A system arranged to transfer graphical images on objects (8) wrapped into transfer supports (2) by sublimation. The system comprises an oven (12) comprising an inlet mouth (21) and an outlet mouth (23), at least one suction unit (14) located along at least one side of the oven (12), a plurality of hooking/unhooking components (50) located along at least one side of the oven (12) and arranged to hook/unhook the objects (8) wrapped by the transfer supports (2), at least one catenary (18) located along at least one side of the oven (12) and arranged to transport the objects (8) wrapped into transfer supports (2) from the inlet mouth (21) to the outlet mouth (23) of the oven (12) by way of the hooking/unhooking components (50). The system further comprises at least one separation wall (71), configured to keep separate a hot zone, in which the oven (12) is active and the hooking/unhooking components (50) are provided, from a cold zone in which the oven (12) is not working and the at least one the catenary (18) and the at least one suction unit (14) are provided. Moreover, the system comprises a handling device (25) configured to move transversely to the inlet mouth (21) and to the outlet mouth (23) of the oven (12) the at least one suction unit (14), the at least one catenary (18) turd the plurality of hooking/unhooking components (50) so that the separation wall (71) keeps separate the hot zone from the cold zone according to the dimensions of objects (8) wrapped by the transfer supports (2). The invention also concerns a method for realizing the system.

A nozzle system for a band floating system for floatingly guiding a band-shaped material having a nozzle body having a front edge area and a rear edge area opposite to the front edge area, a front gas nozzle arrangement arranged at the front edge area, a rear gas nozzle arrangement arranged at the rear edge area, and a nozzle arrangement arranged, in the conveying direction, in front of the front gas nozzle arrangement and/or behind the rear gas nozzle arrangement such that a liquid fluid is flowable in a fluid jet into a nozzle floating field in the direction towards a band running plane for temperature-controlling the band-shaped material.

A furnace for producing a secondary battery cathode material according to an exemplary embodiment of the present invention includes; a chamber of which the internal space is heated by a heater; a conveyer installed in the chamber and conveying a sagger containing raw material power of a cathode material of a secondary battery in one direction; and a gas supply nozzle and an exhaust port installed in the chamber.

The chamber is divided into a front chamber, an intermediate chamber, and a rear chamber. The intermediate chamber has an inlet shutter and an outlet shutter for sealing the internal space thereof, and an exhaust port of the intermediate chamber is connected to an exhaust device for discharging gas.

Systems and methods for annealing, carburizing and/or other treatments of metallic articles include a retort furnace having a retort. The metallic articles are fed into a chamber of the retort through an inlet section of the retort and are subjected to heating. The retort is oscillated and/or rotated back and forth as the metallic articles are heated, causing the metallic articles to be moved along the chamber of the retort to a discharge.

Systems and methods for annealing, carburizing and/or other treatments of metallic articles include a retort furnace having a retort. The metallic articles are fed into a chamber of the retort through an inlet section of the retort and are subjected to heating. The retort is oscillated and/or rotated back and forth as the metallic articles are heated, causing the metallic articles to be moved along the chamber of the retort to a discharge.

A roller hearth furnace, in particular a tunnel furnace of a thin-slabbing plant, including multiple cooled furnace rollers arranged in a mutually spaced manner in the transport direction in order to transport a strip or a slab have a number of support rings on a rotatably mounted axle and are formed with an insulation in the axial region between two adjacent support rings and adjacently to the respective outer support rings. The insulation is a highly insulating fiber material. Scale funnels are arranged below the furnace rollers. Scale barriers that extend transversely to the transport direction in the manner of the furnace rollers are provided in the free areas between each two successive furnace rollers in the transport direction.

A roller for a roller hearth furnace, the roller including a water-cooled, rotatably mounted carrying axle on which a plurality of support rings are arranged at a spacing from one another. In the axial region between and next to the support rings, the carrying axle is provided with insulation composed of a fiber material and configured with protection of the outer circumference of the fiber material from the environment. In the case of insulation constructed from ring-shaped punched parts, the insulation arranged in the axial region between and next to the support rings is composed of circular or ring-shaped punched fiber parts. The protection is configured as ring-shaped insulating disks composed of a more resistant material than that of the punched fiber parts, and at least one punched fiber part is provided in each case between two insulating disks.

Disclosed is a thermal reduction apparatus. The thermal reduction apparatus according to the exemplary embodiment includes: a preheating unit which preheats a to-be-reduced material and loads the to-be-reduced material into a reducing unit; the reducing unit which is connected to the preheating unit and in which a thermal reduction reaction of the to-be-reduced material occurs; a cooling unit which is connected to the reducing unit and from which the to-be-reduced material flowing into the cooling unit is unloaded to the outside; a gate device which is installed between the preheating unit and the reducing unit; a gate device which is installed between the reducing unit and the cooling unit; a condensing device which is connected to the reducing unit and condenses a metal vapor; a first blocking unit which is installed in the reducing unit; and a second blocking unit which is installed in the reducing unit so as to be spaced apart from the first blocking unit.

A tunnel oven and associated method for the heat treatment of friction elements, and in particular of braking elements such as brake pads is provided. The friction elements are arranged on a resting surface of a conveyor device, are moved between an inlet opening and an outlet opening of the tunnel oven, and are heated by irradiation by at least one heating device. The heating device includes a radiating plate made from stainless steel arranged facing the conveyor device and heated by electromagnetic induction by means of at least one inductor arranged facing the radiating plate and spaced apart therefrom on the side opposite to the conveyor device. A cooling air flow for the braking elements between the resting surface and the radiating plate is directed in counterflow to a feeding direction of the conveyor device.

A tunnel oven and associated method for the heat treatment of friction elements, and in particular of braking elements such as brake pads is provided. The friction elements are arranged on a resting surface of a conveyor device, are moved between an inlet opening and an outlet opening of the tunnel oven, and are heated by irradiation by at least one heating device. The heating device includes a radiating plate made from stainless steel arranged facing the conveyor device and heated by electromagnetic induction by means of at least one inductor arranged facing the radiating plate and spaced apart therefrom on the side opposite to the conveyor device. A cooling air flow for the braking elements between the resting surface and the radiating plate is directed in counterflow to a feeding direction of the conveyor device.