Abstract: According to an embodiment herein, a method of fabricating (100) a proton dosimeter (200) including; filing off (104) a frontal surface of a light emitting diode (LED) (120) and a frontal surface of a light-to-frequency converter (LFC) (124); exposing a plurality of first sensitive zone (122) of the LED (120) and a plurality of second sensitive zone (123) of the LFC (124); bonding (108) the plurality of first sensitive zones (122) and the plurality of second sensitive zones (123) by acrylic glue; wrapping (110) the sensitive zone interface of the LED (120) and the LFC (124) in a metal foil (111) and a polymer tape (113); and filling a gap between the metal foil (111) and a plurality of terminal leads (115) of the LED (120) and the LFC (124) with acrylic polymer aliquots (125)

Abstract: Methods, software programs, and systems for behavioral analysis of computer applications, and, more particularly, for the prediction of application behavior within and across heterogeneous environments, using machine learning techniques, are disclosed. A method according to certain of these embodiments includes retrieving merged configuration/utilization data and generating predicted application behavior information. The merged configuration/utilization data includes at least a portion of application configuration information and at least a portion of environment configuration information. The application configuration information is information regarding a configuration of an application. The environment configuration information is information regarding a configuration of an environment in which the application is executed. The predicted application behavior information is generated using a machine learning model, which receives the merged configuration/utilization data as one or more inputs.

Abstract: A nasal balloon catheter and sponge unit is provided for stopping posterior epistaxis (nosebleed) in a quick and adjustable manner. The unit can be easily introduced into the bleeding nasal passage of a patient by a health care provider. Once inserted in the patient's nasal passage, the unit operates through inflation of a posterior balloon via a catheter, acting to stop the posterior bleed. In some embodiments, a second (anterior) balloon covers the inside of the nasal passage and is inflated subsequent to the inflation of the posterior balloon. Excess blood coming out of the nasal passage in the front is stopped by an absorbable sponge. If the packing is loose and blood escapes from the back of the nasal passage, a nut is utilized to squeeze the catheter against the nostril, hence more tightly pulling the posterior balloon to stop the blood.

Abstract: A nasal balloon catheter and sponge unit is provided for stopping posterior epistaxis (nosebleed) in a quick and adjustable manner. The unit can be easily introduced into the bleeding nasal passage of a patient by a health care provider. Once inserted in the patient's nasal passage, the unit operates through inflation of a posterior balloon via a catheter, acting to stop the posterior bleed. In some embodiments, a second (anterior) balloon covers the inside of the nasal passage and is inflated subsequent to the inflation of the posterior balloon. Excess blood coming out of the nasal passage in the front is stopped by an absorbable sponge. If the packing is loose and blood escapes from the back of the nasal passage, a nut is utilized to squeeze the catheter against the nostril, hence more tightly pulling the posterior balloon to stop the blood.

Abstract: Many integrated development environments provide “intelligent feedback” to developers. Current “intelligent feedback” techniques may not work well with source code files comprising context sensitive programming languages because edits to one place in the code may change the meaning of arbitrary other places in the code, thus requiring additional full semantic parses to maintain correctness of the system. As provided herein, context-free “name” parsing may be performed to support entity candidate recursive semantic parsing in determining the meaning of the entity. A name parse may be performed to build and/or update a name table and a range table comprising names of entities and their positions within a source code file. Upon receiving a request to determine the meaning of a selected entity within the source code file, the tables may be queried to determine entity names and locations that are to be semantically parsed to determine a selected entity meaning.

Abstract: Many integrated development environments provide “intelligent feedback” to developers. Current “intelligent feedback” techniques may not work well with source code files comprising context sensitive programming languages because edits to one place in the code may change the meaning of arbitrary other places in the code, thus requiring additional full semantic parses to maintain correctness of the system. As provided herein, context-free “name” parsing may be performed to support entity candidate recursive semantic parsing in determining the meaning of the entity. A name parse may be performed to build and/or update a name table and a range table comprising names of entities and their positions within a source code file. Upon receiving a request to determine the meaning of a selected entity within the source code file, the tables may be queried to determine entity names and locations that are to be semantically parsed to determine a selected entity meaning.