION TO THE 3rd EDITION OF THE IEC 60601-1 STANDARD
- In the 2 edition of the IEC 60601-1 standard, the guidelines need to be applied when the electrical medical and healthcare equipment was within the “patient vicinity,” defined as a 6-ft. radius around the patient.
- There were three categories of increasing severity: also tested against the 2 edition.
CHANGES FROM THE 2 EDITION TO THE 3 EDITION OF THE IEC 60601-1 STANDARD
- The 2 edition of the IEC 60601-1 standard only addresses the basic safety issues for protection from any electrical, mechanical, radiation, and thermal hazards. However, it did not require devices to remain functional; a fail-safe was adequate and did not take the essential performance of the device into account in a pass/fail result test. Therefore, the 3rd edition of the IEC 60601-1 standard introduces specifications for “essential performance” that require medical/healthcare equipment to continue functioning throughout the test process. As medical safety AC–DC power supplies and medical safety DC-DC converters have significantly played a crucial role in certified electrical medical and healthcare equipment, th rd e 3 edition of the IEC 60601-1 standard introduces new concepts such as the essential performance of equipment and distinguishes protecting the equipment’s operator and the patient by Means of
- Operator Protection (MOOP) and Means of Patient Protection (MOPP) classification in terms of the separation safety distance, insulation schemes, and dielectric strength requirements.
- The classification determined the mandated or allowed types of levels of isolation, insulation, creepage, air clearance, and leakage current that operators and patients may come into contact with.
ISOLATION VOLTAGE AND SAFETY DISTANCE IN THE 3rd ED ITION OF THE IEC 60601-1 STANDARD
- The 3 edition of the approved IEC 60601-1 safety standard specified that the safety distance for the minimum creepage, air clearance, and isolation voltage must be met in order to avoid risks and to ensure freedom from dangerous energy shocks due to any electrical shocks and excess energy hazards, transient voltage spikes, insulation breakdown of the power architecture, mechanical damage, ignition, fires, shorts developing between PCB tracks and across air gaps, arcing, and ground loops, which comply with the limited leakage current during normal and single-fault conditions.
- The level requirement for the isolation voltage depends on the insulation type, the working voltage, and the degree of pollution, and the insulation barriers must have undergone a high-voltage test.
- From our standpoint at MINMAX, we believe that the power supplies for medical and healthcare equipment should provide the highest degree of protection; therefore, our medical safety DC–DC converters and AC–DC power supplies have 2xMOPP/2xMOOP from the primary side to the secondary side (mains AC to low-voltage DC). This gives medical/healthcare equipment designers flexibility and assurance that there are primary and secondary reinforced insulation barriers in the medical power architecture to ensure long-term safety.
|
Insulation |
MOOP | MOPP | ||||
| Air Clearance | Creepage Distance | Test Voltage | Air Clearance | Creepage Distance | Test Voltage | |
| Basic | 1 x MOP | | 2.0 mm | 3.2 mm | 1500 VAC | 2.5 mm | 4.0 mm | 1500 VAC |
| Double or Reinforced | 2 x MOP | | 4.0 mm | 6.4 mm | 3000 VAC | 5.0 mm | 8.0 mm | 4000 VAC |
Insulation test voltages based on 250 VAC working voltage | MOP = Means of protection | MOOP = Means of operation protection | | MOPP = Means of patient protection.
ISOLATION VOLTAGE AND SAFETY DISTANCE IN THE 3 EDITION OF THE IEC 60601-1 STANDARD
LEAKAGE CURRENT IN THE 3 EDITION OF THE IEC 60601-1 STANDARD
- Whether the product is considered MOOP or MOPP, the leakage-current requirements must be met.
- A further change between the 2 and 3 editions is related to the Earth leakage-current requirements.
- The leakage current needs to comply with a limit value to avoid risks and ensure freedom from dangerous energy shocks due to any electrical shock and excess energy hazards, transient voltage spikes, insulation breakdown of the power architecture, mechanical damage, ignition, fire, shorts developing between PCB tracks, air gaps, arcing, and ground loops that the operator or patient may come into direct contact during normal and single-fault conditions.
- Leakage-current tests are designed to simulate a human body coming into contact with different parts of the medical/healthcare equipment. The measured leakage-current values should comply with the acceptable limits.
- Earth leakage current Current flowing in the earth conductor.
- Enclosure leakage current Current flowing to earth via the patient from the enclosure.
- Patient leakage current Current flowing to earth via the patient from an applied part.
- Patient auxiliary current Current flowing between two applied parts.
- NC = Normal Conditions|
- SFC = Single Fault Conditions|
- *The maximum Earth and enclosure leakage current for patient care equipment in the US is 300 μA.|
- (1) “Enclosure Leakage Current” changed to “Touch Leakage Current” in the 3rd edition of the IEC 60601-1 standard|
INSULATION TYPE
The five different types of insulation grades are listed below.
|
Functional Insulation |
Insulation is necessary only for the correct functioning of the equipment and does not provide any protection against electric shock. |
| Basic Insulation | Insulation is applied to live parts to protect against electric shock. |
|
Supplementary Insulation |
Independent insulation is applied in addition to basic insulation to protect against electric shock in the event of a failure of basic insulation. |
| Double Insulation | Insulation comprises both basic insulation and supplementary insulation. |
|
Reinforced Insulation |
Single insulation system applied to live parts which provide a degree of protection against electric shock equivalent to double insulation. |
STRUCTURE OF THE MEDICAL INSULATION SYSTEM
- The figure below shows the insulation system structure and two insulation barriers that provide two Means of Protection (MOP) that must be present within medical/healthcare systems.
- Two insulation barriers are required to ensure that the applied part, which includes both patients and operators, is isolated and protected from dangerous energy shocks due to any electrical shocks and excess energy hazards, transient voltage spikes, insulation breakdown of the power architecture, mechanical damage, ignition, fire, shorts developing between PCB tracks, air gaps, arcing, and ground loops and complies with the limited leakage current during normal and single-fault conditions.
- Within the electrical safety area, medical safety approval requires equipment to implement two Means of Protection (MOP) such that if a failure occurs within one area, a second mechanism safeguards the operator and/or patient against dangerous energy shocks from any electrical shocks and excess energy hazards, transient voltage spikes, and insulation breakdown of the power architecture.
- MINMAX medical safety AC–DC power supplies and medical safety DC-DC converters have been approved for the new 3 edition of the IEC 60601-1 standard with a reinforced insulation level. Further, all medical safety AC–DC power supplies provide 2xMOPP and are suitable as the primary reinforced insulation barrier. All medical safety DC-DC converters provide 2xMOPP or 2xMOOP and are suitable as the secondary reinforced insulation barrier of the insulation system structure to ensure the long-term safety of operators/patients.
Medical/Healthcare Insulation System
- MP: Mains Part
- LP: Live Part = Non-Applied Part Electronic Circuit
- AP: Applied Part = Applied Part Electronic Circuit
MEDICAL EMC STANDARDS
All MINMAX medical safety AC–DC power supplies and DC-DC converters undergo 4 edition medical EMCth (Emission + Immunity) testing of LIFE-SUPPORTING ME EQUIPMENT to help us provide as much information as possible during the design-in process to ensure that medical/healthcare equipment comply with EN 50155: 2009+AI for EMI (Electromagnetic Interference) and EN 60601-1-2: 2015 for EMS (Electromagnetic Susceptibility).
EMC Test Level of Medical Safety DC-DC Converters
EMC Test Level of Medical Safety AC-DC Power Supplies
COST VS. RISKS TO SAFETY
- Although the 3 edition of the IEC 60601-1 standard offers medical/healthcare equipment manufacturers more options related to the choice of power supply, the upcoming question of risk vs. cost must be considered, i.e., a cheaper power supply with lower performance to save a few dollars versus a power supply with higher specifications and safety certification that might cost more but reduce the risk as much as possible. After all, if you get it wrong in medical device design, it can limit your market, compromise your brand, and severely delay regulatory approval or worse.
- As a result, the specifications of medical safety power supplies that are approved at the IEC/EN 60601-1 standard and comply with Means of Protection (MOP) are preferred for medical/healthcare equipment manufacturers.
HIGHLIGHTED PERFORMANCE OF MEDICAL SAFETY PRODUCTS
Ultra-wide Input Voltage Range
Medical/Healthcare Insulation System
- Example: MIW06-24S12M
Fully Vacuum Encapsulated to Save Your System
For the electromagnetic susceptibility and environmental physical stress interference which are protected from acomprehensive protection capabilities.
Reinforced Insulation & 5KVAC Isolation for System Safety
- The 5KVAC I/O isolation with reinforced insulation and vacuum encapsulated creates a solid electrical barrier that protects sensitive circuit load from noise, electromagnetic disturbances, and power bus fluctuation, avoiding the risk and ensuring freedom of dangerous energy shock from any electric shock and excess energy hazards, transient voltage spike, insulation breakdown of power architecture, mechanical damage, ignition, fire and short developing between PCB tracks, air gaps, arcing and ground loop that provide safety on long-term operation of medical/ healthcare equipment.
- Please refer to the “Isolation Voltage and Safety Distance in the 3rd Edition of the IEC 60601-1 Standard & Leakage Current in the 3rd Edition of the IEC 60601-1 Standard & Insulation Type”.
- Example: MIW06-24S12M
8mm Creepage & Clearance with 2xMOPP Level
- Isolation 5KVAC/60sec with Reinforced Insulation
- Low Leakage Current < 2uA
- Low I/O Isolation Capacitance 40pF max.
Wider Operating Ambient Temperature Range
Wider operating temp. range by latest thermal management technology and fully vacuum encapsulated.
ECO Technology
Green Design for Higher Full-Range Efficiency
High efficiency for whole output load, input line & ambient temp. range by the latest green design technology helps to energy saving, thermal management, and minimize the temp. rise and size miniaturization.
Green Design for Energy Saving, Minimize Temperature Rise
- Ultra-low no-load power consumption by the latest green design technology helps to improve and minimize the temp. rise (avoid thermal problems), energy saving, and prolong the battery life.
- Very Low No Load Input Current 5mA @ 24Vin
- Very Low No Load Power Consumption 0.12Watt @ 24Vin
Green Design for No Min. Load /Dummy Load Requirement
With high stability feedback loop design, the MINMAX medical safety power solutions may not oscillate in no-load or light-load condition.
Power Your System Precisely
Setting Accuracy ±1% Vom | Line Regulation ±0.5% | Load Regulation ±0.5% | High Transient Response | Low Temperature Coefficient
- The output voltage will still keep with excellent accuracy, even though the input voltage, output current and ambient temp. of the system are unstable.
- The output voltage of mainstream products may undershoot and overshoot obviously during the load changes. MINMAX medical safety power solutions are still keep with rated output voltage preciously.
Faster Start-up Time without Overshoot
- The start-up time of MIW06M decreases from 250mS to 20mS which helps to avoid any system timing failure caused by long start-up time.
- Faster start-up time without overshoot ensures the safety of your system.
Superior Load Driving Capability
MINMAX medical safety power solutions have superior load driving capability which can drive your system during very low voltage and even zero voltage output without start-up failure.
Excellent EMC Performance
Excellent EMI performance by upgraded noise filtering technology helps to improve overall system EMI performance on conduction and radiation emission.
- No external component needed for conducted emission meets EN 55011 Class A.
- Only few peripheral components needed for radiated emission meets EN 55011 Class B.
Excellent EMS performance by upgraded noise immunity technology helps to improve overall system EMS performance on ESD, Surge, EFT, RS, CS and PFMF.
- Only one E-cap. needed for ±2KV surge immunity by IEC 61000-4-5 with criteria A.
- Only one E-cap. needed for ±2KV EFT immunity by IEC 61000-4-4 with criteria A.
Please refer to the ‘’Medical EMC Standards’’ on Page 09 & 10 for more information.
Lower Ripple & Noise
Small Ripple & Noise for whole output load, input line & ambient temp. range by upgraded noise filtering technology helps to reduce the peripheral components needed and noise interference.
Protection Functions on Abnormal Operation
MINMAX medical safety power solutions are the instantaneous protection for UVP, OCP, OVP & SCP which help to ensure long-term safety of system operation.
Certifications
- UL/cUL/IEC/EN 62368-1(60950-1) Approved
- UL 508 Approved
- Medical Safety IEC/EN 60601-1 & ANSI/AAMI ES 60601-1 Approved
- CE Marking
- Protection Class
MINMAX MEDICAL SAFETY POWER SOLUTIONS
SUCCESSFUL APPLICATIONS
- Dental Equipment
- Medical Panel PC
- Mobile Cart Computer
- ECG, EEG
- Medical Assist System
- CPAP Machine
- CT Scanning
- Healthcare Information System
MEDICAL SAFETY PRODUCTS OVERVIEW
Medical Safety DC-DC Converters
|
Series |
Output Power |
Input Voltage Range (VDC) |
Output Voltage (VDC) |
Isolation (VDC) |
Efficiency |
Operating Ambient Temp. Range(1) |
Output Regulation | No Min. Load | OCP | OVP | SCP |
Protection Level |
ANSI/AAMI ES 60601-1 | IEC/EN 60601-1 3 rd |
| 1W • SIP Package | ||||||||||||||
|
1W |
4.5-5.5,
10.8-13.2 |
5, 12, 15,
±12, ±15 |
3000VAC
Reinforced |
75% |
-25~+85°C |
1xMOPP
2xMOOP |
||||||||
|
1W |
4.5-5.5,
10.8-13.2 21.6-26.4, |
5, 12, 15 |
4000VAC
Reinforced |
81% |
-40~+95°C |
2xMOPP |
||||||||
| 1-2W • SMD Package | ||||||||||||||
|
1W |
4.5-5.5,
10.8-13.2, 21.6-26.4 |
5, 12, 15,
±12, ±15 |
4000VAC
Reinforced |
84% |
-40~+95°C |
2xMOPP |
||||||||
|
2W |
4.5-5.5,
10.8-13.2 21.6-26.4, |
5, 12, 15,
±12, ±15 |
4000VAC
Reinforced |
75% |
-25~+80°C |
1xMOPP
2xMOOP |
||||||||
| 2-10W • DIP Package | ||||||||||||||
|
2W |
4.5-5.5,
10.8-13.2 21.6-26.4, |
5, 12, 15,
±12, ±15 |
4000VAC
Reinforced |
75% |
-25~+80°C |
1xMOPP
2xMOOP |
||||||||
|
3W |
9-40,
18-80, 36-160 |
5, 12,
±12, ±15 |
4000VAC
Reinforced |
83% |
-40~+85°C |
1xMOPP
2xMOOP |
||||||||
|
3.5W |
4.5-9,
9-18, 18-36, 36-75 |
5, 5.8,
12, 15 ±12, ±15 |
5000VAC
Reinforced |
87% |
-40~+96°C |
2xMOPP |
||||||||
|
6W |
9-18,
18-36, 36-75 |
5, 12, 15,
±12, ±15 |
5000VAC
Reinforced |
89% |
-40~+95°C |
2xMOPP |
||||||||
|
10W |
9-18,
18-36, 36-75 |
3.3, 5, 5.1,
12, 15, 24, ±12, ±15 |
5000VAC
Reinforced |
88% |
-40~+90°C |
2xMOPP |
||||||||
| 10-20W • 2″×1″ Package | ||||||||||||||
|
15W |
9-18,
18-36, 36-75 |
5, 5.1,
12, 15, 24, ±12, ±15 |
4200VAC
Reinforced |
90% |
-40~+85°C |
2xMOPP |
||||||||
|
20W |
9-18,
18-36, 36-75 |
5, 5.1,
12, 15, 24, ±12, ±15 |
4200VAC
Reinforced |
90% |
-40~+80°C |
2xMOPP |
||||||||
Medical Safety AC-DC Converters
|
Series |
Output Power |
Input Voltage Range (VAC) |
Output Voltage (VDC) |
Isolation (VDC) |
Efficiency |
Operating Ambient Temp. Range(1) |
Output Regulation | No Min. Load |
Package |
OCP | OVP |
Protection Level |
ANSI/AAMI ES 60601-1 | IEC/EN 60601-1 3 rd |
| AJM-24 | 24W |
85-264 |
5,9,12,15,
24,±12 ±15 |
4000VAC
Reinforced |
85% | -40~+80°C | PCB
Chassis DIN-Rail |
2xMOPP | ||||||
| APM-40 | 40W |
85-264 |
5,12,15,
±12±15 |
4000VAC
Reinforced |
85% | -40~+80°C | PCB
Chassis DIN-Rail |
2xMOPP | ||||||
| 60W |
85-264 |
5.1,12,
15,24,48 |
4000VAC
Reinforced |
85% | -40~+80°C | PCB
Chassis DIN-Rail |
2xMOPP |
Please refer to derating curve information form datasheet.
MEDICAL SAFETY • DC-DC CONVERTERS
Model Selection Guide
|
Model Number |
Input Voltage (VDC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| MAU401 | 5 | 200 | 66% | |
| MAU402 | 12 | 80 | 66% | |
| MAU403 | 15 | 65± | 66% | |
| 4.5 – 5.5 | ||||
| MAU404 | ±5 | 100 | 66% | |
| MAU405 | ±12 | ±40 | 72% | |
| MAU406 | ±15 | ±35 | 73% | |
| MAU411 | 5 | 200 | 66% | |
| MAU412 | 12 | 80 | 66% | |
| MAU413 | 10.8 – 13.2 | 15 | 65 | 66% |
| MAU414 | ±5 | ±100 | 66% | |
| MAU415 | ±12 | ±40 | 74% | |
| MAU416 | ±15 | ±35 | 75% |
Model Selection Guide
|
Model Number |
Input Voltage (VDC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| MAU01-05S05M | 5 | 200 | 79% | |
| MAU01-05S12M | 4.5 – 5.5 | 12 | 84 | 80% |
| MAU01-05S15M | 15 | 68 | 81% | |
| MAU01-12S05M | 5 | 200 | 79% | |
| MAU01-12S12M | 10.8 – 13.2 | 12 | 84 | 81% |
| MAU01-12S15M | 15 | 68 | 79% | |
| MAU01-24S05M | 5 | 200 | 76% | |
| MAU01-24S12M | 21.6 – 26.4 | 12 | 84 | 79% |
| MAU01-24S15M | 15 | 68 | 79% |
1W MSCU01M Series SMD Package
Model Selection Guide
|
Model Number |
Input Voltage (VDC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| MSCU01-05S05M | 5 | 200 | 76% | |
| MSCU01-05S12M | 12 | 84 | 80% | |
| MSCU01-05S15M | 4.5 – 5.5 | 15 | 68 | 83% |
| MSCU01-05D12M | ±12 | ±42 | 80% | |
| MSCU01-05D15M | ±15 | ±33 | 84% | |
| MSCU01-12S05M | 5 | 200 | 76% | |
| MSCU01-12S12M | 12 | 84 | 79% | |
| MSCU01-12S15M | 10.8 – 13.2 | 15 | 68 | 80% |
| MSCU01-12D12M | ±12 | ±42 | 79% | |
| MSCU01-12D15M | ±15 | ±33 | 80% | |
| MSCU01-24S05M | 5 | 200 | 76% | |
| MSCU01-24S12M | 12 | 84 | 80% | |
| MSCU01-24S15M | 21.6 – 26.4 | 15 | 68 | 80% |
| MSCU01-24D12M | ±12 | ±42 | 80% | |
| MSCU01-24D15M | ±15 | ±33 | 80% |
2W MSHU100 Series SMD Package
Model Selection Guide
|
Model Number |
Input Voltage (VDC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| MSHU102 | 5 | 400 | 66% | |
| MSHU104 | 4.5 – 5.5 | 12 | 165 | 66% |
| MSHU105 | 15 | 133 | 66% | |
| MSHU108 | ±12 | ±83 | 72% | |
| MSHU109 | ±15 | ±66 | 73% | |
| MSHU112 | 5 | 400 | 66% | |
| MSHU114 | 12 | 165 | 66% | |
| MSHU115 | 10.8 – 13.2 | 15 | 133 | 66% |
| MSHU118 | ±12 | ±83 | 74% | |
| MSHU119 | ±15 | ±66 | 75% | |
| MSHU122 | 5 | 400 | 66% | |
| MSHU124 | 12 | 165 | 66% | |
| MSHU125 | 21.6 – 26.4 | 15 | 133 | 66% |
| MSHU128 | ±12 | ±83 | 74% | |
| MSHU129 | ±15 | ±66 | 75% |
2W MDHU100 Series DIP Package
Model Selection Guide
|
Model Number |
Input Voltage (VDC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| MDHU102 | 5 | 400 | 66% | |
| MDHU104 | 12 | 165 | 66% | |
| MDHU105 | 4.5 – 5.5 | 15 | 133 | 66% |
| MDHU108 | ±12 | ±83 | 72% | |
| MDHU109 | ±15 | ±66 | 73% | |
| MDHU112 | 5 | 400 | 66% | |
| MDHU114 | 12 | 165 | 66% | |
| MDHU115 | 10.8 – 13.2 | 15 | 133 | 66% |
| MDHU118 | ±12 | ±83 | 74% | |
| MDHU119 | ±15 | ±66 | 75% | |
| MDHU122 | 5 | 400 | 66% | |
| MDHU124 | 12 | 165 | 66% | |
| MDHU125 | 21.6 – 26.4 | 15 | 133 | 66% |
| MDHU128 | ±12 | ±83 | 74% | |
| MDHU129 | ±15 | ±66 | 75% |
3W MIHW2000 Series DIP Package
Model Selection Guide
|
Model Number |
Input Voltage (VDC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| MIHW2022 | 5 | 600 | 78% | |
| MIHW2023 | 12 | 250 | 83% | |
| 9 – 40 | ||||
| MIHW2026 | ±12 | ±125 | 83% | |
| MIHW2027 | ±15 | ±100 | 83% | |
| MIHW2032 | 5 | 600 | 78% | |
| MIHW2033 |
18 – 80 |
12 | 250 | 83% |
| MIHW2036 | ±12 | ±125 | 83% | |
| MIHW2037 | ±15 | ±100 | 83% | |
| MIHW2042 | 5 | 600 | 78% | |
| MIHW2043 | 12 | 250 | 83% | |
| 36 – 160 | ||||
| MIHW2046 | ±12 | ±125 | 83% | |
| MIHW2047 | ±15 | ±100 | 83% |
3.5W MIW03M Series DIP Package
Model Selection Guide
|
Model Number |
Input Voltage (VDC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| MIW03-05S05M | 5 | 700 | 83% | |
| MIW03-05S058M | 5.8 | 600 | 83% | |
| MIW03-05S12M | 4.5 – 9 | 12 | 290 | 84% |
| MIW03-05S15M | 15 | 235 | 84% | |
| MIW03-05D12M | ±12 | ±145 | 84% | |
| MIW03-05D15M | ±15 | ±115 | 84% | |
| MIW03-12S05M | 5 | 700 | 83% | |
| MIW03-12S12M | 12 | 290 | 87% | |
| MIW03-12S15M | 9 – 18 | 15 | 235 | 87% |
| MIW03-12D12M | ±12 | ±145 | 87% | |
| MIW03-12D15M | ±15 | ±115 | 87% | |
| MIW03-24S05M | 5 | 700 | 83% | |
| MIW03-24S12M | 12 | 290 | 86% | |
| MIW03-24S15M | 18 – 36 | 15 | 235 | 87% |
| MIW03-24D12M | ±12 | ±145 | 87% | |
| MIW03-24D15M | ±15 | ±115 | 86% | |
| MIW03-48S05M | 5 | 700 | 83% | |
| MIW03-48S12M | 12 | 290 | 86% | |
| MIW03-48S15M | 36 – 75 | 15 | 235 | 85% |
| MIW03-48D12M | ±12 | ±145 | 84% | |
| MIW03-48D15M | ±15 | ±115 | 84% |
6W MIW06M Series DIP Package
Model Selection Guide
10W MIW10M Series DIP Package
Model Selection Guide
15W MKW15M Series 2”x1” Package
Model Selection Guide
20W MKW20M Series 2”x1” Package
Model Selection Guide
|
Model Number |
Input Voltage (VDC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| MKW20-12S05M | 5 | 4000 | 86% | |
| MKW20-12S051M | 5.1 | 4000 | 86% | |
| MKW20-12S12M | 12 | 1670 | 89% | |
| MKW20-12S15M | 9 – 18 | 15 | 1333 | 88% |
| MKW20-12S24M | 24 | 840 | 89% | |
| MKW20-12D12M | ±12 | ±840 | 89% | |
| MKW20-12D15M | ±15 | ±670 | 89% | |
| MKW20-24S05M | 5 | 4000 | 88% | |
| MKW20-24S051M | 5.1 | 4000 | 88% | |
| MKW20-24S12M | 12 | 1670 | 89% | |
| MKW20-24S15M | 18 – 36 | 15 | 1333 | 89% |
| MKW20-24S24M | 24 | 840 | 90% | |
| MKW20-24D12M | ±12 | ±840 | 90% | |
| MKW20-24D15M | ±15 | ±670 | 90% | |
| MKW20-48S05M | 5 | 4000 | 88% | |
| MKW20-48S051M | 5.1 | 4000 | 88% | |
| MKW20-48S12M | 12 | 1670 | 89% | |
| MKW20-48S15M | 36 – 75 | 15 | 1333 | 90% |
| MKW20-48S24M | 24 | 840 | 89% | |
| MKW20-48D12M | ±12 | ±840 | 89% | |
| MKW20-48D15M | ±15 | ±670 | 90% |
24W AJM-24 Series Encapsulated Package
Model Selection Guide
|
Model Number |
Input Voltage (VAC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| AJM-24S05 | 5 | 3000 | 77% | |
| AJM-24S09 | 9 | 2666 | 82% | |
| AJM-24S12 | 12 | 2000 | 83% | |
| AJM-24S15 | 85 – 264 | 15 | 1600 | 82% |
| AJM-24S24 | 24 | 1000 | 85% | |
| AJM-24D12 | ±12 | ±1000 | 84% | |
| AJM-24D15 | ±15 | ±800 | 84% |
40W APM-40 Series Encapsulated Package
Model Selection Guide
|
Model Number |
Input Voltage (VAC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| APM-40S05 | 5 | 8000 | 81% | |
| APM-40S12 | 12 | 3330 | 84% | |
| APM-40S15 | 15 | 2660 | 85% | |
| APM-40S24 | 85 – 264 | 24 | 1660 | 84% |
| APM-40D12 | ±12 | ±1660 | 84% | |
| APM-40D15 | ±15 | ±1330 | 85% |
60W AYM-60 Series Encapsulated Package
Model Selection Guide
|
Model Number |
Input Voltage (VAC) | Output Voltage (VDC) | Output Current (mA)max |
Efficiency |
| AYM-60S051 | 5.1 | 10000 | 84% | |
| AYM-60S12 | 12 | 5000 | 87% | |
| AYM-60S15 | 85 – 264 | 15 | 4000 | 87% |
| AYM-60S24 | 24 | 2500 | 87% | |
| AYM-60S48 | 48 | 1250 | 88% |
DC-DC CONVERTERS·AC-DC POWER SUPPLIES | 1-150W
GENERAL INDUSTRIAL
DC-DC CONVERTERS
AC-DC POWER SUPPLIES
RAILWAY CERTIFIED
DC-DC CONVERTERS
ULTRA-HIGH ISOLATION
DC-DC CONVERTERS
MEDICAL SAFETY
DC-DC CONVERTERS
AC-DC POWER SUPPLIES
Contact Information
- Singel 3 | B-2550 Kontich | Belgium
- Tel. +32 (0)3 458 30 33
- info@alcom.be
- www.alcom.be
- Rivium 1e straat 52 | 2909 LE Capelle aan den Ijssel | The Netherlands
- Tel. +31 (0)10 288 25 00
- info@alcom.nl
- www.alcom.nl.
Documents / Resources
 |
Alcom electronics 2024 Medical Power Solution Guide [pdf] User Guide 2024, 2024 Medical Power Solution Guide, 2024, Medical Power Solution Guide, Power Solution Guide, Solution Guide, Guide |
