Abstract: A system and method simplify a Head Mounted Display (HMD) design employing an array of individual Transparent Organic Light Emitting Diode (TOLED) (or similar transparent emitter) elements or a group of sub-elements between dual microlens (ML) elements to create a transparent visual display. The ML elements present both the ambient imagery and synthetic TOLED symbology at the user eye. The user side ML array presents the TOLED image at a defined distance (e.g., several feet to infinity) (to prevent near focus eye strain) and the ML array on the subject side of the transparent visual display enables presentation of the ambient scene to the user eye. A spherical topography ensures that the transparent visual display optical path is along the user eye line of sight to optimize optical throughput and image clarity. A pixel pitch of the transparent visual display determines the visual acuity of the overlay.

Abstract: Present novel and non-trivial system, device, and method for enhancing a three-dimensional synthetic image are disclosed. The image generating system is comprised of a first image data source, a second image data source, an image processing unit (“IPU”), and a display system. The IPU may be configured to receive first image data of a first image of a first external scene produced from object data; receive second image data of a second image of a second external scene produced from point cloud data acquired by one or more image capturing devices or object data augmented with point cloud data; combine the first image data with the second image data to produce third image data of a third image of the first external scene; and provide the third image data set to the display system. Fourth image data could be received and included in the production of the three image data.

Abstract: A present novel and non-trivial system, device, and method for generating surface information presentable on a display unit is disclosed, where the surface information may be presented to draw a viewer's attention to the presence of threatening object(s). An image generator (“IG”) may be configured to receive navigation data; retrieve object data representative of vertical measurements of objects; and generate an image data set representative of an image comprised of object highlighting band(s) capable of highlighting object(s) which meet object highlighting band criteria, where such criteria could include an object reference. In one embodiment, the object highlighting band could be horizontally-disposed, where the object reference may be a horizontal measurement referenced to aircraft position to which the retrieval of the object data may be limited.

Abstract: Disclosed are methods for differential extraction of a target component from a sample which is predominantly composed of other types of non-target cells that can be lysed using methods that do not lyse the target cells, so that the target material can be purified away from the lysed non-target material. One exemplary method is directed to isolating sperm cells from an aqueous sample and kits for performing same.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid and incorporation of a suitable nucleotide to qualitatively and quantitatively analyze for the presence of predetermined nucleic acid target sequences. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, genotyping, medical marker diagnostics, mirosequencing, and.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid to qualitatively and quantitatively analyze for the presence of a predetermined nucleic acid. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, speciation, determination of viral load, genotyping, medical marker diagnostics, and the like.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid to qualitatively and quantitatively analyze for the presence of a predetermined exogenous nucleic acid. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, determination of viral load, genotyping, medical marker diagnostics, and the like.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid to qualitatively and quantitatively analyze for the presence of a predetermined endogenous nucleic acid. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, spieciation, determination of viral load, genotyping, medical marker diagnostics, and the like.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid and incorporation of a suitable nucleotide to qualitatively and quantitatively analyze for the presence of predetermined nucleic acid target sequences. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, genotyping, medical marker diagnostics, mirosequencing, and.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid to qualitatively and quantitatively analyze for the presence of a predetermined endogenous nucleic acid. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, speciation, determination of viral load, genotyping, medical marker diagnostics, and the like.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid to qualitatively and quantitatively analyze for the presence of a predetermined nucleic acid. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, speciation, determination of viral load, genotyping, medical marker diagnostics, and the like.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid to qualitatively and quantitatively analyze for the presence of a predetermined nucleic acid. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, speciation, determination of viral load, genotyping, medical marker diagnostics, and the like.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid to qualitatively and quantitatively analyze for the presence of a predetermined exogenous nucleic acid. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, determination of viral load, genotyping, medical marker diagnostics, and the like.

Abstract: Processes are disclosed using the depolymerization of a nucleic acid hybrid to qualitatively and quantitatively analyze for the presence of a predetermined nucleic acid. Applications of those processes include the detection of single nucleotide polymorphisms, identification of single base changes, speciation, determination of viral load, genotyping, medical marker diagnostics, and the like.