mhurhangee/ep-ind-claims huggingface dataset:
A multi-site cranial stimulation system which comprises: - a plurality of stimulation elements (EI, E2...En) arranged adjacent to a corresponding plurality of different regions of a brain, - an electronic system in connection with said plurality of stimulation elements (EI, E2...En) and provided for applying thereto corresponding individual stimulus signals for the purpose of individually stimulating said plurality of different regions of said brain to obtain an overall result caused by the synergy of said individual stimuli, wherein said electronic system comprises at least one processing unit with access to data representing at least one simplified model of the brain or of a sector thereof, being considered to be a non-linear coupled oscillating system, wherein said at least one processing unit is configured to implement algorithms provided for accessing and analyzing said data representing said at least one simplified model and for determining said individual stimulus signals, with different frequencies, phases and amplitudes among the stimulation elements, so that they are suitable for exciting in a controlled way at least one natural vibration mode of said non-linear coupled oscillating system, wherein said cranial stimulation is a multi-site transcranial electrical stimulation wherein said stimulation elements used (E1, E2,...En) are noninvasive; wherein the system comprises a series of electrophysiological sensors (S1, S2,...Sn) arranged adjacent to specific regions of the brain and in connection with said processing unit of said electronic system, and intended for monitoring the brain activity of said brain at least prior to and/or during the application of said stimulus signals, wherein said processing unit is configured for adapting or self-calibrating in real time said stimulus signals to the changes observed in the brain activity, wherein said processing unit is configured to implement an algorithm for monitoring the brain activity of said brain and for controlling said stimulation by means of varying said stimulus signals depending on one or more monitored signals obtained as a result of said monitoring, and the processing unit is configured to further implementing an algorithm using one or more analysis techniques applied to said monitored signals to distinguish between the electric signals induced by the stimuli and natural bioelectric signals or response signals to said stimuli, wherein the system is configured to perform a proper filtering of the monitored signals in order to clean unwanted signals or noise from those signals which are indicative of brain activity, be it natural activity or the result of the applied stimulus. - a plurality of stimulation elements (EI, E2...En) arranged adjacent to a corresponding plurality of different regions of a brain, - an electronic system in connection with said plurality of stimulation elements (EI, E2...En) and provided for applying thereto corresponding individual stimulus signals for the purpose of individually stimulating said plurality of different regions of said brain to obtain an overall result caused by the synergy of said individual stimuli,
A hydraulic pressure control method for a vehicle for controlling a hydraulic pressure supplied to a hydraulic pressure control target (40, 41) provided in the vehicle in which both an automatic driving mode and a manual driving mode are selectable, the vehicle including an engine, the hydraulic pressure control method comprising: a step of determining whether a driving mode of the vehicle is the automatic driving mode or the manual driving mode; a step of acquiring values of pieces of engine torque at a plurality of future times planned in advance by a driving plan generated in the automatic driving mode; a step of selecting the maximum engine torque value from the acquired pieces of engine torque value at the plurality of future times and calculating a control operation pressure corresponding to a required operation pressure necessary for transmitting the maximum engine torque value; a step of adding a predetermined margin value (α1) in a case of the automatic driving mode to the control operation pressure; and a step of generating an added control operation pressure obtained by adding the margin value (α1) to the control operation pressure, wherein: the acquired pieces of engine torque value at the plurality of future times are acquired at the constant time intervals from a current time to the future time. a step of determining whether a driving mode of the vehicle is the automatic driving mode or the manual driving mode; a step of acquiring values of pieces of engine torque at a plurality of future times planned in advance by a driving plan generated in the automatic driving mode; a step of selecting the maximum engine torque value from the acquired pieces of engine torque value at the plurality of future times and calculating a control operation pressure corresponding to a required operation pressure necessary for transmitting the maximum engine torque value; a step of adding a predetermined margin value (α1) in a case of the automatic driving mode to the control operation pressure; and a step of generating an added control operation pressure obtained by adding the margin value (α1) to the control operation pressure, wherein: the acquired pieces of engine torque value at the plurality of future times are acquired at the constant time intervals from a current time to the future time.
A method for modeling different internal structures of a head, such as different parts of the brain, in order to focus magnetic stimulation and/or visualize the results of magnetic stimulation, MEG or EEG., the method comprising the step of - determining the location of the internal structures, such as the different cerebral parts, of at least one first head in a three-dimensional space by technical means, e.g., magnetic resonance imaging or computer-aided tomography, in that - the external dimensions of at least one second head are determined by measuring coordinates of selected marker points on scalp of the second head with the help of a localization system, and - the location data of said internal structures of said first head are scaled in a three-dimensional space to correlate with said external dimensions of said second head, whereby the location data of the internal structures of said second head also become modeled without the need for anatomical images of said second head. - determining the location of the internal structures, such as the different cerebral parts, of at least one first head in a three-dimensional space by technical means, e.g., magnetic resonance imaging or computer-aided tomography, - the external dimensions of at least one second head are determined by measuring coordinates of selected marker points on scalp of the second head with the help of a localization system, and - the location data of said internal structures of said first head are scaled in a three-dimensional space to correlate with said external dimensions of said second head, whereby the location data of the internal structures of said second head also become modeled without the need for anatomical images of said second head.
A terminal comprising: a control section configured to determine order of hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits, which correspond to a semi-static HARQ-ACK codebook including HARQ-ACK corresponding to more than one physical downlink shared channel, PDSCH, of a semi-persistent scheduling, SPS, SPS PDSCH, in order of ascending order of an occasion of the SPS PDSCH, ascending order of an SPS configuration index, and ascending order of a serving cell index; and a transmitting section configured to transmit the HARQ-ACK information bits by using a physical uplink control channel, PUCCH. a control section configured to determine order of hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits, which correspond to a semi-static HARQ-ACK codebook including HARQ-ACK corresponding to more than one physical downlink shared channel, PDSCH, of a semi-persistent scheduling, SPS, SPS PDSCH, in order of ascending order of an occasion of the SPS PDSCH, ascending order of an SPS configuration index, and ascending order of a serving cell index; and a transmitting section configured to transmit the HARQ-ACK information bits by using a physical uplink control channel, PUCCH.
A communication method performed by a user equipment, UE, to receive a paging message, the communication method comprising: registering to a stand-alone non-public network, SNPN,; transmitting, to a session management function, SMF, of the SNPN or an access and mobility management function, AMF, of the SNPN, a protocol data unit, PDU, session establishment request message for requesting subscription to a notification service for receiving a paging message of a public land mobile network, PLMN; registering to the PLMN through the SNPN and a non-3GPP inter-working function, N3IWF, of the PLMN; in a case where a paging event occurs when the UE is in an idle state in the PLMN, receiving the paging message from the AMF of the SNPN having received a notification message based on the notification service; and performing a service request procedure based on the paging message. registering to a stand-alone non-public network, SNPN,; transmitting, to a session management function, SMF, of the SNPN or an access and mobility management function, AMF, of the SNPN, a protocol data unit, PDU, session establishment request message for requesting subscription to a notification service for receiving a paging message of a public land mobile network, PLMN; registering to the PLMN through the SNPN and a non-3GPP inter-working function, N3IWF, of the PLMN; in a case where a paging event occurs when the UE is in an idle state in the PLMN, receiving the paging message from the AMF of the SNPN having received a notification message based on the notification service; and performing a service request procedure based on the paging message.
Attachment (1, 1a) for or on an apparatus for injecting a liquid into or under the skin, wherein the attachment (1, 1a) comprises: a proximal part (2, 2a) which can be coupled to or connected to the apparatus and which carries a cannula, a distal part (4, 4a) which surrounds the cannula at least sectionwise, and wherein the proximal part (2, 2a) and the distal part (4, 4a) are rotationally movable relative to each other in such a way that an extent (d 3) of the protrusion of the cannula from the distal part (4, 4a) is variable, wherein a discrete number of holding positions with respect to the rotational motion is provided, to which correspond a different extent of the protrusion of the cannula from the distal part (4, 4a), characterized in that the attachment features a locking mechanism with a gear rim of axially extending teeth with axially extending grooves therebetween and with an elastic locking member engaging in a locking position in one of the grooves to provide the discrete number of holding positions through a plurality of locking positions.
A pharmaceutical composition having a single dosage form comprising a compartment comprising olmesartan medoxomil; and a compartment comprising rosuvastatin or its salt, wherein said compartments are formulated in a separate form, wherein the compartment comprising olmesartan medoxomil comprises one or more disintegrant selected from the group consisting of low substituted hydroxypropyl cellulose, carboxymethylcellulose calcium, croscarmellose sodium, crospovidone, sodium starch glycolate, and pregelatinized starch, and wherein the compartment comprising rosuvastatin or its salt comprises one or more disintegrant selected from the group consisting of crospovidone, low substituted hydroxypropyl cellulose, croscarmellose sodium, and carboxymethylcellulose calcium.
An apparatus for manufacturing a trash bag consisting of a segment of a tubular element made of a sheet of synthetic material that is folded longitudinally twice respectively along a first centerline and a successive second centerline so as to have, in a flattened configuration, eight superimposed layers along its entire width, said eight layers being mutually heat-sealed along a transverse heat-sealing line that is proximate to an end of the segment of tubular element and forms the bottom of the bag, characterized in that it comprises a frame provided with horizontal guiding means (105, 106, 107, 108) which support at least two first folding units (114, 116, 118) arranged side by side and adapted to fold respective tubular elements along said first centerline, and at least two second folding units (154, 156, 158) arranged side by side downstream of said first two folding units and adapted to fold said tubular element along said second centerline.
RFID device for detecting objects marked with RFID transponders on a transport path for the objects, having an RFID transmitting and/or receiving unit for detecting the RFID transponders by means of an RFID antenna, so that the passage of an RFID transponder over the transport path can be detected automatically, and having a metal region, characterized in that the metal region to be arranged on the transport path is provided with a signal passage region for allowing RFID signals to pass through the metal region and the RFID transmitting and/or receiving unit is arranged on a side of the metal region to be turned away from the transport path.
A device for aseptic delivery of biological material from a vial, the device comprising: a tubular barrel including a receiving end to accept at least a portion of the vial within the tubular barrel, and a dispensing end opposite the receiving end; a filter assembly fluidly connected to the dispensing end of the tubular barrel; and a dispersion funnel assembly configured to connect to the vial, and to be at least partially disposed within the tubular barrel, the dispersion funnel assembly having an open configuration to disperse the biological material from the vial into the tubular barrel between the dispersion funnel assembly and the filter assembly, and a closed configuration to force the dispersed biological material through the filter assembly when the dispersion funnel assembly is moved toward the dispensing end of the tubular barrel wherein the filter assembly includes a filter medium, the filter assembly selectable between an open state wherein the filter medium prevents the biological material from passing through the filter assembly but permits liquid to pass through the filter assembly, a bypass state wherein the biological material can pass through the filter assembly to deliver the biological material, and, optionally, a closed state wherein no liquid or biological material can pass through the filter assembly. a tubular barrel including a receiving end to accept at least a portion of the vial within the tubular barrel, and a dispensing end opposite the receiving end; a filter assembly fluidly connected to the dispensing end of the tubular barrel; and a dispersion funnel assembly configured to connect to the vial, and to be at least partially disposed within the tubular barrel, the dispersion funnel assembly having an open configuration to disperse the biological material from the vial into the tubular barrel between the dispersion funnel assembly and the filter assembly, and a closed configuration to force the dispersed biological material through the filter assembly when the dispersion funnel assembly is moved toward the dispensing end of the tubular barrel wherein the filter assembly includes a filter medium, the filter assembly selectable between an open state wherein the filter medium prevents the biological material from passing through the filter assembly but permits liquid to pass through the filter assembly, a bypass state wherein the biological material can pass through the filter assembly to deliver the biological material, and, optionally, a closed state wherein no liquid or biological material can pass through the filter assembly.
A method for consolidating a pre-form made of powder, comprising: placing the pre-form between smart susceptors (18, 20); heating the smart susceptors (18, 20) to a leveling temperature by applying a varying low-strength magnetic field having a magnetic flux that passes through surfaces of the smart susceptors (18, 20); applying consolidation pressure to the pre-form at least during a time period subsequent to the temperature of the smart susceptors (18, 20) reaching the leveling temperature; and while consolidation pressure is being applied, applying a pulsed high- strength magnetic field having a magnetic flux that passes through a surface of the pre-form, wherein a strength of the high-strength magnetic field is greater than a peak strength of the low strength magnetic field, the strength and pulse rate of the high-strength magnetic field are selected so that the crystallographic phase of the pre-form will rapidly oscillate at a substantially constant temperature, and the pulsed high- strength magnetic field is applied sufficiently long that superplasticity of the pre-form is attained during phase oscillation; and wherein the strength of the high-strength magnetic field is greater than or equal to 0.5 tesla and the strength of the low-strength magnetic field is less than 0.1 tesla. placing the pre-form between smart susceptors (18, 20); heating the smart susceptors (18, 20) to a leveling temperature by applying a varying low-strength magnetic field having a magnetic flux that passes through surfaces of the smart susceptors (18, 20); applying consolidation pressure to the pre-form at least during a time period subsequent to the temperature of the smart susceptors (18, 20) reaching the leveling temperature; and while consolidation pressure is being applied, applying a pulsed high- strength magnetic field having a magnetic flux that passes through a surface of the pre-form, wherein a strength of the high-strength magnetic field is greater than a peak strength of the low strength magnetic field, the strength and pulse rate of the high-strength magnetic field are selected so that the crystallographic phase of the pre-form will rapidly oscillate at a substantially constant temperature, and the pulsed high- strength magnetic field is applied sufficiently long that superplasticity of the pre-form is attained during phase oscillation; and wherein the strength of the high-strength magnetic field is greater than or equal to 0.5 tesla and the strength of the low-strength magnetic field is less than 0.1 tesla.
A belly fairing for an aircraft, comprising: a body; and a ventilation louver disposed in the body, comprising a first plate defining a first opening therein for permitting fluid flow along a first direction, characterized in that the ventilation louver comprises: a second plate defining a vane therein, the vane at least partially covering the first opening and directing the fluid flow along a second direction, non-parallel to the first direction; and a third plate defining a louvered opening therein wherein the louvered opening directs fluid flow along a third direction, non-parallel to both the first direction and the second direction. a body; and a ventilation louver disposed in the body, comprising a first plate defining a first opening therein for permitting fluid flow along a first direction, characterized in that the ventilation louver comprises: a second plate defining a vane therein, the vane at least partially covering the first opening and directing the fluid flow along a second direction, non-parallel to the first direction; and a third plate defining a louvered opening therein wherein the louvered opening directs fluid flow along a third direction, non-parallel to both the first direction and the second direction. a second plate defining a vane therein, the vane at least partially covering the first opening and directing the fluid flow along a second direction, non-parallel to the first direction; and a third plate defining a louvered opening therein wherein the louvered opening directs fluid flow along a third direction, non-parallel to both the first direction and the second direction.
A heat-ray shielding film comprising: composite tungsten oxide particles; a dispersant; a thermoplastic resin; and a metal coupling agent, which is a silane coupling agent that includes an epoxy group and/or an amino group; wherein the composite tungsten oxide particles are represented by a general formula M x WO y, where M is one or more elements selected from Cs, Rb, K, Tl, In, Ba, Li, Ca, Sr, Fe, Sn, Al, Cu, and Na, 0.1 ≤ x ≤ 0.5, and 2.2 ≤ y ≤ 3.0. composite tungsten oxide particles; a dispersant; a thermoplastic resin; and a metal coupling agent, which is a silane coupling agent that includes an epoxy group and/or an amino group; wherein the composite tungsten oxide particles are represented by a general formula M x WO y, where M is one or more elements selected from Cs, Rb, K, Tl, In, Ba, Li, Ca, Sr, Fe, Sn, Al, Cu, and Na, 0.1 ≤ x ≤ 0.5, and 2.2 ≤ y ≤ 3.0.
A method of adapting the performance of an acoustic communication link between an implantable medical device and a communicating device, the method comprising: initiating an acoustic link between the implantable medical device and the communication device by transmitting a first acoustic signal from the communicatin device to the implantable medical device, wherein the implantable medical device enters a transmission mode of operation after receipt of the first acoustic signal and transmits a second acoustic signal back to the communicating device, measuring the initial performance of the acoustic link between the implantable medical device and the communicating device by measuring the intensity of the second acoustic signal; determining whether the initial performance of the acoustic link is adequate by comparing the measured intensity level against a predetermined threshold intensity level; and adjusting at least one operating parameter related to the acoustic link in the event the initial performance of the acoustic link is inadequate, the at least one operating parameter including a parameter related to at least one of the transmission or reception of an acoustic signal via an acoustic transducer, the method further including operating the implantable medical device in a fail-safe mode of operation in the event the performance of the acoustic link is not improved upon a change in the adjusted operating parameter. initiating an acoustic link between the implantable medical device and the communication device by transmitting a first acoustic signal from the communicatin device to the implantable medical device, wherein the implantable medical device enters a transmission mode of operation after receipt of the first acoustic signal and transmits a second acoustic signal back to the communicating device, measuring the initial performance of the acoustic link between the implantable medical device and the communicating device by measuring the intensity of the second acoustic signal; determining whether the initial performance of the acoustic link is adequate by comparing the measured intensity level against a predetermined threshold intensity level; and adjusting at least one operating parameter related to the acoustic link in the event the initial performance of the acoustic link is inadequate, the at least one operating parameter including a parameter related to at least one of the transmission or reception of an acoustic signal via an acoustic transducer, the method further including operating the implantable medical device in a fail-safe mode of operation in the event the performance of the acoustic link is not improved upon a change in the adjusted operating parameter.
A method of detection, for at least one microorganism contained in a sample, of at least one marker of resistance to a glycopeptide which is vancomycin, comprising detection, by mass spectrometry of MRM type, of at least one peptide of said microorganism, which are peptides of the Van type selected from the peptides of sequence SEQ ID No. 5 to 16, 29 to 35, 5 to 71, 80 to 83, 85 to 91, 95 to 102, 104 to 120, 122 to 139 or 141 to 154.