mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sending uplink control information, comprising: determining , by a terminal, a first time resource, which is configured to transmit uplink control information, on a target carrier according to first indication information sent by a base station; determining , by the terminal, a second time resource, which is configured to transmit downlink data, on the target carrier according to second indication information sent by the base station, wherein the first time resource and the second time resource are at least partially overlapped; characterized in that : determining , by the terminal, a third time resource configured to transmit the uplink control information, the third time resource being located after the second time resource and having a preset time interval with the second time resource; and sending, by the terminal, the uplink control information via the third time resource. determining , by a terminal, a first time resource, which is configured to transmit uplink control information, on a target carrier according to first indication information sent by a base station; determining , by the terminal, a second time resource, which is configured to transmit downlink data, on the target carrier according to second indication information sent by the base station, wherein the first time resource and the second time resource are at least partially overlapped; characterized in that : determining , by the terminal, a third time resource configured to transmit the uplink control information, the third time resource being located after the second time resource and having a preset time interval with the second time resource; and sending, by the terminal, the uplink control information via the third time resource. determining , by the terminal, a third time resource configured to transmit the uplink control information, the third time resource being located after the second time resource and having a preset time interval with the second time resource; and sending, by the terminal, the uplink control information via the third time resource.
An elevator car , comprising: a body ; and characterized by an acoustic response device ; and a local or remote system configured to control an operation of the acoustic response device whereby an acoustic integrity check to determine a condition of the body is executable by the local or remote system ; and wherein the acoustic response device comprises: a speaker to output an acoustic signal into an interior of the body ; and a microphone to receive and record the echo from the interior. a body ; and characterized by an acoustic response device ; and a local or remote system configured to control an operation of the acoustic response device whereby an acoustic integrity check to determine a condition of the body is executable by the local or remote system ; and wherein the acoustic response device comprises: a speaker to output an acoustic signal into an interior of the body ; and a microphone to receive and record the echo from the interior. a speaker to output an acoustic signal into an interior of the body ; and a microphone to receive and record the echo from the interior.
A method for forming an enclosure for a portable electronic device, the enclosure including a metal substrate comprising titanium, the metal substrate having a first b* value, the method characterized in that it comprises: removing at least a portion of a native oxide layer from the metal substrate; forming an anodized layer that overlays and is formed from the metal substrate immediately after removing the native oxide layer, wherein the anodized layer has a second b* value that is no greater than 0.3 more than the first b* value and no less than 0.3 less than the first b* value wherein the anodized layer having the second b* value has a thickness between about 3 nm to about 9 nm. removing at least a portion of a native oxide layer from the metal substrate; forming an anodized layer that overlays and is formed from the metal substrate immediately after removing the native oxide layer, wherein the anodized layer has a second b* value that is no greater than 0.3 more than the first b* value and no less than 0.3 less than the first b* value wherein the anodized layer having the second b* value has a thickness between about 3 nm to about 9 nm.
A humidification system for aircrafts comprising: - a first duct configured to guide a first air stream; - a second duct configured to guide a second air stream, said second duct comprising a humidifier for humidifying the air in the second duct , the humidification system further comprising: - a first conduit for directing a part of the second air stream to the first duct , said first conduit comprising a first conduit inlet leading into the first duct and a first conduit outlet from the second duct ; - a second conduit for directing a part of the first air stream to the second duct , said second conduit comprising a second conduit inlet leading into the second duct and a second conduit outlet from the first duct , wherein the first conduit outlet is arranged downstream of the humidifier , characterized in that the second conduit inlet is arranged downstream of the first conduit outlet and wherein the first conduit inlet is arranged downstream the second conduit outlet . - a first duct configured to guide a first air stream; - a second duct configured to guide a second air stream, said second duct comprising a humidifier for humidifying the air in the second duct , - a first conduit for directing a part of the second air stream to the first duct , said first conduit comprising a first conduit inlet leading into the first duct and a first conduit outlet from the second duct ; - a second conduit for directing a part of the first air stream to the second duct , said second conduit comprising a second conduit inlet leading into the second duct and a second conduit outlet from the first duct , wherein the first conduit outlet is arranged downstream of the humidifier ,
A device for the hygienic filling, transport and storage of a cosmetic product , comprising: i. a removal spoon having a head region having a U-shaped edge and a recess for receiving the cosmetic product and a handle , ii. a hollow body having an outer wall , an inner wall and an opening through which the removal spoon can be inserted into the hollow body , iii. wherein the hollow body and the removal spoon can be detachably connected to each other, iv. wherein the inner wall of the hollow body and the U-shaped edge of the head region of the removal spoon are designed in such a way that, when the hollow body and the removal spoon are in the connected state, the U-shaped edge of the removal spoon rests along the inner wall of the hollow body , characterized in that v. the design of the U-shaped edge and the inner wall prevent the filled cosmetic product from reaching the outside or the lower region of the inner wall from the recess of the removal spoon during transport and storage after filling. i. a removal spoon having a head region having a U-shaped edge and a recess for receiving the cosmetic product and a handle , ii. a hollow body having an outer wall , an inner wall and an opening through which the removal spoon can be inserted into the hollow body , iii. wherein the hollow body and the removal spoon can be detachably connected to each other, iv. wherein the inner wall of the hollow body and the U-shaped edge of the head region of the removal spoon are designed in such a way that, when the hollow body and the removal spoon are in the connected state, the U-shaped edge of the removal spoon rests along the inner wall of the hollow body , characterized in that v. the design of the U-shaped edge and the inner wall prevent the filled cosmetic product from reaching the outside or the lower region of the inner wall from the recess of the removal spoon during transport and storage after filling.
A pressure limiting unit for a pressure booster for driving hydraulic tools, comprising a pressure limiting valve for setting the hydraulic pressure, having - a closing element that is pushed against a valve seat by a spring element, and - a displaceable adjusting element for setting the spring force of the spring element, wherein - a position detection unit that is directly connected to the adjusting element to detect the position, in particular the axial position of the adjusting element , - an evaluation unit for determining the set hydraulic pressure as a function of the position, in particular the axial position of the adjusting element , and - an output unit for displaying the set hydraulic pressure are provided and - the spring element is braced against the adjusting element, which is directly connected to the position detection unit and formed as a running sleeve and - the running sleeve is mounted by means of a rotary handle in an axially displaceable manner on a valve housing of the pressure limiting valve and the running sleeve rests against the rotary handle and the rotary handle is arranged on a threaded section of the pressure limiting valve . - a closing element that is pushed against a valve seat by a spring element, and - a displaceable adjusting element for setting the spring force of the spring element, wherein - a position detection unit that is directly connected to the adjusting element to detect the position, in particular the axial position of the adjusting element , - an evaluation unit for determining the set hydraulic pressure as a function of the position, in particular the axial position of the adjusting element , and - an output unit for displaying the set hydraulic pressure - the spring element is braced against the adjusting element, which is directly connected to the position detection unit and formed as a running sleeve and - the running sleeve is mounted by means of a rotary handle in an axially displaceable manner on a valve housing of the pressure limiting valve and the running sleeve rests against the rotary handle and the rotary handle is arranged on a threaded section of the pressure limiting valve .
An apparatus comprising: an optical fiber configured to transport an optical signal, the optical fiber comprising: a core configured to receive and amplify the optical signal; end features optically coupled to opposite ends of the core, wherein the core has a lower bend loss than the end features; and a cladding surrounding the core and the end features; wherein the optical fiber is configured to confine optical power of a fundamental mode in the core; wherein the optical fiber is also configured to allow optical power of one or more higher-order modes to leak from the core into the end features; and wherein the optical fiber is bent to allow the optical power in the end features to leak from the end features into the cladding, wherein a bend radius of the optical fiber is selected in order to strip the optical power from the end features into the cladding while allowing the optical fiber to guide the optical power of the fundamental mode in the core. an optical fiber configured to transport an optical signal, the optical fiber comprising: a core configured to receive and amplify the optical signal; end features optically coupled to opposite ends of the core, wherein the core has a lower bend loss than the end features; and a cladding surrounding the core and the end features; a core configured to receive and amplify the optical signal; end features optically coupled to opposite ends of the core, wherein the core has a lower bend loss than the end features; and a cladding surrounding the core and the end features; wherein the optical fiber is configured to confine optical power of a fundamental mode in the core; wherein the optical fiber is also configured to allow optical power of one or more higher-order modes to leak from the core into the end features; and wherein the optical fiber is bent to allow the optical power in the end features to leak from the end features into the cladding, wherein a bend radius of the optical fiber is selected in order to strip the optical power from the end features into the cladding while allowing the optical fiber to guide the optical power of the fundamental mode in the core.
The method of interaction with a virtual object comprising: - determining a control body adapted for interacting with the virtual object, - determining a characteristic graphic primitives of the virtual object based upon graphic markers of a real object, - determining a spatial position of the real object and the control body, - comparing the spatial position of the control body with graphic primitives of the virtual object, characterized in that the determining the spatial position of the control body comprising: - obtaining a spatial position information of the control body using images from a client device of a user, said client device comprising a video camera, means to measure distance to the control body and a display connected to a computing unit that processes data, - creating a library of images of the control body from the images obtained, taking into account different positions in space, distance, brightness, contrast, illumination of the images of the control body, - determining the graphic primitives of the control body from the library of images obtained, - determining the spatial position of the control body by calculating a spatial movement of the graphic primitives of the control body, wherein said calculating is done using a model of artificial neural networks, and using vibration compensation adjustment values for the client device of the user using a Kalman filter, said method further comprising: - generating a video stream comprising said virtual object and a hand of the user used as the control body, and - spatially manipulating the virtual object by linking gestures of said hand to actions of the virtual object. - determining a control body adapted for interacting with the virtual object, - determining a characteristic graphic primitives of the virtual object based upon graphic markers of a real object, - determining a spatial position of the real object and the control body, - comparing the spatial position of the control body with graphic primitives of the virtual object, - obtaining a spatial position information of the control body using images from a client device of a user, said client device comprising a video camera, means to measure distance to the control body and a display connected to a computing unit that processes data, - creating a library of images of the control body from the images obtained, taking into account different positions in space, distance, brightness, contrast, illumination of the images of the control body, - determining the graphic primitives of the control body from the library of images obtained, - determining the spatial position of the control body by calculating a spatial movement of the graphic primitives of the control body, wherein said calculating is done using a model of artificial neural networks, and using vibration compensation adjustment values for the client device of the user using a Kalman filter, - generating a video stream comprising said virtual object and a hand of the user used as the control body, and - spatially manipulating the virtual object by linking gestures of said hand to actions of the virtual object.
A system comprising: a current control module configured to generate a voltage request based on a d-axis current (Idr) demand in a qdr frame of reference, wherein the qdr frame of reference corresponds to a rotor and rotates in sync with the rotor; a switching control module configured to control a motor based on the voltage request and to generate an out-of-volts, OOV, signal based on a comparison of the voltage request and a value based on a measured voltage of a direct current, DC, bus; and an Idr injection module configured to: generate the Idr demand based on the measured voltage of the DC bus, a commanded speed, and a demanded torque; selectively apply a first adjustment to the Idr demand based on the OOV signal; identify whether an improvement resulted from the first adjustment, wherein the improvement is identified in response to at least one of (i) a decrease in a measured current of the motor and (ii) a decrease in the OOV signal; and based on whether the improvement is identified, selectively apply a second adjustment to the Idr demand. a current control module configured to generate a voltage request based on a d-axis current (Idr) demand in a qdr frame of reference, wherein the qdr frame of reference corresponds to a rotor and rotates in sync with the rotor; a switching control module configured to control a motor based on the voltage request and to generate an out-of-volts, OOV, signal based on a comparison of the voltage request and a value based on a measured voltage of a direct current, DC, bus; and an Idr injection module configured to: generate the Idr demand based on the measured voltage of the DC bus, a commanded speed, and a demanded torque; selectively apply a first adjustment to the Idr demand based on the OOV signal; identify whether an improvement resulted from the first adjustment, wherein the improvement is identified in response to at least one of (i) a decrease in a measured current of the motor and (ii) a decrease in the OOV signal; and based on whether the improvement is identified, selectively apply a second adjustment to the Idr demand. generate the Idr demand based on the measured voltage of the DC bus, a commanded speed, and a demanded torque; selectively apply a first adjustment to the Idr demand based on the OOV signal; identify whether an improvement resulted from the first adjustment, wherein the improvement is identified in response to at least one of (i) a decrease in a measured current of the motor and (ii) a decrease in the OOV signal; and based on whether the improvement is identified, selectively apply a second adjustment to the Idr demand.
A collar for non-human animals comprising a polymeric matrix and a lipid extract, wherein the lipid extract comprises sphingomyelins.
A system for relining an undersea pipeline , said pipeline having an inlet and outlet beneath sea level , comprising: a coiling drum positioned above sea level and having a length of liner reeled thereon, said coiling drum arranged to deliver said liner to the inlet; and an actuator engaged with a leading end of said liner and arranged to apply a tensile force to said liner so as to draw said liner through the pipeline; wherein the liner is of a composite construction having a fibre core and a layer of plastic material at least on the inner surface of the fibre core; wherein the liner is in a flattened orientation whilst reeled on the coiling drum; wherein said fibre core has a tensile strength in the axial direction which is greater than the tensile strength in the radial direction and is greater than the tensile strength of the layer of plastic; and wherein the fibre core has greater elasticity in the radial direction than in the axial direction. a coiling drum positioned above sea level and having a length of liner reeled thereon, said coiling drum arranged to deliver said liner to the inlet; and an actuator engaged with a leading end of said liner and arranged to apply a tensile force to said liner so as to draw said liner through the pipeline; wherein the liner is of a composite construction having a fibre core and a layer of plastic material at least on the inner surface of the fibre core; wherein the liner is in a flattened orientation whilst reeled on the coiling drum; wherein said fibre core has a tensile strength in the axial direction which is greater than the tensile strength in the radial direction and is greater than the tensile strength of the layer of plastic; and wherein the fibre core has greater elasticity in the radial direction than in the axial direction.
A rapid assay for use in the prediction of bleeding in a human subject, wherein said rapid assay determines in 60 minutes or less the level of human cellular fibronectin (c-Fn) in a sample of said human subject, and wherein said sample of said subject is selected from a group consisting of whole blood, serum, or plasma, and wherein the following competitive rapid assay format is employed: antigen (c-Fn) in said sample competes with reference antigen bound to magnetic particles for binding sites on labeled antibodies to cellular fibronectin, wherein the assay response is inversely related to the amount of antigen in the said sample, wherein said rapid assay is a fluidic rapid immunoassay system, and wherein said antibodies are unlabeled P4F6 antibodies with Goat Anti-Mouse IgG ALP as detection enzyme, and wherein said antibodies binds to the EDA region of the c-Fn molecule, amino acid sequence 1631-1721, and wherein the reference antigen is consisting of a synthetic polypeptide having a sequence selected from a group consisting of: i. DGEEDTAELQGLRPGSEC, ii. ESPQGQVSRYRVTYSSPEDC, and iii. HDDMESQPLIGTQSC, and wherein the antibodies immunoreact with said synthetic polypeptide and denatured human cellular fibronectin, but do not substantially immunoreact with human plasma fibronectin in either the denatured or native states, and bind to their respective target with an affinity at least 100fold greater than they do to plasma fibronectin. antigen (c-Fn) in said sample competes with reference antigen bound to magnetic particles for binding sites on labeled antibodies to cellular fibronectin, wherein the assay response is inversely related to the amount of antigen in the said sample, i. DGEEDTAELQGLRPGSEC, ii. ESPQGQVSRYRVTYSSPEDC, and iii. HDDMESQPLIGTQSC, and
A rotor assembly for a motor for a compressor comprising an oil sump, the rotor assembly comprising: a crankshaft ; a rotor core provided with a vent hole , wherein the vent hole extends through the rotor core along an axial direction of the rotor core ; a balance weight arranged at a first end of the rotor core , the first end of the rotor core configured to be close to the oil sump of the compressor; and an oil baffle shield , wherein the oil baffle shield is configured to cover the balance weight and is provided with a central opening , wherein the crankshaft extends through the central opening , wherein an accommodating space is defined between the oil baffle shield and the rotor core , and the accommodating space is in fluid communication with the vent hole , wherein the oil baffle shield comprises an oil baffle portion and a mounting portion , the oil baffle portion is in an annular shape, the mounting portion is arranged at a first end of the oil baffle portion away from the rotor core, and the mounting portion is connected to the balance weight , wherein the central opening 303 is defined by the mounting portion 305, characterized in that ; an inner edge of the vent hole has a rotation diameter of d, the central opening has a diameter of e, a part of the crankshaft corresponding to the mounting portion has a diameter of f, and e≥d, and e ≥ f + 4 mm. a crankshaft ; a rotor core provided with a vent hole , wherein the vent hole extends through the rotor core along an axial direction of the rotor core ; a balance weight arranged at a first end of the rotor core , the first end of the rotor core configured to be close to the oil sump of the compressor; and an oil baffle shield , wherein the oil baffle shield is configured to cover the balance weight and is provided with a central opening , wherein the crankshaft extends through the central opening , wherein an accommodating space is defined between the oil baffle shield and the rotor core , and the accommodating space is in fluid communication with the vent hole , wherein the oil baffle shield comprises an oil baffle portion and a mounting portion , the oil baffle portion is in an annular shape, the mounting portion is arranged at a first end of the oil baffle portion away from the rotor core, and the mounting portion is connected to the balance weight , wherein the central opening 303 is defined by the mounting portion 305, characterized in that ; an inner edge of the vent hole has a rotation diameter of d, the central opening has a diameter of e, a part of the crankshaft corresponding to the mounting portion has a diameter of f, and e≥d, and e ≥ f + 4 mm.