mhurhangee/patent-ind-claim-en huggingface dataset:
A combination of a welding jig and a welding jig micro-cleaning apparatus comprising: a housing ; a sandbox connected to the housing ; an air supply unit connected to the sandbox with a hose; a blasting gun positioned in the housing , wherein the blasting gun comprises a blasting gun inlet provided at a tip end of the blasting gun , and wherein the blasting gun inlet comprises a discharge port and a suction port ; a jig fixing portion positioned at a lower end of the blasting gun , wherein the welding jig is mounted to the jig fixing portion located in the housing ; and a controller , wherein the jig fixing portion comprises a magnetic unit configured to fix the welding jig and a sliding unit movable horizontally at the lower end of the blasting gun such that the welding jig is moveable under the blasting gun inlet through operation of the sliding unit . a housing ; a sandbox connected to the housing ; an air supply unit connected to the sandbox with a hose; a blasting gun positioned in the housing , wherein the blasting gun comprises a blasting gun inlet provided at a tip end of the blasting gun , and wherein the blasting gun inlet comprises a discharge port and a suction port ; a jig fixing portion positioned at a lower end of the blasting gun , wherein the welding jig is mounted to the jig fixing portion located in the housing ; and a controller , wherein the jig fixing portion comprises a magnetic unit configured to fix the welding jig and a sliding unit movable horizontally at the lower end of the blasting gun such that the welding jig is moveable under the blasting gun inlet through operation of the sliding unit .
A computer-implemented method comprising: defining , in a buffer, a plurality of particles having a plurality of initial positions in an absolute coordinate system independent of a graphical user interface, GUI, in which the plurality of particles are renderable; assigning a plurality of memory ranges within the buffer to corresponding ones of the plurality of particles; generating , in the plurality of memory ranges, a plurality of updated positions for the plurality of particles; determining , in the plurality of memory ranges and from a combination of the plurality of initial positions and the plurality of updated positions, a corresponding plurality of vertices for each of the plurality of particles; creating , from the corresponding plurality of vertices, a plurality of corresponding particle trails for the plurality of particles; and storing the plurality of corresponding particle trails in the plurality of memory ranges associated with the plurality of particles. defining , in a buffer, a plurality of particles having a plurality of initial positions in an absolute coordinate system independent of a graphical user interface, GUI, in which the plurality of particles are renderable; assigning a plurality of memory ranges within the buffer to corresponding ones of the plurality of particles; generating , in the plurality of memory ranges, a plurality of updated positions for the plurality of particles; determining , in the plurality of memory ranges and from a combination of the plurality of initial positions and the plurality of updated positions, a corresponding plurality of vertices for each of the plurality of particles; creating , from the corresponding plurality of vertices, a plurality of corresponding particle trails for the plurality of particles; and storing the plurality of corresponding particle trails in the plurality of memory ranges associated with the plurality of particles.
An anti-face-recognition system for vehicles, the anti-face-recognition system for vehicles configured for reducing a risk of vehicle users being recognized by a camera in an external environment of their own facial data, the anti-face-recognition system comprises: a first projection device which is configured to project interfering electromagnetic waves toward a human face, the interfering electromagnetic waves having an interference effect on the recognition of the human face; an eyeball-tracking device which is configured to detect an eyeball sight direction; and a control device which is communicatively connected to the eyeball-tracking device and is configured to acquire the eyeball sight direction from the eyeball-tracking device, wherein the control device is communicatively connected to the first projection device and is configured to adjust the projection of the interfering electromagnetic waves toward the human face according to the acquired eyeball sight direction, wherein the first projection device is configured to project rotatable and/or movable interfering electromagnetic waves toward the human face, and the control device is configured to adjust the projection direction of the interfering electromagnetic waves toward the human face according to the acquired eyeball sight direction so as to cause the interfering electromagnetic waves to rotate and/or move, so that a central axis of the electromagnetic waves is moved further away from eyeball areas, thereby reducing the amount of electromagnetic waves directly projected into the eyeballs. a first projection device which is configured to project interfering electromagnetic waves toward a human face, the interfering electromagnetic waves having an interference effect on the recognition of the human face; an eyeball-tracking device which is configured to detect an eyeball sight direction; and a control device which is communicatively connected to the eyeball-tracking device and is configured to acquire the eyeball sight direction from the eyeball-tracking device, wherein the control device is communicatively connected to the first projection device and is configured to adjust the projection of the interfering electromagnetic waves toward the human face according to the acquired eyeball sight direction, wherein the first projection device is configured to project rotatable and/or movable interfering electromagnetic waves toward the human face, and the control device is configured to adjust the projection direction of the interfering electromagnetic waves toward the human face according to the acquired eyeball sight direction so as to cause the interfering electromagnetic waves to rotate and/or move, so that a central axis of the electromagnetic waves is moved further away from eyeball areas, thereby reducing the amount of electromagnetic waves directly projected into the eyeballs.
Device for measuring the level of a liquid in a vehicle tank comprising at least one capacitive probe, said capacitive probe comprising a support structure carrying at least a plurality of capacitive elements (11,12; 21,22,23,24; 32,33) arranged with such a way as to form at least two rows (C1, C2, C3, C4, C5, C6) of capacitive elements extending along a longitudinal axis (X), said at least two rows of capacitive elements being spaced from each other along an axis which is transverse (Y) said longitudinal axis where the capacitive elements of said at least two rows capacitive elements are offset along the longitudinal axis relative to each other from one row to another, characterized in that the device further comprises a processing unit configured for: - obtain capacity values for each capacitive element by means of said plurality of capacitive elements; - convert the capacity values obtained from each capacitive element into a binary code based on at least one failover threshold previously associated with each capacitive element; and - generate information about the level of the liquid in the tank from said binary code. - obtain capacity values for each capacitive element by means of said plurality of capacitive elements; - convert the capacity values obtained from each capacitive element into a binary code based on at least one failover threshold previously associated with each capacitive element; and - generate information about the level of the liquid in the tank from said binary code.
A communication device (102; 702) comprising a housing (104; 704) which comprises a front and a surrounding electrically conductive frame (108; 710), the front comprising a dielectric cover , wherein the housing accommodates: a display covered by the cover ; an electrically conductive chassis (114; 712); at least one substrate comprising at least one feeding element ; along at least a part of the frame and between the display and the substrate the chassis and the frame are separated from one another by a dielectric-filled intermediate space ; along the part of the frame and between the cover and the dielectric-filled intermediate space the display is separated from the frame by a gap ; whereby the dielectric-filled intermediate space together with the frame and the chassis form at least one waveguide structure extending between the substrate and the gap . a display covered by the cover ; an electrically conductive chassis (114; 712); at least one substrate comprising at least one feeding element ; along at least a part of the frame and between the display and the substrate the chassis and the frame are separated from one another by a dielectric-filled intermediate space ; along the part of the frame and between the cover and the dielectric-filled intermediate space the display is separated from the frame by a gap ; whereby the dielectric-filled intermediate space together with the frame and the chassis form at least one waveguide structure extending between the substrate and the gap .
An apparatus for molding or casting an article of manufacture having a mold cavity and a feed system for filling the mold cavity with a fluid material, said feed system comprising: structural members that define a series of voids including a waste reservoir , a runner , a passage that connects the waste reservoir to the runner , allowing fluid communication between the waste reservoir and the runner , an injection point for introducing fluid into the waste reservoir , and a gate that provides fluid communication between the runner and the mold cavity , characterized in that said feed system further comprises an upper member , a lower member and a valve assembly , the waste reservoir is concentric with the runner and the gate and is found radially inside the runner and the gate and does not extend completely around the circular perimeter of the upper member , the injection point is capable of initially introducing fluid into the waste reservoir and subsequently through the passage into the runner , and fluid is capable of flowing through the runner and entering the mold cavity via the gate . structural members that define a series of voids including a waste reservoir , a runner , a passage that connects the waste reservoir to the runner , allowing fluid communication between the waste reservoir and the runner , an injection point for introducing fluid into the waste reservoir , and a gate that provides fluid communication between the runner and the mold cavity , characterized in that said feed system further comprises an upper member , a lower member and a valve assembly , the waste reservoir is concentric with the runner and the gate and is found radially inside the runner and the gate and does not extend completely around the circular perimeter of the upper member , the injection point is capable of initially introducing fluid into the waste reservoir and subsequently through the passage into the runner , and fluid is capable of flowing through the runner and entering the mold cavity via the gate .
A method of reconditioning a fluid container , wherein the fluid container is a wooden barrel, characterized by the method comprising: heating for at least one cycle the fluid container to a select temperature for a select time duration, the heating being made by supplying a working fluid including a heating fluid into an opening of the fluid container , and wherein the heating fluid includes steam ; sealing for at least one cycle the fluid container ; cooling for at least one cycle the fluid container to achieve a select vacuum having a maximum of 0.51 to 0.68 bar (15 to 20 inches mercury) in the interior of the sealed fluid container for a select time duration from the start of the cooling step; wherein the select time duration of the cooling step is in a range of one to 20 minutes and preferably in a range of 5 to 15 minutes; and wherein the select time duration of the cooling step are selected to draw substantially a fluid from at least one of a pore, a cell and a fiber of the fluid container to a surface of the fluid container . heating for at least one cycle the fluid container to a select temperature for a select time duration, the heating being made by supplying a working fluid including a heating fluid into an opening of the fluid container , and wherein the heating fluid includes steam ; sealing for at least one cycle the fluid container ; cooling for at least one cycle the fluid container to achieve a select vacuum having a maximum of 0.51 to 0.68 bar (15 to 20 inches mercury) in the interior of the sealed fluid container for a select time duration from the start of the cooling step; wherein the select time duration of the cooling step is in a range of one to 20 minutes and preferably in a range of 5 to 15 minutes; and wherein the select time duration of the cooling step are selected to draw substantially a fluid from at least one of a pore, a cell and a fiber of the fluid container to a surface of the fluid container .
A method of wireless communication, comprising: generating, based on a mapping rule, at least two reference signals; transmitting, by a wireless communication device, the at least two reference signals using different symbols in a transmit time interval, wherein the at least two reference signals include a first reference signal that is randomly selected, and wherein the mapping rule maps the first reference signal to a second reference signal of the at least two reference signals such that a content of the first reference signal is used to determine a time-frequency resource of the second reference signal and a content of the second reference signal is independent to the first reference signal. generating, based on a mapping rule, at least two reference signals; transmitting, by a wireless communication device, the at least two reference signals using different symbols in a transmit time interval, wherein the at least two reference signals include a first reference signal that is randomly selected, and wherein the mapping rule maps the first reference signal to a second reference signal of the at least two reference signals such that a content of the first reference signal is used to determine a time-frequency resource of the second reference signal and a content of the second reference signal is independent to the first reference signal.
A method comprising: a) storing electrical data representing electrical activity measured non-invasively at a plurality of surface measurement locations on a patient's body; b) storing geometry data representing the surface measurement locations and geometry of patient anatomy including an anatomic envelope within the patient's body; c) determining at least one boundary condition using supplemental information associated with at least one selected location associated with the anatomic envelope within the patient's body; and d) computing reconstructed electrical activity for a plurality of locations residing on the anatomic envelope within the patient's body based on the electrical data and the geometry data, the least one boundary condition being imposed to improve the computing; characterized in that e) the supplemental information includes information related to a location of a scar/lesion from at least one of an imaging modality, a direct vision, or a physical probe. a) storing electrical data representing electrical activity measured non-invasively at a plurality of surface measurement locations on a patient's body; b) storing geometry data representing the surface measurement locations and geometry of patient anatomy including an anatomic envelope within the patient's body; c) determining at least one boundary condition using supplemental information associated with at least one selected location associated with the anatomic envelope within the patient's body; and d) computing reconstructed electrical activity for a plurality of locations residing on the anatomic envelope within the patient's body based on the electrical data and the geometry data, the least one boundary condition being imposed to improve the computing; characterized in that e) the supplemental information includes information related to a location of a scar/lesion from at least one of an imaging modality, a direct vision, or a physical probe.
A composition comprising a probiotic for use in preventing and/or treating anxiety disorders and depression, in a mammal; wherein the probiotic is strain Lactococcus lactis SL131.
A valve train lever for actuating a valve of a reciprocating piston engine, in particular an internal combustion engine, comprising: a lever arm , which is pivotally movable about a pin ; a tapping element , which lies against or can be made to lie against a cam of a camshaft of the reciprocating piston engine, wherein the tapping element is arranged movably in a transverse direction, transversely in relation to the lever arm ; a coupling mechanism , by way of which the tapping element is coupled to the lever arm spring-elastically in a first state and rigidly in a second state, wherein the coupling mechanism comprises a pressure piston space and a pressure piston that is movable in the transverse direction and delimits the pressure piston space ; an actuating element , which is connected to the lever arm and lies against or can be made to lie against a valve tappet of the valve ; and a control unit for controlling the first state and the second state of the coupling mechanism , wherein the control unit , on the outlet side, is in fluid connection with the pressure piston space , wherein the control unit , on the inlet side, is in fluid connection with a control line , wherein the control unit is designed to, in the first state, connect the outlet-side fluid connection to the pressure piston space with a relief line , characterized in that , for realizing a pressure intensification, the control unit comprises a control piston with an inlet-side effective surface and an outlet-side effective surface , which is smaller than the inlet-side effective surface . a lever arm , which is pivotally movable about a pin ; a tapping element , which lies against or can be made to lie against a cam of a camshaft of the reciprocating piston engine, wherein the tapping element is arranged movably in a transverse direction, transversely in relation to the lever arm ; a coupling mechanism , by way of which the tapping element is coupled to the lever arm spring-elastically in a first state and rigidly in a second state, wherein the coupling mechanism comprises a pressure piston space and a pressure piston that is movable in the transverse direction and delimits the pressure piston space ; an actuating element , which is connected to the lever arm and lies against or can be made to lie against a valve tappet of the valve ; and a control unit for controlling the first state and the second state of the coupling mechanism , wherein the control unit , on the outlet side, is in fluid connection with the pressure piston space , wherein the control unit , on the inlet side, is in fluid connection with a control line , wherein the control unit is designed to, in the first state, connect the outlet-side fluid connection to the pressure piston space with a relief line , characterized in that , for realizing a pressure intensification, the control unit comprises a control piston with an inlet-side effective surface and an outlet-side effective surface , which is smaller than the inlet-side effective surface .
Milling blank for production of an indirect dental restoration composed of resin or of resin-based composite, characterized in that the colour changes continuously from one surface to the opposite surface, wherein the L* value and the a* value and the b* value in the L*a*b* colour space change continuously from one surface to the opposite surface and wherein the difference ΔL* = |L*2 - L*1| is greater than 2 and the difference Δa* = |a*1 - a*2| is greater than 0.5 and the difference Δb* = |b*1 - b*2| is greater than 1, wherein the L*a*b* values are measured on 2 mm-thick discs against a white background.
A method, executed by a core network , comprising: receiving in an uplink message a first list of closed subscriber groups located within one gateway domain to which mobility is possible for a user equipment, wherein the uplink message is received from a respective serving gateway or serving access node ; checking the first list received in the uplink message against a second list which is the user equipment's allowed closed subscriber group list; wherein checking comprises qualifying or disqualifying any of the first list of closed subscriber groups as handover target candidate for the user equipment based on the second list; creating a third list based on the result of the qualifying or disqualifying; and sending the third list downlink to at least one of the serving gateway of the user equipment or the serving access node of the user equipment. receiving in an uplink message a first list of closed subscriber groups located within one gateway domain to which mobility is possible for a user equipment, wherein the uplink message is received from a respective serving gateway or serving access node ; checking the first list received in the uplink message against a second list which is the user equipment's allowed closed subscriber group list; wherein checking comprises qualifying or disqualifying any of the first list of closed subscriber groups as handover target candidate for the user equipment based on the second list; creating a third list based on the result of the qualifying or disqualifying; and sending the third list downlink to at least one of the serving gateway of the user equipment or the serving access node of the user equipment.