Abstract: A system, method, and computer-program product includes displaying a plurality of factor-setting user interface (UI) control elements configured to receive an input of characters for specifying a set of design of experiment factors for creating a design of experiment (DOE), displaying a plurality of factor type UI control elements configured to receive input for specifying a factor type of a plurality of factor types, displaying a plurality of dynamic rows of editable UI control elements configured to receive inputs of experimental values for the set of DOE factors, and displaying a composite factor UI control component configured to receive inputs for generating one or more control signals that add or remove one or more DOE factors of the set of DOE factors.

Abstract: A method of mixing at N gases is provided. This method includes providing N gas flow meters, including N gas flows, wherein N is 3 or more. Measuring each of the N gas flows, at first predetermined intervals of time, and totaling each of the measured N flows over a second predetermined interval of time. Adding the N measured gas flows, thereby determining the total gas flow at the second predetermined interval of time. Dividing the total gas flow for each of the N gas flows by the total gas flow, thereby determining a cumulative calculated theoretical percentage for each of the N gas flows over the second predetermined interval of time. And sounding an alarm, and/or terminating the N gas flows, if the cumulative calculated theoretical percentage for any of the N gas flows exceeds a predetermined range value.

Abstract: Another method of mixing at least two gases is provided. This method includes providing a mixture composition control, comprising a predetermined composition input and a composition trim input. Providing N gas flow meters, wherein N is 3 or more. Configuring the N flow meters to adjust the N gas flows to maintain the line pressure at a predetermined value, while maintaining the predetermined composition. Adding the N measured gas flow, thereby determining the total gas flow at the first predetermined intervals of time. Adjusting the composition trim input to vary the composition of the mixed gas, without modifying the predetermined composition input. And sounding an alarm, and/or terminating both the N gas flows, if either of the following exceed a predetermined range value: the instantaneous calculated theoretical percentage for any of the N gas flows, or the cumulative calculated theoretical percentage for any of the N gas flows.

Abstract: A method of mixing at least two gases is provided. This method includes providing a mixture composition control, including a predetermined composition input and a composition trim input. Providing N gas flow meters, including a N gas flows, and N desired gas flow rates determined by the mixture composition control, wherein N is 3 or more. Mixing the N gas flows, thereby producing a mixed gas flow at the predetermined composition and at a line pressure. Configuring the N flow meters to adjust the N gas flows to maintain the line pressure at a predetermined value, while maintaining the predetermined composition. And adjusting the composition trim input to vary the composition of the mixed gas, without modifying the predetermined composition input.

Abstract: The Distributed, Unfolding, Embedded Transaction and Inventory Apparatuses, Methods and Systems (“DUETI”) transforms site traversal, site request, embed data request, purchase request inputs via DUETI components into contextual activity payload, digital/media/actual asset procurement outputs. DUETI is a distributed transaction and transformer mechanism. DUETI, in one embodiment, provides a cloud based, disritubtable, site agnostic purchasing account, and in essence, may act as a commerce enabling media distribution platform. DUETI may provide distributed: advertising, asset browsing, electronic transactions, social sharing and gifting, etc., all disjoined from any one server/site/source. As such, the DUETI may operate with native (e.g., paid) media assets wherever they exist and unfurl around such asset to bring a user the ability to operate on and with the asset wherever it may reside.

Abstract: The Distributed, Unfolding, Embedded Transaction and Inventory Apparatuses, Methods and Systems (“DUETI”) transforms site traversal, site request, embed data request, purchase request inputs via DUETI components into contextual activity payload, digital/media/actual asset procurement outputs. DUETI is a distributed transaction and transformer mechanism. DUETI, in one embodiment, provides a cloud based, distributable, site agnostic purchasing account, and in essence, may act as a commerce enabling media distribution platform. DUETI may provide distributed: advertising, asset browsing, electronic transactions, social sharing and gifting, etc., all disjoined from any one server/site/source. As such, the DUETI may operate with native (e.g., paid) media assets wherever they exist and unfurl around such asset to bring a user the ability to operate on and with the asset wherever it may reside.

Abstract: A method of mixing at N gases is provided. This method includes providing N gas flow meters, including N gas flows, wherein N is 3 or more. Measuring each of the N gas flows, at first predetermined intervals of time, and totaling each of the measured N flows over a second predetermined interval of time. Adding the N measured gas flows, thereby determining the total gas flow at the second predetermined interval of time. Dividing the total gas flow for each of the N gas flows by the total gas flow, thereby determining a cumulative calculated theoretical percentage for each of the N gas flows over the second predetermined interval of time. And sounding an alarm, and/or terminating the N gas flows, if the cumulative calculated theoretical percentage for any of the N gas flows exceeds a predetermined range value.

Abstract: Another method of mixing at least two gases is provided. This method includes providing a mixture composition control, comprising a predetermined composition input and a composition trim input. Providing N gas flow meters, wherein N is 3 or more. Configuring the N flow meters to adjust the N gas flows to maintain the line pressure at a predetermined value, while maintaining the predetermined composition. Adding the N measured gas flow, thereby determining the total gas flow at the first predetermined intervals of time. Adjusting the composition trim input to vary the composition of the mixed gas, without modifying the predetermined composition input. And sounding an alarm, and/or terminating both the N gas flows, if either of the following exceed a predetermined range value: the instantaneous calculated theoretical percentage for any of the N gas flows, or the cumulative calculated theoretical percentage for any of the N gas flows.

Abstract: A method of mixing at least two gases is provided. This method includes providing a mixture composition control, including a predetermined composition input and a composition trim input. Providing N gas flow meters, including a N gas flows, and N desired gas flow rates determined by the mixture composition control, wherein N is 3 or more. Mixing the N gas flows, thereby producing a mixed gas flow at the predetermined composition and at a line pressure. Configuring the N flow meters to adjust the N gas flows to maintain the line pressure at a predetermined value, while maintaining the predetermined composition. And adjusting the composition trim input to vary the composition of the mixed gas, without modifying the predetermined composition input.

Abstract: A video scaling technique includes scaling a first dimension and a second dimension of a frame of video data to generate a scaled frame of video data. The scaling includes scaling the second dimension of a first portion of a frame of video data at a first rate to generate first scaled pixels and scaling the second dimension of a second portion of the frame of video data at the first rate to generate second scaled pixels. The scaling includes combining first output pixels based on the first scaled pixels and second output pixels based on the second scaled pixels to provide pixels of the scaled frame of video data at a second rate. The first rate is a fraction of the second rate.

Abstract: A video scaling technique includes scaling a first dimension and a second dimension of a frame of video data to generate a scaled frame of video data. The scaling includes scaling the second dimension of a first portion of a frame of video data at a first rate to generate first scaled pixels and scaling the second dimension of a second portion of the frame of video data at the first rate to generate second scaled pixels. The scaling includes combining first output pixels based on the first scaled pixels and second output pixels based on the second scaled pixels to provide pixels of the scaled frame of video data at a second rate. The first rate is a fraction of the second rate.

Abstract: The Distributed, Unfolding, Embedded Transaction and Inventory Apparatuses, Methods and Systems (“DUETI”) transforms site traversal, site request, embed data request, purchase request inputs via DUETI components into contextual activity payload, digital/media/actual asset procurement outputs. DUETI is a distributed transaction and transformer mechanism. DUETI, in one embodiment, provides a cloud based, distributable, site agnostic purchasing account, and in essence, may act as a commerce enabling media distribution platform. DUETI may provide distributed: advertising, asset browsing, electronic transactions, social sharing and gifting, etc., all disjoined from any one server/site/source. As such, the DUETI may operate with native (e.g., paid) media assets wherever they exist and unfurl around such asset to bring a user the ability to operate on and with the asset wherever it may reside.

Abstract: A method signal for decoding in a diversity reception system can include converting the received RF signal into a plurality of digital baseband signals; phase aligning the plurality of digital baseband signals to produce a plurality of phase aligned digital baseband signals; determining a plurality of error terms from the plurality of phase aligned digital baseband signals; one of which corresponding to one of the plurality of phase aligned digital baseband signals; determining a plurality of weighting factors for the plurality of error terms based on characteristics of the plurality of digital baseband signals, one of which corresponding to one of the plurality of error terms; applying the plurality of weighting factors to the plurality of error terms to produce a plurality of weighted error terms; summing the plurality of weighted error terms to produce an error term for decoding.

Abstract: A method and apparatus for decoding baseband OFDM signals include processing that begins by slicing each sub-carrier signal of the OFDM signal into a plurality of error terms. The particular number of error terms generated for each sub-carrier signal depends on the constellation size of the data being carried by each of the sub-carrier signals. The error terms for each sub-carrier signal corresponds to the nearest constellation point having a zero or one in the I or Q direction. The process continues by grouping individual error terms of the plurality of error terms for each sub-carrier signal to produce a plurality of error terms. The processing then continues by de-interleaving each of the plurality of error term groups to produce a corresponding plurality of de-interleaved error term groups.

Abstract: A method for field error checking begins by decoding a predetermined pattern of a field of a frame to produce a decoded pattern. The method continues by determining, for the decoded pattern, a path metric distance of a predetermined state of a plurality of states of the decoding. The method continues by comparing the path metric distance with an excepted path metric distance for the predetermined state. The method continues by indicating a field error when the path metric distance compares unfavorably with the excepted path metric distance.

Abstract: A method for receiving high data rate wireless communication transmissions begins by receiving a plurality of radio frequency (RF) signals in accordance with a wireless communication standardized data rate on a plurality of RF channels. The method continues by converting each of the plurality of RF signals into a plurality of signals. The method continues by processing the plurality of signals at baseband or near baseband into media access control (MAC) data, wherein a number of the plurality of signals corresponds to an integer multiple. The method continues by processing the MAC data at a combination of wireless communication standardized data rates to produce recovered data.

Abstract: A wireless communication device capable of receiving data using non-standard data includes a receiver section, a demodulation mapping module, a decoding module, and a rate determination module. The receiver section is operably coupled to convert a radio frequency signal into a digital signal. The demodulation mapping module is operably coupled to demodulate the digital signal to produce demodulated data. The decoding module is operably coupled to decode the demodulated data based on the coding rate to produce decoded data. The rate determination module is operably coupled to determine the coding rate from at least one of the digital signal and the demodulated data, wherein the coding rate is one of a plurality of standard coding rates or a non-standard coding rate that is selected for a given transmission.

Abstract: A method and apparatus for establishing a non-standard data rate in a wireless communication system include processing that begins by establishing a standard specified data rate for a given transmission. The processing then continues by determining whether the data rate of the transmission can be adjusted from the standard specified data rate by a non-standard data rate adjustment. The processing then continues when the data rate can be adjusted, adjusting the data rate to a non-standard data rate for the given data transmission.

Abstract: A wireless communication device capable of receiving data using non-standard data includes a receiver section, a demodulation mapping module, a decoding module, and a rate determination module. The receiver section is operably coupled to convert a radio frequency signal into a digital signal. The demodulation mapping module is operably coupled to demodulate the digital signal to produce demodulated data. The decoding module is operably coupled to decode the demodulated data based on the coding rate to produce decoded data. The rate determination module is operably coupled to determine the coding rate from at least one of the digital signal and the demodulated data, wherein the coding rate is one of a plurality of standard coding rates or a non-standard coding rate that is selected for a given transmission.

Abstract: A method and apparatus for signal decoding in a diversity reception system with maximum ratio combining are disclosed.