Abstract: Provided herein is a method and computer program product for designing and/or simulating a biotechnology experiment in silico; and for providing and generating revenue from a customized list of one or more biotechnology products and/or services related to the in silico designed or simulated biotechnology experiment or the product of that experiment. In illustrative examples, the products and or services are indirectly related to a biomolecule designed by the in silico designed biotechnology experiment. In addition, provided herein is a method and computer system for generating revenue, that includes providing a customer with a first computer program product for designing or performing a biotechnology experiment in silico; and providing the customer with access to a purchase function for purchasing a second computer program product for designing or performing a biotechnology experiment in silico.

Abstract: Provided herein is a method and computer program product for designing and/or simulating a biotechnology experiment in silico; and for providing and generating revenue from a customized list of one or more biotechnology products and/or services related to the in silico designed or simulated biotechnology experiment or the product of that experiment. In illustrative examples, the products and or services are indirectly related to a biomolecule designed by the in silico designed biotechnology experiment. In addition, provided herein is a method and computer system for generating revenue, that includes providing a customer with a first computer program product for designing or performing a biotechnology experiment in silico; and providing the customer with access to a purchase function for purchasing a second computer program product for designing or performing a biotechnology experiment in silico.

Abstract: A single chip integrated circuit measuring circuit (1) for determining a characteristic of the impedance of an external complex impedance circuit (2) for facilitating characterization of the impedance of the complex impedance circuit (2) comprises a signal generating circuit (7) for generating a variable frequency stimulus signal for applying to the complex impedance circuit (2). A first receiving circuit (10) receives a response signal from the complex impedance circuit (2) in response to the stimulus signal and conditions the response signal. A first analog-to-digital converter (68) converts the conditioned response signal to a first digital output signal, which is read from the first analog-to-digital converter (68) through a first digital output port (14). The response signal from the complex impedance circuit (2) is a current signal, and a current to voltage converter circuit (64) converts the response signal to a voltage signal.

Abstract: Provided herein is a method and computer program product for designing and/or simulating a biotechnology experiment in silico; and for providing and generating revenue from a customized list of one or more biotechnology products and/or services related to the in silico designed or simulated biotechnology experiment or the product of that experiment. In illustrative examples, the products and or services are indirectly related to a biomolecule designed by the in silico designed biotechnology experiment. In addition, provided herein is a method and computer system for generating revenue, that includes providing a customer with a first computer program product for designing or performing a biotechnology experiment in silico; and providing the customer with access to a purchase function for purchasing a second computer program product for designing or performing a biotechnology experiment in silico.

Abstract: A single chip integrated circuit measuring circuit (1) for determining a characteristic of the impedance of an external complex impedance circuit (2) for facilitating characterization of the impedance of the complex impedance circuit (2) comprises a signal generating circuit (7) for generating a variable frequency stimulus signal for applying to the complex impedance circuit (2). A first receiving circuit (10) receives a response signal from the complex impedance circuit (2) in response to the stimulus signal and conditions the response signal. A first analog-to-digital converter (68) converts the conditioned response signal to a first digital output signal, which is read from the first analog-to-digital converter (68) through a first digital output port (14). The response signal from the complex impedance circuit (2) is a current signal, and a current to voltage converter circuit (64) converts the response signal to a voltage signal.

Abstract: A junction box includes an array of conductive polymer positive temperature coefficient (PTC) devices formed from a laminate of a layer of conductive polymer PTC material between first and second metal foil layers. The first foil layer is divided, by conventional masking and etching techniques, into an array of discrete positive electrodes, each of which defines a single PTC over-current protection device having a predetermined trip current. The second foil layer is maintained intact and is shared by the PTC devices in the array as a common ground electrode. Each discrete positive electrode is contacted by a conductive spring contact finger. Two or more contact fingers can be formed as parts of single contact element or otherwise connected together to connect two or more devices in parallel, thereby providing a higher trip current than is provided by a single device.