mhurhangee/ep-ind-claims huggingface dataset:
Outlet guide vane for an axial compressor extending along a rotor axis (x), comprising an airfoil extending in a span direction from a radially inner end at 0% height to a radially outer end at 100% height, the airfoil comprising a suction side and an opposite pressure side, both sides extending in a chord direction from a leading edge to a trailing edge, wherein for each profile of the airfoil a stagger angle (γ) between the chord and the rotor axis (x) is defined, wherein a stagger angle (γ) distribution in the span direction has a curved course having a minimum located between 40% and 60% in the span direction, a first maximum (M 1) at 0% height and a second maximum (M 2) at 100% height in the span direction characterized in that the stagger angle (γ) in the minimum is between 1° and 7°.
A memory controller comprising logic to: receive a data request from a requestor via a data bus for data stored in a nonvolatile memory; retrieve the data from the nonvolatile memory; determine whether the data bus is in an idle state; and in response to a determination that the data bus is in an idle state, the logic is further configured to: transmit the data from the memory controller to the requestor over the data bus while the data is being retrieved from the nonvolatile memory to the memory controller; initiate an error correction code algorithm on the data while the data is being transmitted to the requestor; and transmit an error correction code indicator to the requestor over the data bus; or in response to a determination that the data bus is not in an idle state, the logic is further configured to: initiate an error correction code algorithm on the data; correct any errors in the data; and subsequently transmit the data to the requestor. receive a data request from a requestor via a data bus for data stored in a nonvolatile memory; retrieve the data from the nonvolatile memory; determine whether the data bus is in an idle state; and in response to a determination that the data bus is in an idle state, the logic is further configured to: transmit the data from the memory controller to the requestor over the data bus while the data is being retrieved from the nonvolatile memory to the memory controller; initiate an error correction code algorithm on the data while the data is being transmitted to the requestor; and transmit an error correction code indicator to the requestor over the data bus; or transmit the data from the memory controller to the requestor over the data bus while the data is being retrieved from the nonvolatile memory to the memory controller; initiate an error correction code algorithm on the data while the data is being transmitted to the requestor; and transmit an error correction code indicator to the requestor over the data bus; or in response to a determination that the data bus is not in an idle state, the logic is further configured to: initiate an error correction code algorithm on the data; correct any errors in the data; and subsequently transmit the data to the requestor. initiate an error correction code algorithm on the data; correct any errors in the data; and subsequently transmit the data to the requestor.
Breast pump arrangement, comprising at least one expression kit having a milk flow sensor, wherein the milk flow sensor comprises: a container with a first end with a first opening and a second end with a second opening, wherein the first end of the container is configured to receive expressed milk, wherein the second opening is configured to allow an outflow of milk with a predefined outflow characteristics from inside the container, wherein the first opening is larger than the second opening, a milk-amount sensor configured to measure a height or volume of milk in the container, and a calculating unit configured to calculate a milk flow based on the height or volume measurements of the milk amount sensor and the predefined outflow characteristic of the second opening. a container with a first end with a first opening and a second end with a second opening, wherein the first end of the container is configured to receive expressed milk, wherein the second opening is configured to allow an outflow of milk with a predefined outflow characteristics from inside the container, wherein the first opening is larger than the second opening, a milk-amount sensor configured to measure a height or volume of milk in the container, and a calculating unit configured to calculate a milk flow based on the height or volume measurements of the milk amount sensor and the predefined outflow characteristic of the second opening.
Cutting machine for baked goods, comprising a frame, a bread channel for receiving the baked goods to be cut, a conveying device for conveying the baked goods through the bread channel, a knife that is arranged so as to be transverse to the bread channel, is rotatably driven by a drive means, is mounted on a rocker that is rotatably driven by a drive means, and plunges into the bread channel and leaves said channel again in a pulsed manner during operation of the cutting machine, and a control means for controlling the knife movement and/or the conveying device, characterised in that the conveying device is connected to a conveying carriage that can be inserted into and removed from the bread channel as desired, and receiving pockets are formed on the conveying carriage, in which pockets at least one insert is retained in a cutting position, and the side walls and the base of the conveying carriage comprise at least one slot that extends through the receiving pockets transversely to the bread channel and allows the knife to pass through the interior of the conveying carriage during a work cycle.
A method for an information and entertainment system of a vehicle, wherein the information and entertainment system provides a plurality of functions (A, B, C, X, Y, Z) that can be used by a user of the vehicle, wherein the method comprises: - Setting a ranking of the plurality of functions (A, B, C, X, Y, Z) by the user, wherein the ranking indicates a time availability of the functions (A, B, C, X, Y, Z) desired by the user after the information and entertainment system has been switched on, and - Executing the plurality of functions (A, B, C, X, Y, Z) after starting the information and entertainment system as a function of the ranking that has been set, wherein the information and entertainment system comprises at least a first processing device and a second processing device, wherein at least one function of the plurality of functions (A, B, C, X, Y, Z) comprises a plurality of sub-functions (Z1 -Z6), wherein executing the at least one function after switching on the information and entertainment system comprises executing at least one sub-function of the associated plurality of sub-functions (Z1-Z6) on the first processing device and executing all of the associated sub-functions (Z1-Z6) on the second processing device. - Setting a ranking of the plurality of functions (A, B, C, X, Y, Z) by the user, wherein the ranking indicates a time availability of the functions (A, B, C, X, Y, Z) desired by the user after the information and entertainment system has been switched on, and - Executing the plurality of functions (A, B, C, X, Y, Z) after starting the information and entertainment system as a function of the ranking that has been set, wherein the information and entertainment system comprises at least a first processing device and a second processing device, wherein at least one function of the plurality of functions (A, B, C, X, Y, Z) comprises a plurality of sub-functions (Z1 -Z6), wherein executing the at least one function after switching on the information and entertainment system comprises executing at least one sub-function of the associated plurality of sub-functions (Z1-Z6) on the first processing device and executing all of the associated sub-functions (Z1-Z6) on the second processing device.
Method for a gear selector lever for an automatic transmission for determining a signal transmission quality of a light transmission path which has a light transmitter at its one end and a light receiver at its other end, wherein the light transmission path can be enabled and/or blocked by the gear selector lever, and wherein the method comprises the following steps of: receiving a transmitter code, wherein the transmitter code represents a signal transmitted from the light transmitter to the light receiver; reading in a receiver code, wherein the receiver code represents a signal provided by the light receiver using the transmitter code; and determining the number of corresponding code sections of the transmitter code and of the receiver code in order to determine the signal transmission quality of the light transmission path. receiving a transmitter code, wherein the transmitter code represents a signal transmitted from the light transmitter to the light receiver; reading in a receiver code, wherein the receiver code represents a signal provided by the light receiver using the transmitter code; and determining the number of corresponding code sections of the transmitter code and of the receiver code in order to determine the signal transmission quality of the light transmission path.
An antibody molecule which binds to and neutralizes human TGFβ1, TGFβ2 and TGFβ3, wherein said antibody molecule comprises a heavy chain comprising the amino acid sequence of the PET1073G12 VH domain, which is SEQ ID NO: 2, and a light chain comprising the amino acid sequence of the PET1073G12 VL domain, which is SEQ ID NO: 7, and wherein the heavy chain constant region is a human antibody constant region from IgG4.
A method for detecting at least one analyte in a body fluid, the method comprising the following steps: a) performing an optical measurement, wherein at least one test chemical is contacted with the body fluid, wherein the test chemical is an optical test chemical and is adapted to perform at least one detection reaction in the presence of the analyte, wherein at least one optically detectable property of at least one of the body fluid and the test chemical is changed due to the detection reaction, wherein at least one optical measurement value is generated; b) performing at least one impedance measurement, wherein at least two impedance measurement electrodes are used, wherein at least one alternating electrical signal is applied to the body fluid via the impedance measurement electrodes and wherein at least one answer signal is recorded, wherein at least one impedance measurement value is generated from the at least one answer signal; c) performing at least one evaluation step, wherein, in the evaluation step, at least one evaluation algorithm is used, wherein the optical measurement value and the impedance measurement value are used for determining a concentration of the analyte in the body fluid, wherein step c) comprises at least one failsafe step, wherein, in the failsafe step, only the impedance measurement value is used, wherein the failsafe step comprises comparing a degree of wetting of the test chemical with at least one threshold value, wherein the method for detecting an analyte in a body fluid is stopped in case, in the failsafe step, a failure is detected. a) performing an optical measurement, wherein at least one test chemical is contacted with the body fluid, wherein the test chemical is an optical test chemical and is adapted to perform at least one detection reaction in the presence of the analyte, wherein at least one optically detectable property of at least one of the body fluid and the test chemical is changed due to the detection reaction, wherein at least one optical measurement value is generated; b) performing at least one impedance measurement, wherein at least two impedance measurement electrodes are used, wherein at least one alternating electrical signal is applied to the body fluid via the impedance measurement electrodes and wherein at least one answer signal is recorded, wherein at least one impedance measurement value is generated from the at least one answer signal; c) performing at least one evaluation step, wherein, in the evaluation step, at least one evaluation algorithm is used, wherein the optical measurement value and the impedance measurement value are used for determining a concentration of the analyte in the body fluid, wherein step c) comprises at least one failsafe step, wherein, in the failsafe step, only the impedance measurement value is used,
Equipment for the centrifugal clarification of a suspension by providing a clarified liquid medium with a medium pressure (p), comprising a centrifuge and a device for damping pressure surges comprising a container for passing through the medium with at least one in regions arranged tubular jacket surface, which container is arranged at a liquid outlet of the centrifuge, wherein the container comprises an inlet for supplying a pressurization gas, characterized in that the volume of the container is at most twice larger than the intake volume of the centrifuge, wherein the Equipment comprises an evaluation unit and is equipped for setting a gas volume as a function of a limit level of the medium in the container, and wherein the inlet for the pressurization gas comprises a separate discharge connection for a cleaning medium.
Method for making a side gusset bag, wherein a material web of a bag film is supplied in a production direction (p), wherein a side gusset tube having a first front wall, a second front wall and interposed side gussets (2a, 2b) connecting the front walls (1a, 1b) is formed by folding the bag film, wherein individual side gusset bags are separated from the side gusset tube, characterized in that in the bag film for each side gusset bag an incision running in a transverse direction is produced before folding in such a manner that the incision in the side gusset tube extends over both side gussets (2a, 2b) and the first front wall, which is disposed between the side gussets, that in the side gusset tube the first front wall separated by the incision is raised on one side of the incision and is at least partially folded over whereby the second front wall located thereunder and the side gussets (2a, 2b) are exposed at least in sections and that a separate film section is joined via joining seams to the folded-over section of the first front wall and the exposed side gussets (2a, 2b) and the second front wall to form a flat base.
A base station for cancelling transmitter noise present in a reception band, the base station comprising: a transceiver (110, 307) configured to transmit and receive a signal; an uplink signal detector (123,333) configured to check a first signal extracted from a reception path of the base station and a second signal extracted by filtering a signal being transmitted by the base station from a transmission path based on the reception band and determine whether a power of an uplink signal transmitted, by a terminal, included in the first signal is less than a predetermined value based on a checking result; and a processor (125, 335) configured to determine whether to update one or more coefficients of a filter to cancel the transmitter noise depending on whether the power of the uplink signal is less than the predetermined value; wherein the processor (125, 335) is configured to control: i) if the power of the uplink signal is not less than the predetermined value, to not update the one or more coefficients of the filter; and ii) if the power of the uplink signal is less than the predetermined value, to update the one or more coefficients of the filter. a transceiver (110, 307) configured to transmit and receive a signal; an uplink signal detector (123,333) configured to check a first signal extracted from a reception path of the base station and a second signal extracted by filtering a signal being transmitted by the base station from a transmission path based on the reception band and determine whether a power of an uplink signal transmitted, by a terminal, included in the first signal is less than a predetermined value based on a checking result; and a processor (125, 335) configured to determine whether to update one or more coefficients of a filter to cancel the transmitter noise depending on whether the power of the uplink signal is less than the predetermined value; wherein the processor (125, 335) is configured to control: i) if the power of the uplink signal is not less than the predetermined value, to not update the one or more coefficients of the filter; and ii) if the power of the uplink signal is less than the predetermined value, to update the one or more coefficients of the filter. i) if the power of the uplink signal is not less than the predetermined value, to not update the one or more coefficients of the filter; and ii) if the power of the uplink signal is less than the predetermined value, to update the one or more coefficients of the filter.
An apparatus for processing waste printed wire boards (PWBs) comprising component(s), said apparatus comprising: (a) a mechanical solder removal module, wherein the mechanical solder removal module effectuates the mechanical removal of at least a portion of the solder from a surface of the PWB; (b) a chemical solder removal module, wherein the chemical solder removal module effectuates the chemical removal of at least a portion of the solder from the surface of the PWB; and (c) a heating module positioned upstream and/or downstream of the chemical solder removal module, wherein the modules are contiguously attached to one another, wherein the heating module comprises a heating mechanism that is heated to 1°C to 20°C below the melting point of epoxy or solder, and wherein component(s) are separated from the PWB using said apparatus. (a) a mechanical solder removal module, wherein the mechanical solder removal module effectuates the mechanical removal of at least a portion of the solder from a surface of the PWB; (b) a chemical solder removal module, wherein the chemical solder removal module effectuates the chemical removal of at least a portion of the solder from the surface of the PWB; and (c) a heating module positioned upstream and/or downstream of the chemical solder removal module,
A method for laser cutting dielectric or semiconductor materials, comprising the following steps: - emitting in single-pulse mode at a repetition frequency (frep) a laser beam at a wavelength comprised in a spectral band of transparency of the material; - spatially splitting the laser beam into a first split beam having a first energy distributed along a first optical axis and, respectively, a second split beam having a second energy distributed along a second optical axis distinct from the first optical axis, the first energy and the second energy being higher than a material modification threshold; - spatially concentrating the energy of the first split beam in a first area of the material and, respectively, that of the second split beam in a second area of the material, the first area and the second area being separated from each other and spaced apart by a distance dx, so as to produce localized modifications in the first area and in the second area; and - adjusting the distance (dx) between the first area and the second area lower than a distance threshold, comprised between 1 micrometre and about ten micrometres so as to initiate an oriented rectilinear micro-fracture, this micro-fracture being oriented along a predetermined direction extending between the first area and the second area; characterized in that the laser beam comprises at least one burst of N laser pulses, where N is a natural integer higher than or equal to 2, said laser pulses having a femtosecond duration, the N laser pulses of one burst being temporally separated from each other by a time interval comprised between a few hundreds of nanoseconds and one picosecond, the time interval being defined by a frequency (fosc) of the pulses of the burst, the repetition frequency (frep) being much lower than the frequency (fosc) of the pulses of the burst. - emitting in single-pulse mode at a repetition frequency (frep) a laser beam at a wavelength comprised in a spectral band of transparency of the material; - spatially splitting the laser beam into a first split beam having a first energy distributed along a first optical axis and, respectively, a second split beam having a second energy distributed along a second optical axis distinct from the first optical axis, the first energy and the second energy being higher than a material modification threshold; - spatially concentrating the energy of the first split beam in a first area of the material and, respectively, that of the second split beam in a second area of the material, the first area and the second area being separated from each other and spaced apart by a distance dx, so as to produce localized modifications in the first area and in the second area; and - adjusting the distance (dx) between the first area and the second area lower than a distance threshold, comprised between 1 micrometre and about ten micrometres so as to initiate an oriented rectilinear micro-fracture, this micro-fracture being oriented along a predetermined direction extending between the first area and the second area;
A control device comprising: a first processor adapted to acquire a synchronization signal that is generated every first period; and a second processor adapted to generate a control signal, using a timer, every second period that is obtained by dividing the first period by n, wherein n ≥ 2, and to perform a predetermined process at a timing based on the control signal, wherein at least one of a plurality of control signals generated in the first period is a control signal that should be synchronous with the synchronization signal, and in a case where occurrence of an error between timings of the synchronization signal and the control signal that should be synchronous with the synchronization signal is detected, the second processor is adapted to correct the error by temporarily changing an expiry time of a timer that measures the second period, in the second period that arrives after a predetermined number of times from the control signal that should be synchronized with the synchronization signal. a first processor adapted to acquire a synchronization signal that is generated every first period; and a second processor adapted to generate a control signal, using a timer, every second period that is obtained by dividing the first period by n, wherein n ≥ 2, and to perform a predetermined process at a timing based on the control signal, wherein at least one of a plurality of control signals generated in the first period is a control signal that should be synchronous with the synchronization signal, and in a case where occurrence of an error between timings of the synchronization signal and the control signal that should be synchronous with the synchronization signal is detected, the second processor is adapted to correct the error by temporarily changing an expiry time of a timer that measures the second period, in the second period that arrives after a predetermined number of times from the control signal that should be synchronized with the synchronization signal.