Abstract: Methods of selecting a therapeutic agent to treat a cancer in a subject comprising receiving a plurality of protein data element values representing levels of the proteins in a biological sample from the subject, classifying each protein as a member of a process class, for each process class calculating a process score that represents the prominence of the process class to cancer treatment resistance and selecting at least one therapeutic agent that targets a selected process based on the process score. Systems for selecting a therapeutic agent are also provided.

Abstract: The present invention relates to a novel approach of obtaining a gas diffusion electrode (GDE), the gas diffusion electrodes obtained using said method and the use thereof in the electrocatalytic conversion of gaseous reactants into economically interesting reaction products. The GDEs obtained using the method of the present invention are particularly useful in the electrochemical of gaseous reactants such as CO2, H2, N2, or O2 into bulk chemicals and fuels such as Syngas, Formic Acid, Methanol, Ethanol, Ethane, Ethylene, Methane, Ammonia, and the like.

Abstract: Approaches, techniques, and mechanisms are disclosed for provisioning wireless device profiles of a wireless computing device. In this context, a wireless device profile generally may comprise one or more network and device settings including network identifiers, network security types, network keys, and other configuration information that enables a computing device to connect to a particular wireless computer network. According one embodiment, a computer-implemented method comprises establishing, with a first device, a first wireless connection of a first wireless connection type; receiving, from the first device via the first wireless connection, provisioning data for establishing, with a second device, a second wireless connection of a second wireless connection type that is different than the first wireless connection type; establishing, based on the provisioning data, the second wireless connection with the second device.

Abstract: Approaches, techniques, and mechanisms are disclosed for provisioning wireless device profiles of a wireless computing device. In this context, a wireless device profile generally may comprise one or more network and device settings including network identifiers, network security types, network keys, and other configuration information that enables a computing device to connect to a particular wireless computer network. According one embodiment, a computer-implemented method comprises establishing, with a first device, a first wireless connection of a first wireless connection type; receiving, from the first device via the first wireless connection, provisioning data for establishing, with a second device, a second wireless connection of a second wireless connection type that is different than the first wireless connection type; establishing, based on the provisioning data, the second wireless connection with the second device.

Abstract: Approaches, techniques, and mechanisms are disclosed for provisioning wireless device profiles of a wireless computing device. In this context, a wireless device profile generally may comprise one or more network and device settings including network identifiers, network security types, network keys, and other configuration information that enables a computing device to connect to a particular wireless computer network. According one embodiment, a computer-implemented method comprises establishing, with a first device, a first wireless connection of a first wireless connection type; receiving, from the first device via the first wireless connection, provisioning data for establishing, with a second device, a second wireless connection of a second wireless connection type that is different than the first wireless connection type; establishing, based on the provisioning data, the second wireless connection with the second device.

Abstract: Vegetative systems are described. In one embodiment, a vegetative system has substantially distinct or separate zones or layers in which each zone or layer performs primarily one of the functions of water retention, a growth medium for vegetation, and weed suppression. An upper may comprise coarse aggregate and serve the primary function of weed suppression; a middle layer may comprise a mixture of coarse aggregate, fine aggregate, and fine organic material and serve primarily as a growth medium for vegetation; and a lower layer may comprise high-density hygroscopic material and serve the primary function of water retention.

Abstract: Vegetative systems are described. In one embodiment, a vegetative system has substantially distinct or separate zones or layers in which each zone or layer performs primarily one of the functions of water retention, a growth medium for vegetation, and weed suppression. An upper may comprise coarse aggregate and serve the primary function of weed suppression; a middle layer may comprise a mixture of coarse aggregate, fine aggregate, and fine organic material and serve primarily as a growth medium for vegetation; and a lower layer may comprise high-density hygroscopic material and serve the primary function of water retention.

Abstract: Vegetative systems are described. In one embodiment, a vegetative system has substantially distinct or separate zones or layers in which each zone or layer performs primarily one of the functions of water retention, a growth medium for vegetation, and weed suppression. An upper may comprise coarse aggregate and serve the primary function of weed suppression; a middle layer may comprise a mixture of coarse aggregate, fine aggregate, and fine organic material and serve primarily as a growth medium for vegetation; and a lower layer may comprise high-density hygroscopic material and serve the primary function of water retention.

Abstract: Vegetative systems are described. In one embodiment, a vegetative system has substantially distinct or separate zones or layers in which each zone or layer performs primarily one of the functions of water retention, a growth medium for vegetation, and weed suppression. An upper may comprise coarse aggregate and serve the primary function of weed suppression; a middle layer may comprise a mixture of coarse aggregate, fine aggregate, and fine organic material and serve primarily as a growth medium for vegetation; and a lower layer may comprise high-density hygroscopic material and serve the primary function of water retention.

Abstract: A device for positioning at least one cell in at least one addressable position, the device comprising a substrate formed with at least one addressable pore and at least one channel embedded in the substrate and being in fluid communication with the at least one pore. The at least one pore and the at least one channel are designed and constructed such that an under-pressure formed in the at least one channel results in vacuum adherence of the at least one cell onto the at least one pore, such that a single cell is vacuum adhered onto a single pore. In one embodiment, the substrate is a non-conductive substrate and is further formed with one or more electrode structures, where each of the electrode structures is positioned in one of the pores. In an additional embodiment the device is designed locatable onto an organ, such as a brain.

Abstract: A device for positioning at least one cell in at least one addressable position, the device comprising a substrate formed with at least one addressable pore and at least one channel embedded in the substrate and being in fluid communication with the at least one pore. The at least one pore and the at least one channel are designed and constructed such that an under-pressure formed in the at least one channel results in vacuum adherence of the at least one cell onto the at least one pore, such that a single cell is vacuum adhered onto a single pore. In one embodiment, the substrate is a non-conductive substrate and is further formed with one or more electrode structures, where each of the electrode structures is positioned in one of the pores. In an additional embodiment the device is designed locatable onto an organ, such as a brain.

Abstract: A device for positioning at least one cell in at least one addressable position, the device comprising a substrate (12) formed with at least one addressable pore (14) and at least one channel (16) embedded in the substrate and being held in fluid communication with the at least one pore. The at least one pore and the at least one channel are designed and constructed such that an under-pressure formed in the at least one channel results in vacuum adherence of the at least one cell onto the at least one pore, such that a single cell is vacuum adhered onto a single pore. In one embodiment, the substrate is a non-conductive substrate and is further formed with one or more electrode structures (22), where each of the electrode structures is positioned in one of the pores. In an additional embodiment the device is designed to be locatable on an organ, such as the brain.

Abstract: Digital computational circuit comprising a network made of a plurality of identical repetitive DNA-based conductive elements. The DNA-based elements used for the purposes of the invention employ a P-bridge as a tunnel junction for a net charge. The DNA-based element of which the circuit is made may be a DNA SET transistor. The circuit may comprise a DNA resistor built from a plurality of SET transistor elements a series, with a constant over-threshold gate voltage. The circuit may further comprise NOT and NOR gates. The NOT gate can be made of a DNA-based transistor and a resistor, and the resistor can be made by using a DNA SET transistor with a constant over-threshold gate voltage, and by placing a plurality of such DNA SET transistors in series until the resistivity reaches the desired value. The NOR gate, on the other hand, can be built from two NOT elements wherein the output of the first NOT element is connected to the resistor of the second NOT element as it voltage supply.

Abstract: Apparatus (40) for generating a localized magnetic field inside a body of a living subject (44) includes first and second electromagnets (46,48), adapted to be positioned in proximity to the body so as to apply magnetic fields thereto. The core (50) of at least one of the electromagnets has a shape that can be altered under control of an operator of the apparatus so as to adjust the magnetic fields to assume a desired relation within the body.

Abstract: A device for positioning at least one cell in at least one addressable position, the device comprising a substrate (12) formed with at least one addressable pore (14) and at least one channel (16) embedded in the substrate and being held in fluid communication with the at least one pore. The at least one pore and the at least one channel are designed and constructed such that an under-pressure formed in the at least one channel results in vacuum adherence of the at least one cell onto the at least one pore, such that a single cell is vacuum adhered onto a single pore. In one embodiment, the substrate is a non-conductive substrate and is further formed with one or more electrode structures (22), where each of the electrode structures is positioned in one of the pores. In an additional embodiment the device is designed to be locatable on an organ, such as the brain.

Abstract: Apparatus (40) for generating a localized magnetic field inside a body of a living subject (44) includes first and second electromagnets (46,48), adapted to be positioned in proximity to the body so as to apply magnetic fields thereto. The core (50) of at least one of the electromagnets has a shape that can be altered under control of an operator of the apparatus so as to adjust the magnetic fields to assume a desired relation within the body.