Abstract: Delay calibration for digital signal chains of SFCW systems is disclosed. An example calibration method includes receiving a burst with a test pulse, the burst having a duration of L clock cycles; receiving a trigger indicative of a time when the burst was transmitted; generating a digital signal indicative of the received burst; for each of L clock cycles, computing a moving average of a subset of digital samples and an amplitude for each average; identifying one moving average for which the computed amplitude is closest to an expected amplitude; identifying the clock cycle of the identified moving average; and updating at least one delay to be applied in digital signal processing of received bursts based on a difference between the trigger and the identified clock cycle. The delay may be used for selecting digital samples of the received signal that contain valid data for performing further data processing.

Abstract: The present disclosure relates to analytical testing devices comprising microfluidics and methods for performing an assay on a fluid sample received within the microfluidics, and in particular, to mitigating drift of fluid samples over a sensor by incorporating a bypass channel into the microfluidics. For example, a test cartridge device is provided that includes a fluid sample entry port and holding chamber connected to a bifurcation junction of a sensor channel and a bypass channel. The sensor channel includes an upstream region and a downstream region, and an analyte sensor is in the upstream region. As a cross-sectional area of the bypass channel is greater than the cross-sectional area of the downstream region of the sensor channel, the bypass channel is a preferred path for excess sample flow and pressure, and thus sample drift above the analyte sensor is mitigated.

Abstract: Aspects of the invention are directed towards a system and a method for generating service actionable for a plurality of equipment. Embodiments of the invention describe the method comprises steps of behaviorally classifying an equipment into normalizing classification and behavior classification. The method further comprises steps of processing the normalizing and behavior classifications to generate one or more profiles corresponding to the equipment. The one or more profiles represent time-granular behavior patterns of the equipment. The method comprises steps of generating time-granular normalized characteristics for the equipment and normalizing variances of the time-granular normalized characteristics and the time-granular behavior patterns to generate possible service actionable (SACT) recommendations that are integrated into workflows to drive action and receive prediction confirmation.

Abstract: The present invention relates to a system and method for application debt management with zero maintenance strategy that make the applications “fit for use” and “fit for purpose”. The objective is to ensure that applications run at the lowest cost, deliver maximum performance and serve the purpose for which it was developed. The machine learning enabled debt engine of present system reads the unstructured ticket data or debts, eliminates noise, and classify the debts into one of predefined categories. This is followed by remediation of debt via either of automation or healing workbench based on predetermined priorities.

Abstract: A sample rate converter (“SRC”) for implementing a rate conversion L/M is described wherein data is input to the SRC at an input rate (“Fin”) and output from the SRC at an output rate (“Fout”) equal to Fin*L/M. The SRC includes a low pass filter (“LPF”) including P multiply-add instances, wherein P is a parallelization factor of the SRC; an input formatter for arranging samples received at the SRC in accordance with the rate conversion L/M and providing P*Tpp input samples to the filter at a given time, wherein Tpp is a number of taps per phase of the LPF; and a coefficient bank for storing a plurality of coefficients and for providing P*Tpp of the coefficients to the LPF at a given time.

Abstract: A sample rate converter (“SRC”) for implementing a rate conversion L/M is described wherein data is input to the SRC at an input rate (“Fin”) and output from the SRC at an output rate (“Fout”) equal to Fin*L/M. The SRC includes a low pass filter (“LPF”) including P multiply-add instances, wherein P is a parallelization factor of the SRC; an input formatter for arranging samples received at the SRC in accordance with the rate conversion L/M and providing P*Tpp input samples to the filter at a given time, wherein Tpp is a number of taps per phase of the LPF; and a coefficient bank for storing a plurality of coefficients and for providing P*Tpp of the coefficients to the LPF at a given time.

Abstract: The present invention relates to a hood (40) of a multi cyclone block (12) and an air cleaner (10). The cyclone block (12) has a plurality of cyclone cells (28). The hood (40) having at least one hood-inlet (50) and at least one hood-outlet (52) for air to be fed to the cyclone cells (28). The at least one hood-outlet (52) is designed for surrounding, a plurality of cell-inlets (36) of the cyclone cells (28) of the cyclone block (12). A wall (70) of the hood (40) defines a distributor volume (72) inside the hood (40), which is located between the at least one hood-inlet (50) and the at least one hood-outlet (52). The wall (70) has at least one line or area of inflection (74), where at least one inner surface of the wall (70) changes its curvature.

Abstract: The present disclosure relates to analytical testing devices comprising microfluidics and methods for performing an assay on a fluid sample received within the microfluidics, and in particular, to mitigating drift of fluid samples over a sensor by incorporating a bypass channel into the microfluidics. For example, a test cartridge device is provided that includes a fluid sample entry port and holding chamber connected to a bifurcation junction of a sensor channel and a bypass channel. The sensor channel includes an upstream region and a downstream region, and an analyte sensor is in the upstream region. As a cross-sectional area of the bypass channel is greater than the cross-sectional area of the downstream region of the sensor channel, the bypass channel is a preferred path for excess sample flow and pressure, and thus sample drift above the analyte sensor is mitigated.

Abstract: System for increasing bandwidth available for data communication is provided. The system (100) includes user equipment (102) and an intermediate server (104). The user equipment (102) is configured to allocate data to a plurality of data channels (106) for transmission to the intermediate server (104), wherein each of the data channels (106) is associated with a radio access technology (108). The user equipment (102) sends the allocated data via the plurality of data channels (106) simultaneously to a destination server via the intermediate server (104). The user equipment (102) is also configured to receive data from the destination server via the intermediate server (104) via the plurality of data channels (106) simultaneously, and assemble data received from the intermediate server (104) via the plurality of data channels (106).

Abstract: In an embodiment, a method of debugging a wireless sensor network comprises: initiating, by a server node over a wireless medium, a single debugging session with a plurality of nodes of the wireless sensor network; receiving, by the server node over the wireless medium, network topology information from the nodes; and presenting, by a display device coupled to the server node, a network topology view constructed from the topology information, the network topology view including a graphical representation of each node in the topology.

Abstract: A system, method, and computer-readable medium are disclosed for managing an IT environment via a social network management operation. In various embodiments, the social network management operation enables an IT administrator to manage an IT environment using a social network analog. With the social network analog, IT administrators identify devices within the IT environment as friends. Additionally, in certain embodiments, events that occur in the devices which have been identified as friends by the IT administrators can be associated with an interest list. Additionally, in certain embodiments, the IT environment includes a plurality of spans of control, each of which is administered by different IT administrators.

Abstract: System for increasing bandwidth available for data communication is provided. The system (100) includes user equipment (102) and an intermediate server (104). The user equipment (102) is configured to allocate data to a plurality of data channels (106) for transmission to the intermediate server (104), wherein each of the data channels (106) is associated with a radio access technology (108). The user equipment (102) sends the allocated data via the plurality of data channels (106) simultaneously to a destination server via the intermediate server (104). The user equipment (102) is also configured to receive data from the destination server via the intermediate server (104) via the plurality of data channels (106) simultaneously, and assemble data received from the intermediate server (104) via the plurality of data channels (106).

Abstract: Method and data processing unit are provided for auto configuring devices to access the Internet. The method includes verifying whether a device, which has to be auto configured, has been auto configured previously by a data processing unit, which is now attempting to auto configure; and dialing using a dialing configuration that was successful previously with respect to the device, if the device was previously auto configured by the data processing unit.

Abstract: A system, method, and computer-readable medium, including obtaining a plurality of different application program interfaces (APIs), one for each of a plurality of different technology stacks, to be used in a test flow of a product constructed of the plurality of different technology stacks; generating a model of a test flow using each of the plurality of different APIs; defining input and output parameters for each of the plurality of different APIs in the model; automatically generating executable instructions to execute the modeled test flow; and storing a record of the executable instructions to execute the modeled test flow.

Abstract: Pneumatic control valve of a vehicle air brake system, having at least one first valve system which is arranged in a housing upper part with a first valve piston which can be actuated via an elastomer spring element, and having a second valve system which is arranged in a housing lower part with a coaxially arranged second valve piston which can be actuated by the first valve system and with a second annular plate valve. The elastomer spring element and the first valve piston are configured in one piece as a composite component. In the region of a radial sealing lip of the spring element, the material of the elastomer spring element engages radially and axially in a positively locking manner around a radially outer section of the first valve piston.

Abstract: A system, method, and computer-readable medium, including obtaining a plurality of different application program interfaces (APIs), one for each of a plurality of different technology stacks, to be used in a test flow of a product constructed of the plurality of different technology stacks; generating a model of a test flow using each of the plurality of different APIs; defining input and output parameters for each of the plurality of different APIs in the model; automatically generating executable instructions to execute the modeled test flow; and storing a record of the executable instructions to execute the modeled test flow.

Abstract: The present disclosure relates to method and system for dynamically managing waste water treatment process in a water treatment plant. Operational data related to water treatment process are collected from various data sources and operational parameters are identified at various levels using the operational data. Historical and real-time threshold values of operational parameters are identified based on historic and real-time operational data and real-time operational data respectively. Degrees of significance of operational parameters on the water treatment processes are calculated at each level. Further, plurality of inflection points, indicating optimal range of operational data, are identified based on degrees of significance, historical and real-time thresholds. Finally, water treatment processes are optimized based on inflection points, thereby optimizing power consumption for the water treatment plant.

Abstract: Pneumatic control valve of a compressed-air brake system of a vehicle, having at least one first valve system which is arranged in an upper housing and has a first valve piston which interacts with a first valve and can be actuated manually or by means of an actuator via a spring element by means of a plunger piston, having a second valve system which is arranged in a lower housing with a coaxially arranged second valve piston which can be actuated pneumatically and/or mechanically by the first valve system and with a second annular plate valve. The first valve piston is guided via the plunger piston in the cylindrical guide in the housing upper part.

Abstract: The present invention relates to a hood (40) of a multi cyclone block (12) and an air cleaner (10). The cyclone block (12) has a plurality of cyclone cells (28). The hood (40) having at least one hood-inlet (50) and at least one hood-outlet (52) for air to be fed to the cyclone cells (28). The at least one hood-outlet (52) is designed for surrounding, a plurality of cell-inlets (36) of the cyclone cells (28) of the cyclone block (12). A wall (70) of the hood (40) defines a distributor volume (72) inside the hood (40), which is located between the at least one hood-inlet (50) and the at least one hood-outlet (52). The wall (70) has at least one line or area of inflection (74), where at least one inner surface of the wall (70) changes its curvature.

Abstract: The present invention relates to a hood (40) of a multi cyclone block (12) and an air cleaner (10). The cyclone block (12) has a plurality of cyclone cells (28). The hood (40) having at least one hood-inlet (50) and at least one hood-outlet (52) for air to be fed to the cyclone cells (28). The at least one hood-outlet (52) is designed for surrounding, a plurality of cell-inlets (36) of the cyclone cells (28) of the cyclone block (12). A wall (70) of the hood (40) defines a distributor volume (72) inside the hood (40), which is located between the at least one hood-inlet (50) and the at least one hood-outlet (52). The wall (70) has at least one line or area of inflection (74), where at least one inner surface of the wall (70) changes its curvature.