Abstract: This medical device measures blood flow rate through the renal artery after a kidney transplant in real time. The device utilizes a force sensing resistor (FSR) to detect the amount of blood and the given blood pressure at any instantaneous point in time. The FSR wraps around the renal artery after transplantation and should remain connected for five to seven days for optimal kidney blood flow and kidney functioning detection. This will be achieved by measuring the flow rate, estimating blood pressure, and beats per minute this device should alert doctors if irregular kidney function should occur for fast and immediate surgical or bedside intervention. Our goal is to detect post-transplant kidney rejection in real-time. The device is biocompatible and sterile, easily removed from the renal artery, and smaller than 5 mm in diameter.

Abstract: This medical device measures blood flow rate through the renal artery after a kidney transplant in real time. The device utilizes a force sensing resistor (FSR) to detect the amount of blood and the given blood pressure at any instantaneous point in time. The FSR wraps around the renal artery after transplantation and should remain connected for five to seven days for optimal kidney blood flow and kidney functioning detection. This will be achieved by measuring the flow rate, estimating blood pressure, and beats per minute this device should alert doctors if irregular kidney function should occur for fast and immediate surgical or bedside intervention. Our goal is to detect post-transplant kidney rejection in real-time. The device is biocompatible and sterile, easily removed from the renal artery, and smaller than 5 mm in diameter.

Abstract: A method for screening compounds for antimicrobial activity is described that utilizes bacterial protein-protein binding in vitro. The method may be performed using immobilized elements and the immobilization may be carried out using a variety of immobilization means (e.g., columns, beads, adsorbents, nitrocellulose paper, etc.) in order to screen large libraries of compounds.

Abstract: A method for screening compounds for antimicrobial activity is described that utilizes bacterial protein-protein binding in vitro. The method may be performed using immobilized elements and the immobilization may be carried out using a variety of immobilization means (e.g., columns, beads, adsorbents, nitrocellulose paper, etc.) in order to screen large libraries of compounds.

Abstract: A method for screening compounds for antimicrobial activity is described that utilizes bacterial protein—protein binding in vitro. The method may be performed using immobilized elements and the immobilization may be carried out using a variety of immobilization means (e.g., columns, beads, adsorbents, nitrocellulose paper, etc.) in order to screen large libraries of compounds.

Abstract: A method for screening compounds for antimicrobial activity is described that utilizes bacterial protein-protein binding in vitro. The method may be performed using immobilized elements and the immobilization may be carried out using a variety of immobilization means (e.g., columns, beads, adsorbents, nitrocellulose paper, etc.) in order to screen large libraries of compounds.

Abstract: The present invention relates to the ZipA-binding site of FtsZ, as determined using genetic and mutagenesis techniques. In particular, the present invention provides a ZipA-binding site of FtsZ, and a molecule having a ZipA-binding site. Also disclosed are mutant FtsZ proteins. The present invention is further directed to a method for identifying an agent which interacts with FtsZ, as well as an agent that interacts with FtsZ at a binding site. Finally, the present invention discloses a method for identifying an agent that interacts with a molecule having a ZipA-binding site, as well as an agent that interacts with a molecule having a ZipA-binding site.

Abstract: A method for screening compounds for antimicrobial activity is described that utilizes bacterial protein-protein binding in vitro. The method may be performed using immobilized elements and the immobilization may be carried out using a variety of immobilization means (e.g., columns, beads, adsorbents, nitrocellulose paper, etc.) in order to screen large libraries of compounds.

Abstract: A method for screening compounds for antimicrobial activity is described that utilizes bacterial protein-protein binding in vitro. The method may be performed using immobilized elements and the immobilization may be carried out using a variety of immobilization means (e.g., columns, beads, adsorbents, nitrocellulose paper, etc.) in order to screen large libraries of compounds.