mhurhangee/ep-ind-claims huggingface dataset:
A flow cytometric system for sorting sperm cells having a characteristic A and having a characteristic B, wherein characteristic A is indicative of a live X sperm cell and characteristic B is indicative of other than a live X cell (∼X), the system includes a fluid delivery system for delivering a fluid containing the sperm cells, a flow cytometry apparatus for receiving the fluid, forming it into a stream and using flow cytometry to classify the sperm cells according to the characteristics, and a sorting system for sorting the sperm cells according to the classification and according to a sorting strategy to provide at least one population containing desired sperm cells, the system being characterised in that it includes: an analog to digital converter for synchronously sampling a time-varying analog output from the flow cytometry apparatus at a sampling rate of 105 MHz or higher and providing an output including digital information corresponding to the time-varying analog output wherein the time-varying analog output and the corresponding digital information are indicative of characteristic A or characteristic B; and one or more digital signal processors for analyzing and classifying the digital information and providing a sorting signal to the sorting system as a function of the analyzed and classified digital information, wherein the one or more digital signal processors together include instructions for detecting pulses corresponding to the digital information, instructions for extracting features in the detected pulses, and instructions for discriminating the detected pulses as a function of their extracted features. an analog to digital converter for synchronously sampling a time-varying analog output from the flow cytometry apparatus at a sampling rate of 105 MHz or higher and providing an output including digital information corresponding to the time-varying analog output wherein the time-varying analog output and the corresponding digital information are indicative of characteristic A or characteristic B; and one or more digital signal processors for analyzing and classifying the digital information and providing a sorting signal to the sorting system as a function of the analyzed and classified digital information, wherein the one or more digital signal processors together include instructions for detecting pulses corresponding to the digital information, instructions for extracting features in the detected pulses, and instructions for discriminating the detected pulses as a function of their extracted features.
Method of providing relevant information rapidly, which comprises a step of a user entering a plurality of keywords, characterized in that it also comprises: - a step of determining a search context as a function of the combination of keywords entered; - a step of searching for pages accessible on a network and comprising at least one word associated with one said keyword; - a step of determining a result context as a function of the content of the page; - a step of determining the copying of an item of information from an information source accessible on a network to another information source accessible on said network; - a step of assigning a higher weight to the source from which said information is copied than to the source where a copy of said information is placed; - a step of hierarchizing the results of the search as a function of the match between the context of the search and the context of each result of the search and of the weight of the source; and - a step of displaying hierarchized results. - a step of determining a search context as a function of the combination of keywords entered; - a step of searching for pages accessible on a network and comprising at least one word associated with one said keyword; - a step of determining a result context as a function of the content of the page; - a step of determining the copying of an item of information from an information source accessible on a network to another information source accessible on said network; - a step of assigning a higher weight to the source from which said information is copied than to the source where a copy of said information is placed; - a step of hierarchizing the results of the search as a function of the match between the context of the search and the context of each result of the search and of the weight of the source; and the match between the context of the search and the context of each result of the search and of the weight of the source; and - a step of displaying hierarchized results.
A device for controlling an engine, characterized by comprising: combustion noise suppression means for suppressing combustion noise of a combustion chamber; and control means for controlling the combustion noise suppression means, wherein the engine is connected to manual transmission means, the device further includes control amount setting means for setting a control amount of the combustion noise suppression means so that target combustion noise characteristics corresponding to a required amount of acceleration or deceleration exhibit a slower change in combustion noise than combustion noise characteristics corresponding to output characteristics of the engine over before and after acceleration or deceleration, the target combustion noise characteristics being set so that constant-combustion-noise lines, which represent on a coordinate plane with the speed and torque of the engine being coordinate axes distribution of combustion noise values of the engine within a predetermined range on the coordinate plane, provide a larger amount of a torque variation relative to a speed variation at any point on the coordinate plane than constant-output lines which represent on the coordinate plane distribution of output values of the engine within the predetermined range, and the control means controls the combustion noise suppression means according to the control amount set by the control amount setting means. combustion noise suppression means for suppressing combustion noise of a combustion chamber; and control means for controlling the combustion noise suppression means, wherein the engine is connected to manual transmission means, the device further includes control amount setting means for setting a control amount of the combustion noise suppression means so that target combustion noise characteristics corresponding to a required amount of acceleration or deceleration exhibit a slower change in combustion noise than combustion noise characteristics corresponding to output characteristics of the engine over before and after acceleration or deceleration, the target combustion noise characteristics being set so that constant-combustion-noise lines, which represent on a coordinate plane with the speed and torque of the engine being coordinate axes distribution of combustion noise values of the engine within a predetermined range on the coordinate plane, provide a larger amount of a torque variation relative to a speed variation at any point on the coordinate plane than constant-output lines which represent on the coordinate plane distribution of output values of the engine within the predetermined range, and the control means controls the combustion noise suppression means according to the control amount set by the control amount setting means.
Device for machining, in particular for edging plate-shaped workpieces, in particular workpieces made of wood or wood substitutes, having a circuit conveyor section for conveying the workpieces in the circuit, wherein the circuit conveyor section has a machining section for machining, in particular for edging narrow sides, lying opposite each other, of the workpieces, and a return section for returning the workpieces in order to facilitate a further passage through the machining section, characterised in that the circuit conveyor section is designed, as observed from above, such that the machining section crosses the return section.
A method of investigating a specimen using charged particle microscopy, comprising the following steps: - Using a primary source to produce a pulsed beam of charged particles that propagate along a beam path (B'); - Providing a specimen at an irradiation position in said beam path (B'); - Using a secondary source to produce repetitive excitations of the specimen; - Using a detector to register charged particles in said beam that traverse the specimen after each said excitation, characterized in that: - Said primary source is configured to produce a train of multiple pulses per excitation by said secondary source; - Said detector is configured to comprise an integrated array of pixels, each with an individual readout circuit, to register a time-of-arrival of individual particles in said train, wherein the method comprises the step of embodying said detector to have a temporal resolution that is shorter than the period of the primary source. - Using a primary source to produce a pulsed beam of charged particles that propagate along a beam path (B'); - Providing a specimen at an irradiation position in said beam path (B'); - Using a secondary source to produce repetitive excitations of the specimen; - Using a detector to register charged particles in said beam that traverse the specimen after each said excitation, - Said primary source is configured to produce a train of multiple pulses per excitation by said secondary source; - Said detector is configured to comprise an integrated array of pixels, each with an individual readout circuit, to register a time-of-arrival of individual particles in said train, wherein the method comprises the step of embodying said detector to have a temporal resolution that is shorter than the period of the primary source.
Process for the production of ammonia comprising the steps (a) preparation of a gas mixture comprising hydrogen, nitrogen, water, methane, in some cases argon, carbon monoxide and carbon dioxide; (b) removal of at least a part of the water, optionally at least a part of the methane, at least a part of the carbon monoxide, at least a part of the carbon dioxide, and optionally at least a part of the argon from the gas mixture; (c) synthesis of ammonia from at least a part of the hydrogen and from at least a part of the nitrogen which is contained in the gas mixture; and removal of at least a part of the ammonia from the gas mixture by cooling; (d) compression of the gas mixture to a pressure which is higher than the pressure in step (c); (e) combination of the gas mixture with a recirculated gas mixture comprising hydrogen, nitrogen and ammonia and optionally the other components not completely removed in step (b); (f) synthesis of ammonia from at least a part of the hydrogen and from at least a part of the nitrogen which is contained in the gas mixture; removal of at least a part of the ammonia from the gas mixture by cooling; compression of the gas mixture to an elevated pressure; and return of the gas mixture as recirculated gas mixture to step (e), wherein the gas mixture prepared in step (a) is produced by reforming of hydrocarbons, wherein the reforming takes place in an autothermal reformer which is operated with pure oxygen or with oxygen-enriched air or with air. (a) preparation of a gas mixture comprising hydrogen, nitrogen, water, methane, in some cases argon, carbon monoxide and carbon dioxide; (b) removal of at least a part of the water, optionally at least a part of the methane, at least a part of the carbon monoxide, at least a part of the carbon dioxide, and optionally at least a part of the argon from the gas mixture; (c) synthesis of ammonia from at least a part of the hydrogen and from at least a part of the nitrogen which is contained in the gas mixture; and removal of at least a part of the ammonia from the gas mixture by cooling; (d) compression of the gas mixture to a pressure which is higher than the pressure in step (c); (e) combination of the gas mixture with a recirculated gas mixture comprising hydrogen, nitrogen and ammonia and optionally the other components not completely removed in step (b); (f) synthesis of ammonia from at least a part of the hydrogen and from at least a part of the nitrogen which is contained in the gas mixture; removal of at least a part of the ammonia from the gas mixture by cooling; compression of the gas mixture to an elevated pressure; and return of the gas mixture as recirculated gas mixture to step (e),
A machine for the automated selective collection of single items comprising a mobile handling arm, a pick-and-place head fixed to a free end of said mobile handling arm, identification means for the item to be picked or already picked, a control unit suitable for the control and handling of said machine's operating means and moving parts and a gripper assembly (b) housed in said pick-and-place head and characterized in that said gripper assembly comprises: - a pneumatic device having a capture surface with a central opening through which a vacuum is created, and an annular opening that is designed to surround said central opening and through which overpressure is created; and - a pincer device arranged such that it closes beneath said capture surface - a pneumatic device having a capture surface with a central opening through which a vacuum is created, and an annular opening that is designed to surround said central opening and through which overpressure is created; and - a pincer device arranged such that it closes beneath said capture surface
A pre-sintered multi-layered dental mill blank comprising the following layers: a top layer L4, an intermediate layer L3, an intermediate layer L2, and a bottom layer L1, and the layers L4 to L1 comprising the components as defined in Table I herein below, wherein the indicated weight amounts are based on the total weight of the respective layer: Table I: Layer Combined amount of ZrO 2 and HfO 2 [wt.%] Al 2 O 3 [wt.%] Y 2 O 3 [wt.%] Coloring metal oxides [wt.%] ZnO [wt.%] L4 > 87 < 0.01 9-12 0.02 - 1.5 0.02 - 0.80 L3 > 88 0.02 - 0.20 8-10 0.02 - 1.5 0.02 - 0.80 L2 > 90 0.05 - 0.50 6-8 0.02 - 1.5 0.02 - 0.80 L1 > 90 0.05 - 0.50 5-7 0.02 - 1.5 0.02 - 0.80 a top layer L4, an intermediate layer L3, an intermediate layer L2, and a bottom layer L1, and the layers L4 to L1 comprising the components as defined in Table I herein below, wherein the indicated weight amounts are based on the total weight of the respective layer: Table I: Layer Combined amount of ZrO 2 and HfO 2 [wt.%] Al 2 O 3 [wt.%] Y 2 O 3 [wt.%] Coloring metal oxides [wt.%] ZnO [wt.%] L4 > 87 < 0.01 9-12 0.02 - 1.5 0.02 - 0.80 L3 > 88 0.02 - 0.20 8-10 0.02 - 1.5 0.02 - 0.80 L2 > 90 0.05 - 0.50 6-8 0.02 - 1.5 0.02 - 0.80 L1 > 90 0.05 - 0.50 5-7 0.02 - 1.5 0.02 - 0.80
A topical pharmaceutical composition for use in treating a skin disorder selected from the group consisting of Herpes viral infection, Varicella viral infection, rash, insect bites, jellyfish stings, heat or radiation burns, psoriasis, and skin allergic response; wherein said composition comprises a peptide comprising L-amino acids of the formula: pGLU-X-Y-Z wherein X is an amino acid selected from the group consisting of GLY, VAL, GLU, ASP, SER, ALA, ASN, GLN, ILE, LEU, PRO, LYS and ARG, Y is TRP or THR, and Z is any L-amino acid, or Z is null, and wherein when Z is any L-amino acid, one but not both of Y and Z is TRP, and when Z is null, Y= TRP, or wherein said composition comprises a derivative of the peptide according to formula in which an alkyl group is attached to an amino acid of said peptide, wherein treating pain per se is excluded. wherein X is an amino acid selected from the group consisting of GLY, VAL, GLU, ASP, SER, ALA, ASN, GLN, ILE, LEU, PRO, LYS and ARG, Y is TRP or THR, and Z is any L-amino acid, or Z is null, and wherein when Z is any L-amino acid, one but not both of Y and Z is TRP, and when Z is null, Y= TRP, or wherein said composition comprises a derivative of the peptide according to formula in which an alkyl group is attached to an amino acid of said peptide, wherein treating pain per se is excluded.
A method for producing a salt polymorph according to claim 3, comprising the steps of: (a) dissolving a 4-(6-ethoxy-1-methoxy-thioxanthene-9-ylidene)-1-methyl piperidine hydrochloride addition salt in a protic solvent selected from the group consisting of methanol, ethanol, and iso-propanol, and (b) removing said solvent at a temperature in the range of 50 to 80°C. (a) dissolving a 4-(6-ethoxy-1-methoxy-thioxanthene-9-ylidene)-1-methyl piperidine hydrochloride addition salt in a protic solvent selected from the group consisting of methanol, ethanol, and iso-propanol, and (b) removing said solvent at a temperature in the range of 50 to 80°C.
A method for receiving a mobile terminated, MT, service by a low-latency user equipment, UE, in a communication system, the method comprising: receiving (328, 426, 604) a support service list from a low-latency target base station, BS, if the low-latency UE in an idle mode moves from a coverage of a low-latency serving BS to a coverage of the low-latency target BS; determining based on the support service list, whether a low-latency service used by the low-latency UE before the low-latency UE is in idle mode and included in an on-going service list of the low-latency UE, is supported by the low-latency target BS; and determining if a Mobile Terminated, MT, service exists among at least one on-going service in the on-going service list supported by the low-latency target BS, sending a service area update, SAU, request to the low-latency target BS through an access layer, if the low-latency service used by the low-latency UE before the low-latency UE is in idle mode supports the MT service when the low-latency service used by the low-latency UE before the low-latency UE is in idle mode exists in the support service list, wherein the SAU is a location registration of the low-latency UE for being provided with a low-latency service, and wherein the support service list is a list of at least one ongoing low-latency service provided by the low-latency target BS. receiving (328, 426, 604) a support service list from a low-latency target base station, BS, if the low-latency UE in an idle mode moves from a coverage of a low-latency serving BS to a coverage of the low-latency target BS; determining based on the support service list, whether a low-latency service used by the low-latency UE before the low-latency UE is in idle mode and included in an on-going service list of the low-latency UE, is supported by the low-latency target BS; and determining if a Mobile Terminated, MT, service exists among at least one on-going service in the on-going service list supported by the low-latency target BS, sending a service area update, SAU, request to the low-latency target BS through an access layer, if the low-latency service used by the low-latency UE before the low-latency UE is in idle mode supports the MT service when the low-latency service used by the low-latency UE before the low-latency UE is in idle mode exists in the support service list, wherein the SAU is a location registration of the low-latency UE for being provided with a low-latency service, and wherein the support service list is a list of at least one ongoing low-latency service provided by the low-latency target BS.
An immunoconjugate comprising (i) an antibody that binds to PD-1 and (ii) a mutant IL-2 polypeptide, wherein the mutant IL-2 polypeptide is a human IL-2 polypeptide comprising the amino acid substitutions F42A, Y45A and L72G, the numbering being relative to the human IL-2 sequence SEQ ID NO: 19.
A system for cosmetically treating a patient's body skin tissue, comprising: a plurality of RF electrodes (602, 604, 608, 610) mounted on a thermally conducting material planar holder; one or more EMS coils mounted on the thermally conducting material planar holder; a programmable controller to activate one or more of the plurality of electrodes (602, 604, 608, 610) and the one or more EMS coils; the programmable controller, after the planar holder is applied to the skin tissue, being configured to activate one or more of the plurality of RF electrodes (602, 604, 608, 610) in a continuous manner to provide treatment in a scan mode at one or more frequencies for application by the one or more of the plurality of RF electrodes; a hydrogel containing gel pad positioned between the planar holder and the skin tissue; the programmable controller further being configured to activate the one or more EMS coils; whereby the skin tissue underlying the one or more RF electrodes (602, 604, 608, 610) is selectively treated by activation or one or more of the plurality of RF electrodes (602, 604, 608, 610) at one or more selected frequencies in a continuous manner and by the one or more EMS coils; and, whereby the one or more RF electrodes (602, 604, 608, 610) when activated generate heat in the skin tissue and the one or more EMS coils provide stimulation to the body tissue. a plurality of RF electrodes (602, 604, 608, 610) mounted on a thermally conducting material planar holder; one or more EMS coils mounted on the thermally conducting material planar holder; a programmable controller to activate one or more of the plurality of electrodes (602, 604, 608, 610) and the one or more EMS coils; the programmable controller, after the planar holder is applied to the skin tissue, being configured to activate one or more of the plurality of RF electrodes (602, 604, 608, 610) in a continuous manner to provide treatment in a scan mode at one or more frequencies for application by the one or more of the plurality of RF electrodes; a hydrogel containing gel pad positioned between the planar holder and the skin tissue; the programmable controller further being configured to activate the one or more EMS coils; whereby the skin tissue underlying the one or more RF electrodes (602, 604, 608, 610) is selectively treated by activation or one or more of the plurality of RF electrodes (602, 604, 608, 610) at one or more selected frequencies in a continuous manner and by the one or more EMS coils; and, whereby the one or more RF electrodes (602, 604, 608, 610) when activated generate heat in the skin tissue and the one or more EMS coils provide stimulation to the body tissue.
A method for wireless communication, the method comprising: receiving multiple synchronization signal block, SSB, signals from a base station, wherein the multiple SSB signals are each beamformed based on a different directional beam; selecting a signature from a signature space of a first SSB of the multiple SSB signals, wherein the signature space of the first SSB includes multiple groups of signatures (612, 614, 616, 618), wherein each group of signatures is further associated with a different preferred SSB (604, 606, 608) that is different from the first SSB, and wherein selecting the signature includes selecting the signature as an indicator of the preferred SSB (604, 606, 608); and transmitting a random access message to the base station, wherein the random access message includes the selected signature from the signature space of the first SSB that indicates the preferred SSB (604, 606, 608) of the multiple SSB signals. receiving multiple synchronization signal block, SSB, signals from a base station, wherein the multiple SSB signals are each beamformed based on a different directional beam; selecting a signature from a signature space of a first SSB of the multiple SSB signals, wherein the signature space of the first SSB includes multiple groups of signatures (612, 614, 616, 618), wherein each group of signatures is further associated with a different preferred SSB (604, 606, 608) that is different from the first SSB, and wherein selecting the signature includes selecting the signature as an indicator of the preferred SSB (604, 606, 608); and transmitting a random access message to the base station, wherein the random access message includes the selected signature from the signature space of the first SSB that indicates the preferred SSB (604, 606, 608) of the multiple SSB signals.