Abstract: Examples are disclosed that relate to fairly ordering financial market trades received from different market participant computers via a cloud computing network. In one example, a plurality of trades generated by a plurality of market participant computers are received. The trades are generated based at least on a financial market data point received by the plurality of market participant computers. Each trade is tagged with a delivery clock time stamp that tracks time in relation to financial market events that occur at a corresponding market participant computer. The trades are ordered based on the delivery clock time stamps and sent to a central exchange server computer. The central exchange server computer processes the trades.

Abstract: A leak detecting device for a fluid filled vessel including (1) a housing having a continuous perimeter edge sized to extend around an underwater surface; (2) a tube extending through an aperture of the housing, having a first end on an first side of the housing and a second end on a second side of the housing; (3) an anchoring attachment secured to the first end of the tube; (4) a resilient member secured to the perimeter edge of the housing and adapted to contact and form a seal between the housing and the underwater surface; and (5) an opening through an entirety of a wall of the housing, wherein the opening is accessible from the second side of the housing.

Abstract: Disclosed herein are methods for treating eosinophilic oesophagitis with corticosteroids. The methods for treating eosinophilic oesophagitis disclosed herein result in reduced corticosteroid side effects, e.g. candidiasis. Dosages, formulations, and methods for administration of corticosteroids are provided.

Abstract: An embodiment of the present invention includes a technique to represent three-dimensional (3-D) object using signed distance functions. A bounding box containing an object is constructed in a 3-D coordinate system. The bounding box has at least a bounding plane. A ray is projected from a grid point on the bounding plane to the object with a pre-defined direction. The ray intersects a surface of the object at an intersection point. A parameterization value of the intersection point associated with the grid point is computed. The parameterization value corresponds to a distance from the grid point to the intersection point.

Abstract: An exercise device is disclosed. The exercise device includes a first portion and a second portion. The first portion includes a first substantially planar surface and is configured to support a portion of a patient. The second portion includes a second substantially planar surface and is configured to support a portion of a patient. The second substantially planar surface is oppositely disposed of the first substantially planar surface. The first substantially planar surface includes a diameter, and the second substantially planar surface includes a diameter. The diameter of the first substantially planar surface is smaller than the diameter of the second substantially planar surface.

Abstract: A fiber-to-fiber connector system that includes a first connector for housing a portion of a first fiber, where the first fiber is terminated by a first end-face. The fiber-to-fiber connection system also includes a second connector for housing a portion of a second fiber, where the second fiber is terminated by a second end-face, where the first connector and the second connector permit the first fiber and the second fiber to be interconnected to form an air gap interface between the first end-face and the second end-face; the air gap interface defines a spacing between the first end-face and the second end-face; and the air gap interface enables, based on the defined spacing, an optical signal to be transmitted between the first fiber and the second fiber with a fixed quantity of attenuation.

Abstract: A fiber-to-fiber connector system that includes a first connector for housing a portion of a first fiber, where the first fiber is terminated by a first end-face. The fiber-to-fiber connection system also includes a second connector for housing a portion of a second fiber, where the second fiber is terminated by a second end-face, where the first connector and the second connector permit the first fiber and the second fiber to be interconnected to form an air gap interface between the first end-face and the second end-face; the air gap interface defines a spacing between the first end-face and the second end-face; and the air gap interface enables, based on the defined spacing, an optical signal to be transmitted between the first fiber and the second fiber with a fixed quantity of attenuation.

Abstract: A method and system for automatically loading and unloading a transport is disclosed. A first guidance system is used to travel near the transport and a second guidance system is used to travel on the transport.

Abstract: An exercise device is disclosed. The exercise device includes a first portion and a second portion. The first portion includes a first substantially planar surface and is configured to support a portion of a patient. The second portion includes a second substantially planar surface and is configured to support a portion of a patient. The second substantially planar surface is oppositely disposed of the first substantially planar surface. The first substantially planar surface includes a diameter, and the second substantially planar surface includes a diameter. The diameter of the first substantially planar surface is smaller than the diameter of the second substantially planar surface.

Abstract: A method and system for automatically loading and unloading a transport is disclosed. A first guidance system is used to travel near the transport and a second guidance system is used to travel on the transport.

Abstract: A system and method for implicitly computing signed distance values in a graphics application. In one embodiment, rather than storing numerous distance values along a given raster scan line, only two values are stored for each interval defining the intersection of the raster scan line with the shape. These two values represent the interior of the object to be rendered along a given grid line. In another embodiment each grid line may be parameterized (e.g., from 0 to 1). Each intersection interval may then be represented by the parameter value at an entry point of the surface and an exit point of the surface, along the given grid line.

Abstract: A method and system for automatically loading and unloading a transport is disclosed. A first guidance system is used to travel near the transport and a second guidance system is used to travel on the transport.

Abstract: A station control system for and method of controlling the operation of a driverless vehicle. The system includes a vehicle travel path, a plurality of station tags in readable proximity to the travel path, and a vehicle movable along the travel path. Each of the tags are pre-programmed with a unique and arbitrary tag identifier. The vehicle has a tag reader and a controller communicating with the reader with the tag reader is configured to read tag identifiers from the tags. The controller is configured to receive the tag identifiers from the tag reader and access a correlation table having a function command associated with the tag idendifier. The method includes the steps of reading the tag identifier associated with one of the plurality of tags, accessing the correlation table to identify a command in the function field associated with the tag identifier, and executing any identified command.

Abstract: A vehicle guidance system for guiding a vehicle along a magnetic marker including a first magnetic sensor having a sensing axis, the first sensor measuring a first magnetic field. A second magnetic sensor has a sensing axis, the second sensor measuring a second magnetic field. The sensing axis of the second magnetic sensor crosses the sensing axis of the first magnetic sensor at a vehicle guide point. A processor is configured to receive data representative of the magnetic field measured by the first and second sensors and to calculate a lateral offset between the guide point and the magnetic marker based upon the measured magnetic fields. A method for guiding a vehicle in response to a marker having magnetic field is also disclosed.

Abstract: A method and system for automatically loading and unloading a transport is disclosed. A first guidance system is used to travel near the transport and a second guidance system is used to travel on the transport.

Abstract: A station control system for and method of controlling the operation of a driverless vehicle. The system includes a vehicle travel path, a plurality of station tags in readable proximity to the travel path, and a vehicle movable along the travel path. Each of the tags are pre-programmed with a unique and arbitrary tag identifier. The vehicle has a tag reader and a controller communicating with the reader with the tag reader is configured to read tag identifiers from the tags. The controller is configured to receive the tag identifiers from the tag reader and access a correlation table having a function command associated with the tag idendifier. The method includes the steps of reading the tag identifier associated with one of the plurality of tags, accessing the correlation table to identify a command in the function field associated with the tag identifier, and executing any identified command.

Abstract: A vehicle guidance system for guiding a vehicle along a magnetic marker including a first magnetic sensor having a sensing axis, the first sensor measuring a first magnetic field. A second magnetic sensor has a sensing axis, the second sensor measuring a second magnetic field. The sensing axis of the second magnetic sensor crosses the sensing axis of the first magnetic sensor at a vehicle guide point. A processor is configured to receive data representative of the magnetic field measured by the first and second sensors and to calculate a lateral offset between the guide point and the magnetic marker based upon the measured magnetic fields. A method for guiding a vehicle in response to a marker having magnetic field is also disclosed.

Abstract: A station control system for and method of controlling the operation of a driverless vehicle. The system includes a vehicle travel path, a plurality of station tags in readable proximity to the travel path, and a vehicle movable along the travel path. Each of the tags are pre-programmed with a unique and arbitrary tag identifier. The vehicle has a tag reader and a controller communicating with the reader with the tag reader is configured to read tag identifiers from the tags. The controller is configured to receive the tag identifiers from the tag reader and access a correlation table having a function command associated with the tag identifier. The method includes the steps of reading the tag identifier associated with one of the plurality of tags, accessing the correlation table to identify a command in the function field associated with the tag identifier, and executing any identified command.