Abstract: A power manager (106) and method for managing the power supplied to an electronic device is provided. Furthermore, a system wherein the power supplied to an electronic device is managed is provided. The power manager (106) is operative to monitor a hardware monitor (104) during a monitoring time period. The hardware monitor (104) is coupled to an electronic device (102). The electronic device (102) has a workload during operational use. The hardware monitor is operative to indicate the workload of the electronic device (102). The power manager is operative to control power supplied to the electronic device (102) in dependency on the monitoring.

Abstract: A method and system for responding to a request received at an object with a radio frequency identification (RFID) device is described. In one embodiment, a method for responding to a request received at an object with an RFID device is described. The method for responding to a request received at an object with an RFID device involves receiving a request at an RFID device, providing the request from the RFID device to a component of the object, and processing the request at the component of the object. Other embodiments are also described.

Abstract: A method and system for power management is provided. To control power supplied to a second electronic device (106), an electronic system (100) comprises a power management subsystem (110), a first electronic device (102); The power management subsystem (110) monitors the power consumed by the first electronic device (102) to control the power supplied to the second electronic device (106). A method for power management of a second electronic device (106) is provided. A power management subsystem (110) is provided.

Abstract: A method and system for responding to a request received at an object with a radio frequency identification (RFID) device is described. In one embodiment, a method for responding to a request received at an object with an RFID device is described. The method for responding to a request received at an object with an RFID device involves receiving a request at an RFID device, providing the request from the RFID device to a component of the object, and processing the request at the component of the object. Other embodiments are also described.

Abstract: An integrated circuit includes a plurality of processing modules coupled by a network. A first processing module communicates with a second processing module based on transactions. A first wrapper means associated to the second processing module buffers data from the second processing module to be transferred over the network until a first amount of data is buffered and then transfers the first amount of buffered data to the first processing module.

Abstract: A method for exchanging data between first and second functional units includes the following steps. In a first handshake procedure, data is exchanged corresponding to a communication thread selected by the first functional unit, while independently in a second handshake procedure, information relating to a status of at least one communication thread is exchanged from the second to the first functional unit. The information enables the first functional unit to anticipate the possibility of exchanging data for the at least one communication thread.

Abstract: The invention relates to an integrated circuit and to a method of arbitration in a network on an integrated circuit. According to the invention, a method of arbitration in a network on an integrated circuit is provided, the network comprising a router unit, the router unit comprising a first input port, a second input port and an output port, wherein the router unit receives at least one first packet via the first input port, and wherein the router unit receives at least one second packet via the second input port, the router unit arbitrating between the first packet and the second packet, characterized in that the step of arbitrating is performed using a first label and a second label, the first label being attached to the first packet, and the second label being attached to the second packet. This method relies on the perception that the arbitration performed by a router should be based on connection arbitration instead of input port arbitration.

Abstract: A method for exchanging data between first and second functional units includes the following steps. In a first handshake procedure, data is exchanged corresponding to a communication thread selected by the first functional unit, while independently in a second handshake procedure, information relating to a status of at least one communication thread is exchanged from the second to the first functional unit. The information enables the first functional unit to anticipate the possibility of exchanging data for the at least one communication thread.

Abstract: A power manager (106) and method for managing the power supplied to an electronic device is provided. Furthermore, a system wherein the power supplied to an electronic device is managed is provided. The power manager (106) is operative to monitor a hardware monitor (104) during a monitoring time period. The hardware monitor (104) is coupled to an electronic device (102). The electronic device (102) has a workload during operational use. The hardware monitor is operative to indicate the workload of the electronic device (102). The power manager is operative to control power supplied to the electronic device (102) in dependency on the monitoring.

Abstract: A method and system for power management is provided. To control power supplied to a second electronic device (106), an electronic system (100) comprises a power management subsystem (110), a first electronic device (102); The power management subsystem (110) monitors the power consumed by the first electronic device (102) to control the power supplied to the second electronic device (106). A method for power management of a second electronic device (106) is provided. A power management subsystem (110) is provided.

Abstract: An integrated circuit is provided comprising a plurality of master and slave modules and a network arranged for transferring messages between the modules, wherein a message issued by a master module comprises first information indicative for a location of a slave (addressed) module within the network, and second information indicative for a location within the addressed module. The integrated circuit further comprises at least one address translation means for arranging the first and the second information as a single address. The address translation means is adapted to determine which slave module is being addressed based on the single address, and the selected location of the slave (addressed) module is determined based on the single address. Accordingly, use of an address translation means for address mapping allows the design of the master modules to be implemented independent of address mapping.

Abstract: An electronic device is provided which comprises a plurality of processing units (IP; IP1-IP4), an interconnect (IPCU; N) for coupling the processing units (IP; IP1-IP4) to enable a communication between the processing units (IP; IP1-IP4) and at least one event monitor (EM) for detecting events in the communication in the electronic device. The electronic device furthermore comprises a first controller unit for controlling the interconnect (IPCU; N) according to one or more of the events detected by the at least one event monitor (EM).

Abstract: A data processing system and a method for synchronizing data traffic including a conversion unit which converts first data into second data. The first data is controlled by a first scheme for reservation of resources and the second data being controlled by a second scheme for reservation of resources. The conversion unit may be referred to as a network-level bridge (NWB) . For example, the different schemes for reservation of resources may be based on slot tables, in which case, the conversion unit converts the slot assignments for the first data into the slot assignments for the second data.

Abstract: An integrated circuit includes processing modules and an interconnect device for coupling the processing modules and for enabling a device-level communication based on transactions between the processing modules. A first processing module issues a transaction towards a second processing module. The integrated circuit further includes a transaction abortion unit for aborting the transaction issued from the first module by receiving an abort request issued by the first module, by initiating a discard of the transaction to be aborted, and by issuing a response indicating the success/failure of the requested transaction abortion.

Abstract: An integrated circuit, comprising a plurality of processing modules (M, S) is provided, wherein at least one first of said processing modules (M) requests at least one communication service to at least one second processing module (S) based on specific communication properties and at least one communication service identification. Furthermore, an interconnect means (N) is provided for coupling said plurality of processing modules (M, S) and for enabling a connection based communication having a set of connection properties. At least one network interface (NI) is associated to said at least one first of said processing modules (M) for controlling the communication between said at least one first of said plurality of processing modules (M) and said interconnect means (N).

Abstract: An electronic device is provided which comprises at least one sender (S0-S3) for transmitting data and at least one receiver (R) for receiving data. Furthermore, a network-based interconnect (N) is provided for coupling the at least one sender and the at least one receiver such that a data traffic from the sender is forwarded to the receiver. In addition, at least one separate shared dedicated control interconnect (CI) is coupled between the at least one sender (S0-S3) and the at least one receiver (R) for communicating flow control data between the sender and the receiver.

Abstract: An integrated circuit comprising a plurality of processing modules (M, S; IP) and a network (N) arranged for coupling said modules (M, S; IP) is provided. Said integrated circuit further comprises a plurality of network interfaces (NI) each being coupled between one of said processing modules (M, S; IP) and said network (N). Said network (N) comprises a plurality of routers (R) coupled via network links (L) to adjacent routers (R). Said processing modules (M, S; IP) communicate between each other over connections using connection paths (C1-C12) through the network (N), wherein each of said connection paths (C1-C12) employ at least one network link (L) for a required number of time slots. At least one time slot allocating unit (SA) is provided for allocating time slots to said network links (L) for determining unused time slots and for allocation the determined unused time slots to one or more of the connections using said network link in addition to its already allocated time slots.

Abstract: An integrated circuit having a plurality of processing modules (M, S) and an interconnect means (N) for coupling said plurality of processing modules (M, S) and for enabling a device-level communication based on transactions between said plurality of processing modules (M, S) is provided. At least one first processing module (M) issues at least one transaction towards at least one second processing module (S). Said integrated circuit comprise at least one transaction abortion unit (TAU) for aborting at least one transaction issued from said first module (M) by receiving an abort request (abt) issued by said first module (M), by initiating a discard of said at least one transaction to be aborted, and by issuing a response (abt ack) indicating the success/failure of the requested transaction abortion.

Abstract: In the method for controlling access of a plurality of requestors to a shared memory, the following steps are repeated for successive time-windows: receiving access requests from various requestors (S1), determining a type of access requested by the requests, comparing the requested access type with an access type authorized for a respective time-window according to a back-end schedule, generating a first selection of the incoming requests which have the prescribed access type for the relevant time-window, dynamically selecting one of the requests from the first selection.

Abstract: A method and system for power management is provided. To control power supplied to a second electronic device (106), an electronic system (100) comprises a power management subsystem (110), a first electronic device (102); The power management subsystem (110) monitors the power consumed by the first electronic device (102) to control the power supplied to the second electronic device (106). A method for power management of a second electronic device (106) is provided. A power management subsystem (110) is provided.