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MK03 Reedsensoren

Beschreibung

MK03 Sensoren sind magnetisch betätigte Reedsensoren in einem zylindrischen Gehäuse mit verschiedenen Anschlusskabeln. Die Montage erfolgt üblicherweise am feststehenden Teil; der Magnet am beweglichen. Magnetstärke und Position Magnet/ Sensor bestimmen Öffnungs- und Schließpunkte der Anordnung.

Diese Reedsensor Serie ist RoHS konform.

Merkmale

  • Standardmäßig 5 Empfindlichkeitsklassen
  • Leistungsschalter verfügbar
  • Gutes Preis/Leistungsverhältnis
  • Einzellitzen oder Rundkabel
  • Verschiedene Gehäusefarben und -längen
  • Diverse Kabel-Steckverbinder-Versionen verfügbar

Applikationen

  • Positions/Endschalterfunktion
  • Tür/Fensterkontakt für die Sicherheitstechnik
  • Levelsensoren in Verbindung mit Schwimmermagneten

Spezifikationen

Kontaktform 1A, 1B, 1C
Nennleistung (W) 0 bis 50
Schaltspannung (VDC) 0 bis 500
Schaltstrom (A) 0 bis 1.5
Transportstrom (A) 0 bis 2.5
Durchbruchspannung (Minimum VDC) 100 bis 700
Empfindlichkeitsbereich (AW) 5 bis 6

Produktsuche


MK03 Reedsensoren
Nr. / Bez. : Kontakt - Form:
Schaltspannung: Kabellänge:
  Sachnummer BezeichnungKontakt - Form
Schalt- spannung
V
Schalt- strom
A
Transport- strom
A
Schalt- leistung
W
Anzugs- erregung (Bezugswert)
AT
Kabellänge
MM
Anfrage 2232661014 2232661014 MK03-1A66B-100WA - Schließer180 V0.5 A1.25 A10 W10-15 AT100 MM
Anfrage 2232661084 2232661084 MK03-1A66B-800WA - Schließer180 V0.5 A1.25 A10 W10-15 AT800 MM
Anfrage 2232662014 2232662014 MK03-1A66B-2000WA - Schließer180 V0.5 A1.25 A10 W10-15 AT2000 MM
Anfrage 2232711024 2232711024 MK03-1A66B-200WA - Schließer180 V0.5 A1.25 A10 W10-15 AT200 MM
Anfrage 2232711034 2232711034 MK03-1A66B-300WA - Schließer180 V0.5 A1.25 A10 W10-15 AT300 MM
Anfrage 2232711054 2232711054 MK03-1A66B-500WA - Schließer180 V0.5 A1.25 A10 W10-15 AT500 MM
Anfrage 2232711064 2232711064 MK03-1A66B-600WA - Schließer180 V0.5 A1.25 A10 W10-15 AT600 MM
Anfrage 2232711104 2232711104 MK03-1A66B-1000WA - Schließer180 V0.5 A1.25 A10 W10-15 AT1000 MM
Anfrage 2232711134 2232711134 MK03-1A66B-1300WB - Öffner180 V0.5 A1.25 A10 W10-15 AT1300 MM
Anfrage 2232711164 2232711164 MK03-1A66B-1600WA - Schließer180 V0.5 A1.25 A10 W10-15 AT1600 MM
Anfrage 2232711174 2232711174 MK03-1A66B-1700WA - Schließer180 V0.5 A1.25 A10 W10-15 AT1700 MM
Anfrage 2232711184 2232711184 MK03-1A66B-1800WA - Schließer180 V0.5 A1.25 A10 W10-15 AT1800 MM
Anfrage 2232711504 2232711504 MK03-1A66B-5000WA - Schließer180 V0.5 A1.25 A10 W10-15 AT5000 MM
Anfrage 2232841054 2232841054 MK03-1A84B-500WA - Schließer400 V0.5 A1 A10 W10-15 AT500 MM
Anfrage 2232902054 2232902054 MK03-1B90B-500WB - Öffner175 V0.5 A1 A10 W10-15 AT500 MM
Anfrage 2232902204 2232902204 MK03-1B90B-2000WB - Öffner175 V0.5 A1 A10 W10-15 AT2000 MM
Anfrage 2232903154 2232903154 MK03-1C90B-1500WC - Wechsler175 V0.5 A1 A10 W10-15 AT1500 MM
Anfrage 2233661504 2233661504 MK03-1A66C-5000WA - Schließer180 V0.5 A1.25 A10 W15-20 AT5000 MM
Anfrage 2233661520 2233661520 MK03-1A66C-300WA - Schließer180 V0.5 A1.25 A10 W15-20 AT300 MM
Anfrage 2233662530 2233662530 MK03-1A66E-300WA - Schließer180 V0.5 A1.25 A10 W25-30 AT300 MM
Anfrage 2233711004 2233711004 MK03-1A66C-125WA - Schließer180 V0.5 A1.25 A10 W15-20 AT125 MM
Anfrage 2233711014 2233711014 MK03-1A66C-100WA - Schließer180 V0.5 A1.25 A10 W15-20 AT100 MM
Anfrage 2233711024 2233711024 MK03-1A66C-150WA - Schließer180 V0.5 A1.25 A10 W15-20 AT150 MM
Anfrage 2233711034 2233711034 MK03-1A66C-200WA - Schließer180 V0.5 A1.25 A10 W15-20 AT200 MM
Anfrage 2233711044 2233711044 MK03-1A66C-400WA - Schließer180 V0.5 A1.25 A10 W15-20 AT400 MM
Anfrage 2233711054 2233711054 MK03-1A66C-500WA - Schließer180 V0.5 A1.25 A10 W15-20 AT500 MM
Anfrage 2233711104 2233711104 MK03-1A66C-1000WA - Schließer180 V0.5 A1.25 A10 W15-20 AT1000 MM
Anfrage 2233711154 2233711154 MK03-1A66C-1500WA - Schließer180 V0.5 A1.25 A10 W15-20 AT1500 MM
Anfrage 2233711204 2233711204 MK03-1A66C-2000WA - Schließer180 V0.5 A1.25 A10 W15-20 AT2000 MM
Anfrage 2233711404 2233711404 MK03-1A66C-4000WA - Schließer180 V0.5 A1.25 A10 W15-20 AT4000 MM
Anfrage 2233902054 2233902054 MK03-1B90C-500WB/C - Öffner aus Wechsler175 V0.5 A1 A10 W15-20 AT500 MM
Anfrage 2233902104 2233902104 MK03-1B90C-1000WB/C - Öffner aus Wechsler175 V0.5 A1 A10 W15-20 AT1000 MM
Anfrage 2233902204 2233902204 MK03-1B90C-2000WB/C - Öffner aus Wechsler175 V0.5 A1 A10 W15-20 AT2000 MM
Anfrage 2233903054 2233903054 MK03-1C90C-500WC - Wechsler175 V0.5 A1 A10 W15-20 AT500 MM
Anfrage 2233903104 2233903104 MK03-1C90C-1000WC - Wechsler175 V0.5 A1 A10 W15-20 AT1000 MM
Anfrage 2233903304 2233903304 MK03-1C90C-3000WC - Wechsler175 V0.5 A1 A10 W15-20 AT3000 MM
Anfrage 2234711014 2234711014 MK03-1A66D-100WA - Schließer180 V0.5 A1.25 A10 W20-25 AT100 MM
Anfrage 2234711054 2234711054 MK03-1A66D-500WA - Schließer180 V0.5 A1.25 A10 W20-25 AT500 MM
Anfrage 2234902054 2234902054 MK03-1B90D-500WB - Öffner175 V0.5 A1 A10 W20-25 AT500 MM
Anfrage 2235711054 2235711054 MK03-1A66E-500WA - Schließer180 V0.5 A1.25 A10 W25-30 AT500 MM

Literatur

Vorsichtsmaßnahmen

Lebensdauer von Reedschaltern

Magnete und deren Eigenschaften

Applikationen

Test & Messtechnik

Test & Messtechnik

Landvermesser

Stock Check


Lagerbestände bei unseren Händlern

Artikel-Nr. Händler Region Lagerbestand Kaufen Anfrage Inventurdatum
MK03-1A71B-500WFARNELL Europe106Anfrage2012/02/03
MK03-1A66B-500WDIGI-KEY CORPORATION North America231Anfrage2012/02/03
MK03-1A66B-500WMOUSER ELECTRONICS North America228Anfrage2012/02/03
MK03-1A66C-500WDIGI-KEY CORPORATION North America39Anfrage2012/02/03
MK03-1A66D-500WDIGI-KEY CORPORATION North America50Anfrage2012/02/03
MK03-1A71B-500WMASTER DISTRIBUTORS North America50Anfrage2012/02/03
MK03-1A71C-500WMASTER DISTRIBUTORS North America45Anfrage2012/02/03
MK03-1A71D-500WMASTER DISTRIBUTORS North America214Anfrage2012/02/03
MK03-1B90C-500WMASTER DISTRIBUTORS North America360Anfrage2012/02/03
MK03-1B90C-500WDIGI-KEY CORPORATION North America329Anfrage2012/02/03
MK03-1B90C-500WMOUSER ELECTRONICS North America54Anfrage2012/02/03
MK03-1C90C-500WDIGI-KEY CORPORATION North America50Anfrage2012/02/03
MK03U-BV50237MASTER DISTRIBUTORS North America19Anfrage2012/02/03


Magnete


Reedschalter & Magnet Betätigung
Klick zur AnimationMagnettyp
PositionBewegungBetätigung(en)Kontaktform
Magnet Actuation 1

Stabmagnet

Parallel

Senkrecht

Einfach

Form A (Schließer)


Magnet Actuation 2

Stabmagnet

Parallel

Parallel

Einfach

Form A (Schließer)

Magnet Actuation 3

Stabmagnet

Parallel

Parallel

Einfach

Form A (Schließer)

Magnet Actuation 4

Stabmagnet

Parallel

Parallel

Einfach

Form A (Schließer)

Magnet Actuation 5

Stabmagnet

Daneben

Rotierend

Mehrfach

Form A (Schließer)

Magnet Actuation 6

Ringmagnet

Daneben

Rotierend

Mehrfach

Form A (Schließer)

Magnet Actuation 7

Ringmagnet

Daneben

Rotierend

Mehrfach

Form A (Schließer)

Magnet Actuation 8

Stabmagnet

Darüber

Rotierend

Mehrfach

Form A (Schließer)

Magnet Actuation 9

Stabmagnet

Senkrecht

Senkrecht

Einfach

Form A (Schließer)

Magnet Actuation 10

Stabmagnet

Senkrecht

Parallel

Mehrfach

Form A (Schließer)

Magnet Actuation 11

Stabmagnet

Parallel

Parallel

Einfach

Form A (Schließer)

Magnet Actuation 12

Stabmagnet

Parallel

Senkrecht

Einfach

Form B (Öffner)

Magnet Actuation 13

Stabmagnet

Parallel

Kreisend

Einfach

Form A (Schließer)

Magnet Actuation 14

Stabmagnet

Magnetischer Schirm

Fest

Parallel

Einfach

Form A (Schließer)

Magnet Actuation 15

Stabmagnet

Magnetischer Schirm

Fest

Senkrecht

Einfach

Form A (Schließer)

Magnet Actuation 16

Stabmagnet

Magnetischer Schirm

Fest

Parallel

Einfach

Form A (Schließer)

Ergänzende Magnete

Magnete in Gehäusen

Kombinieren Sie diese  Magnete in Gehäuse mit den oben genannten entsprechenden Reedsensoren für eine Sensor-Komplettlösung. Auch andere Paarungen kommen in Frage; bitte kontaktieren Sie hierzu unser Verkaufsbüro.


Rechteck Magnete in Gehäuse

M02 Magnet M04 Magnet M05 Magnet M12 Magnet M13 Magnet M21 Magnet

Zylindrissche Magnete in Gehäuse

M11 Brass Magnet M11/M8 Plastic Magnet M11/M5 Stainless Magnet

Bedrahtete PCB Sensoren

M06 Magnet

FAQs

Reed Sensoren

Are the hall, reed or emr sensors affected by EDI/RFI?

Are the hall, reed or emr sensors affected by EDI/RFI?

A hall sensor is affected by EDI and RFI and must be protected against them.  Reed sensors and emrs are not affected by EDI or RFI.

Are the hall, reed or emr sensors hermetically sealed?

Are the hall, reed or emr sensors hermetically sealed?

The reed sensor is the only sensor that is hermetically sealed.

What is the output dielectric strength for hall, reed or emr sensors?

What is the output dielectric strength for hall, reed or emr sensors?

A Hall sensors dielectric strength is less than 10 volts, for emrs its typically 250 VRMS, and reed sensors the dielectric strength can be up to 5000 volts.

What is the output capacitance for hall, reed or emr sensors?

What is the output capacitance for hall, reed or emr sensors?

The output capacitance for a Hall sensor is typically 100pf, a reed sensor is only 0.2 pico-farads, and emrs are typically 20 pico-farads.

What is the release time for hall, reed or emr sensors?

What is the release time for hall, reed or emr sensors?

The release time for a Hall sensor is typiclly 5µs, reed sensor 20µs and the emr 5 ms.

What is the operate time for hall, reed or emr sensors?

What is the operate time for hall, reed or emr sensors?

The operate time for a hall sensor is typically 5 µs, a reed sensor is 100µs and the emr is up to 10 ms.

How much current can be switched directly for hall, reed or emr sensors?

How much current can be switched directly for hall, reed or emr sensors?

Hall sensors can not switch any output current, the reed sensor and emr can typically switch up to 2 amps directly.

What is the output voltage range for hall, reed or emr sensors?

What is the output voltage range for hall, reed or emr sensors?

Hall sensor cannot switch any voltage directly.  Reed and emr sensors can switch up to 1000 volts directly.

How much power can you switch direcly with the hall, reed or emr sensors?

How much power can you switch direcly with the hall, reed or emr sensors?

Hall sensor supply a microwatt level signal, reed and emr sensors can switch up to 100 watts directly.

Can one switch loads directly for hall, reed or emr sensors?

Can one switch loads directly for hall, reed or emr sensors?

Only a reed and emr sensor can be switched directly.

What is the output on resistance for hall, reed or emr sensors?

What is the output on resistance for hall, reed or emr sensors?

Hall sensors are typically 200+ ohms, the reed and emr sensors are typically 50 milliohms.

Is hysteresis adjustable for hall, reed or emr sensors?

Is hysteresis adjustable for hall, reed or emr sensors?

Reed sensors can adjust the hysteresis from 35% to 95%.  Hall and EMR sensors have fixed hysteresis.

Is output polarity sensitivity critical for hall, reed or emr sensors?

Is output polarity sensitivity critical for hall, reed or emr sensors?

Yes output polarity is critical for proper switching operation with hall sensors only.

Are external circuits required for hall, reed or emr sensors?

Are external circuits required for hall, reed or emr sensors?

Yes - chopper circuits and drivers are required for the hall sensors only.

Is input polarity sensitivity an issue with hall, reed or emr sensors?

Is input polarity sensitivity an issue with hall, reed or emr sensors?

Only hall sensors are sensitive to input polarity.

Is an applied current required for a change of state with a hall, reed or EMR sensor?

Is an applied current required for a change of state with a hall, reed or EMR sensor?

A current is required for proper operation only on the Hall sensor.

Does a Hall Sensor require extra circuitry?

Does a Hall Sensor require extra circuitry?

Yes, they only supply a small milli-volt signal in the presence of a magnetic field. The signal needs to be amplified and then fed into a switching circuit.

What is Hall Effect?

What is Hall Effect?

A voltage is produced on a semiconductor material when in the presence of a magnetic field.  The voltage is proportional to the strength of the magnetic field.

What switch do I use when switching 5-15 Volts with 10 to 50 milliamps?

What switch do I use when switching 5-15 Volts with 10 to 50 milliamps?

Use ORD228, the ORD211 iridium, or the ORD311.

What switch do I use when switching 15-35 Volts with 10 to 250 milliamps?

What switch do I use when switching 15-35 Volts with 10 to 250 milliamps?

For a sensor use the ORD228 with iridium or the ORD2210 for a relay.

What reed switch do I use for low level switching?

What reed switch do I use for low level switching?

Small electromechanical relays are not good for switching low levels of voltages and currents.  Electromechanical relays need a hefty voltage and/or current to break any film buildup.  It is this film buildup that won't allow very low voltages and currents to pass through the contacts.   Reed switches are clearly the best.  Using sputtered ruthenium contacts or iridium contacts are the best materials for these low level loads.

When do you use an evacuated reed switch?

When do you use an evacuated reed switch?

Switching and breaking voltages 250 volts and above is best done with a vacuum reed switch.  Up to 4000 volts can be effectively done with the ORD2210V as long as the current levels are not too high.  Above 4000 volts use the Hermetic reed switches.

How much voltage can a pressurized reed switch effectively open?

How much voltage can a pressurized reed switch effectively open?

Miniature reed switches less than 20 mm (0.80 inches) glass length can effectively break up to 250 Volts.  This depends on the pull-in AT (mT) used.  The higher the better.  Reed switches less than 10 mm will shrink this value to around 150 volts.  Minimizing the current flow at the time of opening will improve this value.

What is the signature of a load?

What is the signature of a load?

Reed switches whether they are used in sensors or relays all will be asked to switch some load.  Generally there are two aspects to this load.

  1. Its steady state load
  2. Is the actual switching taking place during the first 50 nanoseconds.  This is also called the the signature of the load. 
This signature takes into consideration not only the steady state load but also any transient voltages or current that may be present during the first 50 nanoseconds.  These transients may be from stray capacitance, inductance in the line and/or common mode voltages.  From a reed switch designer standpoint. the signature is all there is.  The most important time during the switching of a load is that first 50 nanoseconds.  That is when all the damage to the contacts with occur if you are switching the contacts 'hot'.  If a customer is having a problem with early failures, this is the first place to look.  Equally important and not to be overlooked is what voltage and current is actually being broken when the contacts open.  Any healthy voltage and/or current present will chew up the contacts rapidly leading to sticking reed contacts.

How do I know what reed switch to select?

How do I know what reed switch to select?

There are several key factors:

  1. You need to have an idea of the required load.  What voltage and current is being switched at the time of closure for the first 50 nanoseconds?
  2. How many operations will be required during the life of the product?
  3. What are the size requirements?  How much room is needed?
  4. How will the product be mounted? Surface mount, thru hole, etc.
  5. For long life and low levels, use a ruthenium or an iridium sputtered/plated switch.
  6. For switching applications from 50 Volts to 200 volts use the Philips/Coto/Comus sputtered ruthenium switch.
  7. For switching currents 25 ma to 1 amp, the OKI thickly plated rhodium is good along with our STM10.
  8. For higher voltages above 200 volts  up to 4000 volts at relatively low current use the  OKI ORD2210V.
  9. For voltages above 1000 volts up to 10,000 volts with higher currents use the Hermetic vacuum switches.  This represents a start.  One could write a book on this subject.  Best to find out the exact customer load and run a life test with a few or several reed switches to make the final determination.

Kann ein Magnet in Verbindung mit einem Reedschalter als Temperatursensor verwendet werden?

Kann ein Magnet in Verbindung mit einem Reedschalter als Temperatursensor verwendet werden?

Dies ist möglich, vorausgesetzt der Magnet weist die benötigte Curie-Temperatur aus. Wenn diese Temperatur erreicht ist, verliert der Magnet seine magnetischen Eigenschaften, wodurch der Reedschalter öffnet. Wenn die Temperatur unter die Curie-Temperatur fällt, schließt der Schalter.

Zu den FAQs über Reed Schalter

Zu den FAQs über Reed Relais

Zu den FAQs über Magnete und Magnetismus

Zu den FAQs über Levelsensoren

Zu den FAQs über Messtechnik und Operative Eigenschaften

Zu den FAQs über Qualität und Zuverlässigkeit

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