mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus of a user equipment, UE, comprising: a Radio Frequency, RF, interface, and processing circuitry coupled to the RF interface, the processing circuitry configured to: determine an overlap between a plurality of determined Physical Uplink Control Channel, PUCCH, resources to carry a respective plurality of Hybrid Automatic Repeat Request Acknowledgment, HARQ-ACK, feedbacks and another determined PUCCH resource to carry an Uplink Control Information, UCI; determine an updated PUCCH resource for carrying at least a first HARQ-ACK feedback of the plurality of HARQ-ACK feedbacks and the UCI, wherein the updated PUCCH resource does not overlap with a determined PUCCH resource to carry a second HARQ-ACK feedback of the plurality of HARQ-ACK feedbacks not included in the updated PUCCH resource; and encode the updated PUCCH resource and the determined PUCCH resource for transmission to a base station within one slot. a Radio Frequency, RF, interface, and processing circuitry coupled to the RF interface, the processing circuitry configured to: determine an overlap between a plurality of determined Physical Uplink Control Channel, PUCCH, resources to carry a respective plurality of Hybrid Automatic Repeat Request Acknowledgment, HARQ-ACK, feedbacks and another determined PUCCH resource to carry an Uplink Control Information, UCI; determine an updated PUCCH resource for carrying at least a first HARQ-ACK feedback of the plurality of HARQ-ACK feedbacks and the UCI, wherein the updated PUCCH resource does not overlap with a determined PUCCH resource to carry a second HARQ-ACK feedback of the plurality of HARQ-ACK feedbacks not included in the updated PUCCH resource; and encode the updated PUCCH resource and the determined PUCCH resource for transmission to a base station within one slot. determine an overlap between a plurality of determined Physical Uplink Control Channel, PUCCH, resources to carry a respective plurality of Hybrid Automatic Repeat Request Acknowledgment, HARQ-ACK, feedbacks and another determined PUCCH resource to carry an Uplink Control Information, UCI; determine an updated PUCCH resource for carrying at least a first HARQ-ACK feedback of the plurality of HARQ-ACK feedbacks and the UCI, wherein the updated PUCCH resource does not overlap with a determined PUCCH resource to carry a second HARQ-ACK feedback of the plurality of HARQ-ACK feedbacks not included in the updated PUCCH resource; and encode the updated PUCCH resource and the determined PUCCH resource for transmission to a base station within one slot.
Capsule having a preferably rotationally symmetrical capsule body with a side wall and with a base formed in one piece with the latter, and also having a cover , which covers the capsule body and is intended for forming at least one chamber , which contains a substance for the preparation of a liquid food, wherein the cover forms an entry side, and the base forms an exit side, for the passage of a liquid through the chamber , wherein a separate flow element , through which the liquid can flow, is retained in the capsule , above the base , wherein the base has a circular accommodating shoulder , on which the flow element is latched in in a positionally stable manner, wherein the base has a depression with a side wall, this to some extent forming the accommodating shoulder , characterized in that the depression is cylindrical.
A pack-carrier comprising an open attachment frame (2; 102; 202; 302) and at least one support (3a, 3b; 103a, 103b; 203a, 203b; 303), said support being arranged on the frame in such a manner as to be capable of extending outwards from the frame in a projecting position that, in service, enables a pack to rest on the support, being characterized in that the frame is shaped so that, in service, it extends at least in part around each of the user's sides so as to balance stresses between the user's back and both of the user's sides.
A method for exogenous inactivation of a virus comprising exogenously contacting an infectious virus containing a control nucleic acid sequence with an effective amount of citraconic anhydride, thereby inactivating the virus while preserving the integrity of the control nucleic acid sequence, wherein said effective amount of citraconic anhydride is at a concentration between about 5 mM and about 25 mM.
A network access control method performed by a network access control apparatus, comprising: configuring network access permission of a first application on a user interface, wherein the network access permission comprises allowing the first application to access a network resource by using a first type of network access point, and the first type of network access point comprises at least one first network access point; accessing a second network access point, wherein the second network access point belongs to the first type of network access point; when the first application is running, allowing the first application to access the network resource by using the second network access point; and when a third network access point is accessed, if the third network access point does not belong to the first type of network access point, prohibiting the first application from accessing the network resource by using the third network access point, while allowing a second application to access the network resource by using the third network access point; wherein after the third network access point is accessed, the method further comprises: keeping a connection to the second network access point; wherein after the keeping a connection to the second network access point, the method further comprises: keeping the first application accessing the network resource by using the second network access point. configuring network access permission of a first application on a user interface, wherein the network access permission comprises allowing the first application to access a network resource by using a first type of network access point, and the first type of network access point comprises at least one first network access point; accessing a second network access point, wherein the second network access point belongs to the first type of network access point; when the first application is running, allowing the first application to access the network resource by using the second network access point; and when a third network access point is accessed, if the third network access point does not belong to the first type of network access point, prohibiting the first application from accessing the network resource by using the third network access point, while allowing a second application to access the network resource by using the third network access point; wherein after the third network access point is accessed, the method further comprises: keeping a connection to the second network access point; wherein after the keeping a connection to the second network access point, the method further comprises: keeping the first application accessing the network resource by using the second network access point. keeping a connection to the second network access point; wherein after the keeping a connection to the second network access point, the method further comprises: keeping the first application accessing the network resource by using the second network access point.
A process for producing a formulation adapted for oral administration, wherein the pharmaceutical formulation comprises at least 1 000 IU of a Vitamin D, per dosage form, and wherein the pharmaceutical formulation comprises, or consists of, an aqueous dispersion of micelles encapsulating said Vitamin D, and wherein the micelles are formed of, and essentially consist of, a tocopherol polyalkylene glycol, said process comprising the steps of a. combining an amount of Vitamin D in a molten state with an amount of tocopherol polyalkylene glycol, such as D-α-tocopherol polyethylene glycol succinate, in a molten state to form a first melt mixture, wherein preferably the amount of Vitamin D constitutes of from 1 to 10 weight percent of the first mixture, based on the total amount of tocopherol polyalkylene glycol and Vitamin D, b. stirring and maintaining a temperature for the first melt mixture to remain in the molten state, c. combining, while stirring, the first melt mixture with an aqueous solution having an acidic pH, wherein the aqueous solution having an acidic pH has about the same temperature than the first mixture melt, to obtain a second mixture, d. stirring and heating the second mixture until an aqueous dispersion of micelles encapsulating the Vitamin D is formed. a. combining an amount of Vitamin D in a molten state with an amount of tocopherol polyalkylene glycol, such as D-α-tocopherol polyethylene glycol succinate, in a molten state to form a first melt mixture, wherein preferably the amount of Vitamin D constitutes of from 1 to 10 weight percent of the first mixture, based on the total amount of tocopherol polyalkylene glycol and Vitamin D, b. stirring and maintaining a temperature for the first melt mixture to remain in the molten state, c. combining, while stirring, the first melt mixture with an aqueous solution having an acidic pH, wherein the aqueous solution having an acidic pH has about the same temperature than the first mixture melt, to obtain a second mixture, d. stirring and heating the second mixture until an aqueous dispersion of micelles encapsulating the Vitamin D is formed.
A scan head comprising a camera and a control circuit of an aiming lamp, characterized in that : the control circuit of the aiming lamp comprises: a first pin connected with a scanning enable signal; a second pin connected with a field sync signal, wherein the field sync signal is connected with a first resistor (R1) and the first resistor (R1) is grounded; a third pin, wherein the third pin is grounded; a fourth pin connected with a grid electrode of a field effect transistor (Q1), wherein a drain electrode of the field effect transistor (Q1) is connected with a high level (Vcc), and wherein a source electrode of the field effect transistor (Q1) is connected with a second resistor (R2), le second resistor (R2) is connected with a light-emitting diode (D1), and the light-emitting diode (D1) is grounded; and a fifth pin coupled to the high level (Vcc), wherein the camera is configured to drive and output the field sync signal to the control circuit , wherein the control circuit is configured to separate a start point and an end point of a blanking time of the field sync signal, where the start point serves as a start signal of the aiming lamp, and the end point serves as a closing signal of the aiming lamp, and wherein the camera is configured to complete a decoding process within a time of an effective picture zone of the field sync signal such that the decoding time of the camera and the lightening time of the aiming lamp are completely separated to avoid local overexposure caused by an aiming beam of the aiming lamp. a first pin connected with a scanning enable signal; a second pin connected with a field sync signal, wherein the field sync signal is connected with a first resistor (R1) and the first resistor (R1) is grounded; a third pin, wherein the third pin is grounded; a fourth pin connected with a grid electrode of a field effect transistor (Q1), wherein a drain electrode of the field effect transistor (Q1) is connected with a high level (Vcc), and wherein a source electrode of the field effect transistor (Q1) is connected with a second resistor (R2), le second resistor (R2) is connected with a light-emitting diode (D1), and the light-emitting diode (D1) is grounded; and a fifth pin coupled to the high level (Vcc), wherein the camera is configured to drive and output the field sync signal to the control circuit , wherein the control circuit is configured to separate a start point and an end point of a blanking time of the field sync signal, where the start point serves as a start signal of the aiming lamp, and the end point serves as a closing signal of the aiming lamp, and wherein the camera is configured to complete a decoding process within a time of an effective picture zone of the field sync signal such that the decoding time of the camera and the lightening time of the aiming lamp are completely separated to avoid local overexposure caused by an aiming beam of the aiming lamp.
A bending method comprising: acquiring a reference value of an original position of a punch (P) with respect to a die (D) for each processed part before an operation of bending of a workpiece by a bending machine including the punch (P) and the die (D) is started; storing each of the acquired reference values in association with each of the processed parts; reading the reference value associated with the processed part to which the bending is to be executed; acquiring a measurement value of the original position after the operation of the bending of the workpiece is started; calculating, based on the acquired measurement value, a secular change amount from the reference value or a previous measurement value as a secular change correction value for a pushing amount of the punch (P) with respect to the die (D) or the original position of the punch (P); and resetting, for each predetermined trigger condition, the pushing amount or the original position by using the secular change correction value during an automatic operation of the bending of the workpiece. acquiring a reference value of an original position of a punch (P) with respect to a die (D) for each processed part before an operation of bending of a workpiece by a bending machine including the punch (P) and the die (D) is started; storing each of the acquired reference values in association with each of the processed parts; reading the reference value associated with the processed part to which the bending is to be executed; acquiring a measurement value of the original position after the operation of the bending of the workpiece is started; calculating, based on the acquired measurement value, a secular change amount from the reference value or a previous measurement value as a secular change correction value for a pushing amount of the punch (P) with respect to the die (D) or the original position of the punch (P); and resetting, for each predetermined trigger condition, the pushing amount or the original position by using the secular change correction value during an automatic operation of the bending of the workpiece.
A brake control device for a saddle riding vehicle comprising: a rear wheel brake operation element for operating a rear wheel brake ; a master cylinder for generating hydraulic pressure according to operation of the rear wheel brake operation element ; a first detection portion for detecting the hydraulic pressure generated according to the operation of the rear wheel brake operation element ; a front wheel brake ; a flow passage configured to connect the master cylinder and the front wheel brake to each other; and a control unit for controlling a difference in the hydraulic pressure to a target value, characterized in that the device further comprises a second detection portion for detecting the hydraulic pressure acting on the front wheel brake through the flow passage ; wherein the difference in the hydraulic pressure is detected by the first and second detection portions ; and the target value is set according to vehicle speed of the saddle riding vehicle. a rear wheel brake operation element for operating a rear wheel brake ; a master cylinder for generating hydraulic pressure according to operation of the rear wheel brake operation element ; a first detection portion for detecting the hydraulic pressure generated according to the operation of the rear wheel brake operation element ; a front wheel brake ; a flow passage configured to connect the master cylinder and the front wheel brake to each other; and a control unit for controlling a difference in the hydraulic pressure to a target value, a second detection portion for detecting the hydraulic pressure acting on the front wheel brake through the flow passage ; wherein the difference in the hydraulic pressure is detected by the first and second detection portions ; and the target value is set according to vehicle speed of the saddle riding vehicle.
Wide angle catoptric telescope comprising five successive mirrors out of axis noted respectively and in the order of succession, first mirror (M1), second mirror (M2), third mirror (M3), fourth mirror (M4) and fifth mirror (M5); in which: - the first mirror or entry mirror (M1) of said five mirrors is concave; the second mirror (M2) is convex, the third mirror (M3) is concave, the fourth mirror (M4) is convex, the fifth mirror (M5) is concave; - the image field is substantially plane; characterized in that : - the angular object field of the telescope is rectangular, the width of the rectangle being of the order of 1 degree and its length at least 100 degrees; - the entrance pupil (P) of the telescope is real and situated in front of said first mirror (M1), the distance separating the entrance pupil from the first mirror is substantially equal to the radius of curvature of said first mirror and the distance separating the second mirror from the first mirror is substantially equal to this radius of curvature of the first mirror; - if R1 is the radius of curvature at the top of the first mirror (M1), the radius of curvature R2 at the top of the second mirror (M2) is substantially 0.5.R1, the radius of curvature at the apex of the third mirror (M3) is substantially 1.2.R1, the radius of curvature R4 at the apex of the fourth mirror (M4) is substantially 0.8.R1, the radius of curvature R5 at the apex of the fifth mirror (M5) is substantially 0.9.R1, the focal length of the telescope is 0.25.R1. - the first mirror or entry mirror (M1) of said five mirrors is concave; the second mirror (M2) is convex, the third mirror (M3) is concave, the fourth mirror (M4) is convex, the fifth mirror (M5) is concave; - the image field is substantially plane; - the angular object field of the telescope is rectangular, the width of the rectangle being of the order of 1 degree and its length at least 100 degrees; - the entrance pupil (P) of the telescope is real and situated in front of said first mirror (M1), the distance separating the entrance pupil from the first mirror is substantially equal to the radius of curvature of said first mirror and the distance separating the second mirror from the first mirror is substantially equal to this radius of curvature of the first mirror; - if R1 is the radius of curvature at the top of the first mirror (M1), the radius of curvature R2 at the top of the second mirror (M2) is substantially 0.5.R1, the radius of curvature at the apex of the third mirror (M3) is substantially 1.2.R1, the radius of curvature R4 at the apex of the fourth mirror (M4) is substantially 0.8.R1, the radius of curvature R5 at the apex of the fifth mirror (M5) is substantially 0.9.R1, the focal length of the telescope is 0.25.R1.
Apparatus for fusing image data from a multi-camera system for a motor vehicle, wherein the image data comprise data of an overlapping field of view (ÜB) of at least two cameras of the multi-camera system, the apparatus comprising: - an image analysis device configured to define sub-regions (TB1, TB2, ..., TBn) of the overlapping field of view (ÜB) represented in the image data; - an acquisition device configured to acquire a respective pixel density for each of the sub-regions (TB1, TB2, ..., TBn) of the overlapping field of view (ÜB), wherein the acquisition device is designed to acquire as pixel density the area covered by a sub-region (TB1, TB2, ..., TBn) per unit area on an image sensor of one of the two cameras ; and - a computer device configured to determine deviations of the pixel densities of adjacent sub-regions (TB1, TB2, ..., TBn) and to select adjacent sub-regions (TB1, TB2, ..., TBn) having deviations below a threshold value for a total image overlay, wherein the computer device is designed to carry out the total image overlay of the image data of the at least two cameras of the multi-camera system on the basis of fusing the selected sub-regions. - an image analysis device configured to define sub-regions (TB1, TB2, ..., TBn) of the overlapping field of view (ÜB) represented in the image data; - an acquisition device configured to acquire a respective pixel density for each of the sub-regions (TB1, TB2, ..., TBn) of the overlapping field of view (ÜB), wherein the acquisition device is designed to acquire as pixel density the area covered by a sub-region (TB1, TB2, ..., TBn) per unit area on an image sensor of one of the two cameras ; and - a computer device configured to determine deviations of the pixel densities of adjacent sub-regions (TB1, TB2, ..., TBn) and to select adjacent sub-regions (TB1, TB2, ..., TBn) having deviations below a threshold value for a total image overlay, wherein the computer device is designed to carry out the total image overlay of the image data of the at least two cameras of the multi-camera system on the basis of fusing the selected sub-regions.
A method of adapting a network readiness for downloading video data comprising the steps of: - determining a download quality for downloading video data; wherein the step of determining the download quality for downloading video data comprises the steps of: - determining a local time period and a corresponding location area; - determining an expected video bitrate threshold at the local time period and the corresponding location area; - determining a probability whether an available network download bitrate is higher than the expected video bitrate threshold for the download of a subset of video data; - determining whether the download quality is above or below a defined quality threshold value ; wherein the step of determining whether the download quality is above or below the defined quality threshold value comprises the step of: - comparing the probability whether the available network download bitrate is higher than the expected video bitrate threshold for the download of a subset of video data with the quality threshold value; and - adapting a network capacity and/or a video quality depending on the result of the determination of the download quality such that the download quality is above the defined quality threshold value . - determining a download quality for downloading video data; wherein the step of determining the download quality for downloading video data comprises the steps of: - determining a local time period and a corresponding location area; - determining an expected video bitrate threshold at the local time period and the corresponding location area; - determining a probability whether an available network download bitrate is higher than the expected video bitrate threshold for the download of a subset of video data; - determining a local time period and a corresponding location area; - determining an expected video bitrate threshold at the local time period and the corresponding location area; - determining a probability whether an available network download bitrate is higher than the expected video bitrate threshold for the download of a subset of video data; - determining whether the download quality is above or below a defined quality threshold value ; wherein the step of determining whether the download quality is above or below the defined quality threshold value comprises the step of: - comparing the probability whether the available network download bitrate is higher than the expected video bitrate threshold for the download of a subset of video data with the quality threshold value; and - comparing the probability whether the available network download bitrate is higher than the expected video bitrate threshold for the download of a subset of video data with the quality threshold value; and - adapting a network capacity and/or a video quality depending on the result of the determination of the download quality such that the download quality is above the defined quality threshold value .