mhurhangee/ep-ind-claims huggingface dataset:
A method for analysis of multi-parameter data to identify one or more phenotypes, the method comprising: obtaining multi-parameter data sets that are representative of respective images of a plurality of samples; obtaining intra-sample distance measurements based on a comparison of distributions of the same parameter within samples under different conditions; obtaining inter-sample distance measurements based on a comparison of distributions of different parameters within a sample under a given condition; determining, based on both the intra-sample and inter-sample distance measurements, correlated parameters in the respective multi-parameter data sets; creating an analysis parameter set with at least one of the correlated parameters removed; and applying the analysis parameter set to identify one or more phenotypes from the multi-parameter data sets. obtaining multi-parameter data sets that are representative of respective images of a plurality of samples; obtaining intra-sample distance measurements based on a comparison of distributions of the same parameter within samples under different conditions; obtaining inter-sample distance measurements based on a comparison of distributions of different parameters within a sample under a given condition; determining, based on both the intra-sample and inter-sample distance measurements, correlated parameters in the respective multi-parameter data sets; creating an analysis parameter set with at least one of the correlated parameters removed; and applying the analysis parameter set to identify one or more phenotypes from the multi-parameter data sets.
A method for determining an actual capacity of a battery during ongoing operation, using a characteristic curve field having characteristic curves generated by taking into account a magnitude of a discharge current, a temperature and a removable capacity of a battery, the method comprising the steps of: determining at a start of a discharge process an initial voltage (U Beginn) of the battery, a magnitude of the discharge current and a temperature of the battery, by comparison of the magnitude of the discharge current and the temperature with data contained in the characteristic curve field, selecting a characteristic curve and determining an initial state of the battery, measuring a final voltage (U Mess) of the battery at an end of the discharge process, comparing the final voltage (U Mess) with an expected voltage (U Erwartet) expected at the end of the discharge process based on the selected characteristic curve, and when the final voltage (U Mess) is smaller than the expected voltage (U Erwartet) expected based on the discharge process, concluding that the actual capacity of the battery is smaller than the removable capacity assumed at the beginning of the discharge process. determining at a start of a discharge process an initial voltage (U Beginn) of the battery, a magnitude of the discharge current and a temperature of the battery, by comparison of the magnitude of the discharge current and the temperature with data contained in the characteristic curve field, selecting a characteristic curve and determining an initial state of the battery, measuring a final voltage (U Mess) of the battery at an end of the discharge process, comparing the final voltage (U Mess) with an expected voltage (U Erwartet) expected at the end of the discharge process based on the selected characteristic curve, and when the final voltage (U Mess) is smaller than the expected voltage (U Erwartet) expected based on the discharge process, concluding that the actual capacity of the battery is smaller than the removable capacity assumed at the beginning of the discharge process.
Method for manufacturing at least one part in silicon wherein a) a substrate is provided comprising the superposition, in a transverse direction, of at least a first layer of silicon of thickness e1, an intermediate layer of silicon dioxide, and a second layer of silicon of thickness e2, the intermediate layer thus being interposed between the first and second layers (10, 20); then, in this order or another: b) the first layer is etched to form the at least one part, c) at least one detachment groove is etched in the second layer to delimit within said second layer at least one portion to be detached covering or intended to cover said at least one part, at least one so-called blind portion of the detachment groove being etched in such a way that a part of the second layer, forming a connection, is retained in line with said portion, and d) the intermediate layer is partially removed by eliminating the silicon dioxide in line with the said at least one portion to be detached or the intended location of the said portion to be detached; and finally e) the at least one portion to be detached is mechanically separated from the rest of the substrate by breaking the connection. a) a substrate is provided comprising the superposition, in a transverse direction, of at least a first layer of silicon of thickness e1, an intermediate layer of silicon dioxide, and a second layer of silicon of thickness e2, the intermediate layer thus being interposed between the first and second layers (10, 20); b) the first layer is etched to form the at least one part, c) at least one detachment groove is etched in the second layer to delimit within said second layer at least one portion to be detached covering or intended to cover said at least one part, at least one so-called blind portion of the detachment groove being etched in such a way that a part of the second layer, forming a connection, is retained in line with said portion, and d) the intermediate layer is partially removed by eliminating the silicon dioxide in line with the said at least one portion to be detached or the intended location of the said portion to be detached; and finally e) the at least one portion to be detached is mechanically separated from the rest of the substrate by breaking the connection.
A temperature-dependent switch, comprising: - a temperature-dependent switching mechanism having a switching mechanism unit, which comprises a movable contact part coupled to a bimetallic snap-action disc, and having a switching mechanism housing, in which the switching mechanism unit is arranged and held captively therein; and - a switch housing, in which the switching mechanism housing is arranged and held captively therein, wherein the switch housing comprises a stationary contact part, which acts as a mating contact to the movable contact part; wherein the switching mechanism housing surrounds the switching mechanism unit from a first housing side, a second housing side opposite the first housing side, and a housing circumferential side extending between and transversely to the first and the second housing sides (24, 26), and on the first housing side comprises an opening through which the movable contact part interacts with the stationary contact part, wherein the switching mechanism housing comprises an electrically conductive base body, which forms at least part of the second housing side, characterized in that said part of the second housing side forms a freely accessible outside of the switch, and that the switch further comprises an insulator, which electrically insulates the base body of the switching mechanism housing from the switch housing and is arranged inside the switch housing. - a temperature-dependent switching mechanism having a switching mechanism unit, which comprises a movable contact part coupled to a bimetallic snap-action disc, and having a switching mechanism housing, in which the switching mechanism unit is arranged and held captively therein; and - a switch housing, in which the switching mechanism housing is arranged and held captively therein, wherein the switch housing comprises a stationary contact part, which acts as a mating contact to the movable contact part; wherein the switching mechanism housing surrounds the switching mechanism unit from a first housing side, a second housing side opposite the first housing side, and a housing circumferential side extending between and transversely to the first and the second housing sides (24, 26), and on the first housing side comprises an opening through which the movable contact part interacts with the stationary contact part,
A device for piecing a thread at a workstation of a textile machine, comprising a suction nozzle for picking up a thread end of the thread from a bobbin, wherein the suction nozzle includes an extraction mouth, a suction channel as well as an entry opening for the thread, and comprising a feeder unit for forming a thread loop from the thread end picked up by the suction nozzle situated so as to be movable with respect to the suction nozzle, wherein the feeder unit comprises a cover element for closing the entry opening of the suction nozzle, as well as a thread-guiding element, and wherein the feeder unit can be moved back and forth between a first position, in which the cover element closes the entry opening of the suction nozzle, and a second position, in which the cover element unblocks the entry opening of the suction nozzle, wherein the thread guiding element is situated inside the suction channel in the first position and outside the suction channel in the second position characterized in that the thread-guiding element has an open contour.
A system for thermal analysis with a sample crucible on a sample side and a reference crucible on a reference side in a measurement chamber, wherein the sample side and the reference side (4, 6) of the system for thermal analysis are constituted symmetrically, wherein the sample crucible and the reference crucible are each provided with a Peltier system (7, 8) for temperature detection and/or for temperature adjustment, wherein a first combination (3, 7) comprising the sample crucible and an associated first Peltier system provided at the bottom of the sample crucible is formed on the sample side and a second combination (5, 8) comprising a reference crucible and an associated second Peltier system provided at the bottom of the reference crucible is formed on the reference side, wherein the two combinations (3, 7; 5, 8) sit on a cooling block, and wherein the system is designed so that the Peltier systems (7, 8) can be used both as temperature sensors for temperature detection and also as heating or cooling devices for the temperature adjustment in the thermal analysis.
A method comprising performing the following steps on a programmed data-processing apparatus: a) obtaining a sequence of images captured from a three-dimensional object by a penetrating radiation imaging apparatus over a scanning period, wherein each captured image is associated with a specific imaging angle (φ), and wherein the three-dimensional object is transformed relative to the imaging apparatus in an unknown manner during the scanning period; b) applying an initial reconstruction on the sequence of the captured images, thereby creating an initial reconstructed volumetric image; for each of several imaging angles (φ): c) generating a set of simulated images corresponding to the imaging angle (φ), by repeatedly applying simulated projections on the initial reconstructed volumetric image under a set of varied spatial transformation parameters of at least a portion of the initial reconstructed volumetric image relative to the imaging apparatus; d) within the set of the simulated images corresponding to the imaging angle (φ), determining an optimized set of spatial transformation parameters, wherein the optimized set of spatial transformation parameters, when used for the simulated projection in the preceding step, results in an improved fit with the captured image associated with the imaging angle (φ) compared with the simulated projection without spatial transformation parameters; and e) applying a second reconstruction on the sequence of captured images, wherein the second reconstruction is corrected by the optimized set of spatial transformation parameters, thereby creating a transformation-corrected reconstructed volumetric image. a) obtaining a sequence of images captured from a three-dimensional object by a penetrating radiation imaging apparatus over a scanning period, wherein each captured image is associated with a specific imaging angle (φ), and wherein the three-dimensional object is transformed relative to the imaging apparatus in an unknown manner during the scanning period; b) applying an initial reconstruction on the sequence of the captured images, thereby creating an initial reconstructed volumetric image; c) generating a set of simulated images corresponding to the imaging angle (φ), by repeatedly applying simulated projections on the initial reconstructed volumetric image under a set of varied spatial transformation parameters of at least a portion of the initial reconstructed volumetric image relative to the imaging apparatus; d) within the set of the simulated images corresponding to the imaging angle (φ), determining an optimized set of spatial transformation parameters, wherein the optimized set of spatial transformation parameters, when used for the simulated projection in the preceding step, results in an improved fit with the captured image associated with the imaging angle (φ) compared with the simulated projection without spatial transformation parameters; and e) applying a second reconstruction on the sequence of captured images, wherein the second reconstruction is corrected by the optimized set of spatial transformation parameters, thereby creating a transformation-corrected reconstructed volumetric image.
A vehicle combination unit comprising: a tractor having at least a first driving axle, an electric motor configured to drive the first driving axle, and a first energy storage unit; an interface; first power electronics; and at least one trailer having at least one wheel axle and being configured to be coupled to the tractor via the interface, the trailer comprising a second energy storage unit, and the first power electronics being configured to supply at least the electric motor of the first driving axle with electrical energy from the second energy storage unit via the interface as a function of a given operating situation of the vehicle combination unit, characterized in that the tractor comprises second power electronics configured to supply at least an electric motor of a second driving axle of the tractor with electrical energy from the first energy storage unit as a function of a given operating situation of the vehicle combination unit, the first energy storage unit comprises a high-voltage battery and the second energy storage unit comprises a low-voltage battery, the electric motor of the first driving axle is a low-voltage drive, and the electric motor of the second driving axle is a high-voltage drive.
A wall-mountable wireless control device comprising: a yoke configured to mount the control device to an electrical wallbox; a user interface comprising an actuation member configured to receive a user input; an antenna configured to transmit or receive radio-frequency signals; a radio-frequency communication circuit configured to transmit or receive the radio-frequency signals via the antenna; and a control circuit responsive to the radio-frequency communication circuit, characterized in that the antenna comprises a slot antenna, wherein the slot antenna comprises a driven element defining a first elongated slot through which the actuation member of the user interface extends. a yoke configured to mount the control device to an electrical wallbox; a user interface comprising an actuation member configured to receive a user input; an antenna configured to transmit or receive radio-frequency signals; a radio-frequency communication circuit configured to transmit or receive the radio-frequency signals via the antenna; and a control circuit responsive to the radio-frequency communication circuit, characterized in that the antenna comprises a slot antenna, wherein the slot antenna comprises a driven element defining a first elongated slot through which the actuation member of the user interface extends.
A burner control mechanism comprising: a processor; a first mass flow sensor having a first port connectable to an air supply, and a signal terminal connected to the processor; a second mass flow sensor having a first port connectable to the air supply, and having a signal terminal connected to the processor; a first coupling point having a first port connected to the second port of the second mass flow sensor, having a second port and a third port; a second coupling point having a first port connected to the second port of the first mass flow sensor, a second port connected to the third port of the first coupling point, and having third port connectable to a combustion chamber; a shut-off device having a first port connected to the second port of the first coupling point and having a second port; an actuator connected to the shut-off device and having a terminal connected to the processor; a variable restriction device having a first port connected to the second port of the shut-off device and having a second port; an actuator connected to the variable restriction device, and having a terminal connected to the processor; a shut-off valve having a first port connectable to a fuel supply and a second port connected to the second port of the variable restriction device; and an actuator connected to the shut-off valve and having a terminal connected to the processor. a processor; a first mass flow sensor having a first port connectable to an air supply, and a signal terminal connected to the processor; a second mass flow sensor having a first port connectable to the air supply, and having a signal terminal connected to the processor; a first coupling point having a first port connected to the second port of the second mass flow sensor, having a second port and a third port; a second coupling point having a first port connected to the second port of the first mass flow sensor, a second port connected to the third port of the first coupling point, and having third port connectable to a combustion chamber; a shut-off device having a first port connected to the second port of the first coupling point and having a second port; an actuator connected to the shut-off device and having a terminal connected to the processor; a variable restriction device having a first port connected to the second port of the shut-off device and having a second port; an actuator connected to the variable restriction device, and having a terminal connected to the processor; a shut-off valve having a first port connectable to a fuel supply and a second port connected to the second port of the variable restriction device; and an actuator connected to the shut-off valve and having a terminal connected to the processor.
A method of ensuring content checking of data transmitted between a first and a second, separate computer system wherein the first and second computer systems are linked by a computer apparatus, the method comprising: i. network logic of the apparatus receiving data from the first system and passing the data to scrambler logic of the apparatus; ii. the scrambler logic scrambling the data and passing the scrambled data to host logic of the apparatus; iii. the host logic passing the scrambled data to descrambler software of the apparatus; iv. the descrambler software unscrambling the scrambled data and passing the unscrambled data to a content checker of the apparatus; and v. the content checker checking that the unscrambled data is allowed to pass to the second computer system. i. network logic of the apparatus receiving data from the first system and passing the data to scrambler logic of the apparatus; ii. the scrambler logic scrambling the data and passing the scrambled data to host logic of the apparatus; iii. the host logic passing the scrambled data to descrambler software of the apparatus; iv. the descrambler software unscrambling the scrambled data and passing the unscrambled data to a content checker of the apparatus; and v. the content checker checking that the unscrambled data is allowed to pass to the second computer system.
A sheet-like article comprising ultrafine fibers with an average monofilament diameter of 0.1 μm or more and 7 μm or less and an elastic polymer containing polyurethane as primary component which accounts for more than 50 mass-% of the total mass of the elastic polymer, meeting Formula (a) given below for the ratio between the fiber density (A') in the layer having a thickness equal to 50% of the total thickness measured from one of the surfaces, herein referred to as layer, and the fiber density (B') in the layer having a thickness equal to 50% of the total thickness measured from the other surface, herein referred to as layer, meeting Formula (b) given below for the ratio between the density (A") of the elastic polymer containing polyurethane as primary component in layer and the density (B") of the elastic polymer containing polyurethane as primary component in layer, and having an overall density of 0.2 g/cm 3 or more and 0.6 g/cm 3 or less for the entire sheet-like article: 1 > A ′ / B ′ ≥ 0.5 1 > A ′ ′ / B ′ ′ ≥ 0.6 wherein the ratio (A')/(B'), the ratio (A")/(B") and the overall density of the sheet-like article are determined as described in the description.
Method for producing cluster packs, comprising a container delivery system with one or more tracks or one or multi-track container feeds, in which, for example, the containers exhibit a random orientation in respect of their container features and/or fitting features, and with at least one grouping and/or packeting unit or grouping and/or packeting section for grouping and packeting a predetermined number of containers, compacted or formed container groups or part cluster packs are formed, and then grouped together in each case to form a later cluster pack, characterised in that before the application of a shrink film, a band is arranged on the later cluster pack, and that the shrink film is adhesively bonded at least in sections to face sides of the cluster pack by means of the application of an adhesive agent or glue.