mhurhangee/patent-ind-claim-en huggingface dataset:
A neuromorphic computing device for implementing a spiking neural network program to maintain timing information on when neurons of the spiking neural network fire, the neuromorphic computing device comprising a processor and a memory device comprising an array of rows and columns of memory cells, wherein there is one row of the rows for each of a plurality of neurons of the spiking neural network, and columns for each of a plurality of time slots, the neuromorphic computing device configured to: generate a spike history in the memory device , wherein in response to each of at least one firing neuron of the neurons firing a spike over a synapse at a current timeslot, the memory device is to indicate, with a first value, in the current column in the row of the memory cells for the firing neuron that the spike was fired in the current timeslot and is to indicate, with a second value different to the first value, in the current column in rows of memory cells of idle neurons comprising neurons that did not fire that a spike was not fired; use information in the array to determine a timing difference between a connected neuron and the firing neuron to which the connected neuron connects over a synapse; and use the determined timing difference to adjust a weight of the synapse connecting the firing neuron and the connected neurons, wherein the determining of the timing difference comprises determining a difference of a first column location number in the array having the first value for the firing neuron and a second column location number in the array having the first value for the connected neuron and comprises determining a timing difference between the firing neuron and the connected neuron based on the first and second column location numbers. generate a spike history in the memory device , wherein in response to each of at least one firing neuron of the neurons firing a spike over a synapse at a current timeslot, the memory device is to indicate, with a first value, in the current column in the row of the memory cells for the firing neuron that the spike was fired in the current timeslot and is to indicate, with a second value different to the first value, in the current column in rows of memory cells of idle neurons comprising neurons that did not fire that a spike was not fired; use information in the array to determine a timing difference between a connected neuron and the firing neuron to which the connected neuron connects over a synapse; and use the determined timing difference to adjust a weight of the synapse connecting the firing neuron and the connected neurons, wherein the determining of the timing difference comprises determining a difference of a first column location number in the array having the first value for the firing neuron and a second column location number in the array having the first value for the connected neuron and comprises determining a timing difference between the firing neuron and the connected neuron based on the first and second column location numbers.
A production method of ready injection material comprising nano hydraulic lime, said production method is characterized by comprising the steps of: a) Selecting marl, which is a clayed lime-stone, comprising at least 70% CaCO 3 , as the raw material b) Grinding marl, , selected as the raw material, so as to have particle size smaller than 400 pm, c) Calcining marl, selected as the raw material, between temperatures 1000-1200°C, d) Re-grinding marl selected as the raw material, after the calcination process, e) Reducing the d 90 particle size of the calcined marl to 486 nm after the grinding process, f) Applying dry mixing process to the material whose particle size is reduced, g) Adding water to the material after the dry mixing process and applying mechanical mixing process for duration between 3-6 minutes at a revolution between 800 and 1000 rpm, h) Adding super-fiuidizing chemical additive to the obtained material, i) Mixing the material for duration between 3-6 minutes by using ultrasonic homogenizer and mechanical mixing. a) Selecting marl, which is a clayed lime-stone, comprising at least 70% CaCO 3 , as the raw material b) Grinding marl, , selected as the raw material, so as to have particle size smaller than 400 pm, c) Calcining marl, selected as the raw material, between temperatures 1000-1200°C, d) Re-grinding marl selected as the raw material, after the calcination process, e) Reducing the d 90 particle size of the calcined marl to 486 nm after the grinding process, f) Applying dry mixing process to the material whose particle size is reduced, g) Adding water to the material after the dry mixing process and applying mechanical mixing process for duration between 3-6 minutes at a revolution between 800 and 1000 rpm, h) Adding super-fiuidizing chemical additive to the obtained material, i) Mixing the material for duration between 3-6 minutes by using ultrasonic homogenizer and mechanical mixing.
Comb for being attached to a hair-cutting device , the comb comprising: a first surface configured to be in contact with a skin of a user when the comb is attached to the hair-cutting device in a first attachment position , wherein the first surface comprises a first slot configured to receive a cutting element of the hair-cutting device when the comb is attached to the hair-cutting device in a second attachment position , a second surface configured to be in contact with the skin of the user when the comb is attached to the hair-cutting device in the second attachment position , and wherein the second surface comprises a second slot configured to receive the cutting element of the hair-cutting device when the comb is attached to the hair-cutting device in the first attachment position . a first surface configured to be in contact with a skin of a user when the comb is attached to the hair-cutting device in a first attachment position , wherein the first surface comprises a first slot configured to receive a cutting element of the hair-cutting device when the comb is attached to the hair-cutting device in a second attachment position , a second surface configured to be in contact with the skin of the user when the comb is attached to the hair-cutting device in the second attachment position , and wherein the second surface comprises a second slot configured to receive the cutting element of the hair-cutting device when the comb is attached to the hair-cutting device in the first attachment position .
A driver assistance system DAS comprising: a first forward-view sensor comprising an image sensor mounted to a vehicle , having a field of view FOV including a region forward of the vehicle , and configured to acquire forward-view image data; and/or a second forward-view sensor comprising at least one of a radar sensor or a Light Detection And Ranging LiDAR sensor mounted to the vehicle , having a field of sensing FOS including the region forward of the vehicle , and configured to acquire forward-view sensing data; a corner sensor comprising at least one of a radar sensor or a LiDAR sensor, mounted to the vehicle , having a field of sensing FOS including a region on a side of the vehicle, and configured to acquire side-view sensing data; and a controller provided with a processor configured to process the forward-view image data and/or the forward-view sensing data, and the side-view sensing data, characterized in that , the controller detects both a preceding object changed lane or turned, located in the region forward of the vehicle and a side object located in the region on the side of the vehicle in response to a result of processing the forward-view image data and/or the forward-view sensing data, and the side-view sensing data, and in response to a collision between the vehicle and the preceding object being predicted and the region on the side of the vehicle being free of the side object, the controller is configured to output a steering signal to a steering device of the vehicle . a first forward-view sensor comprising an image sensor mounted to a vehicle , having a field of view FOV including a region forward of the vehicle , and configured to acquire forward-view image data; and/or a second forward-view sensor comprising at least one of a radar sensor or a Light Detection And Ranging LiDAR sensor mounted to the vehicle , having a field of sensing FOS including the region forward of the vehicle , and configured to acquire forward-view sensing data; a corner sensor comprising at least one of a radar sensor or a LiDAR sensor, mounted to the vehicle , having a field of sensing FOS including a region on a side of the vehicle, and configured to acquire side-view sensing data; and a controller provided with a processor configured to process the forward-view image data and/or the forward-view sensing data, and the side-view sensing data, characterized in that , the controller detects both a preceding object changed lane or turned, located in the region forward of the vehicle and a side object located in the region on the side of the vehicle in response to a result of processing the forward-view image data and/or the forward-view sensing data, and the side-view sensing data, and in response to a collision between the vehicle and the preceding object being predicted and the region on the side of the vehicle being free of the side object, the controller is configured to output a steering signal to a steering device of the vehicle .
Method of regulating the activity of an electrochemical device comprising an anode and a cathode immersed in an electrolyte that is respectively placed in a separate anode compartment and a cathode compartment that are separated by at least one membrane or connected to one another by a salt bridge, wherein the device optionally comprises a reference electrode , and wherein a potential difference is applied between the anode and the cathode, or between the anode and the reference electrode, characterized in that the electrolyte of the anode compartment as well as the electrolyte of the cathode compartment each contain microorganisms in suspension or in the form of biofilm(s), wherein the electrodes are respectively referred to as bioanode and biocathode, and wherein the operation of the device is controlled by a double regulation: - a first regulation, called the priority regulation, of the potential difference between the bioanode and the biocathode or between the bioanode and the reference electrode, between a minimum limit value allowing the development of an electroactive biofilm at the bioanode and a maximum limit value lower than the oxidation potential of said biofilm, and - a second regulation, called the secondary regulation, set up during the first regulation to optimize the faradic yield of the biocathode. - a first regulation, called the priority regulation, of the potential difference between the bioanode and the biocathode or between the bioanode and the reference electrode, between a minimum limit value allowing the development of an electroactive biofilm at the bioanode and a maximum limit value lower than the oxidation potential of said biofilm, and - a second regulation, called the secondary regulation, set up during the first regulation to optimize the faradic yield of the biocathode.
An apparatus to treat a patient, the apparatus comprising: a treatment probe having an elongate axis; an imaging probe comprising an ultrasound probe having an elongate axis that at least partially defines a sagittal image plane; and a processor configured to display ultrasound images obtained with the imaging probe on a screen of a user interface to enable a user to align the treatment probe with the imaging probe, the processor comprising instructions to move the treatment probe to a plurality of physical locations and determine mapping of image coordinates to physical coordinates in response to the plurality of physical locations, the processor being configured to: prompt the user to identify the treatment probe tip in a first location in an image; receive an input that the probe tip has been identified in the first location; provide a first marker identifying the probe tip; prompt the user to identify the treatment probe tip in a second location in the image; receive an input that the probe tip has been identified in the second location; and provide a second marker identifying the probe tip in the second location. a treatment probe having an elongate axis; an imaging probe comprising an ultrasound probe having an elongate axis that at least partially defines a sagittal image plane; and a processor configured to display ultrasound images obtained with the imaging probe on a screen of a user interface to enable a user to align the treatment probe with the imaging probe, the processor comprising instructions to move the treatment probe to a plurality of physical locations and determine mapping of image coordinates to physical coordinates in response to the plurality of physical locations, the processor being configured to: prompt the user to identify the treatment probe tip in a first location in an image; receive an input that the probe tip has been identified in the first location; provide a first marker identifying the probe tip; prompt the user to identify the treatment probe tip in a second location in the image; receive an input that the probe tip has been identified in the second location; and provide a second marker identifying the probe tip in the second location. prompt the user to identify the treatment probe tip in a first location in an image; receive an input that the probe tip has been identified in the first location; provide a first marker identifying the probe tip; prompt the user to identify the treatment probe tip in a second location in the image; receive an input that the probe tip has been identified in the second location; and provide a second marker identifying the probe tip in the second location.
A heat exchange unit configured to exchange heat between a liquid medium sent to utilization-side equipment and a refrigerant that is flammable, to perform at least one of cooling and heating of the liquid medium, the heat exchange unit comprising: a heat exchanger configured to exchange heat between the refrigerant and the liquid medium; an electric component that can be an ignition source; a casing accommodating the heat exchanger and the electric component; and a gas detection sensor having a detection element arranged below the electric component, the gas detection sensor being configured to detect presence or absence of gas of the refrigerant at a place where the detection element is arranged, characterized in that the detection element of the gas detection sensor is arranged below a liquid-side connecting port and a gas-side connecting port of the heat exchange unit . a heat exchanger configured to exchange heat between the refrigerant and the liquid medium; an electric component that can be an ignition source; a casing accommodating the heat exchanger and the electric component; and a gas detection sensor having a detection element arranged below the electric component, the gas detection sensor being configured to detect presence or absence of gas of the refrigerant at a place where the detection element is arranged, characterized in that the detection element of the gas detection sensor is arranged below a liquid-side connecting port and a gas-side connecting port of the heat exchange unit .
A cyclic peptide for use in treating cancer in a subject in need thereof, wherein the amino acid sequence of the cyclic peptide is selected from the group consisting of DWGPK (SEQ ID NO: 2) and dWGPK (SEQ ID NO: 4).
An apparatus for receiving a random access response in 2-step random access, applicable to a user equipment, UE, side, the apparatus comprising: a first calculating unit configured to calculate a first RNTI, the first RNTI being different from an RA-RNTI actually used in 4-step random access; a first detecting unit configured to use the first RNTI to detect downlink control information, DCI, scheduling a random access response in a monitoring window; and a first receiving unit configured to, when the downlink control information is successfully detected, receive the random access response in a physical downlink shared channel, PDSCH, according to the downlink control information, characterised in that , when a slot or a symbol where an uplink shared channel is located is unavailable and a slot or a symbol where a preamble associated with the uplink shared channel is located is available, 2-step random access allows the slot or the symbol where a preamble associated with the uplink shared channel is located to be used for transmitting the preamble, and the monitoring window is located behind the slot or the symbol where the uplink shared channel is located. a first calculating unit configured to calculate a first RNTI, the first RNTI being different from an RA-RNTI actually used in 4-step random access; a first detecting unit configured to use the first RNTI to detect downlink control information, DCI, scheduling a random access response in a monitoring window; and a first receiving unit configured to, when the downlink control information is successfully detected, receive the random access response in a physical downlink shared channel, PDSCH, according to the downlink control information, characterised in that , when a slot or a symbol where an uplink shared channel is located is unavailable and a slot or a symbol where a preamble associated with the uplink shared channel is located is available, 2-step random access allows the slot or the symbol where a preamble associated with the uplink shared channel is located to be used for transmitting the preamble, and the monitoring window is located behind the slot or the symbol where the uplink shared channel is located.
An optical fiber cable comprising: a core comprising a plurality of units which are assembled and are twisted so as to form a plurality of layers , each of which comprises a plurality of optical fibers which are assembled, and which comprises a plurality of first-layer units and a plurality of second-layer units ; a pair of tension members disposed so as to face each other with the core interposed therebetween; and a sheath covering the core and the pair of tension members collectively, wherein: the plurality of layers comprises a first layer comprising the first-layer units formed in an SZ-twisted shape and a second layer covering the first layer and comprising the second-layer units formed in an SZ-twisted shape; the first layer is arranged at a center portion of the core ; and a twisting direction of the first-layer units is opposite to a twisting direction of the second-layer units in at least a portion in a cable length direction. a core comprising a plurality of units which are assembled and are twisted so as to form a plurality of layers , each of which comprises a plurality of optical fibers which are assembled, and which comprises a plurality of first-layer units and a plurality of second-layer units ; a pair of tension members disposed so as to face each other with the core interposed therebetween; and a sheath covering the core and the pair of tension members collectively, wherein: the plurality of layers comprises a first layer comprising the first-layer units formed in an SZ-twisted shape and a second layer covering the first layer and comprising the second-layer units formed in an SZ-twisted shape; the first layer is arranged at a center portion of the core ; and a twisting direction of the first-layer units is opposite to a twisting direction of the second-layer units in at least a portion in a cable length direction. the plurality of layers comprises a first layer comprising the first-layer units formed in an SZ-twisted shape and a second layer covering the first layer and comprising the second-layer units formed in an SZ-twisted shape; the first layer is arranged at a center portion of the core ; and a twisting direction of the first-layer units is opposite to a twisting direction of the second-layer units in at least a portion in a cable length direction.
A method of braze welding two steel workpieces in which a laser beam and a filler metal wire are continuously moved along the junction line between the two workpieces in such a way that this laser beam continuously melts the filler metal wire to form a continuous braze bead between the two workpieces , 2) and in which a shielding gas is blown towards the brazing cord, this shielding gas being air free of gases other than those contained in atmospheric air, characterized in that the air is compressed air which is blown towards the brazing cord at a pressure of between 1 and 2 bar and in a direction coaxial with that of the filler metal wire .
Baler for agricultural harvested crops, comprising a movable conveyor element and a stripping device having a stripper support and a stripper , the conveyor element being designed as a rotatably mounted roller for conveying and pressing harvested crops, a surface (8.1) of the conveyor element adjacent to the stripper being able to be moved past the stripper in order to strip adhering material from the surface (8.1), and a position of the stripper relative to the stripper support being adjustable, the stripper being connected to the stripper support by at least one adjustment arrangement , characterized in that the adjustment arrangement has a first adjustment element which can be rotated relative to the stripper support about an adjustment direction (V), and a second adjustment element which forms a helical gear with the first adjustment element, is displaceable relative to the stripper support in the adjustment direction (V), and is designed to transmit force to the stripper . the stripper being connected to the stripper support by at least one adjustment arrangement , characterized in that the adjustment arrangement has a first adjustment element which can be rotated relative to the stripper support about an adjustment direction (V), and a second adjustment element which forms a helical gear with the first adjustment element, is displaceable relative to the stripper support in the adjustment direction (V), and is designed to transmit force to the stripper .