mhurhangee/patent-ind-claim-en huggingface dataset:
Method for coating at least one portion of the inner surface of a container elongate about an axis Oz with a hardenable liquid coating material, wherein the container is positioned on a support to which it is secured, a tool for applying the coating is introduced into the container, the container is put in relative rotation with respect to the tool about the axis Oz at a given first speed V, while heating the container to a given temperature, and the coating liquid is applied by the tool to at least a portion of the inner surface of the container, characterised in that , the container being arranged and suitable for containing and preserving products that are biocompatible with humans and/or animals - the container is inclined by a first given angle α with respect to the vertical, - and the liquid coating material is applied evenly to the inner surface of the container through a spray nozzle , according to a control law that is a function of the parameters of viscosity η of the liquid at the given temperature, of roughness R of the part of the surface of the container, of the geometric typology of the container, of the angle α of inclination, of the rotation speed V and of the rate D of supply of liquid material, said speed, temperature and rate being controlled so as to evenly deposit a layer of an identical or substantially identical thickness of liquid coating material on said inner surface of the container . - the container is inclined by a first given angle α with respect to the vertical, - and the liquid coating material is applied evenly to the inner surface of the container through a spray nozzle , according to a control law that is a function of the parameters of viscosity η of the liquid at the given temperature, of roughness R of the part of the surface of the container, of the geometric typology of the container, of the angle α of inclination, of the rotation speed V and of the rate D of supply of liquid material, said speed, temperature and rate being controlled so as to evenly deposit a layer of an identical or substantially identical thickness of liquid coating material on said inner surface of the container .
A stabilization system comprising: a bone plate having an upper surface and a lower surface configured to be in contact with bone, the bone plate having an opening extending from the upper surface to the lower surface , the opening including a textured portion and non-textured portion , wherein the textured portion comprises a texture that is a non-threaded surface, wherein the textured portion includes a knurled cut design including a plurality of shallow knurled grooves set in a diamond pattern where each cut overlaps the next, and wherein the lower surface includes a one or more perimeter reliefs extending along a perimeter of the lower surface ; and a fastener configured to be received by the opening and configured to be inserted into the bone, wherein the opening is configured to receive either a locking fastener or a compression fastener and wherein the opening is shaped such that the locking fastener may be inserted at different angles, the locking fastener having a threaded head portion configured to engage the textured portion and lock to the bone plate , and the compression fastener having a substantially smooth head portion configured to dynamically compress the bone. a bone plate having an upper surface and a lower surface configured to be in contact with bone, the bone plate having an opening extending from the upper surface to the lower surface , the opening including a textured portion and non-textured portion , wherein the textured portion comprises a texture that is a non-threaded surface, wherein the textured portion includes a knurled cut design including a plurality of shallow knurled grooves set in a diamond pattern where each cut overlaps the next, and wherein the lower surface includes a one or more perimeter reliefs extending along a perimeter of the lower surface ; and a fastener configured to be received by the opening and configured to be inserted into the bone, wherein the opening is configured to receive either a locking fastener or a compression fastener and wherein the opening is shaped such that the locking fastener may be inserted at different angles, the locking fastener having a threaded head portion configured to engage the textured portion and lock to the bone plate , and the compression fastener having a substantially smooth head portion configured to dynamically compress the bone.
A heart rate detection method, wherein the method is applied to an electronic device, and the electronic device comprises a heart rate sensor; and the method comprises: detecting, by the electronic device, a current motion status of a user carrying the electronic device; determining, by the electronic device based on a prestored correspondence between a motion status, a startup period, and a sampling rate, a startup period and a sampling rate that are corresponding to the current motion status, wherein the startup period is a period in which the heart rate sensor is started to detect a heart rate of the user carrying the electronic device, and the sampling rate is a sampling rate of collecting heart rate data by the heart rate sensor; and starting, by the electronic device, the heart rate sensor at regular intervals based on the startup period to collect heart rate data at the sampling rate; wherein the prestored correspondence between a motion status, a startup period, and a sampling rate is: exercise intensity corresponding to the motion status is inversely proportional to the startup period, and the exercise intensity corresponding to the motion status is directly proportional to the sampling rate. detecting, by the electronic device, a current motion status of a user carrying the electronic device; determining, by the electronic device based on a prestored correspondence between a motion status, a startup period, and a sampling rate, a startup period and a sampling rate that are corresponding to the current motion status, wherein the startup period is a period in which the heart rate sensor is started to detect a heart rate of the user carrying the electronic device, and the sampling rate is a sampling rate of collecting heart rate data by the heart rate sensor; and starting, by the electronic device, the heart rate sensor at regular intervals based on the startup period to collect heart rate data at the sampling rate; wherein the prestored correspondence between a motion status, a startup period, and a sampling rate is: exercise intensity corresponding to the motion status is inversely proportional to the startup period, and the exercise intensity corresponding to the motion status is directly proportional to the sampling rate.
A water output device comprising: a housing mechanism ; a water purification mechanism , which comprises a water purifier located within the housing mechanism ; a refrigeration mechanism , which comprises a compressor located within the housing mechanism ; a tank assembly , which comprises a first tank mechanism configured for providing hot water, and second tank mechanism configured for providing ice water and soda water; the first tank mechanism comprises a hot water tank in communication with the water purifier ; the second tank mechanism comprises a ice water tank in communication with the water purifier , a soda water tank located within the ice water tank , a water pump in communication with the ice water tank and the soda water tank respectively, and a cooling pipe spirally extended into the ice water tank ; wherein the cooling pipe is connected to the compressor; the ice water tank comprises an air inlet pipeline for passing carbon dioxide gas; the hot water tank , the ice water tank , and the soda water tank comprises water output pipelines, respectively; the water pump is configured for drawing the water from the ice water tank into the soda water tank ; characterized in that the air inlet pipeline comprises a first balancing valve , and the water output pipeline comprises a second balancing valve . a housing mechanism ; a water purification mechanism , which comprises a water purifier located within the housing mechanism ; a refrigeration mechanism , which comprises a compressor located within the housing mechanism ; a tank assembly , which comprises a first tank mechanism configured for providing hot water, and second tank mechanism configured for providing ice water and soda water; the first tank mechanism comprises a hot water tank in communication with the water purifier ; the second tank mechanism comprises a ice water tank in communication with the water purifier , a soda water tank located within the ice water tank , a water pump in communication with the ice water tank and the soda water tank respectively, and a cooling pipe spirally extended into the ice water tank ; wherein the cooling pipe is connected to the compressor; the ice water tank comprises an air inlet pipeline for passing carbon dioxide gas; the hot water tank , the ice water tank , and the soda water tank comprises water output pipelines, respectively; the water pump is configured for drawing the water from the ice water tank into the soda water tank ; characterized in that the air inlet pipeline comprises a first balancing valve , and the water output pipeline comprises a second balancing valve .
A process for treating thick fine tailings having a solids content of between 10 wt% and 45 wt%, and a fines content of at least 50 wt% of the total solids content, the process comprising: pre-shear thinning the thick fine tailings to produce a shear thinned thick fine tailings fluid with reduced yield stress or viscosity compared to the thick fine tailings ; mixing a flocculant into the shear thinned thick fine tailings fluid to produce a mixture comprising water and flocs; and dewatering the mixture to allow water to separate from the flocs. pre-shear thinning the thick fine tailings to produce a shear thinned thick fine tailings fluid with reduced yield stress or viscosity compared to the thick fine tailings ; mixing a flocculant into the shear thinned thick fine tailings fluid to produce a mixture comprising water and flocs; and dewatering the mixture to allow water to separate from the flocs.
A calibration device for a lane keeping assist system, comprising: a support apparatus , wherein the support apparatus comprises a horizontal graduated scale ; a laser , wherein the laser is configured to be mounted on the body of an automobile and to emit a laser beam to the horizontal graduated scale ; and a pattern board , wherein the pattern board is mounted on the support apparatus and is configured to attach an alignment pattern, wherein the pattern board is detachably mounted on the support apparatus and comprises an attaching board configured to attach the alignment pattern; characterized in that the attaching board is a rectangular magnetic board, configured to attach a magnetic fabric having the alignment pattern by a magnetic attraction force. a support apparatus , wherein the support apparatus comprises a horizontal graduated scale ; a laser , wherein the laser is configured to be mounted on the body of an automobile and to emit a laser beam to the horizontal graduated scale ; and a pattern board , wherein the pattern board is mounted on the support apparatus and is configured to attach an alignment pattern, wherein the pattern board is detachably mounted on the support apparatus and comprises an attaching board configured to attach the alignment pattern;
A computer-implemented method of processing a signal representing a physiological rhythm of a subject , the method comprising the steps of: a) receiving the signal from the subject, b) filtering the signal with a band pass filter, characterised in that the method further comprises the steps of: c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising two analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length from the sum of the outputs of the plurality of interval length estimation methods, and wherein the overlap of a first analysis window and a second analysis window is greater than 50% of the size of the first and/or second analysis windows. a) receiving the signal from the subject, b) filtering the signal with a band pass filter, characterised in that the method further comprises the steps of: c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising two analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length from the sum of the outputs of the plurality of interval length estimation methods, and c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising two analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length from the sum of the outputs of the plurality of interval length estimation methods, and wherein the overlap of a first analysis window and a second analysis window is greater than 50% of the size of the first and/or second analysis windows.
A method for wireless communication at a user equipment, UE, comprising: receiving , in a common physical downlink control channel, CPDCCH, a first indication of a remaining channel occupancy time, RCOT, for which a network access device has access to a shared radio frequency spectrum band, and a second indication of a pause time during which the network access device will not transmit over the shared radio frequency spectrum band; determining , based at least in part on the RCOT, whether a duration of an uplink transmission of the UE allows the UE to transmit the uplink transmission within a maximum channel occupancy time, MCOT, for which the network access device has access to the shared radio frequency spectrum band; and entering a power saving mode during at least a part of the pause time, wherein the RCOT includes the pause time. receiving , in a common physical downlink control channel, CPDCCH, a first indication of a remaining channel occupancy time, RCOT, for which a network access device has access to a shared radio frequency spectrum band, and a second indication of a pause time during which the network access device will not transmit over the shared radio frequency spectrum band; determining , based at least in part on the RCOT, whether a duration of an uplink transmission of the UE allows the UE to transmit the uplink transmission within a maximum channel occupancy time, MCOT, for which the network access device has access to the shared radio frequency spectrum band; and entering a power saving mode during at least a part of the pause time, wherein the RCOT includes the pause time.
An intravascular blood pump, comprising a rotatable shaft carrying an impeller and a housing having an opening , wherein the shaft extends through the opening with the impeller positioned outside said housing, the shaft and the housing having surfaces forming a circumferential gap within said opening , characterized in that the gap has a length and has a width of 2 μm or less over at least a part of said length and wherein at least one of the surfaces forming the gap is made of a material having a thermal conductivity of at least 100 W/mK, preferably at least 130 W/mK, more preferably at least 150 W/mK, even more preferably at least 200 W/mK. preferably at least 130 W/mK, more preferably at least 150 W/mK, even more preferably at least 200 W/mK.
Dental implant comprising an implant body extending along a longitudinal axis (I-I) between a coronal end and an apical end , said implant body having a core , along which there extends a helical threading having at least one thread (F1, F2), said dental implant having at least one segment (T2, T3) in which the threading has a height (H) which decreases progressively in the direction of the coronal end and in which the core is tapered in the direction of the apical end , said at least one thread (F1, F2) having an apical surface (SA1, SA2) oriented towards the apical end of the dental implant, a coronal surface (SC1, SC2) oriented towards the coronal end of the dental implant , and a peripheral lateral surface (SLP1, SLP2) connecting the apical surface (SA1, SA2) and the coronal surface (SC1, SC2) of said at least one thread (F1, F2), in which: - the apical surface (SA1, SA2) of said at least one thread (F1, F2) has, in section along the longitudinal axis (I-I), a first profile (PP1, PP2) which repeats according to an apical pitch (PA), - the coronal surface (SC1, SC2) of said at least one thread (F1, F2) has, in section along the longitudinal axis (I-I), a second profile (DP1, DP2) which repeats according to a coronal pitch (PC), characterized in that , in said at least one segment (T2, T3), the apical pitch (PA) is greater than the coronal pitch (PC). - the apical surface (SA1, SA2) of said at least one thread (F1, F2) has, in section along the longitudinal axis (I-I), a first profile (PP1, PP2) which repeats according to an apical pitch (PA), - the coronal surface (SC1, SC2) of said at least one thread (F1, F2) has, in section along the longitudinal axis (I-I), a second profile (DP1, DP2) which repeats according to a coronal pitch (PC),
A neuromodulation system comprising: a first device (10; 100; 170) comprising a non-transitory computer-readable medium comprising instructions configured to cause a microcontroller to: cause one or more primary stimulus electrodes implanted in a patient to issue first waveforms to the patient's neural tissue, receive signals from one or more sensing electrodes implanted in the patient, the signals indicative of a sensed neural response at the one or more sensing electrodes, determine a time interval between the issuing of the first waveforms and an arrival of the sensed neural response at the one or more sensing electrodes, and based on the determined time interval, trigger one or more secondary stimulus electrodes to issue second waveforms to the patient's neural tissue. cause one or more primary stimulus electrodes implanted in a patient to issue first waveforms to the patient's neural tissue, receive signals from one or more sensing electrodes implanted in the patient, the signals indicative of a sensed neural response at the one or more sensing electrodes, determine a time interval between the issuing of the first waveforms and an arrival of the sensed neural response at the one or more sensing electrodes, and based on the determined time interval, trigger one or more secondary stimulus electrodes to issue second waveforms to the patient's neural tissue.
A LED module comprising: a light source unit which includes one or more LEDs mounted on one surface of a circuit board ; a heat sink which includes a base substrate configured to support the light source unit and radiate heat generated from the light source unit and an insulating heat radiation coating layer applied on an outer surface of the base substrate ; a protective cover which includes a convex portion formed in a region corresponding to the LED and is coupled to one surface of the heat sink to protect the light source unit from an external environment; an air flow space (S) which is formed between the light source unit and the protective cover ; and one or more air vents which provide a passage between the air flow space (S) and the outside, block a foreign substance and water from moving therethrough, and allow air to pass therethrough to balance internal pressure of the air flow space with pressure of outside air, wherein the air vent includes a movement path formed to pass through the heat sink and communicate with the air flow space (S) and a vent member attached to one surface of the heat sink to cover an open upper portion of the movement path, wherein at least a portion of the air vent is disposed at a position that overlaps the circuit board and communicates with the air flow space (S). a light source unit which includes one or more LEDs mounted on one surface of a circuit board ; a heat sink which includes a base substrate configured to support the light source unit and radiate heat generated from the light source unit and an insulating heat radiation coating layer applied on an outer surface of the base substrate ; a protective cover which includes a convex portion formed in a region corresponding to the LED and is coupled to one surface of the heat sink to protect the light source unit from an external environment; an air flow space (S) which is formed between the light source unit and the protective cover ; and one or more air vents which provide a passage between the air flow space (S) and the outside, block a foreign substance and water from moving therethrough, and allow air to pass therethrough to balance internal pressure of the air flow space with pressure of outside air, wherein the air vent includes a movement path formed to pass through the heat sink and communicate with the air flow space (S) and a vent member attached to one surface of the heat sink to cover an open upper portion of the movement path, wherein at least a portion of the air vent is disposed at a position that overlaps the circuit board and communicates with the air flow space (S).
A transmission scheme indication method, wherein the method is performed by a base station, wherein the method comprises: generating transmission scheme indication information, wherein the transmission scheme indication information is used to indicate one of at least three transmission schemes comprised in a current transmission mode; and sending the transmission scheme indication information to a user equipment, UE, wherein the at least three transmission schemes comprise a beamforming transmit diversity transmission scheme; wherein the at least three transmission schemes further comprise a multi-user multiple-input and multiple-output transmission scheme, wherein the at least three transmission schemes further comprise an open-loop transmit diversity transmission scheme, characterized in that the base station instructs the UE, based on the channel quality, to switch between the multi-user multiple-input and multiple-output transmission scheme, the beamforming transmit diversity transmission scheme , and the open-loop transmit diversity transmission scheme. generating transmission scheme indication information, wherein the transmission scheme indication information is used to indicate one of at least three transmission schemes comprised in a current transmission mode; and sending the transmission scheme indication information to a user equipment, UE, wherein the at least three transmission schemes comprise a beamforming transmit diversity transmission scheme; wherein the at least three transmission schemes further comprise a multi-user multiple-input and multiple-output transmission scheme, wherein the at least three transmission schemes further comprise an open-loop transmit diversity transmission scheme, characterized in that the base station instructs the UE, based on the channel quality, to switch between the multi-user multiple-input and multiple-output transmission scheme, the beamforming transmit diversity transmission scheme , and the open-loop transmit diversity transmission scheme.