mhurhangee/ep-ind-claims huggingface dataset:
A method for switching between network connections for a mobile device, the method comprising: determining, by the mobile device, a quality of connection corresponding to a first network provided by an access point, the quality of connection based on a quantity of packets successfully transmitted to and/or successfully received from the first network via the access point; determining, by the mobile device, a rate of change of a received signal strength indication, RSSI, corresponding to the first network; predicting, by the mobile device, that a connection to the first network will be beyond a quality threshold at a specific instance in time in the future based on the rate of change and the quality of connection; and based on the prediction that the connection to the first network will be beyond the quality threshold at the specific instance in time in the future, switching, by the mobile device, from the first network to a second network before the specific instance in time in the future, wherein predicting that the connection to the first network will be beyond the quality threshold comprises: determining whether the rate of change of the RSSI is positive or negative; determining a quality score based on the rate of change of the RSSI, the quality of connection, and whether the rate of change of the RSSI is positive or negative; and comparing the quality score to a quality score threshold. determining, by the mobile device, a quality of connection corresponding to a first network provided by an access point, the quality of connection based on a quantity of packets successfully transmitted to and/or successfully received from the first network via the access point; determining, by the mobile device, a rate of change of a received signal strength indication, RSSI, corresponding to the first network; predicting, by the mobile device, that a connection to the first network will be beyond a quality threshold at a specific instance in time in the future based on the rate of change and the quality of connection; and based on the prediction that the connection to the first network will be beyond the quality threshold at the specific instance in time in the future, switching, by the mobile device, from the first network to a second network before the specific instance in time in the future, wherein predicting that the connection to the first network will be beyond the quality threshold comprises: determining whether the rate of change of the RSSI is positive or negative; determining a quality score based on the rate of change of the RSSI, the quality of connection, and whether the rate of change of the RSSI is positive or negative; and comparing the quality score to a quality score threshold. determining whether the rate of change of the RSSI is positive or negative; determining a quality score based on the rate of change of the RSSI, the quality of connection, and whether the rate of change of the RSSI is positive or negative; and comparing the quality score to a quality score threshold.
An assembly for supporting a functional module, comprising: - a modular support construction, which is formed by carrier elements which are designed with a hollow cross-section and mutually opposite profile elements, wherein the profile elements each comprise a central half-pipe section and partial wing sections with profile element openings integrally moulded thereon on both sides and the partial wing sections of the profile elements are arranged lying flat on one another, in such a way that the profile element openings are assigned to one another in pairs, the half-pipe sections of each of the carrier elements form a pipe section and the partial wing sections of each of the carrier elements each form a wing section, characterised in that the partial wing sections are each arranged aligned with one another and glued to one another and - a functional module which is mounted on the support construction. - a modular support construction, which is formed by carrier elements which are designed with a hollow cross-section and mutually opposite profile elements, wherein the profile elements each comprise a central half-pipe section and partial wing sections with profile element openings integrally moulded thereon on both sides and the partial wing sections of the profile elements are arranged lying flat on one another, in such a way that the profile element openings are assigned to one another in pairs, the half-pipe sections of each of the carrier elements form a pipe section and the partial wing sections of each of the carrier elements each form a wing section, characterised in that the partial wing sections are each arranged aligned with one another and glued to one another and - a functional module which is mounted on the support construction.
A process of preparing baked bread by baking a farinaceous dough, said process comprising incorporating into the dough a combination of two or more enzymes including: • maltogenic amylase in an amount of 750-75,000 maltogenic amylase units per kg of flour, said maltogenic amylase having an optimum temperature above 50°C; • amyloglucosidase in an amount of 0.01-3.0 amyloglucosidase units per unit of MAU activity, wherein one unit of maltogenic amylase activity is defined as the amount of enzyme required to release one nanomol of maltose per second at a concentration of 10 mg of maltotriose substrate per ml of 0.1 M citrate buffer, pH 5.0 at 37°C, and wherein one unit of amyloglucosidase activity is defined as the amount of enzyme required to release one nanomol of glucose per second at a concentration of 10 mg of maltose substrate per ml of 0.1 M citrate buffer, pH 5.0 at 37°C. • maltogenic amylase in an amount of 750-75,000 maltogenic amylase units per kg of flour, said maltogenic amylase having an optimum temperature above 50°C; • amyloglucosidase in an amount of 0.01-3.0 amyloglucosidase units per unit of MAU activity,
Vehicle having a fuel-cell system and having at least one water container (3, 4) for supplying water to at least one water-consuming facility (5, 6) of a sanitary unit or a galley, wherein the vehicle comprises an electric drive, wherein the fuel-cell system is configured for supplying energy to the electric drive, wherein a process-water outlet of the fuel-cell system is connected to the at least one water container (3, 4) by means of at least one pipeline, so that process water is able to be fed from the fuel-cell system to the at least one water container (3, 4) via the at least one pipeline, characterized in that the at least one water container (3, 4) is a grey-water container, and wherein the fuel-cell system is arranged in the roof region of the vehicle.
A method for organising a communication link between customer-provided equipment "CPE" and a hybrid access aggregation point "HAAP" to a communication network, wherein at least two transmission channels (2, 3) are provided between the CPE and the HAAP for transporting a data stream, each of which uses different communication standards, in particular a landline standard and a mobile-phone standard, for transmitting said data stream, wherein the transmission channels (2, 3) can be used jointly and/or alternately for transmitting said data stream, wherein a controller is provided on the communication network side, which controller is provided with input parameters, wherein status parameters of the transmission channels (2, 3) are detected and supplied to the controller as dynamic input parameters, characterized in that the status parameters are detected at short time intervals, that the controller determines transmission values for each transmission channel (2, 3) based on the dynamic input parameters and on a defined code, and that the transmission of the data stream is distributed among the transmission channels (2, 3) according to the transmission values.
An apparatus for generating a bimodal stimulus for the improvement of symptoms of a neurological disorder of the auditory system, comprising a processing unit, an audio stimulation unit and a somatosensory stimulation unit; wherein said processing unit comprises: a processor operable to receive an audio signal as an input and generate a plurality of actuation signals representative of the audio signal, the audio signal comprising a first component comprising a broadband or white noise component and a second component comprising a plurality of complex tone bursts; analyse the received audio signal to generate a binaural modified audio signal representative of the audio signal, the modified audio signal configured to promote a sense of relaxation in a subject; deliver the plurality of actuation signals to the somatosensory stimulation unit, the somatosensory stimulation unit comprising an array of stimulators each of which is independently actuatable in response to the plurality of actuation signals to provide a somatosensory output corresponding to the received audio input; and deliver the modified audio signal to the audio stimulation unit comprising audio transducers, wherein the modified audio signal is a stereo audio signal having a -3dB frequency response of 20Hz to 20kHz and a dynamic range of >90dB. a processor operable to receive an audio signal as an input and generate a plurality of actuation signals representative of the audio signal, the audio signal comprising a first component comprising a broadband or white noise component and a second component comprising a plurality of complex tone bursts; analyse the received audio signal to generate a binaural modified audio signal representative of the audio signal, the modified audio signal configured to promote a sense of relaxation in a subject; deliver the plurality of actuation signals to the somatosensory stimulation unit, the somatosensory stimulation unit comprising an array of stimulators each of which is independently actuatable in response to the plurality of actuation signals to provide a somatosensory output corresponding to the received audio input; and deliver the modified audio signal to the audio stimulation unit comprising audio transducers, wherein the modified audio signal is a stereo audio signal having a -3dB frequency response of 20Hz to 20kHz and a dynamic range of >90dB.
A method for configuring a control device of a home automation installation of a building, the home automation installation comprising a plurality of home automation equipment, the control device comprising a data input device and a display device, the display device having a graphic representation screen, the control device being configured to monitor the operation of the home automation equipment, characterized in that said method comprises at least the following steps: a) initiating the configuration of a new control scenario (Scn) in response to a user interaction on a selection element (201a, 201b, 201c, 201d) of the data input device,; b) Capturing or selecting an image by the control device at a first given moment; c) constituting a selection (Sel) of at least one home automation equipment among a plurality of home automation equipment to which the scenario (Scn) must be applied; d) Storing at least one state data corresponding to the at least one selected home automation equipment (Sel) and configuring the selection element (201a, 201b, 201c, 201d) of the data input device, the configuration associating the captured or selected image with the at least one state data of the home automation equipment of the selection (Sel) e) Triggering, in response to a user interaction with said selection element (201a, 201b, 201c, 201d), the transmission of at least one scenario (Scn) control to the selected home automation equipment, so that this home automation equipment reaches the state corresponding to the at least one stored state data. a) initiating the configuration of a new control scenario (Scn) in response to a user interaction on a selection element (201a, 201b, 201c, 201d) of the data input device,; b) Capturing or selecting an image by the control device at a first given moment; c) constituting a selection (Sel) of at least one home automation equipment among a plurality of home automation equipment to which the scenario (Scn) must be applied; d) Storing at least one state data corresponding to the at least one selected home automation equipment (Sel) and configuring the selection element (201a, 201b, 201c, 201d) of the data input device, the configuration associating the captured or selected image with the at least one state data of the home automation equipment of the selection (Sel) e) Triggering, in response to a user interaction with said selection element (201a, 201b, 201c, 201d), the transmission of at least one scenario (Scn) control to the selected home automation equipment, so that this home automation equipment reaches the state corresponding to the at least one stored state data.
EPO for use for the improvement of the vision of a patient suffering from an injury or defect of the cornea of the eye or pathological conditions related thereto, wherein 20 to 60 Units EPO / kg body weight / week are topically administered to the patient in form of aqueous drops, a hydrogel or a liposome formulation.
Module consisting of a first metallic component and a second metallic component which are joined with a welding seam, generated by means of a welding procedure, as a joining connection, wherein - the welding seam has a welding seam main portion (4.1) extending along a joining gap formed between the metallic components (1, 2), characterised in that - the welding seam has a welding seam initial section (4.2) led out of the direction of the joining gap into the first or second component (1, 2), wherein in the region of the welding scene initial section (4.2) the first or second component (1, 2) has an indentation (2.4) locally sunken with respect to the upper edges (1.2, 2.2), forming the joining gap, of the two components (1, 2), and/or - the welding seam has a welding seam end section (4.3) led out of the direction of the joining gap into the first or second component (1, 2), wherein the first or second component (1, 2) in the region of the welding seam end section (4.3) has an indentation (2.6) locally sunken with respect to the upper edges (1.2, 2.2), forming the joining gap, of the two components (1, 2), wherein the local indentations (2.4, 2.6) are situated externally to the joining gap in one of the two components (1, 2). - the welding seam has a welding seam main portion (4.1) extending along a joining gap formed between the metallic components (1, 2), characterised in that - the welding seam has a welding seam initial section (4.2) led out of the direction of the joining gap into the first or second component (1, 2), wherein in the region of the welding scene initial section (4.2) the first or second component (1, 2) has an indentation (2.4) locally sunken with respect to the upper edges (1.2, 2.2), forming the joining gap, of the two components (1, 2), and/or - the welding seam has a welding seam end section (4.3) led out of the direction of the joining gap into the first or second component (1, 2), wherein the first or second component (1, 2) in the region of the welding seam end section (4.3) has an indentation (2.6) locally sunken with respect to the upper edges (1.2, 2.2), forming the joining gap, of the two components (1, 2), wherein the local indentations (2.4, 2.6) are situated externally to the joining gap in one of the two components (1, 2).
A method for detecting lupus anticoagulants, the method comprising the following steps, and: adding a buffer solution composition containing blood coagulation factors to each of a blood sample and a diluted sample of the blood sample before measurement or at the time of measurement of blood coagulation time; measuring the blood coagulation times for the various samples of step; and comparing the blood coagulation times for the various samples obtained in step, wherein as the ratio (Coagulation time of diluted sample)/(coagulation time of blood sample) is smaller than a cut-off value calculated from measured values of healthy persons' plasmas with no coagulation abnormality, the blood sample is considered to be lupus anticoagulant-positive. adding a buffer solution composition containing blood coagulation factors to each of a blood sample and a diluted sample of the blood sample before measurement or at the time of measurement of blood coagulation time; measuring the blood coagulation times for the various samples of step; and comparing the blood coagulation times for the various samples obtained in step,
A method for operating a depth sensor, the method comprising: performing a configuration operation for a depth sensor, the configuration operation comprising: storing a first sequence of operation steps which define a first depth sensing mode of operation in a memory of the depth sensor, the first sequence of operation steps including one or more common operation steps; and storing a second sequence of operation steps which, combined with the one or more common operation steps, define a second depth sensing mode of operation in the memory of the depth sensor; receiving a first request for depth measurements according to the first depth sensing mode of operation; in response to the first request, operating the depth sensor in the first mode of operation by causing it to execute the first sequence of operation steps; receiving a second request for depth measurements according to the second depth sensing mode of operation; and in response to the second request, and without performing an additional configuration operation, operating the depth sensor in the second mode of operation by causing it to execute the second sequence of operation steps and the one or more common operation steps. performing a configuration operation for a depth sensor, the configuration operation comprising: storing a first sequence of operation steps which define a first depth sensing mode of operation in a memory of the depth sensor, the first sequence of operation steps including one or more common operation steps; and storing a second sequence of operation steps which, combined with the one or more common operation steps, define a second depth sensing mode of operation in the memory of the depth sensor; storing a first sequence of operation steps which define a first depth sensing mode of operation in a memory of the depth sensor, the first sequence of operation steps including one or more common operation steps; and storing a second sequence of operation steps which, combined with the one or more common operation steps, define a second depth sensing mode of operation in the memory of the depth sensor; receiving a first request for depth measurements according to the first depth sensing mode of operation; in response to the first request, operating the depth sensor in the first mode of operation by causing it to execute the first sequence of operation steps; receiving a second request for depth measurements according to the second depth sensing mode of operation; and in response to the second request, and without performing an additional configuration operation, operating the depth sensor in the second mode of operation by causing it to execute the second sequence of operation steps and the one or more common operation steps.
A layer multiplication device (14, 100) comprising a housing and at least one layer multiplication insert (104, 106, 200), said housing having an inlet configured to receive a primary flow stream, an outlet configured to discharge the flow stream, and a flow cavity having a length extending between said inlet and said outlet, and said at least one layer multiplication insert (104, 106, 200) positioned within said flow cavity, said layer multiplication insert (104, 106, 200) being configured to divide the primary flow stream into at least a first flow stream and a second flow stream and recombine the first flow stream and the second flow stream by stacking the first flow stream on top of the second flow stream, wherein said at least one layer multiplication insert (104, 106, 200) has a first side, a second side opposite said first side, a leading edge, and a trailing edge, said leading edge of said layer multiplication insert defines a downwardly directed divider and an adjacent upwardly directed divider, said downwardly directed divider is configured to direct the first flow stream on said first side of said layer multiplication insert and said upwardly directed divider is configured to direct the second flow stream on said second side of said layer multiplication insert, characterized in that said inlet has an inlet flow volume equivalent to a cross-sectional area of said housing at said inlet multiplied by the length of said flow cavity, and said flow cavity has a cavity flow volume greater than said inlet flow volume, wherein said cavity flow volume is a free volume, which is not occupied by the layer multiplication insert (104, 106, 200), such that the at least first flow stream and the second flow stream have more volume within the device to travel as the amount of volume of the primary flow stream entering the device, even though the layer multiplication insert occupies space within the device.
A method for detecting colorectal cancer in a subject comprising determining the methylation level of at least the GLI3 gene in a biological sample isolated from said subject wherein the presence of CpG methylation is indicative of the presence or class of said colorectal cancer.