Abstract: The present invention relates to mechanically elongated neurons and provides useful compositions, devices and methods for treating a nerve lesion using such mechanically elongated neurons.

Abstract: The present invention provides a device of integrated neuronal cells interfaced with an electronic device and a method of producing the same.

Abstract: A method for detecting blast induced pressure changes includes exposing a material, a contained solution, a membrane-bound solution, or a photonic crystal material, having a first optical property, to a pressure wave having a blast level. A change in the first optical property to a second optical property of the exposed material, contained solution, membrane-bound solution, or photonic crystal material is determined, and the extent of change corresponds to the blast level.

Abstract: The present invention provides a device of integrated neuronal cells interfaced with an electronic device and a method of producing the same.

Abstract: The present invention provides a device of integrated neuronal cells interfaced with an electronic device and a method of producing the same.

Abstract: The invention relates to methods of diagnosing risk of amyloid ? deposition following traumatic brain injury.

Abstract: A method for detecting blast induced pressure changes includes exposing a material, a contained solution, a membrane-bound solution, or a photonic crystal material, having a first optical property, to a pressure wave having a blast level. A change in the first optical property to a second optical property of the exposed material, contained solution, membrane-bound solution, or photonic crystal material is determined, and the extent of change corresponds to the blast level.

Abstract: An improved method is provided for conducting chemical or biochemical reactions on a substrate surface in which the reactions take place in an enclosed chamber between components of a fluid and molecular moieties present on an interior surface of the chamber, wherein the improvement involves mixing the fluid during the reactions and maximizing contact between the fluid's components and the entirety of the reactive interior surface by (a) applying centrifugal force to the chamber and simultaneously (b) rotating the chamber about an axis thereof. The improved method is particularly advantageous in the context of a hybridization assay in which molecular components within a sample fluid hybridize to surface-bound molecular probes (e.g., as may be present in a spatially defined and physically addressable array) within a hybridization chamber, and wherein process and device parameters (e.g., sample volume, chamber volume, temperature, number of parts and materials, and the like) are critical.

Abstract: A hub (2) includes a spindle (14) which projects through a housing (4) and rotates relative to the housing (4) on a bearing (6) that is located between the spindle (14) and the housing (4). The bearing (6) has two sets of raceways (28,40) that are oblique to the axis x, and in addition rolling elements (36) arranged in two rows between the sets of raceways (28,40). The inner raceways (28) that fit around the spindle (14) and have back faces (32), with the back face (32) for one of the races (26) being against a shoulder (18) from which the spindle (14) projects. Initially, the end of the spindle (14) projects straight beyond the back face (32) of the outer race—indeed, so that the races (26) can be installed over the spindle (14).

Abstract: A hub (2) includes a spindle (14) which projects through a housing (4) and rotates relative to the housing (4) on a bearing (6) that is located between the spindle (14) and the housing (4). The bearing (6) has two sets of raceways (28,40) that are oblique to the axis x, and in addition rolling elements (36) arranged in two rows between the sets of raceways (28,40). The inner raceways (28) that fit around the spindle (14) and have back faces (32), with the back face (32) for one of the races (26) being against a shoulder (18) from which the spindle (14) projects. Initially, the end of the spindle (14) projects straight beyond the back face (32) of the outer race—indeed, so that the races (26) can be installed over the spindle (14).

Abstract: A hub (2) includes a spindle (14) which projects through a housing (4) and rotates relative to the housing (4) on a bearing (6) that is located between the spindle (14) and the housing (4). The bearing (6) has two sets of raceways (28,40) that are oblique to the axis x, and in addition rolling elements (36) arranged in two rows between the sets of raceways (28,40). The inner raceways (28) that fit around the spindle (14) and have back faces (32), with the back face (32) for one of the races (26) being against a shoulder (18) from which the spindle (14) projects. Initially, the end of the spindle (14) projects straight beyond the back face (32) of the outer race—indeed, so that the races (26) can be installed over the spindle (14).

Abstract: A hub (2) includes a spindle (14) which projects through a housing (4) and rotates relative to the housing (4) on a bearing (6) that is located between the spindle (14) and the housing (4). The bearing (6) has two sets of raceways (28,40) that are oblique to the axis x, and in addition rolling elements (36) arranged in two rows between the sets of raceways (28,40). The inner raceways (28) that fit around the spindle (14) and have back faces (32), with the back face (32) for one of the races (26) being against a shoulder (18) from which the spindle (14) projects. Initially, the end of the spindle (14) projects straight beyond the back face (32) of the outer race—indeed, so that the races (26) can be installed over the spindle (14).

Abstract: A method of sharing manufacturing data with a consumer of a product is disclosed. A unique identifying indicia, such as a serial number or bar code is associated with each manufactured product. That identifying indicia is detected by the consumer of the product, through communication with the manufacturer of the product, preferably via the Internet. The manufacturer maintains a record of both the unique identifying indicia and physical properties of the specific product corresponding to the unique identifying indicia. Upon receiving a request from the consumer of the product, the manufacturer communicates the desired physical properties of the specific product associated with the unique identifying indicia to the consumer. It is therefore possible for the consumer to avoid a step of precision physical measurement of the product, since the actual physical properties have been measured by the manufacturer and recorded previously.

Abstract: A product with an automatic identification and data capture (AIDC) device associated with a physical measurement, authentication code or operating condition of the product is disclosed. A bearing with an embedded transponder is illustratively described. The transponder contains data specific to the manufactured bearing, such as physical measurements or identification numbers.

Abstract: A product with an automatic identification and data capture (AIDC) device associated with a physical measurement, authentication code or operating condition of the product is disclosed. A bearing with an embedded transponder is illustratively described. The transponder contains data specific to the manufactured bearing, such as physical measurements or identification numbers.

Abstract: A hub (2) includes a spindle (14) which projects through a housing (4) and rotates relative to the housing (4) on a bearing (6) that is located between the spindle (14) and the housing (4). The bearing (6) has two sets of raceways (28, 40) that are oblique to the axis x, and in addition rolling elements (36) arranged in two rows between the sets of raceways (28, 40). The inner raceways (28) that fit around the spindle (14) and have back faces (32), with the back face (32) for one of the races (26) being against a shoulder (18) from which the spindle (14) projects. Initially, the end of the spindle (14) projects straight beyond the back face (32) of the outer race—indeed, so that the races (26) can be installed over the spindle (14).

Abstract: A hub (2) includes a spindle (14) which projects through a housing (4) and rotates relative to the housing (4) on a bearing (6) that is located between the spindle (14) and the housing (4). The bearing (6) has two sets of raceways (28,40) that are oblique to the axis x, and in addition rolling elements (36) arranged in two rows between the sets of raceways (28,40). The inner raceways (28) that fit around the spindle (14) and have back faces (32), with the back face (32) for one of the races (26) being against a shoulder (18) from which the spindle (14) projects. Initially, the end of the spindle (14) projects straight beyond the back face (32) of the outer race—indeed, so that the races (26) can be installed over the spindle (14).

Abstract: A wheel mounting includes an axle provided with a spindle, a hub located around the spindle, and an antifriction bearing located between the spindle and the hub for enabling the hub to rotate on the spindle with minimal friction. The axle also has a cylindrical ring seat located beyond its spindle and a shoulder located between the spindle and the ring seat. The ring seat has a stop located along it. The bearing has a cone located around the spindle, with its back face being against the shoulder, a cup located in the hub, and tapered rollers located between tapered raceways on the cone and cup. Beyond the large end of its raceway the cup is fitted with an excitor ring having a radial wall at the inboard end of the bearing. The ring seat carries a mounting ring having an axial wall provided with a formation that bears against the stop on the seat and an end edge that is against the back face of the inboard cone.

Abstract: A hub (2) includes a spindle (14) which projects through a housing (4) and rotates relative to the housing (4) on a bearing (6) that is located between the spindle (14) and the housing (4). The bearing (6) has two sets of raceways (28, 40) that are oblique to the axis x, and in addition rolling elements (36) arranged in two rows between the sets of raceways (28, 40). The inner raceways (28) that fit around the spindle (14) and have back faces (32), with the back face (32) for one of the races (26) being against a shoulder (18) from which the spindle (14) projects. Initially, the end of the spindle (14) projects straight beyond the back face (32) of the outer race—indeed, so that the races (26) can be installed over the spindle (14).

Abstract: Mechanically elongated neuronal cells and methods of mechanically producing elongated cells are provided. Also provided are methods for transplanting elongated neuronal cells into an animal for treatment of spinal cord injuries and other nerve injuries.