mhurhangee/patent-ind-claim-en huggingface dataset:
A membrane filter configured to filter a liquid , the membrane filter comprising: a. a base element including at least one membrane carrier that is externally flowable by the liquid and a gas; b. hollow fiber membranes respectively including a lumen and attached at a top in the at least one membrane carrier wherein a liquid permeate is filterable from the liquid into the lumen; c. a one piece extruded circumferentially closed pipe that envelops the hollow fiber membranes ; d. a gas inlet configured to let gas into a bottom of the membrane filter ; e. at least one permeate collection cavity of the base element that is connected with the lumen and configured to collect the permeate from the hollow fiber membranes ; f. a permeate outlet of the base element configured to drain the permeate from the at least one permeate collection cavity laterally from the base element , characterized in that a bottom edge of the pipe is arranged below the permeate outlet and the permeate outlet runs laterally through an opening in a wall of the pipe , an annular gap between the at least one membrane carrier and the pipe is configured as an open flow cross section for a flow of the liquid and the gas and the base element and the pipe are connected with each other. a. a base element including at least one membrane carrier that is externally flowable by the liquid and a gas; b. hollow fiber membranes respectively including a lumen and attached at a top in the at least one membrane carrier wherein a liquid permeate is filterable from the liquid into the lumen; c. a one piece extruded circumferentially closed pipe that envelops the hollow fiber membranes ; d. a gas inlet configured to let gas into a bottom of the membrane filter ; e. at least one permeate collection cavity of the base element that is connected with the lumen and configured to collect the permeate from the hollow fiber membranes ; f. a permeate outlet of the base element configured to drain the permeate from the at least one permeate collection cavity laterally from the base element ,
A method for producing semiconductor wafers from a workpiece by means of machining of the workpiece by means of a wire saw, comprising feeding the workpiece through an arrangement of wires tensioned between wire guide rollers and move in a running direction Z; and the creation of kerfs when engaging the wires into the workpiece; characterized in that the method comprises: Determining a placement error of the kerfs; and bringing about a compensating movement of the workpiece as a function of the detected placement error along a longitudinal axis of the workpiece during infeed of the workpiece by the arrangement of wires.
An optical device for managing optical resources from Wavelength Division Multiplexing, WDM, optical signals in a Passive Optical Network, PON, the optical device being adapted to process an optical signal into a plurality of output optical signals, the optical device comprising: - a wavelength demultiplexer , - a multi-stage optical splitter connected to the wavelength demultiplexer and comprising a first optical splitter cascaded with a second optical splitter , - a coupler connected to the second optical splitter, - an optical bypass directly connecting the wavelength demultiplexer and the coupler , the wavelength demultiplexer being configured: - to select a first portion of the optical signal and, - to select a second portion of said optical signal and, - to provide said second portion to the coupler through the optical bypass , the coupler being configured to combine said second portion with the first portion after being processed by the first optical splitter and the second optical splitter being configured to form a combined optical signal, the coupler further being configured to divide the said combined optical signal to form divided combined optical signals, and output the divided combined optical signals on output ports of the coupler, each divided combined optical signal comprising a fraction of the first portion of the optical signal, and the second portion of the optical signal. device being adapted to process an optical signal into a plurality of output optical signals, the optical device comprising: - a wavelength demultiplexer , - a multi-stage optical splitter connected to the wavelength demultiplexer and comprising a first optical splitter cascaded with a second optical splitter , - a coupler connected to the second optical splitter, - an optical bypass directly connecting the wavelength demultiplexer and the coupler , - a wavelength demultiplexer , - a multi-stage optical splitter connected to the wavelength demultiplexer and comprising a first optical splitter cascaded with a second optical splitter , - a coupler connected to the second optical splitter, - an optical bypass directly the wavelength demultiplexer being configured: - to select a first portion of the optical signal and, - to select a second portion of said optical signal and, - to provide said second portion to the coupler through the optical bypass , - to select a first portion of the optical signal and, - to select a second portion of said optical signal and, - to provide said second portion to the coupler through the optical bypass , the coupler being configured to combine said second portion with the first portion after being processed by the first optical splitter and the second optical splitter being configured to form a combined optical signal, the coupler further being configured to divide the said combined optical signal to form divided combined optical signals, and output the divided combined optical signals on output ports of the coupler, each divided combined optical signal comprising a fraction of the first portion of the optical signal, and the second portion of the optical signal.
A method for making a tampon , the method comprising steps of: advancing primary absorbent members in a machine direction, wherein each primary absorbent member comprises a first surface and an opposing second surface extending in the machine direction between a leading edge and a trailing edge, wherein the leading edges of advancing the primary absorbent members are separated from each other in the machine direction by a pitch distance; advancing discrete secondary absorbent members , wherein each discrete secondary absorbent member comprises a first surface and an opposing second surface extending in the machine direction between a leading edge and a trailing edge; separating the leading edges of the advancing discrete secondary absorbent members from each other in the machine direction by the pitch distance; advancing a continuous cord in the machine direction; positioning the continuous cord on the first surface of a first discrete secondary absorbent member ; positioning the second surface of the first discrete secondary absorbent member in contact with and in a facing relationship with the first surface of a first primary absorbent member ; sewing a thread through the continuous cord, the first discrete secondary absorbent member , and the first primary absorbent member . advancing primary absorbent members in a machine direction, wherein each primary absorbent member comprises a first surface and an opposing second surface extending in the machine direction between a leading edge and a trailing edge, wherein the leading edges of advancing the primary absorbent members are separated from each other in the machine direction by a pitch distance; advancing discrete secondary absorbent members , wherein each discrete secondary absorbent member comprises a first surface and an opposing second surface extending in the machine direction between a leading edge and a trailing edge; separating the leading edges of the advancing discrete secondary absorbent members from each other in the machine direction by the pitch distance; advancing a continuous cord in the machine direction; positioning the continuous cord on the first surface of a first discrete secondary absorbent member ; positioning the second surface of the first discrete secondary absorbent member in contact with and in a facing relationship with the first surface of a first primary absorbent member ; sewing a thread through the continuous cord, the first discrete secondary absorbent member , and the first primary absorbent member .
A probe-type online biomass detection system, comprising a probe-type online biomass detection apparatus and a fermentation tank , an optical fiber probe , a light source and light receiving sensor module , and a signal processing module ; the light source and light receiving sensor module comprises a light source , and a light receiving sensor ; and measuring light emitted from the light source is received and transmitted to a measurement area through the optical fiber probe , cells in the measurement area has a reflection action to the light, the reflected light returns to the optical fiber probe , and received by the light receiving sensor through the optical fiber probe , a light intensity signal received by the light receiving sensor directly reflects the cell concentration, and the signal processing module calculates the cell concentration according to the light intensity signal received by the light receiving sensor ; the optical fiber probe is provided in the fermentation tank ; characterised in that an axis of the optical fiber probe is parallel to an axis of the fermentation tank ; the optical fiber probe comprises a light guide component, a probe holder , and a bubble filter casing ; the bubble filter casing comprises a fluid inlet , at least one fluid outlet , and a measuring cavity ; the fluid inlet is arranged at the bottom surface of the bubble filter casing , and the at least one fluid outlet is arranged at a lateral side of the bubble filter casing . the light source and light receiving sensor module comprises a light source , and a light receiving sensor ; and measuring light emitted from the light source is received and transmitted to a measurement area through the optical fiber probe , cells in the measurement area has a reflection action to the light, the reflected light returns to the optical fiber probe , and received by the light receiving sensor through the optical fiber probe , a light intensity signal received by the light receiving sensor directly reflects the cell concentration, and the signal processing module calculates the cell concentration according to the light intensity signal received by the light receiving sensor ; the optical fiber probe is provided in the fermentation tank ; characterised in that an axis of the optical fiber probe is parallel to an axis of the fermentation tank ; the optical fiber probe comprises a light guide component, a probe holder , and a bubble filter casing ; the bubble filter casing comprises a fluid inlet , at least one fluid outlet , and a measuring cavity ; the fluid inlet is arranged at the bottom surface of the bubble filter casing , and the at least one fluid outlet is arranged at a lateral side of the bubble filter casing .
A kit comprising a screw with a screw head bush , wherein the screw head bush has an external portion and an internal portion following the external portion , wherein the external portion has a larger diameter (D) than the internal portion at least in a first axis (A 1 ) oriented perpendicular to a depth (T) of the screw head bush , and the external portion of the screw head bush is configured essentially as a truncated cone tapering towards the internal portion of the screw head bush and the internal portion is configured as engagement geometry for the rotationally fixed accommodation of a screw head drive , and wherein the kit further comprises the screw head drive , having an external portion and an internal portion following the external portion , wherein the internal portion of the screw head drive has a larger diameter (D) than the external portion of the screw head drive in at least a first axis (A 1 ) oriented perpendicular to a height (H) of the screw head drive , the internal portion of the screw head drive is configured essentially as a truncated cone tapering towards the external portion of the screw head drive and the external portion of the screw head drive comprises a contact geometry, which is configured to engage an engagement geometry of a screw head bush in a rotationally fixed manner, characterized in that the internal portion of the screw head drive has a larger inclination angle (γ) than a truncated cone shell of the external portion of the screw head bush of the screw in regard to a cylinder shell.
A method in a user equipment, the method comprising: receiving zero power channel state information reference signal, ZP CSI-RS, configuration information for an aperiodic ZP CSI-RS of a serving cell; characterised by : receiving downlink control information on a physical control channel in a subframe of the serving cell, where the downlink control information includes an aperiodic ZP-CSI-RS indicator bit field that indicates a selection of one out of: no additional ZP-CSI-RS resource elements, REs, indicated by the DCI; physical downlink shared channel, PDSCH, is rate-matched around a first set of dynamic ZP-CSI-RS REs in the subframe; PDSCH is rate-matched around second set of dynamic ZP-CSI-RS REs in the subframe; PDSCH is rate-matched around third set of dynamic ZP-CSI-RS REs in the subframe; wherein the rate matching indicates to the user equipment skipping the aperiodic ZP-CSI-RS RE's for data but measuring the CSI-RS if instructed to; and performing reception according to the downlink control information. receiving downlink control information on a physical control channel in a subframe of the serving cell, where the downlink control information includes an aperiodic ZP-CSI-RS indicator bit field that indicates a selection of one out of: no additional ZP-CSI-RS resource elements, REs, indicated by the DCI; physical downlink shared channel, PDSCH, is rate-matched around a first set of dynamic ZP-CSI-RS REs in the subframe; PDSCH is rate-matched around second set of dynamic ZP-CSI-RS REs in the subframe; PDSCH is rate-matched around third set of dynamic ZP-CSI-RS REs in the subframe; no additional ZP-CSI-RS resource elements, REs, indicated by the DCI; physical downlink shared channel, PDSCH, is rate-matched around a first set of dynamic ZP-CSI-RS REs in the subframe; PDSCH is rate-matched around second set of dynamic ZP-CSI-RS REs in the subframe; PDSCH is rate-matched around third set of dynamic ZP-CSI-RS REs in the subframe; wherein the rate matching indicates to the user equipment skipping the aperiodic ZP-CSI-RS RE's for data but measuring the CSI-RS if instructed to; and performing reception according to the downlink control information.
A computer-implemented method (100;200) for sharing resources between connected objects (302 1 -302 3 ) forming a local network , said method (100;200) implementing a management unit connected to said connected objects (302 1 -302s) within said local network and controlling the sharing of resources using a list of shared resource(s) (LRP), said method (100;200) comprising at least one iteration of the following steps: - transmission , by a first connected object (302 i ) to said management unit , of a request to use a resource of another connected object (302 i ) to perform a target operation; and - selection , by said management unit , of a second connected object (302 i ) possessing said resource to perform said target operation on behalf of said first object (302 i ); when a plurality of connected objects (302 i ), referred to as candidate objects, can perform said target operation, the second object (302 i ) is selected from said candidate objects as a function of at least one performance indicator, previously measured for each of said candidate objects, during past performance(s) of operation(s) identical or similar to said target operation; characterized in that the request comprises at least one item of data relating to a performance time for the said target operation and at least one performance indicator is, or comprises, a previously measured performance time for each of the said candidate objects during past performance(s) of operation(s) identical or similar to the said target operation and in that the second object selected is identified as being the candidate with the best performance indicator on the basis of comparing each performance indicator relating to the target operation. - transmission , by a first connected object (302 i ) to said management unit , of a request to use a resource of another connected object (302 i ) to perform a target operation; and - selection , by said management unit , of a second connected object (302 i ) possessing said resource to perform said target operation on behalf of said first object (302 i ); when a plurality of connected objects (302 i ), referred to as candidate objects, can perform said target operation, the second object (302 i ) is selected from said candidate objects as a function of at least one performance indicator, previously measured for each of said candidate objects, during past performance(s) of operation(s) identical or similar to said target operation; characterized in that the request comprises at least one item of data relating to a performance time for the said target operation and at least one performance indicator is, or comprises, a previously measured performance time for each of the said candidate objects during past performance(s) of operation(s) identical or similar to the said target operation and in that the second object selected is identified as being the candidate with the best performance indicator on the basis of comparing each performance indicator relating to the target operation.
A method of wireless communication by a base station , comprising: determining that a first communication link and a second communication link are established with a user equipment, UE, using a first subscription and a second subscription of the UE, respectively, wherein at least one of the first communication link or the second communication link is established between the UE and the base station; coordinating communication of information with the UE via at least one of the first communication link or the second communication link based on the determination, wherein coordinating the communication of information comprises selecting, based on the information, one of (a) the first communication link and the second communication link for communicating the information, or (b) the first communication link or the second communication link for communicating the information without utilizing the other communication link; and communicating the information with the UE via the selected first communication link and/or second communication link; wherein the information includes at least one of a radio link monitoring, RLM, signal or radio resource management, RRM, information used for the first subscription and the second subscription, and wherein the communicating the information comprises: transmitting at least one of the RLM signal or the RRM information to the UE via the one of the first communication link and the second communication link. determining that a first communication link and a second communication link are established with a user equipment, UE, using a first subscription and a second subscription of the UE, respectively, wherein at least one of the first communication link or the second communication link is established between the UE and the base station; coordinating communication of information with the UE via at least one of the first communication link or the second communication link based on the determination, wherein coordinating the communication of information comprises selecting, based on the information, one of (a) the first communication link and the second communication link for communicating the information, or (b) the first communication link or the second communication link for communicating the information without utilizing the other communication link; and (a) the first communication link and the second communication link for communicating the information, or (b) the first communication link or the second communication link for communicating the information without utilizing the other communication link; and communicating the information with the UE via the selected first communication link and/or second communication link; wherein the information includes at least one of a radio link monitoring, RLM, signal or radio resource management, RRM, information used for the first subscription and the second subscription, and wherein the communicating the information comprises: transmitting at least one of the RLM signal or the RRM information to the UE via the one of the first communication link and the second communication link.
A redundant brake system for an autonomously driven vehicle, comprising an electro-pneumatic service brake system, a front axle brake actuator and a rear axle brake actuator , a front axle control valve configured to control the front axle brake actuator , a front axle pressure modulator configured to provide an appropriate front axle brake pressure to the front axle control valve , a rear axle pressure modulator configured to provide an appropriate rear axle brake pressure and to control the rear axle brake actuator , and at least a first control circuit comprising a first electronic brake control unit , a second control circuit comprising a second electronic brake control unit , and characterised in that the redundant brake system is provided with at least three control circuits configured to control the electro-pneumatic service brake system, and the redundant brake system comprises a third control circuit comprising an intelligent foot brake module , wherein the intelligent foot brake module comprises a control unit , a pressure control and modulation unit configured to actuate an adjustment of the intelligent foot brake module according to a brake pedal position for pre-setting a brake force, brake pedal position sensors configured to respectively provide a driver's brake demand for the control units of the at least three control circuits, a pneumatic valve portion configured to pneumatically control the front axle pressure modulator and the rear axle pressure modulator , and wherein the redundant brake system is configured to control the front axle pressure modulator and the rear axle pressure modulator alternatively by the intelligent foot brake module in a pneumatic manner, or by the first electronic brake control unit in an electronic manner, or by the second electronic brake control unit in an electronic manner, wherein power supply switches configured to respectively switch a power supply of the front axle pressure modulator and of the rear axle pressure modulator between the first control circuit and the second control circuit are provided. a control unit , a pressure control and modulation unit configured to actuate an adjustment of the intelligent foot brake module according to a brake pedal position for pre-setting a brake force, brake pedal position sensors configured to respectively provide a driver's brake demand for the control units of the at least three control circuits, a pneumatic valve portion configured to pneumatically control the front axle pressure modulator and the rear axle pressure modulator , and
A liquid stable vaccine that comprises a live swine virus, 10-30% (w/v) of the sugar alcohol sorbitol, and 0.3 to 0.5 M of the amino acid arginine; wherein the liquid stable vaccine comprises 10 to 20 mM phosphate buffer and has a pH of 6.0 to 8.0; wherein the live swine virus is live attenuated Porcine Reproductive and Respiratory Syndrome Virus.