mhurhangee/patent-ind-claim-en huggingface dataset:
Sealed, multipolar connector , comprising: - a male sub-assembly comprising a plurality of pins , - a female sub-assembly comprising a plurality of sockets , wherein said pins are configured so that they engage said sockets when the connector is closed, and wherein - said male sub-assembly comprises a co-molded element in plastic and rubber, - said female sub-assembly comprises a co-molded element in plastic and rubber, and a locking ring , - said co-molded elements comprise, in a plurality of circumferential positions, clamping teeth configured to be engaged with each other when said elements are coupled, Characterized in that the clamping teeth of said female sub-assembly are positioned on elastically deformable tongues and are configured so that the clamping teeth are engaged when said elastically deformable tongues are in rest position, in that said ring is provided with tongues configured to be introduced with interference in a respective space provided on the female body , said tongues being configured to widen said clamping teeth while entering said respective space so that the clamping teeth of the female element do not engage the respective clamping teeth provided on said male connector, and in that said ring can rotate with respect to said female sub assembly between a first position, in which by axially sliding said ring said tongues can be introduced in said respective space and a second position, in which the axial sliding is hindered by a suitable block element . - a male sub-assembly comprising a plurality of pins , - a female sub-assembly comprising a plurality of sockets , wherein said pins are configured so that they engage said sockets when the connector is closed, and wherein - said male sub-assembly comprises a co-molded element in plastic and rubber, - said female sub-assembly comprises a co-molded element in plastic and rubber, and a locking ring , - said co-molded elements comprise, in a plurality of circumferential positions, clamping teeth configured to be engaged with each other when said elements are coupled, Characterized in that the clamping teeth of said female sub-assembly are positioned on elastically deformable tongues and are configured so that the clamping teeth are engaged when said elastically deformable tongues are in rest position, in that said ring is provided with tongues configured to be introduced with interference in a respective space provided on the female body , said tongues being configured to widen said clamping teeth while entering said respective space so that the clamping teeth of the female element do not engage the respective clamping teeth provided on said male connector, and in that said ring can rotate with respect to said female sub assembly between a first position, in which by axially sliding said ring said tongues can be introduced in said respective space and a second position, in which the axial sliding is hindered by a suitable block element .
Method for detecting an environment, wherein an environment is detected by means of at least one moving radar sensor , wherein a virtual aperture of the at least one radar sensor is synthesized for providing an image of the environment on the basis of detected radar data and position information of the at least one radar sensor , wherein a relative speed of the at least one radar sensor is determined on the basis of the detected radar data of the at least one radar sensor , wherein the synthesizing of the virtual aperture of the at least one radar sensor is performed on the basis of position information determined from the determined relative speed and detected radar data respectively corresponding to the determined position information , wherein the position information is determined in such a way that the virtual aperture of the at least one radar sensor is synthesized with equidistant nodes, characterized in that detected radar data respectively temporally corresponding to the equidistant nodes is used for this purpose, wherein the detected radar data temporally corresponding to the equidistant nodes is selected based on the determined position information by temporal interpolation at respective receiving times (t i ).
A system for the continuous tracking of blood glucose variability in diabetes in a subject, said system comprising: an acquisition module configured to acquire a plurality of blood glucose values over a specified time interval; and a processor , wherein the processor is programmed to: compute blood glucose variability by transforming the acquired blood glucose values into a data point in a variability grid analysis, which data point represents an average Low Blood Glucose Index (LBGI) value and an average High Blood Glucose Index (HBGI) value for the subject; and provide an output including: an area of optimal glucose control on a graph; areas indicating risk for hyperglycemia and hypoglycemia on the graph; and the average LBGI value and the average HBGI value on the graph in the form of a data point, the graph having a coordinate system representing hypoglycemic risk along a first axis of said graph and hyperglycemic risk along a second axis of said graph, wherein the location of the data point in said coordinate system represents a risk of hyperglycemia and hypoglycemia for said subject. an acquisition module configured to acquire a plurality of blood glucose values over a specified time interval; and a processor , wherein the processor is programmed to: compute blood glucose variability by transforming the acquired blood glucose values into a data point in a variability grid analysis, which data point represents an average Low Blood Glucose Index (LBGI) value and an average High Blood Glucose Index (HBGI) value for the subject; and provide an output including: an area of optimal glucose control on a graph; areas indicating risk for hyperglycemia and hypoglycemia on the graph; and the average LBGI value and the average HBGI value on the graph in the form of a data point, the graph having a coordinate system representing hypoglycemic risk along a first axis of said graph and hyperglycemic risk along a second axis of said graph, compute blood glucose variability by transforming the acquired blood glucose values into a data point in a variability grid analysis, which data point represents an average Low Blood Glucose Index (LBGI) value and an average High Blood Glucose Index (HBGI) value for the subject; and provide an output including: an area of optimal glucose control on a graph; areas indicating risk for hyperglycemia and hypoglycemia on the graph; and the average LBGI value and the average HBGI value on the graph in the form of a data point, the graph having a coordinate system representing hypoglycemic risk along a first axis of said graph and hyperglycemic risk along a second axis of said graph, an area of optimal glucose control on a graph; areas indicating risk for hyperglycemia and hypoglycemia on the graph; and the average LBGI value and the average HBGI value on the graph in the form of a data point, the graph having a coordinate system representing hypoglycemic risk along a first axis of said graph and hyperglycemic risk along a second axis of said graph, wherein the location of the data point in said coordinate system represents a risk of hyperglycemia and hypoglycemia for said subject.
A downlink data transmission method, comprising: after receiving, by a base station through an S1 bearer, downlink data from a serving gateway, if the base station determines that a radio bearer corresponding to the S1 bearer does not exist, learning , by the base station, that a user equipment, UE, needs to be paged; searching for stored UE context information; obtaining paging data of the UE from the UE context information if the UE context information comprises the paging data of the UE; paging , by the base station, the UE and re-establishing a radio bearer between the base station and the UE; and sending , by the base station, downlink data, which is received from the serving gateway to the UE through the re-established radio bearer. after receiving, by a base station through an S1 bearer, downlink data from a serving gateway, if the base station determines that a radio bearer corresponding to the S1 bearer does not exist, learning , by the base station, that a user equipment, UE, needs to be paged; searching for stored UE context information; obtaining paging data of the UE from the UE context information if the UE context information comprises the paging data of the UE; paging , by the base station, the UE and re-establishing a radio bearer between the base station and the UE; and sending , by the base station, downlink data, which is received from the serving gateway to the UE through the re-established radio bearer.
A gRNA for an S. aureus Cas9 comprising a first targeting domain that is complementary to a target sequence on a target nucleic acid comprising a TRAC gene, wherein the first targeting domain comprises the targeting domain sequence of SEQ ID NO:49506.
A coated conductor, comprising: (a) a conductor; and (b) a peelable polymeric coating surrounding at least a portion of said conductor, wherein said peelable polymeric coating comprises a polymeric matrix material and in the range of from 1 to 8 microcapillaries which extend substantially in the direction of elongation of said peelable polymeric coating, wherein said microcapillaries comprise an elastomeric polymer having a lower flexural modulus than said polymeric matrix material, and wherein said microcapillaries define individual, discrete void spaces which are completely surrounded by the polymeric matrix material. (a) a conductor; and (b) a peelable polymeric coating surrounding at least a portion of said conductor, wherein said peelable polymeric coating comprises a polymeric matrix material and in the range of from 1 to 8 microcapillaries which extend substantially in the direction of elongation of said peelable polymeric coating, wherein said microcapillaries comprise an elastomeric polymer having a lower flexural modulus than said polymeric matrix material, and wherein said microcapillaries define individual, discrete void spaces which are completely surrounded by the polymeric matrix material.
An external control device for use with a stimulation device capable of conveying an electrical signal to a stimulation lead implanted within a patient , and measuring an electrical parameter in response to the conveyance of the electrical signal, comprising: telemetry circuitry configured for communicating with the stimulation device ; a processor configured for receiving the measured electrical parameter from the stimulation device via the telemetry circuitry , selecting one of a plurality of different anatomical regions in which the stimulation lead is implanted based on the measured electrical parameter, and defining a stimulation parameter based on the selected anatomical region; a controller configured for instructing the stimulation device via the telemetry circuitry to convey electrical stimulation energy from the stimulation lead in accordance with the defined stimulation parameter: and a user interface configured for displaying a plurality of different programming screens respectively associated with different anatomical regions of a patient , selecting one of the programming screens corresponding to the selected anatomical region, and allowing a user to define the stimulation parameter using the selected programming screen ; wherein the electrical parameter is measured at another stimulation lead implanted within the patient . telemetry circuitry configured for communicating with the stimulation device ; a processor configured for receiving the measured electrical parameter from the stimulation device via the telemetry circuitry , selecting one of a plurality of different anatomical regions in which the stimulation lead is implanted based on the measured electrical parameter, and defining a stimulation parameter based on the selected anatomical region; a controller configured for instructing the stimulation device via the telemetry circuitry to convey electrical stimulation energy from the stimulation lead in accordance with the defined stimulation parameter: and a user interface configured for displaying a plurality of different programming screens respectively associated with different anatomical regions of a patient , selecting one of the programming screens corresponding to the selected anatomical region, and allowing a user to define the stimulation parameter using the selected programming screen ; wherein the electrical parameter is measured at another stimulation lead implanted within the patient .
A method comprising: (a) providing a powder coating composition including an effective amount of at least one antimicrobial agent comprising at least one inorganic bismuth-containing compound as antimicrobial agent, wherein the inorganic bismuth-containing compound is a bismuth salt of a metal oxyanion or a hydrate thereof; (b) depositing the powder coating composition onto at least a portion of an article; and (c) forming a film from the powder coating composition to create a coated article. (a) providing a powder coating composition including an effective amount of at least one antimicrobial agent comprising at least one inorganic bismuth-containing compound as antimicrobial agent, wherein the inorganic bismuth-containing compound is a bismuth salt of a metal oxyanion or a hydrate thereof; (b) depositing the powder coating composition onto at least a portion of an article; and (c) forming a film from the powder coating composition to create a coated article.
A polymer liner bridge for fusing to the respective polymer liners of abutting sections of polymer-lined metal pipes of a lined pipeline, the liner bridge comprising: a tubular wall; at least one bore extending through the wall from an inward side to an outward side; and at least one electrofusion element; characterised in that the liner bridge further comprises: a terminal fitted in the or each bore and having a contact end exposed to the inward side of the wall for conducting electricity to the or each electrofusion element; and a sealing interface between the terminal and the surrounding bore ; wherein the sealing interface comprises at least one projecting formation of the terminal extending radially outwardly with respect to the bore and at least one complementary formation of the bore extending radially inwardly with respect to the bore , engaged with the or each projecting formation of the terminal . a tubular wall; at least one bore extending through the wall from an inward side to an outward side; and at least one electrofusion element; characterised in that the liner bridge further comprises: a terminal fitted in the or each bore and having a contact end exposed to the inward side of the wall for conducting electricity to the or each electrofusion element; and a sealing interface between the terminal and the surrounding bore ; wherein the sealing interface comprises at least one projecting formation of the terminal extending radially outwardly with respect to the bore and at least one complementary formation of the bore extending radially inwardly with respect to the bore , engaged with the or each projecting formation of the terminal . a terminal fitted in the or each bore and having a contact end exposed to the inward side of the wall for conducting electricity to the or each electrofusion element; and a sealing interface between the terminal and the surrounding bore ; wherein the sealing interface comprises at least one projecting formation of the terminal extending radially outwardly with respect to the bore and at least one complementary formation of the bore extending radially inwardly with respect to the bore , engaged with the or each projecting formation of the terminal .
A healing device which includes: - a dental intermediate pillar to be inserted into a dental implant , the intermediate pillar comprising: o a lower part , to be inserted into an implant ; o an intermediate part , including an outer device for connecting an anatomically-shaped closure element for closing the post-extraction alveolar site, said outer connection device including at least two generally circular-shaped superimposed grooves , provided on the outer surface of the intermediate part of the intermediate pillar o an upper part , including a device for attaching a member , such as an impression pillar or a prosthetic pillar - and an anatomical closure element , the closure element including an attaching part for cooperating with the outer connection device of the intermediate pillar , and a closure part having an anatomical shape for closing the post-extraction alveolar site. - a dental intermediate pillar to be inserted into a dental implant , the intermediate pillar comprising: o a lower part , to be inserted into an implant ; o an intermediate part , including an outer device for connecting an anatomically-shaped closure element for closing the post-extraction alveolar site, said outer connection device including at least two generally circular-shaped superimposed grooves , provided on the outer surface of the intermediate part of the intermediate pillar o an upper part , including a device for attaching a member , such as an impression pillar or a prosthetic pillar o a lower part , to be inserted into an implant ; o an intermediate part , including an outer device for connecting an anatomically-shaped closure element for closing the post-extraction alveolar site, said outer connection device including at least two generally circular-shaped superimposed grooves , provided on the outer surface of the intermediate part of the intermediate pillar o an upper part , including a device for attaching a member , such as an impression pillar or a prosthetic pillar - and an anatomical closure element , the closure element including an attaching part for cooperating with the outer connection device of the intermediate pillar , and a closure part having an anatomical shape for closing the post-extraction alveolar site.
A semiconductor device comprising: an output driving circuit configured to output an output current to a solenoid incorporated in a vehicle through an output terminal (OUT); a detection resistor (Rs) connected between the output terminal (OUT) and the output driving circuit ; an amplification unit configured to output an analog detection signal (VDET) generated by amplifying a voltage between both ends of the detection resistor (Rs); a current generation circuit configured to output a reference current (Iref); a reference resistor (Rref) connected between the current generation circuit and a ground (GND) and configured to output a reference voltage (Vref) according to the reference current (Iref); wherein an analog to digital, A/D, converter is configured to convert the analog detection signal (VDET) into a digital detection signal (IFB) using the reference voltage (Vref) as a refer-ence; characterized by the detection resistor (Rs) and the reference resistor (Rref) are the same type resistor and have a physical layout as proximate as possible to precisely alleviate or eliminate a temperature variation appearing in the digital detection signal (IFB); and a control circuit is configured to control the output current output from the output driving circuit according to the digital detection signal (IFB) so as to cancel the temperature characteristics of the amplification unit and the A/D converter in a wide temperature range. an output driving circuit configured to output an output current to a solenoid incorporated in a vehicle through an output terminal (OUT); a detection resistor (Rs) connected between the output terminal (OUT) and the output driving circuit ; an amplification unit configured to output an analog detection signal (VDET) generated by amplifying a voltage between both ends of the detection resistor (Rs); a current generation circuit configured to output a reference current (Iref); a reference resistor (Rref) connected between the current generation circuit and a ground (GND) and configured to output a reference voltage (Vref) according to the reference current (Iref); wherein an analog to digital, A/D, converter is configured to convert the analog detection signal (VDET) into a digital detection signal (IFB) using the reference voltage (Vref) as a refer-ence; characterized by the detection resistor (Rs) and the reference resistor (Rref) are the same type resistor and have a physical layout as proximate as possible to precisely alleviate or eliminate a temperature variation appearing in the digital detection signal (IFB); and a control circuit is configured to control the output current output from the output driving circuit according to the digital detection signal (IFB) so as to cancel the temperature characteristics of the amplification unit and the A/D converter in a wide temperature range.
Conjugate or pharmaceutically acceptable salt thereof, the conjugate being of formula: C-L-A, wherein C is a chelator, L is a linker covalently bound to the chelator and A is a Gastrin-releasing peptide receptor antagonist covalently bound to the linker, characterized in that : - the chelator is of formula: where the dotted line represents the covalent bond to the linker; - the linker is of formula: -β-Ala-β-Ala-; and - the Gastrin-releasing peptide receptor antagonist is of the amino acid sequence: -DPhe-Gln-Trp-Ala-Val-Gly-His-Sta-Leu-NH 2 (SEQ ID NO: 1). - the chelator is of formula: where the dotted line represents the covalent bond to the linker; - the linker is of formula: -β-Ala-β-Ala-; and - the Gastrin-releasing peptide receptor antagonist is of the amino acid sequence: -DPhe-Gln-Trp-Ala-Val-Gly-His-Sta-Leu-NH 2 (SEQ ID NO: 1).
Use of a root-knot nematode resistance marker for identifying a root-knot nematode resistance locus from chromosome 4 of a tomato plant identified by Accession No. FERM BP-22251, which marker is at least one SNP marker selected from the group consisting of: (a) YK66, (b) TY38, (c) AR02, and (d) HT12, wherein: (a) is a polynucleotide consisting of a base sequence of SEQ ID NO: 21; (b) is a polynucleotide consisting of a base sequence of SEQ ID NO: 22; (c) is a polynucleotide consisting of a base sequence of SEQ ID NO: 23; and (d) is a polynucleotide consisting of a base sequence of SEQ ID NO: 24. (a) is a polynucleotide consisting of a base sequence of SEQ ID NO: 21; (b) is a polynucleotide consisting of a base sequence of SEQ ID NO: 22; (c) is a polynucleotide consisting of a base sequence of SEQ ID NO: 23; and (d) is a polynucleotide consisting of a base sequence of SEQ ID NO: 24.
A terminal comprising: a receiving section configured to measure a first received power in a first resource of a synchronization signal per synchronization signal block index in a cell, and measure a second received power in a second resource; and a control section configured to derive a measurement result based on a ratio of the first received power to the second received power per the synchronization signal block index, wherein the control section is configured, by Radio Resource Control (RRC) signaling, with a periodicity, an offset and a time duration of the second resource. a receiving section configured to measure a first received power in a first resource of a synchronization signal per synchronization signal block index in a cell, and measure a second received power in a second resource; and a control section configured to derive a measurement result based on a ratio of the first received power to the second received power per the synchronization signal block index, wherein the control section is configured, by Radio Resource Control (RRC) signaling, with a periodicity, an offset and a time duration of the second resource.