Abstract: A waste bag holder pivotably coupled to an outdoor cooking station. The waste bag holder is a rod structure with multiple bends along its length to define a u-shaped portion and first and second engaging portions. The u-shaped portion is configured to support a waste bag. The first and second engaging portions are sized and configured to couple to coupling structure to facilitate the waste bag holder to be pivotably moveable between a use position and a stowed position.

Abstract: Described herein are wireless smart devices having integrated force, position, acceleration, and rotational sensing for science education (e.g., Newton's laws of motion, kinematics, etc.). An integrated wireless device includes an accelerometer to generate acceleration data based on detecting a current rate of acceleration of the integrated wireless device, a shaft encoder to detect angular positional changes of a shaft or axle of the integrated wireless device over time, and at least one processing unit coupled to the accelerometer. The at least one processing unit is configured to decode angular position data of the shaft encoder into positional data and to synchronize acceleration data received from the accelerometer with the positional data. In one example, a force load cell is coupled to the at least one processing unit. The force load cell measures applied force or impact force.

Abstract: Described herein are wireless smart devices having integrated force, position, acceleration, and rotational sensing for science education (e.g., Newton's laws of motion, kinematics, etc.). An integrated wireless device includes an accelerometer to generate acceleration data based on detecting a current rate of acceleration of the integrated wireless device, a shaft encoder to detect angular positional changes of a shaft or axle of the integrated wireless device over time, and at least one processing unit coupled to the accelerometer. The at least one processing unit is configured to decode angular position data of the shaft encoder into positional data and to synchronize acceleration data received from the accelerometer with the positional data. In one example, a force load cell is coupled to the at least one processing unit. The force load cell measures applied force or impact force.

Abstract: Described herein are propulsive force devices for providing propulsive force to integrated wireless devices for science education (e.g., Newton's laws of motion, kinematics, etc.). A propulsive force device includes a motor to drive a rotating member to generate a propulsive force and a motor driver coupled to the motor. The motor driver controls operation of the motor and at least one processing unit is coupled to the motor driver. The at least one processing unit is configured to receive a control signal from an integrated wireless device to adjust at least one parameter of the propulsive force device. When the propulsive force device is mounted to an integrated wireless device, operation of the propulsive force device may be configured to alter, adjust, or otherwise change dynamic properties of the integrated wireless device during science education experiments.

Abstract: Described herein are wireless smart devices having integrated force, position, acceleration, and rotational sensing for science education (e.g., Newton's laws of motion, kinematics, etc.). An integrated wireless device includes an accelerometer to generate acceleration data based on detecting a current rate of acceleration of the integrated wireless device, a shaft encoder to detect angular positional changes of a shaft or axle of the integrated wireless device over time, and at least one processing unit coupled to the accelerometer. The at least one processing unit is configured to decode angular position data of the shaft encoder into positional data and to synchronize acceleration data received from the accelerometer with the positional data. In one example, a force load cell is coupled to the at least one processing unit. The force load cell measures applied force or impact force.

Abstract: A filter for separating contaminants from fluids. The filter includes stages of differing materials arranged one after another wherein the first stage blocks and captures contaminants of a selected size and passes everything smaller than this selected size. The next stage captures contaminants of a selected size which is smaller than those blocked by the first stage. The subsequent stages capture smaller and smaller contaminants. The layers comprise various materials including stranded meshes, fibrous tissues, metallic screens and ceramic discs and tubes. Some of the ceramic discs and tubes include a downstream coating to capture further contaminants such as water droplets.

Abstract: Techniques are provided for blind hash compression, such as serving, from a computer server system and to a plurality of different computing devices remote from the computer server system, web code and code for reporting status of the computing devices; receiving from one or more of the computing devices, first data that indicates a parameter of the one or more computing devices, the first data in a compressed format; receiving from one or more others of the computing devices, second data that indicates the parameter of the one or more others of the computing devices, the second data in an uncompressed format; and compressing the second data and comparing the compressed second data to the first data to correlate the first data to the second data. The code for reporting status of the computing devices can include code for allowing the computing devices to determine whether to send the first or second data.

Abstract: A computer-implemented method includes serving, from a computer server system and to a plurality of different computing devices remote from the computer server system, web code and code for reporting status of the computing devices; receiving from one or more of the computing devices, first data that indicates a parameter of the one or more computing devices, the first data in a compressed format; receiving from one or more others of the computing devices, second data that indicates the parameter of the one or more others of the computing devices, the second data in an uncompressed format; and compressing the second data and comparing the compressed second data to the first data to correlate the first data to the second data. The code for reporting status of the computing devices can include code for allowing the computing devices to determine whether to send the first or second data.

Abstract: Described herein are propulsive force devices for providing propulsive force to integrated wireless devices for science education (e.g., Newton's laws of motion, kinematics, etc.). A propulsive force device includes a motor to drive a rotating member to generate a propulsive force and a motor driver coupled to the motor. The motor driver controls operation of the motor and at least one processing unit is coupled to the motor driver. The at least one processing unit is configured to receive a control signal from an integrated wireless device to adjust at least one parameter of the propulsive force device and to provide a control signal to the motor driver to control operation of the motor driver including adjustment of the at least one parameter.

Abstract: Described herein are wireless smart devices having integrated force, position, acceleration, and rotational sensing for science education (e.g., Newton's laws of motion, kinematics, etc.). An integrated wireless device includes an accelerometer to generate acceleration data based on detecting a current rate of acceleration of the integrated wireless device, a shaft encoder to detect angular positional changes of a shaft or axle of the integrated wireless device over time, and at least one processing unit coupled to the accelerometer. The at least one processing unit is configured to decode angular position data of the shaft encoder into positional data and to synchronize acceleration data received from the accelerometer with the positional data. In one example, a force load cell is coupled to the at least one processing unit. The force load cell measures applied force or impact force.

Abstract: A computer-implemented method involves identifying an initial element for serving by a web server system to a client device and recoding the element by creating a plurality of different elements that each represent a portion of the initial element. The different elements are then served in place of the initial element. A response is received form the client device and has portions that correspond to the different elements, and a combined response is created by combining the received portions in a manner that corresponds to a manner in which the initial element was recoded to create the plurality of different elements.

Abstract: A multistage composite fluid separator capable of isolating a first liquid from a composite fluid having at least a first and second liquid, in which the first and second liquids have differing specific gravities or for separating solid contaminates from at least one liquid. An outer housing encloses a plurality of separation chambers. An inlet port delivers the composite fluid through an elongated spillway into the sump of the chambers. Positioned between the inlet and the outlet of each chamber is a plurality of stacked baffles, composed of individual separation flow plates, placed in an inclined relationship. The plurality of baffles creates a flow path in which the composite fluid is forced to flow over each of the individual separation flow plates as the fluid travels upward in the separation chamber toward the outlet port shearing the liquid causing coalescence and coagulation of liquids due to their density and/or viscosity.

Abstract: A computer-implemented method includes serving, from a computer server system and to a plurality of different computing devices remote from the computer server system, web code and code for reporting status of the computing devices; receiving from one or more of the computing devices, first data that indicates a parameter of the one or more computing devices, the first data in a compressed format; receiving from one or more others of the computing devices, second data that indicates the parameter of the one or more others of the computing devices, the second data in an uncompressed format; and compressing the second data and comparing the compressed second data to the first data to correlate the first data to the second data. The code for reporting status of the computing devices can include code for allowing the computing devices to determine whether to send the first or second data.

Abstract: A system and method for assessing risk. In one embodiment, a system for risk assessment includes a processor and a storage device. The storage device is coupled to the processor, and stores instructions that when executed cause the processor to: 1) receive inspection result information for an inspected unit; 2) generate a probability of mishap value for the inspected unit based on the inspection result information; 3) generate a risk assessment code for the inspected unit based on the probability of mishap value; and 4) generate an inspection schedule for the inspected unit based on the risk assessment code.

Abstract: A filter for separating contaminants from fluids. The filter includes stages of differing materials arranged one after another wherein the first stage blocks and captures contaminants of a selected size and passes everything smaller than this selected size. The next stage captures contaminants of a selected size which is smaller than those blocked by the first stage. The subsequent stages capture smaller and smaller contaminants. The layers comprise various materials including stranded meshes, fibrous tissues, metallic screens and ceramic discs and tubes. Some of the ceramic discs and tubes include a downstream coating to capture further contaminants such as water droplets.

Abstract: A computer-implemented method involves identifying an initial element for serving by a web server system to a client device and recoding the element by creating a plurality of different elements that each represent a portion of the initial element. The different elements are then served in place of the initial element. A response is received form the client device and has portions that correspond to the different elements, and a combined response is created by combining the received portions in a manner that corresponds to a manner in which the initial element was recoded to create the plurality of different elements.

Abstract: A multistage composite fluid separator capable of isolating a first liquid from a composite fluid having at least a first and second liquid, in which the first and second liquids have differing specific gravities or for separating solid contaminates from at least one liquid. An outer housing encloses a plurality of separation chambers. An inlet port delivers the composite fluid through an elongated spillway into the sump of the chambers. Positioned between the inlet and the outlet of each chamber is a plurality of stacked baffles, composed of individual separation flow plates, placed in an inclined relationship. The plurality of baffles creates a flow path in which the composite fluid is forced to flow over each of the individual separation flow plates as the fluid travels upward in the separation chamber toward the outlet port shearing the liquid causing coalescence and coagulation of liquids due to their density and/or viscosity.

Abstract: Disclosed herein are genetic markers related to the efficacy and/or safety of thiazolidinedione therapy identified by a physiogenomic methodology that correlates the genetic markers with a physiological response. The genetic markers described herein were not previously associated with the efficacy and/or safety of thiazolidinedione therapy. The markers related to safety are those associated with the important side effects of BMI increase and development of edema. In one embodiment, markers related to efficacy of thiazolidinedione therapy are associated with glycosylated hemoglobin. Method of assessing an individual for markers associated with the safety and/or efficacy of thiazolidinedione therapy are described.

Abstract: Disclosed herein are genetic markers related to the efficacy and/or safety of thiazolidinedione therapy identified by a physiogenomic methodology that correlates the genetic markers with a physiological response. The genetic markers described herein were not previously associated with the efficacy and/or safety of thiazolidinedione therapy. The markers related to safety are those associated with the important side effects of BMI increase and development of edema. In one embodiment, markers related to efficacy of thiazolidinedione therapy are associated with glycosylated hemoglobin. Method of assessing an individual for markers associated with the safety and/or efficacy of thiazolidinedione therapy are described.

Abstract: An orthodontic force mechanism includes a jack screw having a pair of ends, at least one of which is threaded, and a central spindle between the ends, which spindle has two intersecting radial through-holes therein. A pair of nut housings are mounted on the end portions of the jack screw, at least one of which is threadedly coupled to a threaded end portion of the jack screw. A lock mechanism mounted on the central spindle section includes a spring-loaded detent configured to engage an end opening of each of the through holes in the spindle when the through hole is in alignment with the detent, such that the spindle cannot rotate relative to the lock mechanism when the detent is inserted into a through hole. The detent can be moved out of engagement with a through hole using a tool inserted into that through hole from its opposite end.