mhurhangee/patent-ind-claim-en huggingface dataset:
A brake control system that is configured for use with an aircraft, comprising: a brake control unit comprising a processor; and a tangible, non-transitory memory configured to communicate with the processor, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the processor, cause the brake control unit to perform operations comprising: receiving an axle acceleration signal indicative of an axle acceleration from an accelerometer ; characterised by decreasing a braking command pressure in response to the axle acceleration being greater than a threshold acceleration value; and by determining whether an aircraft speed is less than a threshold speed value; and determining whether the axle acceleration is greater than the threshold acceleration value, in response to the aircraft speed being less than the threshold speed value. a brake control unit comprising a processor; and a tangible, non-transitory memory configured to communicate with the processor, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the processor, cause the brake control unit to perform operations comprising: receiving an axle acceleration signal indicative of an axle acceleration from an accelerometer ; characterised by decreasing a braking command pressure in response to the axle acceleration being greater than a threshold acceleration value; and by determining whether an aircraft speed is less than a threshold speed value; and determining whether the axle acceleration is greater than the threshold acceleration value, in response to the aircraft speed being less than the threshold speed value. receiving an axle acceleration signal indicative of an axle acceleration from an accelerometer ; characterised by decreasing a braking command pressure in response to the axle acceleration being greater than a threshold acceleration value; and by determining whether an aircraft speed is less than a threshold speed value; and determining whether the axle acceleration is greater than the threshold acceleration value, in response to the aircraft speed being less than the threshold speed value.
A mobile robot , comprising: an image obtaining unit configured to obtain an image; a sensor unit configured to obtain driving information including at least a driving direction and a driving distance of the mobile robot ; an image processing unit configured to process the image obtained by the image obtaining unit to extract a feature point and generate a descriptor for the feature point; and a main controller configured to generate a spatial map in a driving range based on the feature point and the driving information and control localization and navigation of the mobile robot , wherein when the localization and the navigation of the mobile robot are performed, the main controller is configured to selectively apply a first driving mode that simultaneously uses the image and sensing information or a second driving mode that uses only the image information characterized in that the feature point is a corner of the image and the image processing unit is configured to extract a feature point by comparing a response function value of said corner with a first reference value in the first driving mode and to extract a feature point by comparing the response function value of said corner with a second reference value in the second driving mode, wherein the second reference value is larger than the first reference value. an image obtaining unit configured to obtain an image; a sensor unit configured to obtain driving information including at least a driving direction and a driving distance of the mobile robot ; an image processing unit configured to process the image obtained by the image obtaining unit to extract a feature point and generate a descriptor for the feature point; and a main controller configured to generate a spatial map in a driving range based on the feature point and the driving information and control localization and navigation of the mobile robot , wherein when the localization and the navigation of the mobile robot are performed, the main controller is configured to selectively apply a first driving mode that simultaneously uses the image and sensing information or a second driving mode that uses only the image information characterized in that the feature point is a corner of the image and the image processing unit is configured to extract a feature point by comparing a response function value of said corner with a first reference value in the first driving mode and to extract a feature point by comparing the response function value of said corner with a second reference value in the second driving mode, wherein the second reference value is larger than the first reference value. characterized in that the feature point is a corner of the image and the image processing unit is configured to extract a feature point by comparing a response function value of said corner with a first reference value in the first driving mode and to extract a feature point by comparing the response function value of said corner with a second reference value in the second driving mode, wherein the second reference value is larger than the first reference value.
Medical apparatus, comprising: a probe having distal and proximal ends and comprising an electrode at the distal end, wherein the probe is configured to contact body tissue and is coupled by a first conductor and a second conductor to the proximal end; an energy source , which is configured to apply energy at a radiofrequency to the first conductor for application by the electrode to the body tissue, such that the second conductor has a leakage component at the radiofrequency; a mixer , which is coupled to receive an input signal from the second conductor and to mix the input signal with a local oscillation signal and generate an output signal having a signal component at the radiofrequency; an oscillator, which is configured to generate the local oscillation signal at the radiofrequency and with an amplitude and a phase, the amplitude as well as the phase being adjusted to be suitable to cancel the leakage component in the mixer; and processing circuitry, which is configured to process the signal component so as to extract a value of a low-frequency signal carried by the second conductor. a probe having distal and proximal ends and comprising an electrode at the distal end, wherein the probe is configured to contact body tissue and is coupled by a first conductor and a second conductor to the proximal end; an energy source , which is configured to apply energy at a radiofrequency to the first conductor for application by the electrode to the body tissue, such that the second conductor has a leakage component at the radiofrequency; a mixer , which is coupled to receive an input signal from the second conductor and to mix the input signal with a local oscillation signal and generate an output signal having a signal component at the radiofrequency; an oscillator, which is configured to generate the local oscillation signal at the radiofrequency and with an amplitude and a phase, the amplitude as well as the phase being adjusted to be suitable to cancel the leakage component in the mixer; and processing circuitry, which is configured to process the signal component so as to extract a value of a low-frequency signal carried by the second conductor.
A microparticle pharmaceutical preparation for use in a method of treating one or more oncologic, neurologic or autoimmune maladies in an animal subject (which may be a human animal subject), comprising: i. a solid excipient matrix comprising a polymer composition that remains intact when exposed to acidic conditions of the alimentary canal of an animal of the type of said subject animal and that disintegrates when exposed to basic conditions of targeted intestinal portions of said alimentary canal; and ii. rapamycin nanoparticles dispersed within said solid excipient matrix, said rapamycin nanoparticles comprising a micelle-inducing compound, such as sodium cholate, and a pharmaceutically active core; iii. said pharmaceutically active core comprising rapamycin; iv. said micelle-inducing compound naturally inducing formation of micelles within a solution of said micelle-inducing compound, said micelles having properties that promote stability of said rapamycin when said rapamycin nanoparticles are dispersed within said matrix; and v. the method comprising orally administering said preparation to said animal subject multiple times per week over a multi-week duration, in efficacious amounts, wherein said animal subject is in need of prevention or treatment, or delayed progression, of one or more oncologic, neurologic or autoimmune maladies. i. a solid excipient matrix comprising a polymer composition that remains intact when exposed to acidic conditions of the alimentary canal of an animal of the type of said subject animal and that disintegrates when exposed to basic conditions of targeted intestinal portions of said alimentary canal; and ii. rapamycin nanoparticles dispersed within said solid excipient matrix, said rapamycin nanoparticles comprising a micelle-inducing compound, such as sodium cholate, and a pharmaceutically active core; iii. said pharmaceutically active core comprising rapamycin; iv. said micelle-inducing compound naturally inducing formation of micelles within a solution of said micelle-inducing compound, said micelles having properties that promote stability of said rapamycin when said rapamycin nanoparticles are dispersed within said matrix; and v. the method comprising orally administering said preparation to said animal subject multiple times per week over a multi-week duration, in efficacious amounts, wherein said animal subject is in need of prevention or treatment, or delayed progression, of one or more oncologic, neurologic or autoimmune maladies.
A gastro-resistant pharmaceutical/nutraceutical composition comprising a grape pomace extract, rich in polyphenols, microencapsulated in maltodextrin (Maltodextrinated Grape Pomace Extract: MaGPE), vitamin A, vitamin B2 and zinc.
An ear-wearable device comprising: a photoplethysmography (PPG) sensor ; and one or more processors configured to determine, based on one or more sample values of a PPG signal generated by the PPG sensor, a DC component of the PPG signal; wherein the one or more processors are configured to: determine whether the DC component of the PPG signal has changed, and wherein the processor is further configured to determine whether a user of the ear-wearable device has fallen based on determining whether the DC component of the PPG signal has changed. a photoplethysmography (PPG) sensor ; and one or more processors configured to determine, based on one or more sample values of a PPG signal generated by the PPG sensor, a DC component of the PPG signal; wherein the one or more processors are configured to: determine whether the DC component of the PPG signal has changed, and wherein the processor is further configured to determine whether a user of the ear-wearable device has fallen based on determining whether the DC component of the PPG signal has changed.
A method for starting a music application, comprising: when a non-music application is started, performing a search in an audio association information list according to identifier information of the started non-music application, the audio association information list refers to a list of a correspondence between an application and an audio file; characterized in that when the audio association information list comprises an audio file corresponding to the started non-music application, starting a music application in the background to play the audio file corresponding to the started non-music application; when the music application is started in the background, execution of the non-music application being started is displayed in the foreground; receiving an audio association editing request sent by a user using a preset key; displaying the audio association information list; receiving edited audio association information entered by the user and replacing the audio association information with the edited audio association information. when a non-music application is started, performing a search in an audio association information list according to identifier information of the started non-music application, the audio association information list refers to a list of a correspondence between an application and an audio file; characterized in that when the audio association information list comprises an audio file corresponding to the started non-music application, starting a music application in the background to play the audio file corresponding to the started non-music application; when the music application is started in the background, execution of the non-music application being started is displayed in the foreground; receiving an audio association editing request sent by a user using a preset key; displaying the audio association information list; receiving edited audio association information entered by the user and replacing the audio association information with the edited audio association information.
A DNA targeting system that binds to a dystrophin gene, the DNA targeting system comprising Cas9 and at least one guide RNA (gRNA), wherein: the at least one gRNA targets a polynucleotide sequence selected from: SEQ ID NO: 70 (ggggctccaccctcacgagt), SEQ ID NO: 707 (gcacaaaagtcaaatcggaa), SEQ ID NO: 708 (gatttcaatataagattcgg), SEQ ID NO: 743 (gtgagggctccaccctcacga), SEQ ID NO: 744 (gaaggattgagggctccaccc), SEQ ID NO: 745 (ggctccaccctcacgagtggg), SEQ ID NO: 749 (gtgagggctccaccctcacga); SEQ ID NO: 704 (gtacacttttcaaaatgctt); SEQ ID NO: 702 (gtcgctcactcaccctgcaa); or SEQ ID NO: 683 (ggatctgtcaaatcgcctgc).
A method performed by a network node of a wireless communication network , for communicating at an unlicensed frequency spectrum with a wireless device having a Cell Radio Network Temporary Identifier, C-RNTI, the method comprising: sending an access grant to the wireless device according to the C-RNTI, granting the wireless device access to a Physical Uplink Shared Channel, PUSCH, of the unlicensed frequency spectrum; storing the C-RNTI associated with the access grant; receiving data, from the wireless device , on the granted PUSCH, the data comprising information on the C-RNTI of the wireless device , thus enabling the network node to detect whether the wireless device that was granted access on the PUSCH is the same wireless device as the wireless device from which the data comprising the information on the granted PUSCH was subsequently received, wherein the data further comprises Uplink Control Information, UCI, and wherein the information on the C-RNTI of the wireless device and the UCI are encoded and wherein the information on the C-RNTI of the wireless device and the UCI are received concatenated together on the granted PUSCH; and determining , in response to the reception of the data comprising the C-RNTI information, that the C-RNTI information corresponds to the wireless device to which the access grant was sent, wherein the determining comprises comparing the received C-RNTI information with the stored C-RNTI. sending an access grant to the wireless device according to the C-RNTI, granting the wireless device access to a Physical Uplink Shared Channel, PUSCH, of the unlicensed frequency spectrum; storing the C-RNTI associated with the access grant; receiving data, from the wireless device , on the granted PUSCH, the data comprising information on the C-RNTI of the wireless device , thus enabling the network node to detect whether the wireless device that was granted access on the PUSCH is the same wireless device as the wireless device from which the data comprising the information on the granted PUSCH was subsequently received, wherein the data further comprises Uplink Control Information, UCI, and wherein the information on the C-RNTI of the wireless device and the UCI are encoded and wherein the information on the C-RNTI of the wireless device and the UCI are received concatenated together on the granted PUSCH; and determining , in response to the reception of the data comprising the C-RNTI information, that the C-RNTI information corresponds to the wireless device to which the access grant was sent, wherein the determining comprises comparing the received C-RNTI information with the stored C-RNTI.
Support circuitry for a power transistor (Q1), the power transistor (Q1) comprising a control node (C), a Kelvin connection node (K), a first power switching node (PS1), a second power switching node (PS2), and a semiconductor structure between the control node (C), the Kelvin connection node (K), the first power switching node (PS1), and the second power switching node (PS2) such that a resistance between the first power switching node (PS1) and the second power switching node (PS2) is based on a control signal provided between the control node (C) and the Kelvin connection node (K), the support circuitry comprising: a feedback switching element (SWfb) coupled between the Kelvin connection node (K) and the second power switching node (PS2); and switching control circuitry coupled to the feedback switching element (SWfb), the switching control circuitry configured to: cause the feedback switching element (SWfb) to couple the Kelvin connection node (K) to the second power switching node (PS2) after the power transistor (Q1) is switched from a blocking mode of operation to a conduction mode of operation; and cause the feedback switching element (SWfb) to isolate the Kelvin connection node (K) from the second power switching node (PS2) before the power transistor (Q1) is switched from the conduction mode of operation to the blocking mode of operation. a feedback switching element (SWfb) coupled between the Kelvin connection node (K) and the second power switching node (PS2); and switching control circuitry coupled to the feedback switching element (SWfb), the switching control circuitry configured to: cause the feedback switching element (SWfb) to couple the Kelvin connection node (K) to the second power switching node (PS2) after the power transistor (Q1) is switched from a blocking mode of operation to a conduction mode of operation; and cause the feedback switching element (SWfb) to isolate the Kelvin connection node (K) from the second power switching node (PS2) before the power transistor (Q1) is switched from the conduction mode of operation to the blocking mode of operation. cause the feedback switching element (SWfb) to couple the Kelvin connection node (K) to the second power switching node (PS2) after the power transistor (Q1) is switched from a blocking mode of operation to a conduction mode of operation; and cause the feedback switching element (SWfb) to isolate the Kelvin connection node (K) from the second power switching node (PS2) before the power transistor (Q1) is switched from the conduction mode of operation to the blocking mode of operation.
An automatic water supply device, wherein the device comprises a water vessel , a bracket for placing the water vessel , detection means , and a water supply mechanism for supplying water to the water vessel , the water vessel comprising a water filling port ; the detection means comprises a switch movably connected to the bracket and a sensing unit fitted with the switch; the water supply mechanism comprises a water supply pipe and a water valve provided on the water supply pipe , and an outlet of the water supply pipe corresponds to the water filling port of the water vessel ; the automatic water supply device further comprises a controller, the sensing unit switches between an ON state and an OFF state based on the movement of the switch, and the water vessel being placed on the bracket to touch the switch, thereby driving the sensing unit to be in the ON state; the sensing unit outputs a detection signal characterizing the liquid level in the water vessel in the ON state, the controller controlling the water valve to open or close according to the detection signal; characterized in that , the switch comprises a rotating member rotatably connected to the bracket , an electrical connection member is provided on the bracket , and the sensing unit is provided in the rotating member ; when the rotating member is pressed, the sensing unit contacts the electrical connection member ; wherein the sensing unit comprises at least three contacts; when the rotating member is pressed, all of the at least three contacts are in contact with the electrical connection member ; the at least three contacts comprise at least two electrical connection contacts and at least one signal connection contact. the switch comprises a rotating member rotatably connected to the bracket , an electrical connection member is provided on the bracket , and the sensing unit is provided in the rotating member ; when the rotating member is pressed, the sensing unit contacts the electrical connection member ; wherein the sensing unit comprises at least three contacts; when the rotating member is pressed, all of the at least three contacts are in contact with the electrical connection member ; the at least three contacts comprise at least two electrical connection contacts and at least one signal connection contact.
An information processing apparatus comprising circuitry configured to: acquire (S103; S106), from an input unit , a flick gesture operation performed by a user on a virtual object (26; 30; 32; 34; 35; 37; 38; 39; 40; 42) displayed on a display surface ; control (S109; S112) an output unit to display of the virtual object based on the flick gesture operation on the virtual object, by starting said movement from a start point (S) on the display surface at which the flick gesture operation was performed and moving the virtual object in display motion towards a termination point (T) on the display surface at a predetermined distance (D) from the start point (S) on a straight line in a moving direction of the flick gesture operation, the predetermined distance depending on the moving speed of the flick gesture operation; and recognize, and determine a location of, another object that is a real object placed on the display surface; characterised in that the circuitry is further configured to determine a path of travel of the virtual object from the start point (S) to the termination point (T) based on a positional relationship between the virtual object and the real object, wherein the determined path of travel is a path of travel that circumvents the real object when the real object is located on the direct path of travel in a straight line from the start point to the termination point. acquire (S103; S106), from an input unit , a flick gesture operation performed by a user on a virtual object (26; 30; 32; 34; 35; 37; 38; 39; 40; 42) displayed on a display surface ; control (S109; S112) an output unit to display of the virtual object based on the flick gesture operation on the virtual object, by starting said movement from a start point (S) on the display surface at which the flick gesture operation was performed and moving the virtual object in display motion towards a termination point (T) on the display surface at a predetermined distance (D) from the start point (S) on a straight line in a moving direction of the flick gesture operation, the predetermined distance depending on the moving speed of the flick gesture operation; and recognize, and determine a location of, another object that is a real object placed on the display surface; characterised in that the circuitry is further configured to determine a path of travel of the virtual object from the start point (S) to the termination point (T) based on a positional relationship between the virtual object and the real object, wherein the determined path of travel is a path of travel that circumvents the real object when the real object is located on the direct path of travel in a straight line from the start point to the termination point.