mhurhangee/patent-ind-claim-en huggingface dataset:
A prosthetic suturing device , comprising: a housing ; a needle press slideably engaged with the housing ; a plurality of needles coupled to the needle press ; a prosthetic retainer ; a ferrule platen having a plurality of ferrule holders , each corresponding to one of the plurality of needles ; and an actuator configured to move the needle press from a retracted position where needle tips of the plurality of needles are away from the ferrule platen to an engaged position where the needle tips of the plurality of needles are at least partially within the ferrule holders of the ferrule platen ; characterised in that the prosthetic retainer comprises: one or more stud springs ; a stud spring ring engageable with the one or more stud springs ; and a prosthetic retainer tab coupled to the stud spring ring ; wherein the stud spring ring is configured to be rotated by the prosthetic retainer tab such that the one or more stud springs are pushed into contact with a prosthetic device . a housing ; a needle press slideably engaged with the housing ; a plurality of needles coupled to the needle press ; a prosthetic retainer ; a ferrule platen having a plurality of ferrule holders , each corresponding to one of the plurality of needles ; and an actuator configured to move the needle press from a retracted position where needle tips of the plurality of needles are away from the ferrule platen to an engaged position where the needle tips of the plurality of needles are at least partially within the ferrule holders of the ferrule platen ; characterised in that the prosthetic retainer comprises: one or more stud springs ; a stud spring ring engageable with the one or more stud springs ; and a prosthetic retainer tab coupled to the stud spring ring ; wherein the stud spring ring is configured to be rotated by the prosthetic retainer tab such that the one or more stud springs are pushed into contact with a prosthetic device . one or more stud springs ; a stud spring ring engageable with the one or more stud springs ; and a prosthetic retainer tab coupled to the stud spring ring ; wherein the stud spring ring is configured to be rotated by the prosthetic retainer tab such that the one or more stud springs are pushed into contact with a prosthetic device .
An electrostatic device comprising: - an air flow regulator system comprising a pressure regulator and an air flow regulator ; - a liquid flow regulating system comprising a set of restrictors ; - a tank ; and - a positive displacement pump ; characterized in that the electrostatic device further comprises: - an electrostatic system comprising an electrostatic emission antenna and an insulating hood of the electrostatic emission antenna ; - an air-liquid nozzle that is separated from the electrostatic emission antenna ; wherein the liquid flow regulating system is configured to deliver a liquid from the tank to the air-liquid nozzle passing the restrictors driven by the positive displacement pump ; wherein the air flow regulator system is configured to deliver air to the air-liquid nozzle and to deliver air to the insulating hood ; and wherein the electrostatic emission antenna is located at the bottom of the insulating hood , and the insulating hood isolates the electrostatic emission antenna from the rest of the components of the device to avoid an electric arc. - an air flow regulator system comprising a pressure regulator and an air flow regulator ; - a liquid flow regulating system comprising a set of restrictors ; - a tank ; and - a positive displacement pump ; characterized in that the electrostatic device further comprises: - an electrostatic system comprising an electrostatic emission antenna and an insulating hood of the electrostatic emission antenna ; - an air-liquid nozzle that is separated from the electrostatic emission antenna ; wherein the liquid flow regulating system is configured to deliver a liquid from the tank to the air-liquid nozzle passing the restrictors driven by the positive displacement pump ; wherein the air flow regulator system is configured to deliver air to the air-liquid nozzle and to deliver air to the insulating hood ; and wherein the electrostatic emission antenna is located at the bottom of the insulating hood , and the insulating hood isolates the electrostatic emission antenna from the rest of the components of the device to avoid an electric arc. wherein the liquid flow regulating system is configured to deliver a liquid from the tank to the air-liquid nozzle passing the restrictors driven by the positive displacement pump ; wherein the air flow regulator system is configured to deliver air to the air-liquid nozzle and to deliver air to the insulating hood ; and wherein the electrostatic emission antenna is located at the bottom of the insulating hood , and the insulating hood isolates the electrostatic emission antenna from the rest of the components of the device to avoid an electric arc.
A method comprising: placing a film onto a dental structure to cover at least a portion of the dental structure, wherein the film has a modulus of less than 900 MPa; providing a hardenable dental article chosen from a crown, an inlay, an onlay, a bridge, a veneer, a maxillofacial prosthesis, an artificial tooth, and a tooth splint, the hardenable dental article comprising a base and an inner surface extending from the base, and wherein the hardenable dental article comprises a hardenable dental composition wherein the hardenable dental composition is in a form of a self-supporting malleable structure; and applying the hardenable dental article to the dental structure covered by the film, further comprising at least partially curing the hardenable dental article after the applying step, further comprising removing the film after the curing step. placing a film onto a dental structure to cover at least a portion of the dental structure, wherein the film has a modulus of less than 900 MPa; providing a hardenable dental article chosen from a crown, an inlay, an onlay, a bridge, a veneer, a maxillofacial prosthesis, an artificial tooth, and a tooth splint, the hardenable dental article comprising a base and an inner surface extending from the base, and wherein the hardenable dental article comprises a hardenable dental composition wherein the hardenable dental composition is in a form of a self-supporting malleable structure; and applying the hardenable dental article to the dental structure covered by the film, further comprising at least partially curing the hardenable dental article after the applying step, further comprising removing the film after the curing step.
A compound comprising the structural formula: wherein X=Cl; one of R 1 and R 2 =H, and one of R 1 and R 2 =CH 2 COOH. X=Cl; one of R 1 and R 2 =H, and one of R 1 and R 2 =CH 2 COOH.
Method for manufacturing a fiber-reinforced concrete column used in the construction industry, in which method one or more pipes , such as a steel pipe, is brought to a base , and fixed to the aforementioned base , after which the pipe is filled with fiber-reinforced concrete simultaneously with vibrating the the pipe , and preferably also the concrete , wherein the pipe is filled with fiber-reinforced concrete via a lead-in in the bottom part of the pipe , which lead-in is on the side of the pipe, and in that vibration of the pipe is performed from the top of the pipe .
A method of producing a supported catalyst material for a fuel cell electrode, comprising the steps of: - providing an electrically conductive carbon-based support material ; - depositing a carbide-forming substance from the gas phase onto the carbon-based support material to from a carbide-containing layer by chemical reaction of the carbide-forming substance with the carbon of the support material and - depositing a catalytically active noble metal or an alloy of a noble metal from the gas phase to form a catalytic layer . - providing an electrically conductive carbon-based support material ; - depositing a carbide-forming substance from the gas phase onto the carbon-based support material to from a carbide-containing layer by chemical reaction of the carbide-forming substance with the carbon of the support material and - depositing a catalytically active noble metal or an alloy of a noble metal from the gas phase to form a catalytic layer .
A liquid composition, comprising: from 10 weight % to 55 weight % of ethoxylated amine of a fatty acid comprising, either 2,2'-(octadecylimino)bisethanol (PEG-2-Stearamine) or N,N,N'-tris (2-hydroxyethyl)-N'-alkyl/alkenyl(C14-C18)-1,3- diaminopropane (PEG-3 Tallow Aminopropylamine), based on a total weight of the liquid composition; from 35 weight % to 75 weight % of organic solvent, based on the total weight of the liquid composition; and from 0.20 weight % to 25 weight % of acid, based on the total weight of the liquid composition; wherein the organic solvent comprises propylene glycol; wherein the acid is one or more acids selected from the group consisting of malic acid, benzoic acid, mandelic acid, lactic acid, acetic acid, succinic acid, tartaric acid, and citric acid. from 10 weight % to 55 weight % of ethoxylated amine of a fatty acid comprising, either 2,2'-(octadecylimino)bisethanol (PEG-2-Stearamine) or N,N,N'-tris (2-hydroxyethyl)-N'-alkyl/alkenyl(C14-C18)-1,3- diaminopropane (PEG-3 Tallow Aminopropylamine), based on a total weight of the liquid composition; from 35 weight % to 75 weight % of organic solvent, based on the total weight of the liquid composition; and from 0.20 weight % to 25 weight % of acid, based on the total weight of the liquid composition; wherein the organic solvent comprises propylene glycol;
A method of controlling an image diagnosis apparatus by using a mobile terminal , the method comprising: receiving identification information of a plurality of image diagnosis apparatuses from the plurality of image diagnosis apparatuses via a Wi-Fi direct (WFD) network or an ultra wideband (UWB) network after the plurality of image diagnosis apparatuses succeed in certifying that the mobile terminal has authority to control the plurality of image diagnosis apparatuses ; displaying the identification information of the plurality of image diagnosis apparatuses ; selecting identification information of a particular image diagnosis apparatus from among the displayed identification information of the plurality of image diagnosis apparatuses ; displaying a virtual key pad to control the particular image diagnosis apparatus according to the selected identification information of the particular image diagnosis apparatus ; receiving a control command from the outside through the virtual key pad; and transmitting the received control command to the particular image diagnosis apparatus via the WFD or UWB network, wherein the displaying the virtual key pad comprises: changing the displayed virtual key pad according to a mode that is set in the particular image diagnosis apparatus , wherein the mode is selected from a plurality of imaging operating modes of the particular image diagnosis apparatus ; and displaying the changed virtual key pad. receiving identification information of a plurality of image diagnosis apparatuses from the plurality of image diagnosis apparatuses via a Wi-Fi direct (WFD) network or an ultra wideband (UWB) network after the plurality of image diagnosis apparatuses succeed in certifying that the mobile terminal has authority to control the plurality of image diagnosis apparatuses ; displaying the identification information of the plurality of image diagnosis apparatuses ; selecting identification information of a particular image diagnosis apparatus from among the displayed identification information of the plurality of image diagnosis apparatuses ; displaying a virtual key pad to control the particular image diagnosis apparatus according to the selected identification information of the particular image diagnosis apparatus ; receiving a control command from the outside through the virtual key pad; and transmitting the received control command to the particular image diagnosis apparatus via the WFD or UWB network, wherein the displaying the virtual key pad comprises: changing the displayed virtual key pad according to a mode that is set in the particular image diagnosis apparatus , wherein the mode is selected from a plurality of imaging operating modes of the particular image diagnosis apparatus ; and displaying the changed virtual key pad. changing the displayed virtual key pad according to a mode that is set in the particular image diagnosis apparatus , wherein the mode is selected from a plurality of imaging operating modes of the particular image diagnosis apparatus ; and displaying the changed virtual key pad.
A method for detecting and/or locating transient ground faults in line branches and/or lines of power supply networks for fault resistances up to the range of a few kOhm, wherein the method comprises the following steps: a) continuously sampling and storing the residual voltage u0(t) and the total current 3io(t) in an outgoing line b) storing the sampled values in a digital data processing system with data buffer characterized by the following steps: c) filtering the sampled variables u0(t) and 3io(t) with the aid of a digital orthogonal filter with reference to the fundamental component in order to determine the orthogonal components uoc(k) or uos(k) or ioc(k) or ios(k) in each sampling step of u0(t) and 3io(t) d) calculating the complex admittance, i.e. amount |Y(t)|/ real part Yre(t)/ and imaginary part Yim(t)), in each sampling step k from the values filtered in step (c) and storing the results in a ring buffer e) filling the ring buffer in each sampling step with the amount of the admittance f) forming the following variables in each sampling step k from the ring buffer by means of the calculations for moving total of the admittance values: ∑ Y _ n = ∑ i = n − N + 1 i = n Y _ i moving total of the squares of the admittance values: ∑ Y _ 2 n = ∑ i = n − N + 1 i = n Y _ i 2 normalized variance of the admittance values: σ 2 n = N N − 1 N ∑ Y 2 _ n ∑ Y _ n 2 − 1 g) determining a fault or ground fault when exceeding the amount of the normalized variance with a threshold value in a sampling step, wherein the current sampling step therefore is the index of the fault occurrence idx thr . a) continuously sampling and storing the residual voltage u0(t) and the total current 3io(t) in an outgoing line b) storing the sampled values in a digital data processing system with data buffer c) filtering the sampled variables u0(t) and 3io(t) with the aid of a digital orthogonal filter with reference to the fundamental component in order to determine the orthogonal components uoc(k) or uos(k) or ioc(k) or ios(k) in each sampling step of u0(t) and 3io(t) d) calculating the complex admittance, i.e. amount |Y(t)|/ real part Yre(t)/ and imaginary part Yim(t)), in each sampling step k from the values filtered in step (c) and storing the results in a ring buffer e) filling the ring buffer in each sampling step with the amount of the admittance f) forming the following variables in each sampling step k from the ring buffer by means of the calculations for moving total of the admittance values: ∑ Y _ n = ∑ i = n − N + 1 i = n Y _ i moving total of the squares of the admittance values: ∑ Y _ 2 n = ∑ i = n − N + 1 i = n Y _ i 2 normalized variance of the admittance values: σ 2 n = N N − 1 N ∑ Y 2 _ n ∑ Y _ n 2 − 1 g) determining a fault or ground fault when exceeding the amount of the normalized variance with a threshold value in a sampling step, wherein the current sampling step therefore is the index of the fault occurrence idx thr .
A computer-implemented method for authentication of a first device , comprising the following steps: A) receiving (S2) a plurality of RF signals (SG1, SG2, ...) from the first device ; B) acquiring (S3) feature data from the received RF signals (SG1, SG2, ...), C) fitting (S6) a model (M) for authenticating said first device using the acquired feature data; D) storing (S7) in memory the fitted model (M1) in a second device ; E) by the second device , receiving (S11) a new RF signal (SG(t)) from a device to authenticate (T), F) by the second device , acquiring (S12) feature data from the new RF signal (SG(t)), and G) by the second device , determining whether or not the device to authenticate (T) is the first device by transmitting the feature data, acquired from the new RF signal (SG(t)), as input to the fitted model (M1); wherein the feature data acquired from each RF signal includes values of only one of an in-phase component I(t) of said RF signal over time and a quadrature component Q(t) of the RF signal over time. A) receiving (S2) a plurality of RF signals (SG1, SG2, ...) from the first device ; B) acquiring (S3) feature data from the received RF signals (SG1, SG2, ...), C) fitting (S6) a model (M) for authenticating said first device using the acquired feature data; D) storing (S7) in memory the fitted model (M1) in a second device ; E) by the second device , receiving (S11) a new RF signal (SG(t)) from a device to authenticate (T), F) by the second device , acquiring (S12) feature data from the new RF signal (SG(t)), and G) by the second device , determining whether or not the device to authenticate (T) is the first device by transmitting the feature data, acquired from the new RF signal (SG(t)), as input to the fitted model (M1);
Hand-held power tool with a tool holder , a motor for rotational and/or percussive driving of the tool holder , and a magnetic field sensor for detecting a magnetic field of the motor that is created by the driving of the tool holder, wherein the magnetic field sensor is arranged in the hand-held power tool in such a way that it detects as the magnetic field of the motor a magnetic field of a current that is consumed by the motor when the tool holder is driven, characterized in that the hand-held power tool has a control device for determining a load state of the motor in dependence on the detected magnetic field for differentiation between an idle mode of the hand-held power tool and a load mode. a tool holder , a motor for rotational and/or percussive driving of the tool holder , and a magnetic field sensor for detecting a magnetic field of the motor that is created by the driving of the tool holder, wherein the magnetic field sensor is arranged in the hand-held power tool in such a way that it detects as the magnetic field of the motor a magnetic field of a current that is consumed by the motor when the tool holder is driven, characterized in that the hand-held power tool has a control device for determining a load state of the motor in dependence on the detected magnetic field for differentiation between an idle mode of the hand-held power tool and a load mode.
A User Equipment, UE , comprising: a reception unit configured to receive a configuration configuring a random access response window size per enhanced coverage level, and an extraction unit configured to read the configuration, wherein the reception unit is further configured to monitor PDCCH for a random access response within a random access response window of the random access response window size, wherein the random access response window is represented as a number of repetition windows for the PDCCH based on the read configuration; and the number of repetition windows for the PDCCH is any of 2, 3, 4, 5, 6, 7, 8, and 10, determined by the read configuration. a reception unit configured to receive a configuration configuring a random access response window size per enhanced coverage level, and an extraction unit configured to read the configuration, wherein the reception unit is further configured to monitor PDCCH for a random access response within a random access response window of the random access response window size, wherein the random access response window is represented as a number of repetition windows for the PDCCH based on the read configuration; and the number of repetition windows for the PDCCH is any of 2, 3, 4, 5, 6, 7, 8, and 10, determined by the read configuration.
Method for producing a green body (52; 72) for a machining segment (11A, 11B; 21A, 21B; 31; 41; 51; 71) from a powdered or granular first matrix material (56; 76) and first hard material particles (57; 77), the machining segment being connected by an underside (61; 81) to a basic body (12A, 12B; 22A, 22B; 32; 42) of a machining tool (10A, 10B; 20A, 20B; 30; 40) and having a projection (Δ) of the first hard material particles (57; 77) on an upper side (62; 82) opposite from the underside (61; 81), characterized by the following steps: ▪ applying a powdered or granular supporting material (63; 83), the supporting material (63; 83) being different from the first matrix material (56; 76), ▪ arranging the first hard material particles (57; 77) in the supporting material (63; 83) according to a defined particle pattern, the first hard material particles (57; 77) being partially arranged in the supporting material (63; 83), and ▪ applying the first matrix material (56; 76) to the first hard material particles (57; 77) and the supporting material (63; 83). ▪ applying a powdered or granular supporting material (63; 83), the supporting material (63; 83) being different from the first matrix material (56; 76), ▪ arranging the first hard material particles (57; 77) in the supporting material (63; 83) according to a defined particle pattern, the first hard material particles (57; 77) being partially arranged in the supporting material (63; 83), and ▪ applying the first matrix material (56; 76) to the first hard material particles (57; 77) and the supporting material (63; 83).
A method comprising: receiving by a receiving device at a first location a sound signal from each of a set of sound signal sources, the sound signal emitted from each sound signal source being distinct from the sound signal emitted from another sound signal source and each sound signal source being uniquely identifiable within the set based on information provided in the respective sound signal; selecting sound signals received from a subset of the sound signal sources, the selected sound signals satisfying a reliability condition that filters out reflected sound signals, the location of each sound signal source providing a selected sound signal being known to the receiving device ; and determining the first location of the receiving device relative to the known locations of the subset of sound signal sources using a differential time of arrival measurement and cross-correlation the method characterized by further comprising: determining a second location of the receiving device based on the first location and on non-differential time of arrival measurements of further sound signals received at the second location from fewer than the subset of sound signal sources received at the first location. receiving by a receiving device at a first location a sound signal from each of a set of sound signal sources, the sound signal emitted from each sound signal source being distinct from the sound signal emitted from another sound signal source and each sound signal source being uniquely identifiable within the set based on information provided in the respective sound signal; selecting sound signals received from a subset of the sound signal sources, the selected sound signals satisfying a reliability condition that filters out reflected sound signals, the location of each sound signal source providing a selected sound signal being known to the receiving device ; and determining the first location of the receiving device relative to the known locations of the subset of sound signal sources using a differential time of arrival measurement and cross-correlation the method characterized by further comprising: determining a second location of the receiving device based on the first location and on non-differential time of arrival measurements of further sound signals received at the second location from fewer than the subset of sound signal sources received at the first location.