Abstract: The invention relates to an optoelectronic sensor having a transmitter (12) for the transmission of transmitted light (22), a receiver (14) for the reception of the transmitted light (28) and for the provision of an electronic received signal (I), an evaluation unit (16) for the recording of the received signal (I) and for the outputting of a detection signal when an opaque object (36) to be detected enters into the transmitted light beam.

Abstract: An optoelectronic sensor (10) is provided having a transmitter (12) for operating light, a light receiver (14) for the generation of an electrical received signal from incident light and an evaluation unit (16) which can detect an object in the beam path from the transmitter (12) for operating light to the light receiver (14) from the received light, wherein a first alignment light transmitter (13a) is provided. In this respect, a second alignment transmitter (13b) is provided, with the first alignment light transmitter (13a) and the second alignment light transmitter (13b) being able to be individually activated and the evaluation unit (16) being designed to determine alignment information on the adjustment of the sensor (10) from a received first alignment signal of the light receiver (14) with an activated first alignment light transmitter (13a) and from a received second alignment signal of the light receiver (14) with an activated second alignment light transmitter (13b).

Abstract: The invention relates to an optoelectronic sensor having a transmitter (12) for the transmission of transmitted light (22), a receiver (14) for the reception of the transmitted light (28) and for the provision of an electronic received signal (I), an evaluation unit (16) for the recording of the received signal (I) and for the outputting of a detection signal when an opaque object (36) to be detected enters into the transmitted light beam.

Abstract: An optoelectronic sensor (10) is provided having a transmitter (12) for operating light, a light receiver (14) for the generation of an electrical received signal from incident light and an evaluation unit (16) which can detect an object in the beam path from the transmitter (12) for operating light to the light receiver (14) from the received light, wherein a first alignment light transmitter (13a) is provided. In this respect, a second alignment transmitter (13b) is provided, with the first alignment light transmitter (13a) and the second alignment light transmitter (13b) being able to be individually activated and the evaluation unit (16) being designed to determine alignment information on the adjustment of the sensor (10) from a received first alignment signal of the light receiver (14) with an activated first alignment light transmitter (13a) and from a received second alignment signal of the light receiver (14) with an activated second alignment light transmitter (13b).

Abstract: The invention relates to n optoelectronic sensor having a transmitter (12) for the transmission of a transmitted light beam (22) which is extended perpendicular to the detection direction by means of an optical transmission system (24) and a receiver (14) for the reception of received light (28) and for the provision of an electronic received signal, and an evaluation unit (16) for the recording of the received signal and for the outputting of an object detection signal, wherein at least the transmitter (12) and the optical transmission system (24) are arranged in a sensor housing (18) having a front screen (20). To provide an improved sensor which is inexpensive and nevertheless generates a linear transmitted light of high quality, it is proposed that the front screen (20) is overlaid with patterns (40) of light absorbing material for light intensity homogenization in a region (21S) through which the transmitted light (22) passes and/or in a region (21E) through which the received light (28) passes.

Abstract: The invention relates to an outdoor sealing end (8) which is elevated on one side. Means (18) for fixing the cable (10) are designed on the base fittings (20). An electric duct (32) is situated inside the sealing end. Additional, conventional means for electrically connecting the cable shield to the earth potential and means for the field control (field control body 33) and the insulation on the inhomogeneous potential transitions on the cable end are provided. The electric duct (32) that is embodied as a pipe or pin is connected to the cable conductor (12) by means of contact elements (42). The duct (32), the insulating body (50) and the top fittings (70) form an assembly unit. The surface of the sealing end is coated with a voltage-dependent field-controlling layer (64).

Abstract: An outdoor terminal is mounted at one end on a pylon. A base armature is provided fastened to a cable with an electrical feedthrough to the interior of the terminal. The cable terminal is electrically connected to a ground potential and includes a field control element and isolations at inhomogeneous potential transitions on the cable end. The electrical feedthrough is configured as a tube or a pin and is connected to the cable conductor via contract elements. The feedthrough, the insulators and the head armature form one assembly unit.

Abstract: The invention relates to an outdoor terminal (8) to be mounted with one end on a pylon. The base armature (20) is provided with means (18) for fastening the cable (10) and with an electrical feedthrough (32) to the interior of the terminal. The cable terminal comprises other conventional means for electrically connecting the cable protecting device to ground potential, means for field control (field control element (33)) and isolations at the inhomogeneous potential transitions on the cable end. The electrical feedthrough (32) that is configured as a tube or a pin is connected to the cable conductor (12) via contact elements (42). The feedthrough (32), the insulators (50) and the head armature (70) form one assembly unit.

Abstract: The invention relates to an outdoor sealing end (8) which is elevated on one side. Means (18) for fixing the cable (10) are designed on the base fittings (20). An electric duct (32) is situated inside the sealing end. Additional, conventional means for electrically connecting the cable shield to the earth potential and means for the field control (field control body 33) and the insulation on the inhomogeneous potential transitions on the cable end are provided. The electric duct (32) that is embodied as a pipe or pin is connected to the cable conductor (12) by means of contact elements (42). The duct (32), the insulating body (50) and the top fittings (70) form an assembly unit. The surface of the sealing end is coated with a voltage-dependent field-controlling layer (64).