Abstract: A roll exchange chamber for exchanging a substrate roll is described. The roll exchange chamber includes a rotatable base construction being rotatable around a central axis. The base construction comprises a first roll holder for holding a first substrate roll, a second roll holder for holding a second substrate roll, and a wall for providing a first compartment and a second compartment in the roll exchange chamber. The wall is arranged between the first roll holder and the second roll holder. Further, a roll-to-roll processing system with a roll exchange chamber as well as a method of continuously providing a flexible substrate in a roll-to-roll processing system are described.

Abstract: A method (100) of cooling a deposition source (200) is described. The method includes stopping (110) depositing material from the deposition source, the deposition source being arranged in a deposition chamber (250), and introducing (120) a cooling gas into the deposition chamber (250), the cooling gas comprising a thermal conductivity ? of ??0.05 [W/(m*K)]. Further, a chamber for cooling a deposition source is described. The chamber includes a deposition source being arranged in the chamber. Further, the chamber includes a cooling gas supply system configured for providing a cooling gas into the chamber, the cooling gas comprising a thermal conductivity ? of ??0.05 [W/(m*K)].

Abstract: Methods and apparatuses for processing lithium batteries with a laser source having a wide process window, high efficiency, and low cost are provided. The laser source is adapted to achieve high average power and a high frequency of picosecond pulses. The laser source can produce a line-shaped beam either in a fixed position or in scanning mode. The system can be operated in a dry room or vacuum environment. The system can include a debris removal mechanism, for example, inert gas flow, to the processing site to remove debris produced during the patterning process.

Abstract: A roller for transporting a flexible substrate is described. The roller includes a main body having a plurality of gas supply slits provided in an outer surface of the main body. The plurality of gas supply slits extends in a direction of a central rotation axis of the roller. Further, the roller includes a sleeve provided circumferentially around and in contact with the main body. The sleeve has a plurality of gas outlets being provided above the plurality of gas supply slits. Further, the sleeve includes a metal layer embedded within isolating material.

Abstract: An AC power connector for connecting an AC power supply with a device is provided. The AC power connector includes at least one first element connectable with the AC power supply and at least one second element connectable with the device, the first element and the second elements being arranged at a first distance with respect to each other for defining a capacitance, wherein the at least one first element and the at least one second element are rotatable with respect to each other, wherein the first element and the second element are configured for a transfer of an AC power between the at least one first element and the at least one second element.

Abstract: A method (100) of cooling a deposition source (200) is described. The method includes stopping (110) depositing material from the deposition source, the deposition source being arranged in a deposition chamber (250), and introducing (120) a cooling gas into the deposition chamber (250), the cooling gas comprising a thermal conductivity ? of ??0.05 [W/(m*K)]. Further, a chamber for cooling a deposition source is described. The chamber includes a deposition source being arranged in the chamber. Further, the chamber includes a cooling gas supply system configured for providing a cooling gas into the chamber, the cooling gas comprising a thermal conductivity ? of ??0.05 [W/(m*K)].

Abstract: A method for controlling a gas supply to a process chamber is provided. The method includes: measuring a gas parameter by each of two or more sensors provided in the process chamber; determining a combined gas parameter from the measured gas parameters; and controlling the gas supply to the process chamber based on the determined combined gas parameter.

Abstract: A method for controlling a gas supply to a process chamber is provided. The method includes: measuring a gas parameter by each of two or more sensors provided in the process chamber; determining a combined gas parameter from the measured gas parameters; and controlling the gas supply to the process chamber based on the determined combined gas parameter.

Abstract: An AC power connector for connecting an AC power supply with a device is provided. The AC power connector includes at least one first element connectable with the AC power supply and at least one second element connectable with the device, the first element and the second elements being arranged at a first distance with respect to each other for defining a capacitance, wherein the at least one first element and the at least one second element are rotatable with respect to each other, wherein the first element and the second element are configured for a transfer of an AC power between the at least one first element and the at least one second element.

Abstract: A method for controlling a gas supply to a process chamber is provided. The method includes: measuring a gas parameter by each of two or more sensors provided in the process chamber; determining a combined gas parameter from the measured gas parameters; and controlling the gas supply to the process chamber based on the determined combined gas parameter.

Abstract: A deposition apparatus and a method for depositing deposition material on a web is described. The deposition apparatus includes a first sputter device support defining a first axis for a first rotatable sputter device, a second sputter device support defining a second axis for a second rotatable sputter device, and a coating window. The first sputter device support and the second sputter device support are adapted for supporting the first rotatable sputter device and the second rotatable sputter device to provide at least a component of the deposition material to be deposited on the web over a coating drum. Further, the distance between the first axis and the second axis is smaller than 200 mm.

Abstract: It is provided a device for supporting a rotatable target of a deposition apparatus for sputtering material onto a substrate, wherein the device includes a drive unit for rotating the rotatable target; a ring-shaped part connected to the drive unit for attaching the drive unit to the rotatable target; and, a shield for covering the ring-shaped part. The shield is adapted for rotating together with the ring-shaped part and includes a plurality of parts assembled together. Furthermore, a sputtering apparatus and a method for supporting a rotatable target are provided.

Abstract: It is provided a device for supporting a rotatable target of a deposition apparatus for sputtering material onto a substrate, wherein the device includes a drive unit for rotating the rotatable target; a ring-shaped part connected to the drive unit for attaching the drive unit to the rotatable target; and, a shield for covering the ring-shaped part. The shield is adapted for rotating together with the ring-shaped part and includes a plurality of parts assembled together. Furthermore, a sputtering apparatus and a method for supporting a rotatable target are provided.

Abstract: An end-block and a deposition apparatus including an end-block are provided. The end-block includes a base body which is adapted to be connected to the deposition apparatus in a non-rotational manner. The end-block further includes a rotary bearing arranged around the base body and a rotor which is arranged around the rotary bearing and adapted to receive a rotatable target.

Abstract: A device for supporting a rotatable target and deposition apparatus having such a device are provided. The device includes a main body, a first fluid conduit in the main body for receiving a fluid from the rotatable target, and a second fluid conduit in the main body for providing the fluid to the rotatable target. The projections of the first fluid conduit and the second fluid conduit onto a projection plane that extends in the direction of the rotational axis of the rotatable target overlap each other.

Abstract: The present disclosure relates to a method for producing an indium-tin-oxide layer, comprising: providing a substrate to be coated in a sputtering chamber; providing a rotatable non-bonded target around a backing tube for coating the substrate in the sputtering chamber; and sputtering the material from the target in an atmosphere containing an O2/H2 mixture. Further the present disclosure relates to a sputtering system comprising a sputtering chamber having at least one gas inlet and being adapted for at least one backing tube for a non-bonded rotatable target, a control device adapted to control the flow through the gas inlet, wherein the control device is adapted to control the at least one gas inlet such that a coating on a substrate using a sputtering process is performed in an atmosphere containing an O2 /H2 mixture in the sputtering chamber for forming an indium-tin-oxide layer.

Abstract: The application concerns a target backing tube for a rotatable cylindrical target assembly comprising: a tube for at least one target element to be disposed there around, wherein the tube has an exterior surface adapted to face the at least one target element, wherein a portion of the exterior surface of the tube has a mean emissivity of 0.7 to 1, wherein the portion is at least 50% of the exterior surface of the tube. Further, the application concerns a cooling shield for a sputtering system comprising a rotatable target, the cooling shield has an interior surface adapted to face a target element of a sputtering system and an exterior surface; wherein a portion of the interior surface of the cooling shield has a mean emissivity of 0.7 to 1, wherein the portion is at least 50% of the interior surface of the cooling shield.

Abstract: A target backing tube is described. The target backing tube is for a rotatable target and includes a tube adapted for one or more non-bonded target cylinders to be disposed around the tube, the tube having an exterior surface adapted to face the at least one target cylinder and at least three or more protrusion receiving positions; and protrusions mounted on the exterior surface of the tube at each of the protrusion receiving positions for centering the target cylinders.

Abstract: The present application concerns a target backing tube for a rotatable cylindrical target assembly comprising: a tube for at least one target element to be disposed there around, wherein the tube has an exterior surface adapted to be directed to the at least one target element; and a thermal reflection cover covering a portion of at least 20% of the exterior surface of the tube. Further, the present application concerns a rotatable cylindrical target assembly comprising: said target backing tube and at least one target element disposed around the target backing tube, wherein the thermal reflection cover disposed between the target backing tube and the at least one target element.