Abstract:
A testing device includes a receiving unit for electromagnetic signals arranged on a carrier element to be tested to generate test data from received electromagnetic radiation. The test data are evaluated in a processing system in order to determine a deviation of the test data from a nominal state of the carrier element. The testing device is used to test a carrier element of an elevator installation on which the elevator car is suspended.
Abstract:
An elevator includes a car, a counterweight, a suspension working together with the car and the counterweight, and a wheel at least partially wound around by the suspension, wherein the suspension comprises a tie beam arrangement made of two tie beams and a shell encasing the tie beam arrangement, said shell comprising a longitudinal structure in an area of an outer surface partially winding around the wheel, and wherein the ratio of the width of the suspension to the height thereof is greater than one and less than or equal to three. The wheel comprises a groove for guiding the suspension on the sides, in which the suspension is at least partially received, and the groove floor thereof being formed flat. The shell is coated, at least in areas, on the outer surface thereof, wherein the coating optionally has a friction-reducing, friction-increasing, and/or wear-reducing effect.
Abstract:
An elevator installation contains an elevator car (12) that is arranged movably between floors (S1, S2) in an elevator hoistway (11). The elevator car (12) has a car door (14), and the elevator hoistway (11) has on the each floor (S1, S2) a hoistway door (13). Assigned to the car door (14), or to the hoistway door (13), is a sill-section (16). To draw attention to a gap (30), or give a warning of a step, between elevator car (12) and floor (S1, S2), it is proposed to arrange in the sill-section (16) of the elevator car (12), or of the floor (S1, S2), at least one light module (20, 21, 22).
Abstract:
An elevator installation contains an elevator car (12) that is arranged movably between floors (S1, S2) in an elevator hoistway (11). The elevator car (12) has a car door (14), and the elevator hoistway (11) has on the each floor (S1, S2) a hoistway door (13). Assigned to the car door (14), or to the hoistway door (13), is a sill-section (16). To draw attention to a gap (30), or give a warning of a step, between elevator car (12) and floor (S1, S2), it is proposed to arrange in the sill-section (16) of the elevator car (12), or of the floor (S1, S2), at least one light module (20, 21, 22).
Abstract:
The automatically operated door is controlled in dependence upon the presence and movement conditions of one or more persons present on a support surface within a predeterminate space on a predetermined side of the automatically operated door. A radiation source, particularly an infrared radiation source emits a radiation field along and at a predetermined height above the support surface so that the at least one person present on the support surface is irradiated and infrared reflections originate from the at least one irradiated person. The infrared reflection is received at an active imaging device such as, for example, an infrared camera. Such imaging device contains a liquid crystal display (LCD) unit with an associated microshutter and a linear image sensor arranged in a plane extending substantially parallel to the plane of the liquid crystal display unit. Data representative of the infrared reflection images are processed in a programmable evaluation and control unit with respect to the contour representative of the at least one person and with respect to temporal variations in the reflection images. The recognition capability of the apparatus can be improved by alternatingly producing optical reflection images and infrared reflection images.