Abstract: A breath sampling device including a housing having a fluid inlet positioned at a fluid inlet end, a fluid outlet positioned at a fluid outlet end, a fluid channel extending between the fluid inlet and the fluid outlet, and a sensor fluidly coupled to the fluid channel. The sensor is structurally configured to detect a presence of a target gas in a gas sample and a filter assembly fluidly coupled to the fluid channel and positioned between the fluid inlet and the sensor. The filter assembly is structurally configured to absorb heat, water vapor, or a combination thereof.

Abstract: An electronic device, including a compression subsystem with a comparator, a history buffer, a match detector, and a command generator, performs operations for generating compressed data from original data. The compression subsystem, starting in each cycle of a clock, processes a search string that is copied from original data to generate commands for compressed data. For processing each search string, the comparator compares each of N sub strings from the search string with stored data from the history buffer to find matches between the substrings and the stored data. The match detector then determines a longest match for each of the substrings. The command generator next selectively outputs commands for the compressed data based on the longest matches for the substrings.

Abstract: An electronic device for decompressing compressed data includes a decoding subsystem having a symbol decoder and a second symbol resolver with a number of local symbol decoders and a symbol selector. The symbol decoder decodes a first symbol from a first code for which a symbol is available in a block of the compressed data and communicates a length of the code to the second symbol resolver. Each local symbol decoder, substantially in parallel with the decoding of the first symbol in the symbol decoder, decodes a respective symbol from a first code for which a symbol is available in a respective sub-block of the block of the compressed data. The second symbol resolver selects, as a second symbol, based on the length received from the symbol decoder, one of the respective symbols from the local symbol decoders. The decoding subsystem then provides the first and second symbols.

Abstract: An electronic device that includes a decompression engine that includes N decoders and a decompressor decompresses compressed input data that includes N streams of data. Upon receiving a command to decompress compressed input data, the decompression engine causes each of the N decoders to decode a respective one of the N streams from the compressed input data separately and substantially in parallel with others of the N decoders. Each decoder outputs a stream of decoded data of a respective type for generating commands associated with a compression standard for decompressing the compressed input data. The decompressor next generates, from the streams of decoded data output by the N decoders, commands for decompressing the data using the compression standard to recreate the original data. The decompressor next executes the commands to recreate the original data and stores the original data in a memory or provides the original data to another entity.

Abstract: An electronic device for decompressing compressed data includes a decoding subsystem having a symbol decoder and a second symbol resolver with a number of local symbol decoders and a symbol selector. The symbol decoder decodes a first symbol from a first code for which a symbol is available in a block of the compressed data and communicates a length of the code to the second symbol resolver. Each local symbol decoder, substantially in parallel with the decoding of the first symbol in the symbol decoder, decodes a respective symbol from a first code for which a symbol is available in a respective sub-block of the block of the compressed data. The second symbol resolver selects, as a second symbol, based on the length received from the symbol decoder, one of the respective symbols from the local symbol decoders. The decoding subsystem then provides the first and second symbols.

Abstract: Some embodiments include an electrochemical sensor. The electrochemical sensor has a lid element comprising a substrate, multiple electrodes, multiple interior contacts electrically coupled to the multiple electrodes, a base element configured to be coupled to the lid element, and an electrolyte element. The base element includes a sensor cavity, multiple exterior contacts located at an exterior surface of the base element, and multiple signal communication channels comprising multiple signal communication lines, and the electrolyte element is located in the sensor cavity. When the lid element is coupled to the base element, the multiple electrodes are located in the sensor cavity, the multiple electrodes are in electrolytic communication with the electrolyte element, the multiple interior contacts are located in the sensor cavity, and the multiple interior contacts are electrically coupled to the multiple exterior contacts by the multiple signal communication lines.

Abstract: Some embodiments include an electrochemical sensor. The electrochemical sensor has a lid element comprising a substrate, multiple electrodes, multiple interior contacts electrically coupled to the multiple electrodes, a base element configured to be coupled to the lid element, and an electrolyte element. The base element includes a sensor cavity, multiple exterior contacts located at an exterior surface of the base element, and multiple signal communication channels comprising multiple signal communication lines, and the electrolyte element is located in the sensor cavity. When the lid element is coupled to the base element, the multiple electrodes are located in the sensor cavity, the multiple electrodes are in electrolytic communication with the electrolyte element, the multiple interior contacts are located in the sensor cavity, and the multiple interior contacts are electrically coupled to the multiple exterior contacts by the multiple signal communication lines.

Abstract: An electronic device for decompressing compressed data to recreate original data includes a first string copy engine and a second string copy engine. The first string copy engine processes a first string copy command by acquiring a first string from recreated original data and appending the first string to the recreated original data. The second string copy engine processes a second string copy command by checking the second string copy command for a dependency on the first string and, when the dependency is found, stalling further processing of the second string copy command until the first string copy engine has appended a corresponding portion of the first string to the recreated original data. The second string copy engine processes the second string copy command by acquiring a second string from the recreated original data and appending the second string to the recreated original data.

Abstract: A printed gas sensor is disclosed. The sensor may include a partially porous substrate, an electrode layer, an electrolyte layer, and an encapsulation layer. The electrode layer comprises one or more electrodes that are formed on one side of the porous substrate. The electrolyte layer is in electrolytic contact with the one or more electrodes. The encapsulation layer encapsulates the electrode layer and electrolyte layer thereby forming an integrated structure with the partially porous substrate.

Abstract: A fixation device comprises a first clamping member having an adjustable clamping collar and a first curved support portion attached to the adjustable clamping collar. The first clamping member is adapted to receive a digit. The first curved support portion is adapted to support an inferior surface of a proximal phalanx of the digit. A distal member is adjustably attachable to the first clamping member. The distal member has a second curved support surface adapted to support an inferior surface of a distal phalanx of the digit and a curved distal end adapted to apply a compressive force in a proximal direction to a distal end of the distal phalanx.

Abstract: An article comprises a unitary plate configured to conform to a foot of a patient. The plate has a dorsal portion shaped to conform to a dorsal surface of a medial column of the foot and a plantar-medial portion shaped to conform to a medial surface of a first metatarsal of the foot and extend to a plantar surface of the first metatarsal. The plantar-medial portion is integrally attached to the dorsal portion. The plate has a plurality of apertures for receiving screws. The apertures include: a plurality of first apertures through the dorsal portion, adapted to receive a respective one or more first screws to be inserted into a dorsal surface of a talus of the foot, and at least one second aperture adapted to receive a second screw inserted through a plantar end of the plantar-medial portion into a first metatarsal of the foot.

Abstract: An article comprises a unitary plate configured to conform to a foot of a patient. The plate has a dorsal portion shaped to conform to a dorsal surface of a medial column of the foot and a plantar-medial portion shaped to conform to a medial surface of a first metatarsal of the foot and extend to a plantar surface of the first metatarsal. The plantar-medial portion is integrally attached to the dorsal portion. The plate has a plurality of apertures for receiving screws. The apertures include: a plurality of first apertures through the dorsal portion, adapted to receive a respective one or more first screws to be inserted into a dorsal surface of a talus of the foot, and at least one second aperture adapted to receive a second screw inserted through a plantar end of the plantar-medial portion into a first metatarsal of the foot.

Abstract: A printed gas sensor is disclosed. The sensor may include a partially porous substrate, an electrode layer, an electrolyte layer, and an encapsulation layer. The electrode layer comprises one or more electrodes that are formed on one side of the porous substrate. The electrolyte layer is in electrolytic contact with the one or more electrodes. The encapsulation layer encapsulates the electrode layer and electrolyte layer thereby forming an integrated structure with the partially porous substrate.

Abstract: An article comprises a unitary plate configured to conform to a foot of a patient. The plate has a dorsal portion shaped to conform to a dorsal surface of a medial column of the foot and a plantar-medial portion shaped to conform to a medial surface of a first metatarsal of the foot and extend to a plantar surface of the first metatarsal. The plantar-medial portion is integrally attached to the dorsal portion. The plate has a plurality of apertures for receiving screws. The apertures include: a plurality of first apertures through the dorsal portion, adapted to receive a respective one or more first screws to be inserted into a dorsal surface of a talus of the foot, and at least one second aperture adapted to receive a second screw inserted through a plantar end of the plantar-medial portion into a first metatarsal of the foot.

Abstract: A printed gas sensor is disclosed. The sensor may include a partially porous substrate, an electrode layer, an electrolyte layer, and an encapsulation layer. The electrode layer comprises one or more electrodes that are formed on one side of the porous substrate. The electrolyte layer is in electrolytic contact with the one or more electrodes. The encapsulation layer encapsulates the electrode layer and electrolyte layer thereby forming an integrated structure with the partially porous substrate.

Abstract: Some embodiments include an electrochemical sensor. The electrochemical sensor has a lid element comprising a substrate, multiple electrodes, multiple interior contacts electrically coupled to the multiple electrodes, a base element configured to be coupled to the lid element, and an electrolyte element. The base element includes a sensor cavity, multiple exterior contacts located at an exterior surface of the base element, and multiple signal communication channels comprising multiple signal communication lines, and the electrolyte element is located in the sensor cavity. When the lid element is coupled to the base element, the multiple electrodes are located in the sensor cavity, the multiple electrodes are in electrolytic communication with the electrolyte element, the multiple interior contacts are located in the sensor cavity, and the multiple interior contacts are electrically coupled to the multiple exterior contacts by the multiple signal communication lines.

Abstract: A fixation device comprises a first clamping member having an adjustable clamping collar and a first curved support portion attached to the adjustable clamping collar. The first clamping member is adapted to receive a digit. The first curved support portion is adapted to support an inferior surface of a proximal phalanx of the digit. A distal member is adjustably attachable to the first clamping member. The distal member has a second curved support surface adapted to support an inferior surface of a distal phalanx of the digit and a curved distal end adapted to apply a compressive force in a proximal direction to a distal end of the distal phalanx.

Abstract: A fixation device comprises a first clamping member having an adjustable clamping collar and a first curved support portion attached to the adjustable clamping collar. The first clamping member is adapted to receive a digit. The first curved support portion is adapted to support an inferior surface of a proximal phalanx of the digit. A distal member is adjustably attachable to the first clamping member. The distal member has a second curved support surface adapted to support an inferior surface of a distal phalanx of the digit and a curved distal end adapted to apply a compressive force in a proximal direction to a distal end of the distal phalanx.

Abstract: An article comprises a unitary plate configured to conform to a foot of a patient. The plate has a dorsal portion shaped to conform to a dorsal surface of a medial column of the foot and a plantar-medial portion shaped to conform to a medial surface of a first metatarsal of the foot and extend to a plantar surface of the first metatarsal. The plantar-medial portion is integrally attached to the dorsal portion. The plate has a plurality of apertures for receiving screws. The apertures include: a plurality of first apertures through the dorsal portion, adapted to receive a respective one or more first screws to be inserted into a dorsal surface of a talus of the foot, and at least one second aperture adapted to receive a second screw inserted through a plantar end of the plantar-medial portion into a first metatarsal of the foot.

Abstract: A glass manufacturing apparatus is described herein that comprises a forming device configured to produce a glass ribbon and a pull roll device which draws the glass ribbon downward from the forming device. The pull roll device has a first roll apparatus, a second roll apparatus, and a third roll apparatus. The pull roll device is configured to at least independently operate the first roll apparatus and the second roll apparatus such that at least one of a first upstream pair of draw rolls rotates with a substantially constant torque and at least one of a first downstream pair of draw rolls rotates with a substantially constant angular velocity. In further examples, methods of manufacturing a glass ribbon are provided.