05/15/2026 9:05 p.m.
https://cablematic.com/en/products/photoelectric-cell-sensor-switch-pnp-no-10-36vdc-m12-3m-thrubeam-TZ052/

Photoelectric cell sensor switch PNP NO 10-36VDC M12 3m thrubeam

REF: TZ052
Specifications
  • Photoelectric sensor (photoelectric cell) of barrier type, which consists of a transmitter and a receiver.
  • Output type PNP (positive output +) and NO (normally open).
  • Round type sensorse diameter 12 mm (M12), and length 65 mm.
  • Operating voltage: 10-36 VDC (300 mA).
  • Sensing distance (Sn): 3 m.

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PVP
47.23
Price including VAT: 47.23
PVD
41.13
2 years
warranty
14 days
returns
100%
safe


We will notify you when it is back in stock.
More info
Specifications
  • Photoelectric sensor (photoelectric cell) of barrier type, which consists of a transmitter and a receiver.
  • Output type PNP (positive output +) and NO (normally open).
  • Round type sensorse diameter 12 mm (M12), and length 65 mm.
  • Operating voltage: 10-36 VDC (300 mA).
  • Sensing distance (Sn): 3 m.

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More info

Photoelectric sensors (photoelectric cells) are those that respond to the change in the intensity of a light, allowing the activation or deactivation of a signal based on the values received from that light. Barrier photocells, in which the emitter and the receiver are separated in different bodies, being aligned and leaving both components facing each other. It is the most efficient mode of operationiable, because all the power that emits the emitter is sent directly to the receiver, making the dirt and humidity of the environment affect less to its operation.

Specifications
  • Photoelectric sensor (photoelectric cell) of barrier type, which consists of a transmitter and a receiver.
  • Output type PNP (positive output +) and NO (normally open).
  • Round type sensorse diameter 12 mm (M12), and length 65 mm.
  • Operating voltage: 10-36 VDC (300 mA).
  • Sensing distance (Sn): 3 m.
  • It has 3-wire cable for the receiver (black, blue, and brown), and 2-wire cable for the transmitter (blue and brown).

  • Gross Weight: 160 g
  • Number of packages: 1
  • Packages size: 11.0 x 8.2 x 5.6 cm

Videos

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Technical terms

  • Differences between PNP and NPN
  • Self-reflective photocells
  • VDC
  • Differences between NO and NC
  • Types of photoelectric sensors
  • Barrier Photocells
  • Reflective photocells with reflector
Differences between PNP and NPN
If we talk about industrial automation we will find different terms related to the design of the internal circuit and the type of transmitter. PNP and NPN are two so-called bipolar or called (BJTs) transistors. These transistors that are controlled by current allow basically the amplification of the same through the circuit. Both PNP and NPN have the same function, provide amplification of the currentAnd/or switching. The only difference between them is the way in which the current or energy is assigned to each of its connectors.
  • PNP (sinking or Pointing iN Proudly) is one of the types of transistors most used in electrical circuits, this type of transistor differs in that it receives positive voltage at its emitter terminal and negative voltage at its base terminal. Positive voltage to the transmitter allowsThe current flows from the emitter to the collector, since there is negative current to the base. As the voltage goes down from the base the transistor is on and conducts through the power at the output load.
  • NPN (Sourcing or Not Pointing iN) is another transistor, unlike the PNP it is faster in its switching, since it works with reference 0V, it has less immunity to the noise and a smaller fall of tenZion. This type of transistor works in a completely opposite way to PNP. The NPN transistor receives positive voltage at the collector terminal. This positive voltage allows current to flow through the collector to the emitter, as there is enough base voltage to power the transistor. As the current increases at the base, the transistor is activated more and more until it is completely driven from the collector to the emitter and encoderGo the circuit. The opposite happens when the voltage decreases from the base, until the current is so low that the transistor no longer leads through the collector to the emitter and shuts off.

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