Abstract:
This disclosure describes a genetically-modified microbe that is a symbiont of an animal that is a vector organism for a pathogenic microbe, a paratransgenic organism that includes the genetically-modified microbe, and methods involving use of the genetically-modified microbe and/or the paratransgenic organism. Generally, the genetically-modified microbe includes a heterologous polynucleotide that encodes a heterologous polypeptide that reduces transmission of the pathogenic microbe.
Abstract:
An larvicide comprising an essential oil encapsulated within a non-viable yeast cell. The larvicide is particularly effective against mosquito larvae, non-toxic to humans and other non-target species, inexpensive to make, and non-toxic during manufacture, transport, and storage.
Abstract:
The energy conversion system includes a first optical cover having a flat surface and a patterned surface. The patterned surface is configured to receive solar energy from the flat surface, then concentrate and guide the solar energy. The system also includes a second optical cover. The system further includes providing a photovoltaic cell layer between the patterned surface of the first optical cover and the second optical cover. The photovoltaic cell layer is configured to receive the solar energy from the patterned surface and convert the solar energy into electrical energy.
Abstract:
An antibody that binds to a filovirus glycoprotein generally includes include a complementarity determining region (CDR) of any one of SEQ ID NO:27-36 or a combination of such CDRs. The antibody may be used in to detect filovirus in a biological sample obtained from a subject. The antibody also may be formulated into a pharmaceutical composition for administering to a subject having, or at risk of having, a filovirus infection.
Abstract:
A larvicide comprising an essential oil encapsulated within a non-viable yeast cell. The larvicide is particularly effective against mosquito larvae, non-toxic to humans and other non-target species, inexpensive to make, and non-toxic during manufacture, transport, and storage.
Abstract:
The invention discloses paratransgenesis methods for prevention, amelioration or treatment of a disease or disorder in an aquatic animal. The method comprises providing a genetically modified micro algae that expresses a recombinant molecule that specifically targets one or more key epitopes of a pathogen that infects the aquatic animal and ii) feeding the aquatic animal directly or indirectly with the genetically modified unicellular algae.
Abstract:
A microparticle comprising a pesticidal agent encapsulated within a polymer coating, the polymer coating comprising an oil-soluble dye wherein the oil-soluble dye and the polymer coating increases the pesticidal agent's ability to withstand UV radiation, a method of manufacturing the microparticle and a method of using the microparticle to control pests
Abstract:
An antibody that binds to a filovirus glycoprotein generally includes include a complementarity determining region (CDR) of any one of SEQ ID NO:27-36 or a combination of such CDRs. The antibody may be used in to detect filovirus in a biological sample obtained from a subject. The antibody also may be formulated into a pharmaceutical composition for administering to a subject having, or at risk of having, a filovirus infection.
Abstract:
A wireless laparoscopic camera system includes a housing having proximal and distal ends and a lens disposed at the distal end thereof. A chip package is disposed within the housing. The chip package is positioned proximally of the lens and includes an image sensor, a processing component, and a wireless transmitter. The image sensor, the processing component, and the wireless transmitter are configured as bare die and are stacked and coupled in sequence with respect to one another to form the chip package. The chip package is configured to convert an optical image produced by the lens into an electrical signal. The signal is transmitted wirelessly to a wireless receiver positioned remote of the housing.
Abstract:
A wireless laparoscopic camera system includes a housing having proximal and distal ends and a lens disposed at the distal end thereof. A chip package is disposed within the housing. The chip package is positioned proximally of the lens and includes an image sensor, a processing component, and a wireless transmitter. The image sensor, the processing component, and the wireless transmitter are configured as bare die and are stacked and coupled in sequence with respect to one another to form the chip package. The chip package is configured to convert an optical image produced by the lens into an electrical signal. The signal is transmitted wirelessly to a wireless receiver positioned remote of the housing.