Abstract: A universal controller for integration of cryogenic equipment, requiring different control mechanisms, onto a single operating platform. The universal controller may include a power supply element that is configured to simultaneously drive a plurality of cryogenic devices that have different power supply requirements and a protocol translator element that is configured to enable communication between a plurality of cryogenic devices that use different, incompatible communication protocols, wherein the protocol translator element translates communications sent by a first type of cryogenic device from a first cryogenic device communication protocol into a second cryogenic device communication protocol and translates communications sent by a second type of cryogenic device from a second cryogenic device communication protocol into the first cryogenic device communication protocol, enabling the first type of cryogenic device and the second type of cryogenic device to communicate with each other.

Abstract: A universal controller for integration of cryogenic equipment, requiring different control mechanisms, onto a single operating platform. The universal controller may include a power supply element that is configured to simultaneously drive a plurality of cryogenic devices that have different power supply requirements and a protocol translator element that is configured to enable communication between a plurality of cryogenic devices that use different, incompatible communication protocols, wherein the protocol translator element translates communications sent by a first type of cryogenic device from a first cryogenic device communication protocol into a second cryogenic device communication protocol and translates communications sent by a second type of cryogenic device from a second cryogenic device communication protocol into the first cryogenic device communication protocol, enabling the first type of cryogenic device and the second type of cryogenic device to communicate with each other.

Abstract: A universal controller for integration of cryogenic equipment, requiring different control mechanisms, onto a single operating platform. The universal controller may include a power supply element that is configured to simultaneously drive a plurality PV of cryogenic devices that have different power supply requirements and a protocol translator element that is configured to enable communication between a plurality' of cryogenic devices that use different, incompatible communication protocols, wherein the protocol translator element translates communications sent by a first type of cryogenic device from a first cryogenic device communication protocol into a second cryogenic device communication protocol and translates communications sent by a second type of cryogenic device from a second cryogenic device communication protocol into the first cryogenic device communication protocol, enabling the first type of cryogenic device and the second type of cryogenic device to communicate with each other.

Abstract: A universal controller for integration of cryogenic equipment, requiring different control mechanisms, onto a single operating platform. The universal controller may include a power supply element that is configured to simultaneously drive a plurality PV of cryogenic devices that have different power supply requirements and a protocol translator element that is configured to enable communication between a plurality' of cryogenic devices that use different, incompatible communication protocols, wherein the protocol translator element translates communications sent by a first type of cryogenic device from a first cryogenic device communication protocol into a second cryogenic device communication protocol and translates communications sent by a second type of cryogenic device from a second cryogenic device communication protocol into the first cryogenic device communication protocol, enabling the first type of cryogenic device and the second type of cryogenic device to communicate with each other.

Abstract: An array of solar collectors track the sun based on measured values of power output from the array and from a sun sensor on the array. The sun is tracked by periodically adjusting the altitude and azimuth of the array so the collectors remain pointed at the sun to maximize an amount of solar flux reflected from the collectors. The sun sensor, which detects alignment of the sun, recognizes when relative movement of the sun causes about a 10% reduction in power output of the array. The altitude and azimuth of the array are readjusted based on output from the sun sensor. While the array is being reoriented, power output from the array is monitored, and values for power output versus orientation of the array are recorded. Offset values between the power output, sun sensor output, and the ephemeral equations are calculated by comparing these values during operation.

Abstract: An array of solar collectors track the sun based on measured values of power output from the array and from a sun sensor on the array. The sun is tracked by periodically adjusting the altitude and azimuth of the array so the collectors remain pointed at the sun to maximize an amount of solar flux reflected from the collectors. The sun sensor, which detects alignment of the sun, recognizes when relative movement of the sun causes about a 10% reduction in power output of the array. The altitude and azimuth of the array are readjusted based on output from the sun sensor. While the array is being reoriented, power output from the array is monitored, and values for power output versus orientation of the array are recorded. Offset values between the power output, sun sensor output, and the ephemeral equations are calculated by comparing these values during operation.

Abstract: The present invention relates to a programmable additive controller that provides remote accounting and control of additive injectors. The invention enables remote monitoring and controlling of additive injectors from a host computer. It has statistical performance chart generation for individual additive controllers and correlates additives, products, product loadings and additive used for each injector, terminal lane and product by remote access. It remotely resets alarms and generates files for use on other systems as well as stores data for the entire company, providing company-wide information and control from a single host computer. Communications between each additive controller and the host computer is made through a modem.