Abstract: A system, method and a computer program product for performing the method are provided. The system includes a communication device installed in a vehicle, wherein the communication device is configured to receive a wireless network broadcast message including target criteria other than a network identifier, and output the broadcast message to a user if the communication device satisfies the target criteria. The method includes determining a current location of a first mobile communication device, and the first device sending a message containing target criteria associated with a target vehicle over a wireless data network, wherein the target criteria does not include a network identifier. The method further includes broadcasting the message containing the target criteria over a geographically-specific area including the current location of the first mobile communication device, wherein only a second mobile communication device satisfying the target criteria will receive and display the message.

Abstract: Method and computer program product for using an RFID antenna of a cooking appliance to read a plurality of cooking instruction sets from a single RFID tag associated with a food product that is positioned to be cooked by the cooking appliance. The cooking appliance selects one of the plurality of cooking instruction sets that the cooking appliance is capable of performing. Furthermore, the cooking appliance may then automatically cook the food product by controlling the cooking appliance according to the selected cooking instruction set. The selection of a cooking instruction set may consider the temperature of the food product or a determination whether the food product is frozen. Alternatively, cooking appliance settings may be interpolated between two cooking instruction sets or calculated on the basis of physical property information about the food product.

Abstract: Methods, apparatus, and products are disclosed for optimizing a physical data communications topology between a plurality of computing nodes, the physical data communications topology including physical links configured to connect the plurality of nodes for data communications, that include carrying out repeatedly at a predetermined pace: detecting network packets transmitted through the links between each pair of nodes in the physical data communications topology, each network packet characterized by one or more packet attributes; assigning, to each network packet, a packet weight in dependence upon the packet attributes for that network packet; determining, for each pair of nodes in the physical data communications topology, a node pair traffic weight in dependence upon the packet weights assigned to the network packets transferred between that pair of nodes; and reconfiguring the physical links between each pair of nodes in dependence upon the node pair traffic weights.

Abstract: Methods, apparatus, and products are disclosed for optimizing a physical data communications topology between a plurality of computing nodes, the physical data communications topology including physical links configured to connect the plurality of nodes for data communications, that include carrying out repeatedly at a predetermined pace: detecting network packets transmitted through the links between each pair of nodes in the physical data communications topology, each network packet characterized by one or more packet attributes; assigning, to each network packet, a packet weight in dependence upon the packet attributes for that network packet; determining, for each pair of nodes in the physical data communications topology, a node pair traffic weight in dependence upon the packet weights assigned to the network packets transferred between that pair of nodes; and reconfiguring the physical links between each pair of nodes in dependence upon the node pair traffic weights.

Abstract: Methods, apparatus, and products are disclosed for optimizing a physical data communications topology between a plurality of computing nodes, the physical data communications topology including physical links configured to connect the plurality of nodes for data communications, that include carrying out repeatedly at a predetermined pace: detecting network packets transmitted through the links between each pair of nodes in the physical data communications topology, each network packet characterized by one or more packet attributes; assigning, to each network packet, a packet weight in dependence upon the packet attributes for that network packet; determining, for each pair of nodes in the physical data communications topology, a node pair traffic weight in dependence upon the packet weights assigned to the network packets transferred between that pair of nodes; and reconfiguring the physical links between each pair of nodes in dependence upon the node pair traffic weights.

Abstract: Methods, apparatus, and products for detecting an increase in thermal resistance of a heat sink in a computer system, the heat sink dissipating heat for a component of the computer system, the computer system including a fan controlling airflow across the heat sink, the computer system also including a temperature monitoring device, including: measuring, by a monitoring module through use of the temperature monitoring device during operation of the computer system, thermal resistance of the heat sink; determining whether the measured thermal resistance of the heat sink is greater than a threshold thermal resistance, the threshold thermal resistance stored in a thermal profile in non-volatile memory, and if the measured thermal resistance of the heat sink is greater than the threshold thermal resistance, notifying a system administrator.

Abstract: A design structure embodied in a machine readable storage medium for designing, manufacturing, and/or testing a memory switching data processing system is provided. The memory switching data processing system includes one or more central processing units (‘CPUs’); random access memory organized in at least two banks of memory modules; one or more memory buses providing communications paths for data among the CPUs and the memory modules; and a flexibly configurable memory bus switch comprising a first configuration adapting the first CPU to a first bank of memory modules and a second CPU to a second bank of memory modules and a second configuration adapting the first CPU to both the first bank of memory modules and the second bank of memory modules.

Abstract: A memory switching data processing system including one or more central processing units (‘CPUs’); random access memory organized in at least two banks of memory modules; one or more memory buses providing communications paths for data among the CPUs and the memory modules; and a flexibly configurable memory bus switch comprising a first configuration adapting the first CPU to a first bank of memory modules and a second CPU to a second bank of memory modules and a second configuration adapting the first CPU to both the first bank of memory modules and the second bank of memory modules.

Abstract: Method and computer program product for using an RFID antenna of a cooking appliance to read a plurality of cooking instruction sets from a single RFID tag associated with a food product that is positioned to be cooked by the cooking appliance. The cooking appliance selects one of the plurality of cooking instruction sets that the cooking appliance is capable of performing. Furthermore, the cooking appliance may then automatically cook the food product by controlling the cooking appliance according to the selected cooking instruction set. The selection of a cooking instruction set may consider the temperature of the food product or a determination whether the food product is frozen. Alternatively, cooking appliance settings may be interpolated between two cooking instruction sets or calculated on the basis of physical property information about the food product.

Abstract: Methods, systems and computer program products for packet prioritization based on delivery time expectation. Exemplary embodiments include receiving a packet for routing, estimating a TimeToDestination for the packet, the estimating performed by a Internet Control Message Protocol, reading a TimeToDeliver field from each the Internet Protocol Header of the packet to extract data on when the packet needs to be at the destination, determining a MaxQueueDelay for the packet, the MaxQueueDelay calculated by subtracting the TimeToDeliver from the TimeToDestination, passing a lower priority packet if the lower priority packet has a lower MaxQueueDelay, and decrementing the TimeToDeliver by an amount of time the network router has had the packet in the queue before passing the packet to a next router, thereby communicating to the next router how much time is left before the packet must be delivered.

Abstract: A scalability card for use with a plurality of computer blades. The computer blades are releasably securable in a parallel configuration, wherein each blade includes a circuit board and a processor operatively coupled to the circuit board. Each processor is in electronic communication with a scalability connector on a floating plate that is loosely secured to the computer blade. Furthermore, each scalability connector is preferably disposed in a common plane extending perpendicular to the plurality of parallel computer blades. The scalability card includes a plurality of electronically interconnected scalability connectors arranged for rough alignment with the scalability connectors of each computer blade. In addition, the scalability card preferably includes at least one alignment feature for engaging each floating plate and, therefore, providing fine alignment of the scalability connector on each floating plate to one of the scalability connectors of the scalability card.

Abstract: Methods, systems and computer program products for packet prioritization based on delivery time expectation. Exemplary embodiments include receiving a packet for routing, estimating a TimeToDestination for the packet, the estimating performed by a Internet Control Message Protocol, reading a TimeToDeliver field from each the Internet Protocol Header of the packet to extract data on when the packet needs to be at the destination, determining a MaxQueueDelay for the packet, the MaxQueueDelay calculated by subtracting the TimeToDeliver from the TimeToDestination, passing a lower priority packet if the lower priority packet has a lower MaxQueueDelay, and decrementing the TimeToDeliver by an amount of time the network router has had the packet in the queue before passing the packet to a next router, thereby communicating to the next router how much time is left before the packet must be delivered.

Abstract: Methods, apparatus, and products for detecting an increase in thermal resistance of a heat sink in a computer system, the heat sink dissipating heat for a component of the computer system, the computer system including a fan controlling airflow across the heat sink, the computer system also including a temperature monitoring device, including: measuring, by a monitoring module through use of the temperature monitoring device during operation of the computer system, thermal resistance of the heat sink; determining whether the measured thermal resistance of the heat sink is greater than a threshold thermal resistance, the threshold thermal resistance stored in a thermal profile in non-volatile memory, and if the measured thermal resistance of the heat sink is greater than the threshold thermal resistance, notifying a system administrator.

Abstract: Methods, apparatus, and products are disclosed for optimizing a physical data communications topology between a plurality of computing nodes, the physical data communications topology including physical links configured to connect the plurality of nodes for data communications, that include carrying out repeatedly at a predetermined pace: detecting network packets transmitted through the links between each pair of nodes in the physical data communications topology, each network packet characterized by one or more packet attributes; assigning, to each network packet, a packet weight in dependence upon the packet attributes for that network packet; determining, for each pair of nodes in the physical data communications topology, a node pair traffic weight in dependence upon the packet weights assigned to the network packets transferred between that pair of nodes; and reconfiguring the physical links between each pair of nodes in dependence upon the node pair traffic weights.

Abstract: The invention is directed to providing a virtualized blade flash with a management module in a blade server. A method of configuring a blade server according to an embodiment of the invention includes: providing a plurality of blades, wherein each blade comprising: a service processor; a chip set; an at least one central processing unit (CPU); providing a management module in communication with each of the plurality of blades; and adding a virtual flash store at the management module.

Abstract: A design structure embodied in a machine readable storage medium for designing, manufacturing, and/or testing a memory switching data processing system is provided. The memory switching data processing system includes one or more central processing units (‘CPUs’); random access memory organized in at least two banks of memory modules; one or more memory buses providing communications paths for data among the CPUs and the memory modules; and a flexibly configurable memory bus switch comprising a first configuration adapting the first CPU to a first bank of memory modules and a second CPU to a second bank of memory modules and a second configuration adapting the first CPU to both the first bank of memory modules and the second bank of memory modules.

Abstract: A memory switching data processing system including one or more central processing units (‘CPUs’); random access memory organized in at least two banks of memory modules; one or more memory buses providing communications paths for data among the CPUs and the memory modules; and a flexibly configurable memory bus switch comprising a first configuration adapting the first CPU to a first bank of memory modules and a second CPU to a second bank of memory modules and a second configuration adapting the first CPU to both the first bank of memory modules and the second bank of memory modules.