mhurhangee/patent-ind-claim-en huggingface dataset:
A vibration level switch with a diaphragm that can be excited to vibrate via a drive unit , and a mechanical vibrator arranged at the diaphragm , wherein the mechanical vibrator comprises a shell with at least one closed interior space , wherein a filler is disposed in the interior space , characterized in that the filling is configured as a support structure with a plurality of hollow chambers and webs disposed between them.
A robot control method of controlling motion of a robot arm by using a servo motor, the method comprising adding d-axis electric current (Id1A) to a motor electric current command (Im) if a temperature (Tc) of a temperature sensor, located in an encoder of a robotic mechanism including the robot arm, is less than or equal to a first predetermined value (Tcth), characterized in that adding said d-axis electric current (Id1A) to the motor electric current command (Im) is performed if furthermore an absolute value (Ia2) of the motor electric current command (Im) is less than or equal to a second predetermined value (Iath2), and if a detected overload value (OLdet) of the motor command electric current (Im) is less than or equal to a third predetermined value (OLth2), said detected overload value (OLdet) resulting from an integral of absolute value (Ia) of motor command electric current (Im) over time.
A light emitting unit for a liquid crystal display (LCD) apparatus, the light emitting unit comprising: a light source unit which generates light; and a driving board which drives the light source unit, wherein the light source unit comprises: a light source which generates the light; and, characterized by: a container member which is made of an elastically deformable material, mounted on the driving board and which forms an opening therein and which contains the light source within the opening; and a fluorescent member comprising a fluorescent material consisting of a quantum dot mounted in the opening of the container member, wherein the light source and the fluorescent member are spaced apart by a distance which is at least 2mm and less than 5mm. a light source unit which generates light; and a driving board which drives the light source unit, wherein the light source unit comprises: a light source which generates the light; and, characterized by: a container member which is made of an elastically deformable material, mounted on the driving board and which forms an opening therein and which contains the light source within the opening; and a fluorescent member comprising a fluorescent material consisting of a quantum dot mounted in the opening of the container member, wherein the light source and the fluorescent member are spaced apart by a distance which is at least 2mm and less than 5mm. a light source which generates the light; and, characterized by: a container member which is made of an elastically deformable material, mounted on the driving board and which forms an opening therein and which contains the light source within the opening; and a fluorescent member comprising a fluorescent material consisting of a quantum dot mounted in the opening of the container member, wherein the light source and the fluorescent member are spaced apart by a distance which is at least 2mm and less than 5mm. a container member which is made of an elastically deformable material, mounted on the driving board and which forms an opening therein and which contains the light source within the opening; and a fluorescent member comprising a fluorescent material consisting of a quantum dot mounted in the opening of the container member, wherein the light source and the fluorescent member are spaced apart by a distance which is at least 2mm and less than 5mm.
An automotive lamp comprising: a light source ; a light emitting member that receives light from the light source and emits light; and a support member that supports the light emitting member , wherein the support member includes a translucent light emitting member accommodating unit , the light emitting member accommodating unit includes a recess in which the light emitting member is accommodated, and a light incidence surface and side surfaces of the light emitting member are in contact with the light emitting member accommodating unit in a state in which the light emitting member is accommodated in the recess , characterized in that on a surface of the light emitting member accommodating unit that is in contact with a side surface of the light emitting member a rough surface area is provided, said rough surface area having a surface roughness greater than that of a light incidence surface of the light emitting member accommodating unit . a light source ; a light emitting member that receives light from the light source and emits light; and a support member that supports the light emitting member , wherein the support member includes a translucent light emitting member accommodating unit , the light emitting member accommodating unit includes a recess in which the light emitting member is accommodated, and a light incidence surface and side surfaces of the light emitting member are in contact with the light emitting member accommodating unit in a state in which the light emitting member is accommodated in the recess , characterized in that on a surface of the light emitting member accommodating unit that is in contact with a side surface of the light emitting member a rough surface area is provided, said rough surface area having a surface roughness greater than that of a light incidence surface of the light emitting member accommodating unit .
An operation method of an electronic device, the method comprising: determining through an object sensor if an object is detected at a first terminal among a plurality of terminals of an ear jack based on sensing a first variation of a first impedance between a first side and a second side of the first terminal ; determining if an object is detected at a second terminal among a plurality of terminals of an ear jack based on sensing a second variation of a second impedance between a first side and a second side of the second terminal ; in response to determining that the object is detected at the first terminal and the second terminal, calculating through an impedance detector a third impedance of the second terminal; determining a type of the object according to the third impedance from among an earplug or moisture; wherein determining the type of the object comprises: if the third impedance is greater than or equal to a predetermined value, determining that moisture is in the ear jack ; or if the third impedance value is less than the predetermined value, determining that an earplug is in the ear jack ; and wherein the first terminal is a left terminal , and the second terminal is a ground terminal . determining through an object sensor if an object is detected at a first terminal among a plurality of terminals of an ear jack based on sensing a first variation of a first impedance between a first side and a second side of the first terminal ; determining if an object is detected at a second terminal among a plurality of terminals of an ear jack based on sensing a second variation of a second impedance between a first side and a second side of the second terminal ; in response to determining that the object is detected at the first terminal and the second terminal, calculating through an impedance detector a third impedance of the second terminal; determining a type of the object according to the third impedance from among an earplug or moisture; wherein determining the type of the object comprises: if the third impedance is greater than or equal to a predetermined value, determining that moisture is in the ear jack ; or if the third impedance value is less than the predetermined value, determining that an earplug is in the ear jack ; and if the third impedance is greater than or equal to a predetermined value, determining that moisture is in the ear jack ; or if the third impedance value is less than the predetermined value, determining that an earplug is in the ear jack ; and wherein the first terminal is a left terminal , and the second terminal is a ground terminal .
An electro-acoustic transducer comprising: a conductive substrate provided on one surface with cells and on the opposite surface with a plurality of spaced electrodes ; and a pad substrate provided on one surface with a plurality of spaced pads , wherein said one surface of said pad substrate faces the said opposite surface of the conductive substrate, and wherein each pad of the plurality of pads is bonded to a corresponding electrode provided on the conductive substrate; wherein each of the electrodes and each of the pads comprises a respective first electric pattern (221a, 261a; 622a, 662a; 722a, 762a; 822a, 862; 922, 962a) for electrical connection between the corresponding electrodes and pads; characterised in that each of the electrodes of the plurality of electrodes and/or each of the pads of the plurality of pads comprises a further pattern; wherein the further pattern is a dummy pattern provided around and separated from the respective first electric pattern of the respective electrode or pad, such that, for each electrode and/or pad, portions (221b, 261b; 622b, 662b; 722b, 762b; 822b, 862; 922, 962b) of the respective further pattern are positioned between the respective first electric pattern and each adjacent electrode and/or pad; and wherein each of the electrodes is bonded to its corresponding pad through their respective first and further patterns. a conductive substrate provided on one surface with cells and on the opposite surface with a plurality of spaced electrodes ; and a pad substrate provided on one surface with a plurality of spaced pads , wherein said one surface of said pad substrate faces the said opposite surface of the conductive substrate, and wherein each pad of the plurality of pads is bonded to a corresponding electrode provided on the conductive substrate; wherein each of the electrodes and each of the pads comprises a respective first electric pattern (221a, 261a; 622a, 662a; 722a, 762a; 822a, 862; 922, 962a) for electrical connection between the corresponding electrodes and pads; characterised in that each of the electrodes of the plurality of electrodes and/or each of the pads of the plurality of pads comprises a further pattern; wherein the further pattern is a dummy pattern provided around and separated from the respective first electric pattern of the respective electrode or pad, such that, for each electrode and/or pad, portions (221b, 261b; 622b, 662b; 722b, 762b; 822b, 862; 922, 962b) of the respective further pattern are positioned between the respective first electric pattern and each adjacent electrode and/or pad; and wherein each of the electrodes is bonded to its corresponding pad through their respective first and further patterns.
Tire having a radial carcass reinforcement , consisting of at least one layer of metal reinforcing elements, said tire comprising a crown reinforcement , itself capped radially with a tread , said tread being joined to two beads via two sidewalls, the metal reinforcing elements of at least one layer of the carcass reinforcement being cords consisting of several steel threads having a weight content of carbon C such that 0.01% ≤ C < 0.4%, the thickness (E) of the rubber compound between the inner surface of the tire cavity and the point of a metal reinforcing element of the carcass reinforcement that is closest to said inner surface of the cavity being less than or equal to 3.2 mm, characterized in that said cords of at least one layer of the carcass reinforcement exhibit, in the "permeability" test, described in standard ASTM D2692-98, a flow rate strictly greater than 20 cm 3 /min
A rotorcraft , comprising: a body , including a front portion and a tail portion having a shroud including a primary duct and a secondary duct disposed adjacent to the primary duct , each of the primary duct and the secondary duct extend transversely through the shroud ; a main rotor system coupled to the front portion of the body , the main rotor system operable to provide a lifting force on the body ; an anti-torque system coupled to the tail portion of the body , the anti-torque system comprising a primary tail rotor system disposed in the primary duct and a secondary tail rotor system disposed in the secondary duct ; and an electrical power supply coupled to the body , the electrical power supply being conductively connected to the secondary tail rotor system to provide electrical power thereto; wherein the primary tail rotor system and the secondary tail rotor system are operable to provide a first anti-torque force and a second anti-torque force; the rotorcraft further comprising a powertrain coupled to the body and an engine for supplying torque to the main rotor system ; characterized in that the rotorcraft further comprises a tail rotor drive shaft coupled to the engine , the tail rotor drive shaft being connected to provide mechanical power to the primary tail rotor system . a body , including a front portion and a tail portion having a shroud including a primary duct and a secondary duct disposed adjacent to the primary duct , each of the primary duct and the secondary duct extend transversely through the shroud ; a main rotor system coupled to the front portion of the body , the main rotor system operable to provide a lifting force on the body ; an anti-torque system coupled to the tail portion of the body , the anti-torque system comprising a primary tail rotor system disposed in the primary duct and a secondary tail rotor system disposed in the secondary duct ; and an electrical power supply coupled to the body , the electrical power supply being conductively connected to the secondary tail rotor system to provide electrical power thereto; wherein the primary tail rotor system and the secondary tail rotor system are operable to provide a first anti-torque force and a second anti-torque force; the rotorcraft further comprising a powertrain coupled to the body and an engine for supplying torque to the main rotor system ; characterized in that the rotorcraft further comprises a tail rotor drive shaft coupled to the engine , the tail rotor drive shaft being connected to provide mechanical power to the primary tail rotor system .
Use of a connecting element that is suitable for connecting two hollow bodies through which a fluid can flow and comprises a first connecting part that can be brought into a fluid-tight flow connection with a first hollow body through which a fluid can flow, for receiving a female Luer Lock connector as a second connecting part in an inner region of the first connecting part , wherein the connecting element furthermore comprises: a sealing element that is at least partly arranged in the inner region of the first connecting part , and a securing element that is arranged on an outer side of the first connecting part, wherein the securing element can be transferred from a non-secured position into a secured position, wherein in the secured position the securing element acts on the sealing element in such a way that an inner diameter (d) of the sealing element is smaller than a first diameter (D) of the sealing element when the securing element is in the non-secured position, which results in a fluid-tight connection between the inner region of the first connecting part and an inner region of a second connecting part when the second connecting part is received in the inner region of the first connecting part , wherein in the secured position a seal is realized via the outer side of the female Luer Lock connector, when the female Luer Lock connector is received in the inner region of the first connecting part . wherein the connecting element furthermore comprises: a sealing element that is at least partly arranged in the inner region of the first connecting part , and a securing element that is arranged on an outer side of the first connecting part, a sealing element that is at least partly arranged in the inner region of the first connecting part , and a securing element that is arranged on an outer side of the first connecting part, wherein the securing element can be transferred from a non-secured position into a secured position, wherein in the secured position the securing element acts on the sealing element in such a way that an inner diameter (d) of the sealing element is smaller than a first diameter (D) of the sealing element when the securing element is in the non-secured position, which results in a fluid-tight connection between the inner region of the first connecting part and an inner region of a second connecting part when the second connecting part is received in the inner region of the first connecting part , wherein in the secured position a seal is realized via the outer side of the female Luer Lock connector, when the female Luer Lock connector is received in the inner region of the first connecting part .
A method of using a photonic link , the method comprising: transmitting light using an optical emitter ; splitting, using an input coupler , the light into a first path and a second path, the first path being provided to a modulator that modulates the light transmitted along the first path based on a radio frequency signal, and the second path being provided to a phase shifter ; combining, using an output coupler , an output of the modulator and an output of the phase shifter ; monitoring, using a controller , an output of a photodetector coupled to an output of the output coupler ; identifying, using the controller , based on the output of the photodetector , a modulator phase angle that reduces a third order distortion at an output of the output coupler ; applying, using the controller , a first bias voltage to the modulator to maintain the identified modulator phase angle; applying, using the controller , based on the output of the photodetector , a control signal to the phase shifter to maintain a phase difference between the output of the modulator and the output of the phase shifter ; and generating, using the controller , a radio frequency output of the photonic link. transmitting light using an optical emitter ; splitting, using an input coupler , the light into a first path and a second path, the first path being provided to a modulator that modulates the light transmitted along the first path based on a radio frequency signal, and the second path being provided to a phase shifter ; combining, using an output coupler , an output of the modulator and an output of the phase shifter ; monitoring, using a controller , an output of a photodetector coupled to an output of the output coupler ; identifying, using the controller , based on the output of the photodetector , a modulator phase angle that reduces a third order distortion at an output of the output coupler ; applying, using the controller , a first bias voltage to the modulator to maintain the identified modulator phase angle; applying, using the controller , based on the output of the photodetector , a control signal to the phase shifter to maintain a phase difference between the output of the modulator and the output of the phase shifter ; and generating, using the controller , a radio frequency output of the photonic link.
An electronic device comprising: a first housing ; a second housing ; a hinge structure connected to the first housing and the second housing; a foldable display ; a transparent cover configured to cover the foldable display; a support member configured to support the foldable display, the support member including a conductive side wall portion and a conductive support portion ; a protection member made of a insulative material to surround an edge of the transparent cover in a spaced apart manner, the protection member being attached to the support member; a conductive member disposed on a portion of an inner surface of the protection member, the conductive member being configured to provide an electrical path that is configured to allow a static electrical charge being applied from outside into the foldable display to be transmitted to the conductive support portion; and an insulative member disposed on a portion of an inner surface of the conductive member, the insulative member configured to block a portion of a space (g2) between the transparent cover and the protection member. a first housing ; a second housing ; a hinge structure connected to the first housing and the second housing; a foldable display ; a transparent cover configured to cover the foldable display; a support member configured to support the foldable display, the support member including a conductive side wall portion and a conductive support portion ; a protection member made of a insulative material to surround an edge of the transparent cover in a spaced apart manner, the protection member being attached to the support member; a conductive member disposed on a portion of an inner surface of the protection member, the conductive member being configured to provide an electrical path that is configured to allow a static electrical charge being applied from outside into the foldable display to be transmitted to the conductive support portion; and an insulative member disposed on a portion of an inner surface of the conductive member, the insulative member configured to block a portion of a space (g2) between the transparent cover and the protection member.
A milking robot for fully automatic milking of milking animals, comprising at least one movable component (2; 9) and a cylinder configured to support a movement of the component, which cylinder has a cylinder wall with a ventilation opening and a cylinder rod which can move in and out of the cylinder, wherein the cylinder wall surrounds at least one variable volume part , which volume part is free from pressurized fluid connections for movement of the cylinder rod and is also configured, via said opening, to remain in virtual pressure equilibrium with the environment of the cylinder, wherein on the cylinder wall around said ventilation opening, a gas capture device is connected which has a variable volume and which together with the variable volume part, forms an air-tight gas volume, wherein the gas capture device comprises a movable gas capture pouch , wherein the gas capture pouch is arranged in a form-stable outer housing, in particular a pipe of the milking robot.