mhurhangee/ep-ind-claims huggingface dataset:
A therapeutic brain stimulation system, comprising at least two and preferably three or more stimulation signal emitters adapted to generate stimulating signals which in combination allow for wireless stimulation of neuronal cells in a patient's brain, wherein said signal emitters are arranged or adapted to being arranged such that their individual stimulating signals can be emitted from different positions towards a common target region in a patient's brain so as to provide an accumulated stimulating effect on said target region, and wherein the signal emitters are adjustable with respect to their signal intensity such that the stimulation signals accumulating in the target region do not negatively affect the anatomic structure of neuronal brain cells in said target region, wherein the signal emitters are mounted on a common support structure, characterized in that the common support structure being configured to urge the signal emitters against the patient's cranium, wherein the signal emitters are each movably mounted in a mounting tube, the mounting tube being configured to be tightly held against the patient's cranium by means of the flexible, but stiff support structure.
A shaped abrasive particle including a ceramic material, the shaped abrasive particle comprising a body, wherein the body comprises a first major surface having a tortuous contour, a second major surface and a side surface joining the first major surface and the second major surface, wherein the tortuous contour defines a waviness having a first curved portion extending above a line extending between a first corner and a second corner of the body, and further comprising a second curved portion extending below the line, and wherein the first curved portion extends above the line for a peak height of at least 5% of an average height of the particle and wherein the second curved portion extends below the line for a valley height of at least 5% of an average height of the particle, wherein the average height is measured as an average distance between the first major surface and the second major surface.
Apparatus for neuromuscular stimulation, comprising: (a) a module for receiving EMG signals from skin adjacent a muscle whose contraction is to be stimulated; and (b) a module for supplying a succession of stimulation (STIM) pulses; and (c) a controller configured (i) to cause the EMG-receiving module to be operable during quiescent periods between successive pulses to receive a composite inter-pulse EMG waveform; (ii) to extract a voluntary EMG signal from the composite inter-pulse EMG waveform dominated by much larger m-waves; and (iii) to modulate the amplitude of stimulation pulses in the succession depending on a voluntary component of the received EMG signals. (a) a module for receiving EMG signals from skin adjacent a muscle whose contraction is to be stimulated; and (b) a module for supplying a succession of stimulation (STIM) pulses; and (c) a controller configured (i) to cause the EMG-receiving module to be operable during quiescent periods between successive pulses to receive a composite inter-pulse EMG waveform; (ii) to extract a voluntary EMG signal from the composite inter-pulse EMG waveform dominated by much larger m-waves; and (iii) to modulate the amplitude of stimulation pulses in the succession depending on a voluntary component of the received EMG signals. (i) to cause the EMG-receiving module to be operable during quiescent periods between successive pulses to receive a composite inter-pulse EMG waveform; (ii) to extract a voluntary EMG signal from the composite inter-pulse EMG waveform dominated by much larger m-waves; and (iii) to modulate the amplitude of stimulation pulses in the succession depending on a voluntary component of the received EMG signals.
Electronic beverage pouring device for dosing a pre-determined amount of liquid beverage from a liquid container, said electronic pouring device comprising a housing, said housing comprising: - an inlet opening and an outlet opening for the passage of liquid from said liquid container, - a valve comprising a valve member for controlling the passage of said liquid and a valve seat at said outlet opening for arresting said valve member in a closed position, - a liquid internal region for accommodating said valve member and for allowing the passage of said liquid through said housing, - a dry internal region for accommodating displacement means for displacing said valve member against said valve seat into said closed position, or for displacing said valve member away from said valve seat into an opened position, said displacement means comprising drive means and transmission means, - a membrane for separating said dry internal region from said liquid internal region. - an inlet opening and an outlet opening for the passage of liquid from said liquid container, - a valve comprising a valve member for controlling the passage of said liquid and a valve seat at said outlet opening for arresting said valve member in a closed position, - a liquid internal region for accommodating said valve member and for allowing the passage of said liquid through said housing, - a dry internal region for accommodating displacement means for displacing said valve member against said valve seat into said closed position, or for displacing said valve member away from said valve seat into an opened position, said displacement means comprising drive means and transmission means, - a membrane for separating said dry internal region from said liquid internal region.
A method of controlling a laser source to deliver laser energy through a medical device, comprising: adjusting a laser source parameter including at least one of a laser power, a laser energy, a frequency, and a pulse width of the laser source, wherein the laser source parameters are adjustable through a first action or series of actions on a foot pedal assembly operably coupled to a laser control unit; and activating the laser source, wherein the activation of the laser source includes a second action or series of actions on the foot pedal assembly, wherein the second series of actions is different from the first action or actions, wherein the foot pedal assembly includes a plurality of foot actuators (46A, 46B, 46C), characterized in that the first action or series of actions on the foot pedal assembly includes an action on the foot pedal assembly to toggle through the laser source parameters on a user interface display menu or an action on the foot pedal assembly to increase or decrease a selected laser source parameter on the user interface display menu. adjusting a laser source parameter including at least one of a laser power, a laser energy, a frequency, and a pulse width of the laser source, wherein the laser source parameters are adjustable through a first action or series of actions on a foot pedal assembly operably coupled to a laser control unit; and activating the laser source, wherein the activation of the laser source includes a second action or series of actions on the foot pedal assembly, wherein the second series of actions is different from the first action or actions, wherein the foot pedal assembly includes a plurality of foot actuators (46A, 46B, 46C), characterized in that the first action or series of actions on the foot pedal assembly includes an action on the foot pedal assembly to toggle through the laser source parameters on a user interface display menu or an action on the foot pedal assembly to increase or decrease a selected laser source parameter on the user interface display menu.
A lighting controller for optimizing a timeout value of a lamp, which illuminates a lighting area, the lighting controller comprising: a memory comprising sensor data; and an occupancy model configured to detect a plurality of motion trips from the sensor data, wherein each one of the motion trips occurs when motion is detected, and wherein the occupancy model is further configured to determine a plurality of durations from the plurality of motion trips, wherein each respective one of the durations is a time difference between two consecutive motion trips that are in the plurality of motion trips, and wherein the occupancy model is further configured to determine a false-negative rate for the lamp based on a peak in a frequency of the durations that are within a predetermined time range, the predetermined time range including values larger than the timeout value of the lamp, the false-negative rate representing a frequency at which the lamp is timed out when the lighting area is occupied; and a demand model configured to increase the timeout value of the lamp in response to the false-negative rate being above a threshold false-negative rate, and to decrease the timeout value of the lamp in response to the false-negative rate being below the threshold false-negative rate. a memory comprising sensor data; and an occupancy model configured to detect a plurality of motion trips from the sensor data, wherein each one of the motion trips occurs when motion is detected, and wherein the occupancy model is further configured to determine a plurality of durations from the plurality of motion trips, wherein each respective one of the durations is a time difference between two consecutive motion trips that are in the plurality of motion trips, and wherein the occupancy model is further configured to determine a false-negative rate for the lamp based on a peak in a frequency of the durations that are within a predetermined time range, the predetermined time range including values larger than the timeout value of the lamp, the false-negative rate representing a frequency at which the lamp is timed out when the lighting area is occupied; and a demand model configured to increase the timeout value of the lamp in response to the false-negative rate being above a threshold false-negative rate, and to decrease the timeout value of the lamp in response to the false-negative rate being below the threshold false-negative rate.
A method for solvent vapor smoothing of a surface of a plastic product, the method comprising the steps of: - placing the plastic product to be smoothed in a closed chamber comprising a heated evaporator for solvent located at a bottom of the chamber; - introducing a solvent to the evaporator and heating the solvent; - circulating solvent vapors inside the chamber in a direction from the bottom to a top of the chamber; - allowing the solvent vapors to condense on the outer surface of the product; and - collecting solvent vapors from the upper portion of the chamber; characterized by: - using a fan having a nozzle to influence circulation of solvent vapors inside the chamber in a direction from the bottom to a top of the chamber. - placing the plastic product to be smoothed in a closed chamber comprising a heated evaporator for solvent located at a bottom of the chamber; - introducing a solvent to the evaporator and heating the solvent; - circulating solvent vapors inside the chamber in a direction from the bottom to a top of the chamber; - allowing the solvent vapors to condense on the outer surface of the product; and - collecting solvent vapors from the upper portion of the chamber; characterized by: - using a fan having a nozzle to influence circulation of solvent vapors inside the chamber in a direction from the bottom to a top of the chamber.
Device for taking samples from containers which comprises: - a receptacle for at least one container; - a container bar code reader associated with the container positioned in the container receptacle; - a receptacle for at least one test tube (30, 30', 30''', 30''') with the ability to move; and - a bar code reader associated with the test tube (30, 30', 30'', 30''') positioned in the test tube receptacle; - fluid communication means between the container and the test tube (30, 30', 30'', 30'''); in which the test tube receptacle comprises at least a loading position and a sample-taking position, characterised in that it comprises means for controlling the position of the test tube receptacle which, in turn, comprises at least one test tube receptacle position sensor and means for blocking the position of said test tube receptacle. - a receptacle for at least one container; - a container bar code reader associated with the container positioned in the container receptacle; - a receptacle for at least one test tube (30, 30', 30''', 30''') with the ability to move; and - a bar code reader associated with the test tube (30, 30', 30'', 30''') positioned in the test tube receptacle; - fluid communication means between the container and the test tube (30, 30', 30'', 30''');
A compound of formula or a pharmaceutically acceptable salt thereof, for use in the treatment of C3G (C3 glomerulopathy), wherein, R is hydrogen, C 1 -C 4 alkyl, or C 1 -C 6 alkoxy; R 1 is C 1 -C 6 alkoxy; R 2 is C 1 -C 6 alkyl; R 3 is C 1 -C 6 alkoxy, C 1 -C 6 alkyl, or hydroxyl; R 4 is phenyl, optionally substituted by -C R 8; and R 8 is hydroxy, C 1 -C 4 alkoxy, or amino. R is hydrogen, C 1 -C 4 alkyl, or C 1 -C 6 alkoxy; R 1 is C 1 -C 6 alkoxy; R 2 is C 1 -C 6 alkyl; R 3 is C 1 -C 6 alkoxy, C 1 -C 6 alkyl, or hydroxyl; R 4 is phenyl, optionally substituted by -C R 8; and R 8 is hydroxy, C 1 -C 4 alkoxy, or amino.
Control system for a mobile working machine, wherein the control system has at least two main power participants (4, 6) and at least one power participant that has at least one power requirement, wherein the main power participants (4, 6) and the power participant are configured so as to consume and/or output power, wherein the power is able to be transferred between the power participant and the main power participants (4, 6) via a rotating shaft, wherein the control system has at least one speed regulator, wherein the speed regulator regulates the speed of the rotating shaft by converting power of one of the main power participants (4, 6), characterized in that the main power participant (4, 6) that is used to regulate the speed of the shaft is selected on the basis of a change in the power requirement of the power participant.
A compound of formula or the optical isomer, the pharmaceutically acceptable salt, the hydrate or the solvate thereof: wherein, R 1 to R 18 are each independently selected from the group consisting of hydrogen and deuterium, and not all of them are hydrogen at the same time; wherein the structure is characterized in that said compound has the structure of formula: wherein, R 1 to R 18 are each independently selected from the group consisting of hydrogen and deuterium, and not all of them are hydrogen at the same time; wherein the structure is characterized in that said compound has the structure of formula:
A system for controlling the delivery of energy to an ablation catheter during an ablation procedure, the system comprising an ablation generator capable of being operated in a power-control mode, an input device for entering a desired ablation power level, an input device for entering a desired temperature setpoint, and a pulse control box adapted to receive temperature feedback from an ablation catheter during a catheter ablation procedure, characterised in that the pulse control box is configured to pulse delivery of ablation energy to the ablation catheter at the desired ablation power level during the catheter ablation procedure while keeping the received temperature feedback at or close to the desired temperature setpoint. an ablation generator capable of being operated in a power-control mode, an input device for entering a desired ablation power level, an input device for entering a desired temperature setpoint, and a pulse control box adapted to receive temperature feedback from an ablation catheter during a catheter ablation procedure, characterised in that the pulse control box is configured to pulse delivery of ablation energy to the ablation catheter at the desired ablation power level during the catheter ablation procedure while keeping the received temperature feedback at or close to the desired temperature setpoint.
A method in which a base station transmits downlink control information to a terminal in a mobile communication system, the method comprising: transmitting, to the terminal, information about enhanced Physical Downlink Control Channel, ePDCCH, resources for transmitting the downlink control information through a Physical Downlink Shared Channel, PDSCH, area; and transmitting an ePDCCH to the terminal using at least part of the ePDCCH resources based on the information about the ePDCCH resources, wherein the PDSCH area is divided from a Physical Downlink Control Channel, PDCCH, area, wherein the terminal searches a common search space in the PDCCH area and searches a terminal-specific search space in the PDSCH area in order to check whether there exists the downlink control infromation transmitted from the base station to the terminal, wherein the information about the ePDCCH resources includes information about a group of Physical Resource Blocks, PRBs, through which the ePDCCH is transmitted, and wherein PRBs through which ePDCCH for the terminal is transmitted are determined in the group of PRBs based on an identifier of the terminal and a slot number of a slot in a radio frame through which the ePDCCH for the terminal is transmitted. transmitting, to the terminal, information about enhanced Physical Downlink Control Channel, ePDCCH, resources for transmitting the downlink control information through a Physical Downlink Shared Channel, PDSCH, area; and transmitting an ePDCCH to the terminal using at least part of the ePDCCH resources based on the information about the ePDCCH resources, wherein the PDSCH area is divided from a Physical Downlink Control Channel, PDCCH, area, wherein the terminal searches a common search space in the PDCCH area and searches a terminal-specific search space in the PDSCH area in order to check whether there exists the downlink control infromation transmitted from the base station to the terminal, wherein the information about the ePDCCH resources includes information about a group of Physical Resource Blocks, PRBs, through which the ePDCCH is transmitted, and wherein PRBs through which ePDCCH for the terminal is transmitted are determined in the group of PRBs based on an identifier of the terminal and a slot number of a slot in a radio frame through which the ePDCCH for the terminal is transmitted.
A device for dividing the consecutive products of a product stream, in particular the consecutive folded products produced by subdividing a material ribbon through a transverse cutting device into two part streams, with a wedge arrangement that is arranged in a fixed manner in the transport plane of the product stream which engages between two cam rollers (47, 48) which are symmetrically arranged relative to the mean working plane flanking it, wherein the wedge arrangement engages between two guide blades (45, 46) flanking it, which together with the wedge arrangement bound a path fork, characterized in that the guide blades (45, 46) comprise slits on which they can be alternately engaged through by cams of the respective adjacent cam roller (47, 48) assigned to the slits so that in each case the cams engaging through and the guide blades (45, 46) that is not engaged through form a feed for a ribbon line (11, 12) assigned to a part stream.
A system comprising: a reclosable portable storage container (300, 400, 500, 600, 700) comprising an interior sterile environment; a sterile teleoperated component of a teleoperated surgical manipulator assembly (102, 202, 204) in the interior sterile environment; wherein the sterile teleoperated component is teleoperably movable in the interior sterile environment; and a control system configured to carry out kinetic testing of the sterile teleoperated component whilst in the interior sterile environment. a reclosable portable storage container (300, 400, 500, 600, 700) comprising an interior sterile environment; a sterile teleoperated component of a teleoperated surgical manipulator assembly (102, 202, 204) in the interior sterile environment; wherein the sterile teleoperated component is teleoperably movable in the interior sterile environment; and a control system configured to carry out kinetic testing of the sterile teleoperated component whilst in the interior sterile environment.
A sample measurement system comprising: sample measurement units (1a, 1b) that are configured to perform measurement on samples by using consumables; a consumable setting unit in which a consumable rack (C10, C20) storing the consumables to be supplied to the sample measurement units (1a, 1b) is set; a sample setting unit in which a sample rack storing the samples to be supplied to the sample measurement units (1a, 1b) is set; a first transport path that transports the consumable rack (C10, C20) from the consumable setting unit to at least one of the sample measurement units (1a, 1b); and a second transport path configured to transport the sample rack from the sample setting unit to at least one of the sample measurement units (1a, 1b); characterised in that the consumable setting unit is configured to hold a plurality of the consumable racks (C10, C20), and the consumable setting unit is configured to cause an empty rack, emptied by passing through at least one of the sample measurement units (1a, 1b), to hold consumables and transports the rack to the first transport path. sample measurement units (1a, 1b) that are configured to perform measurement on samples by using consumables; a consumable setting unit in which a consumable rack (C10, C20) storing the consumables to be supplied to the sample measurement units (1a, 1b) is set; a sample setting unit in which a sample rack storing the samples to be supplied to the sample measurement units (1a, 1b) is set; a first transport path that transports the consumable rack (C10, C20) from the consumable setting unit to at least one of the sample measurement units (1a, 1b); and a second transport path configured to transport the sample rack from the sample setting unit to at least one of the sample measurement units (1a, 1b); characterised in that the consumable setting unit is configured to hold a plurality of the consumable racks (C10, C20), and the consumable setting unit is configured to cause an empty rack, emptied by passing through at least one of the sample measurement units (1a, 1b), to hold consumables and transports the rack to the first transport path.
A curable, one-part epoxy/thiol resin composition comprising: an epoxy/thiol resin mixture comprising: an epoxy resin component comprising an epoxy resin having at least two epoxide groups per molecule; a thiol component comprising a polythiol compound having at least two primary thiol groups; and a nitrogen-containing catalyst for the epoxy resin; and silver nanoparticles, copper nanoparticles, or both, dispersed in the epoxy/thiol resin mixture. an epoxy/thiol resin mixture comprising: an epoxy resin component comprising an epoxy resin having at least two epoxide groups per molecule; a thiol component comprising a polythiol compound having at least two primary thiol groups; and a nitrogen-containing catalyst for the epoxy resin; and an epoxy resin component comprising an epoxy resin having at least two epoxide groups per molecule; a thiol component comprising a polythiol compound having at least two primary thiol groups; and a nitrogen-containing catalyst for the epoxy resin; and silver nanoparticles, copper nanoparticles, or both, dispersed in the epoxy/thiol resin mixture.
A flat bar or flat bar profile made of sheet-metal that is cambered about a bending axis the radius of which preferably is larger than 1000 mm, transversely to its longitudinal extension, the bending axis extending in parallel to a broad side of the flat bar or in parallel to a broad side of a leg of the flat bar profile, characterized by that embossment zones (3, 4) extending in parallel to the bending axis are embossed on one side on a broad side of the flat bar and/or the broad sides of the legs of the flat bar profile.