Abstract: A Universal Serial Bus (USB) device configured to build a program, in a host machine, on an alternative CPU architecture. The USB device comprises a USB interface adapted to be communicatively coupled to the host machine. The USB device further comprises a memory module configured to store a package to build on, in the host machine, the alternative CPU architecture. The USB device further comprises a System-on-a-Chip (SoC) configured to access the stored package from the memory module. The SoC is further configured to, when a connection between the USB interface and the host machine is established, automatically run the stored package in the host machine.

Abstract: A Universal Serial Bus (USB) device configured to build a program, in a host machine, on an alternative CPU architecture. The USB device comprises a USB interface adapted to be communicatively coupled to the host machine. The USB device further comprises a memory module configured to store a package to build on, in the host machine, the alternative CPU architecture. The USB device further comprises a System-on-a-Chip (SoC) configured to access the stored package from the memory module. The SoC is further configured to, when a connection between the USB interface and the host machine is established, automatically run the stored package in the host machine.

Abstract: Methods, systems, and computer program products are included for deploying a composite application. A method includes receiving, at a computing device, a container image that includes a nulecule. The nulecule is parsed to identify a first service, a second service, and a parameter of the first service. An input value is received corresponding to the parameter of the first service. A configuration value of the first service is modified to include the input value. The first service and the second service are deployed on the computing device, with the first service being configured with the configuration value.

Abstract: Methods, systems, and computer program products are included for deploying a composite application. A method includes receiving, at a computing device, a container image that includes a nulecule. The nulecule is parsed to identify a first service, a second service, and a parameter of the first service. An input value is received corresponding to the parameter of the first service. A configuration value of the first service is modified to include the input value. The first service and the second service are deployed on the computing device, with the first service being configured with the configuration value.

Abstract: An electrochemical oxygen sensor includes a micro-porous plastic membrane supported on a sealing disk and located between a gas inflow port and the sensor's electrolyte. The membrane and disk minimize thermal shock effects due to using the sensor at a first location, at a first temperature, and then moving it to a second location at a different temperature.

Abstract: Some embodiments are directed to a board for riding on a snow surface, comprising a base having a first snow engaging element, a second snow engaging element, and a third snow engaging element positioned on a bottom surface of the base. The first snow engaging element can be positioned beneath a user's front foot during operation of the board and positioned entirely on a forward half of the base. The second and third snow engaging elements can be positioned such that a fore portion of each is positioned beneath a user's front foot during operation of the board and extends toward the rear portion of the board at least to the user's rear foot. In some embodiments, the snow engaging elements can be protrusions, depressions, or otherwise, and can be removably supported by the base.

Abstract: An electrochemical oxygen sensor includes a micro-porous plastic membrane supported on a sealing disk and located between a gas inflow port and the sensor's electrolyte. The membrane and disk minimize thermal shock effects due to using the sensor at a first location, at a first temperature, and then moving it to a second location at a different temperature.

Abstract: An electrochemical oxygen sensor includes a micro-porous plastic membrane supported on a sealing disk and located between a gas inflow port and the sensor's electrolyte. The membrane and disk minimize thermal shock effects due to using the sensor at a first location, at a first temperature, and then moving it to a second location at a different temperature.

Abstract: Some embodiments are directed to a board for riding on a snow surface, comprising a base having a first snow engaging element, a second snow engaging element, and a third snow engaging element positioned on a bottom surface of the base. The first snow engaging element can be positioned beneath a user's front foot during operation of the board and positioned entirely on a forward half of the base. The second and third snow engaging elements can be positioned such that a fore portion of each is positioned beneath a user's front foot during operation of the board and extends toward the rear portion of the board at least to the user's rear foot. In some embodiments, the snow engaging elements can be protrusions, depressions, or otherwise, and can be removably supported by the base.

Abstract: Some embodiments are directed to a board for riding on a snow surface, comprising a base having a first snow engaging element, a second snow engaging element, and a third snow engaging element positioned on a bottom surface of the base. The first snow engaging element can be positioned beneath a user's front foot during operation of the board and positioned entirely on a forward half of the base. The second and third snow engaging elements can be positioned such that a fore portion of each is positioned beneath a user's front foot during operation of the board and extends toward the rear portion of the board at least to the user's rear foot. In some embodiments, the snow engaging elements can be protrusions, depressions, or otherwise, and can be removably supported by the base.

Abstract: An electrochemical oxygen sensor includes a micro-porous plastic membrane supported on a sealing disk and located between a gas inflow port and the sensor's electrolyte. The membrane and disk minimize thermal shock effects due to using the sensor at a first location, at a first temperature, and then moving it to a second location at a different temperature.