Abstract: Method for controlling the operation of a device for producing a particle foam component, wherein the device includes at least one function unit, which is controllable during its operation in respect of at least one target value. The method includes selecting, on the basis of at least one selection criterion, of a control parameter set from a data storage unit, in which a plurality of control parameter sets are stored, which each has at least one control parameter for controlling the operation of at least one function unit of the device in respect of at least one target value; and applying the at least one selected control parameter set to control the operation of the device, in particular to control the operation of the function unit of the device affected by the particular control parameter set.

Abstract: A cylindrical capacitor consists of a plurality of cylindrical winding elements which are stacked one on top of the other in the cylinder axial direction and have electrical contact surfaces on their end faces, the contact surfaces being connected to switching strips leading over the cylinder lateral surface and to at least one connection terminal in each case. Two substantially circular first and second connection discs are provided, which are adapted to the cylinder diameter and are electrically and mechanically isolated by an insulating element, wherein the first of the connection discs is electrically connected directly to a contact surface, lying in the direction of the connection terminal, of an upper cylindrical winding element.

Abstract: System for producing at least one particle foam molding from an expandable or expanded particle foam material, comprising: —a detection device which is configured to detect at least one item of resource information describing the current and/or future consumption of at least one resource, in particular a process fluid or an energy carrier, in a current and/or future operation of a molding machine and/or of a functional module, —a control device which is configured to control the operation of the molding machine and/or of the functional module on the basis of an item of resource information.

Abstract: A device for processing a particle foam material for producing a particle foam moulded part, comprising: at least one die apparatus, comprising a first die element and at least one additional die element, wherein the first die element is mounted so as to be movable along a movement axis relative to the at least one additional die element and/or the at least one additional die element is mounted so as to be movable along the or at least one movement axis relative to the first die element; at least one drive apparatus which is or can be assigned to the at least one die apparatus and is configured for generating and/or transmitting a drive force that sets the first die element and/or the at least one additional die element into a movement along the movement axis, wherein the least one drive apparatus is designed as or comprises a linear-drive apparatus.

Abstract: The invention relates to a cylindrical capacitor, consisting of a plurality of cylindrical winding elements which are stacked one on top of the other in the cylinder axial direction and have electrical contact surfaces on their end faces, said contact surfaces being connected to switching strips leading over the cylinder lateral surface and to at least one connection terminal in each case. According to the invention, two substantially circular first and second connection discs are provided, which are adapted to the cylinder diameter and are electrically and mechanically isolated by an insulating element, wherein the first of the connection discs is electrically connected directly to a contact surface, lying in the direction of the connection terminal, of an upper cylindrical winding element.

Abstract: A method for processing particle foam material for producing a particle foam molding includes generating a first process fluid flow which flows through a mold cavity defined by two mold elements, wherein the first process fluid flow flows into the mold cavity via at least one opening of a first mold element and flows out of the mold cavity via at least one opening of a second mold element. The method also includes generating a second process fluid flow, wherein the second process fluid flow flows into the second mold element via at least one opening of the second mold element and flows out of the second mold element via at least one opening of the second mold element, wherein the first and the second process fluid flow differ in at least one flow parameter that influences the flow properties.

Abstract: A method for filling a mold cavity of a mold for producing a particle foam molding using particle foam material includes providing particle foam material, to be processed in a mold cavity of a mold for producing a particle foam molding, via at least one filling container device, wherein there is a first pressure level in the filling container device. The method also includes providing a mold cavity which is to be filled with a particle foam material that is to be processed for producing the or a particle foam molding, wherein there is a second pressure level in the mold cavity, and filling the mold cavity with particle foam material from the filling container device, wherein during the filling of the mold cavity a difference between the first pressure level and the second pressure level is purposefully varied by at least one measure for varying the difference between the first pressure level and the second pressure level.

Abstract: System for producing at least one particle foam molding from an expandable or expanded particle foam material, comprising: —a detection device which is configured to detect at least one item of resource information describing the current and/or future consumption of at least one resource, in particular a process fluid or an energy carrier, in a current and/or future operation of a molding machine and/or of a functional module, —a control device which is configured to control the operation of the molding machine and/or of the functional module on the basis of an item of resource information.

Abstract: Method for controlling the operation of a device for producing a particle foam component, wherein the device includes at least one function unit, which is controllable during its operation in respect of at least one target value. The method includes selecting, selection, on the basis of at least one selection criterion, of a control parameter set from a data storage unit, in which a plurality of control parameter sets are stored, which each has at least one control parameter for controlling the operation of at least one function unit of the device in respect of at least one target value; and applying the at least one selected control parameter set to control the operation of the device, in particular to control the operation of the function unit of the device affected by the particular control parameter set.

Abstract: For each target cell determined by a handover decision process, a first message is transmitted from a source base station (20S) to a target base station (20T) servicing that target cell. The first message includes an identifier of a wireless device (10) having a communication link with the source base station and information for obtaining authentication data for this wireless device. The authentication data depends on a secret key available to the wireless device and the source base station and on an identity of the target cell. Upon failure of the communication link, a cell is selected at the wireless device, which transmits to that cell a reestablishment request message including its identifier and authentication data depending on the secret key and on an identity of the selected cell.

Abstract: A device for processing a particle foam material for producing a particle foam moulded part, comprising: at least one die apparatus, comprising a first die element and at least one additional die element, wherein the first die element is mounted so as to be movable along a movement axis relative to the at least one additional die element and/or the at least one additional die element is mounted so as to be movable along the or at least one movement axis relative to the first die element; at least one drive apparatus which is or can be assigned to the at least one die apparatus and is configured for generating and/or transmitting a drive force that sets the first die element and/or the at least one additional die element into a movement along the movement axis, wherein the least one drive apparatus is designed as or comprises a linear-drive apparatus.

Abstract: For each target cell determined by a handover decision process, a first message is transmitted from a source base station (20S) to a target base station (20T) servicing that target cell. The first message includes an identifier of a wireless device (10) having a communication link with the source base station and information for obtaining authentication data for this wireless device. The authentication data depends on a secret key available to the wireless device and the source base station and on an identity of the target cell. Upon failure of the communication link, a cell is selected at the wireless device, which transmits to that cell a reestablishment request message including its identifier and authentication data depending on the secret key and on an identity of the selected cell.

Abstract: For each target cell determined by a handover decision process, a first message is transmitted from a source base station (20S) to a target base station (20T) servicing that target cell. The first message includes an identifier of a wireless device (10) having a communication link with the source base station and information for obtaining authentication data for this wireless device. The authentication data depends on a secret key available to the wireless device and the source base station and on an identity of the target cell. Upon failure of the communication link, a cell is selected at the wireless device, which transmits to that cell a reestablishment request message including its identifier and authentication data depending on the secret key and on an identity of the selected cell.

Abstract: For each target cell determined by a handover decision process, a first message is transmitted from a source base station (20S) to a target base station (20T) servicing that target cell. The first message includes an identifier of a wireless device (10) having a communication link with the source base station and information for obtaining authentication data for this wireless device. The authentication data depends on a secret key available to the wireless device and the source base station and on an identity of the target cell. Upon failure of the communication link, a cell is selected at the wireless device, which transmits to that cell a reestablishment request message including its identifier and authentication data depending on the secret key and on an identity of the selected cell.

Abstract: For each target cell determined by a handover decision process, a first message is transmitted from a source base station (20S) to a target base station (20T) servicing that target cell. The first message includes an identifier of a wireless device (10) having a communication link with the source base station and information for obtaining authentication data for this wireless device. The authentication data depends on a secret key available to the wireless device and the source base station and on an identity of the target cell. Upon failure of the communication link, a cell is selected at the wireless device, which transmits to that cell a reestablishment request message including its identifier and authentication data depending on the secret key and on an identity of the selected cell.

Abstract: The method provides buffer status reporting for the transmission of uplink data from a wireless device to a base station. Uncompressed data is stored in a first buffer of the wireless device. A buffer status report is transmitted from the wireless device to the base station, where the buffer status report contains information indicating an amount of the uncompressed data to be transmitted from the wireless device. The information is dependent on the amount of the uncompressed data stored in the first buffer.

Abstract: The method provides buffer status reporting for the transmission of uplink data from a wireless device to a base station. Uncompressed data is stored in a first buffer of the wireless device. A buffer status report is transmitted from the wireless device to the base station, where the buffer status report contains information indicating an amount of the uncompressed data to be transmitted from the wireless device. The information is dependent on the amount of the uncompressed data stored in the first buffer.

Abstract: The method provides buffer status reporting for the transmission of uplink data from a wireless device to a base station. Uncompressed data is stored in a first buffer of the wireless device. A buffer status report is transmitted from the wireless device to the base station, where the buffer status report contains information indicating an amount of the uncompressed data to be transmitted from the wireless device. The information is dependent on the amount of the uncompressed data stored in the first buffer.

Abstract: A method for generating an uplink transmission burst includes using one or more symbols to define the uplink transmission burst, and forming a preamble portion and a payload portion for the uplink transmission burst. The preamble portion is formed using at least a portion of one or more of the symbols, such that the preamble portion includes a signature that is defined in a predetermined signature set. The payload portion is formed using at least a portion of one or more of the symbols. Typically, at least a portion of the preamble portion and at least a portion of the payload portion are formed using the same symbol.

Abstract: In a wireless mobile communications system, the system information is grouped or classified in different types according to the characteristics of the system information, and the system information is transmitted to channels with specific functions that allow the optimization of the resource usage and the reception by the User Equipment (UE).