mhurhangee/patent-ind-claim-en huggingface dataset:
inductive proximity sensor for detecting a detection body, wherein the detection body has metallic properties, comprising - a sensor coil acted on by individual pulse-shaped signals spaced from one another in time, - an evaluating unit . wherein the evaluating unit is configured to measure values for voltage or current of the pulse-shaped signal at a plurality of scanning instants and to determine an actual time series signal from the measured values (x 1 , x 2 , x 3 ), - a memory unit , wherein at least three values (x 1 , x 2 , x 3 ) of a reference time series signal are stored in the memory unit for the detection body, wherein the evaluating unit is configured - to determine from at least three value pairs from each of three values (x 1 , x 2 , x 3 ) of the actual time series signal and three corresponding values (y 1 , y 2 , y 3 ) of the reference time series signal an evaluation curve as a functional correlation between the actual time series signal and the reference time series signal and - to determine a linearity value of the evaluation curve for checking the functional correlation and - to determine on the basis of the linearity value the kind of metal as object characteristic of the detection body. - a sensor coil acted on by individual pulse-shaped signals spaced from one another in time, - an evaluating unit . wherein the evaluating unit is configured to measure values for voltage or current of the pulse-shaped signal at a plurality of scanning instants and to determine an actual time series signal from the measured values (x 1 , x 2 , x 3 ), - a memory unit , wherein at least three values (x 1 , x 2 , x 3 ) of a reference time series signal are stored in the memory unit for the detection body, wherein the evaluating unit is configured - to determine from at least three value pairs from each of three values (x 1 , x 2 , x 3 ) of the actual time series signal and three corresponding values (y 1 , y 2 , y 3 ) of the reference time series signal an evaluation curve as a functional correlation between the actual time series signal and the reference time series signal and - to determine a linearity value of the evaluation curve for checking the functional correlation and - to determine on the basis of the linearity value the kind of metal as object characteristic of the detection body.
A method of making a part with a cavity by additive manufacturing, the method comprising the steps of: - defining contiguous portions (7; 9) over a ceiling of the cavity, including at least one central portion defined entirely by edges , and peripheral portions defined by edges and by a portion of a frontier of the ceiling; - for the central portion, defining a capital by means of facets that bear against the edges defining the central portion and that converge towards an apex , and also defining a slender support that extends from the capital to a floor of the cavity while being centered on the apex; - for each peripheral portion , defining a capital by means of facets that bear against the edges defining the peripheral portion and that converge towards a terminal edge extending in a plane (P') that is normal to a wall of the cavity, and also defining a support in the form of a rib that extends in the normal plane between the terminal edge of the capital and a wall of the cavity; and - manufacturing the part including the cavity while making the above-defined supports and capitals. - defining contiguous portions (7; 9) over a ceiling of the cavity, including at least one central portion defined entirely by edges , and peripheral portions defined by edges and by a portion of a frontier of the ceiling; - for the central portion, defining a capital by means of facets that bear against the edges defining the central portion and that converge towards an apex , and also defining a slender support that extends from the capital to a floor of the cavity while being centered on the apex; - for each peripheral portion , defining a capital by means of facets that bear against the edges defining the peripheral portion and that converge towards a terminal edge extending in a plane (P') that is normal to a wall of the cavity, and also defining a support in the form of a rib that extends in the normal plane between the terminal edge of the capital and a wall of the cavity; and - manufacturing the part including the cavity while making the above-defined supports and capitals.
A blood pump , comprising a hollow body , in which an impeller with a blading is provided for producing an axial propulsion of the blood along the impeller , as well as a mechanical, hydrodynamic, magnetic or hybrid bearing device for the impeller, wherein the impeller may be set into a rotation about a rotation axis (R) of the impeller , with a motor stator located outside the hollow body, and wherein the hollow body comprises an inlet for the flow of blood into the hollow body in an inflow direction (E) which is essentially parallel to the rotation axis (R), and an outlet for the outflow of the blood out of the hollow body in an outflow direction (A), wherein the outlet is arranged offset to the rotation axis (R) of the impeller , for producing an outflow angle (α) between the inflow direction (E) and the outflow direction (A), said angle being different from zero, and wherein the blading is designed as a spiral, characterized in that a local pitch increases from an upstream side of the blading to a downstream-side of the blading.
A network accessing method performed by an access mobile terminal , the method comprising: searching (S306, S405) for a beacon channel sent by a base-station mobile terminal to synchronize with the base-station mobile terminal , wherein the beacon channel is on a beacon channel resource allocated by a base station ; receiving a broadcast signal on a broadcast channel resource corresponding to the beacon channel resource from the base-station mobile terminal ; obtaining an access resource comprised in the broadcast signal; initiating (S307, S405) an access process on the access resource, characterized by sending (S301, S401) a help request used for accessing a network to the base-station mobile terminal before searching (S306, S405) for a beacon channel and before initiating (S307, S405) the access process on the access resource. searching (S306, S405) for a beacon channel sent by a base-station mobile terminal to synchronize with the base-station mobile terminal , wherein the beacon channel is on a beacon channel resource allocated by a base station ; receiving a broadcast signal on a broadcast channel resource corresponding to the beacon channel resource from the base-station mobile terminal ; obtaining an access resource comprised in the broadcast signal; initiating (S307, S405) an access process on the access resource, characterized by sending (S301, S401) a help request used for accessing a network to the base-station mobile terminal before searching (S306, S405) for a beacon channel and before initiating (S307, S405) the access process on the access resource.
An electro-modulated structure, comprising: an electro-absorption modulator; and first and second drivers to independently apply respective first and second electric fields to first and second sections of the modulator, whereby to modulate an optical signal to generate a multi-level pulse amplitude modulated output signal, characterised in that the first and second drivers are configured to bias the first and second sections of the modulator using respective applied voltages corresponding to minimum and maximum levels of the extinction curves of the first and second sections of the modulator. an electro-absorption modulator; and first and second drivers to independently apply respective first and second electric fields to first and second sections of the modulator, whereby to modulate an optical signal to generate a multi-level pulse amplitude modulated output signal, characterised in that the first and second drivers are configured to bias the first and second sections of the modulator using respective applied voltages corresponding to minimum and maximum levels of the extinction curves of the first and second sections of the modulator.
A method comprising: presenting a three-dimensional environment, comprising routes , to a user by using a selected one of a plurality of perspective views of the environment that corresponds to a current position on a current route ; detecting a gesture user input comprising a characteristic that changes in time from a first characteristic to a second characteristic , and changing the current position on the current route to a new position (34', 34") on a route in response to the gesture user input wherein the first characteristic of the gesture user input determines a direction along the current route towards the new position (34', 34") relative to the current position and the second characteristic of the gesture user input determines the new position (34', 34") wherein the new position (34', 34") is at a selected one of a plurality of predetermined waypoints in the determined direction along the current route ; and presenting the three-dimensional environment, comprising routes , to the user by using a newly selected one of the plurality of perspective views of the environment that corresponds to the new position (34', 34"). presenting a three-dimensional environment, comprising routes , to a user by using a selected one of a plurality of perspective views of the environment that corresponds to a current position on a current route ; detecting a gesture user input comprising a characteristic that changes in time from a first characteristic to a second characteristic , and changing the current position on the current route to a new position (34', 34") on a route in response to the gesture user input wherein the first characteristic of the gesture user input determines a direction along the current route towards the new position (34', 34") relative to the current position and the second characteristic of the gesture user input determines the new position (34', 34") wherein the new position (34', 34") is at a selected one of a plurality of predetermined waypoints in the determined direction along the current route ; and presenting the three-dimensional environment, comprising routes , to the user by using a newly selected one of the plurality of perspective views of the environment that corresponds to the new position (34', 34").
A packaged radio frequency, RF, amplifier device comprising: a device substrate ; an input lead coupled to the device substrate ; an output lead coupled to the device substrate ; a transistor die coupled to the device substrate , wherein the transistor die includes a transistor, a transistor input terminal coupled to the input lead , and a transistor output terminal coupled to the output lead ; an output impedance matching circuit coupled to the output lead and the transistor output terminal , wherein the output impedance matching circuit includes a first set of bondwires coupled between the output lead and the transistor output terminal , an output capacitor including a first terminal and a second terminal, a second set of bondwires coupled between the transistor output terminal and the first terminal of the output capacitor , a third set of bondwires coupled between the second terminal of the output capacitor and a ground reference node , wherein the third set of bondwires is parallel to the first and second set of bondwires ; wherein a current flowing through the third set of bondwires is in an opposite direction with regards to currents flowing through the first and second sets of bondwires ; and wherein the first set of bondwires , the second set of bondwires , and the third set of bondwires have profiles configured to increase the electromagnetic coupling between the first and third sets of bondwires , to decrease the positive mutual inductance between the first and second sets of bondwires , and to decrease the electromagnetic coupling between the second and third sets of bondwires . a device substrate ; an input lead coupled to the device substrate ; an output lead coupled to the device substrate ; a transistor die coupled to the device substrate , wherein the transistor die includes a transistor, a transistor input terminal coupled to the input lead , and a transistor output terminal coupled to the output lead ; an output impedance matching circuit coupled to the output lead and the transistor output terminal , wherein the output impedance matching circuit includes a first set of bondwires coupled between the output lead and the transistor output terminal , an output capacitor including a first terminal and a second terminal, a second set of bondwires coupled between the transistor output terminal and the first terminal of the output capacitor , a third set of bondwires coupled between the second terminal of the output capacitor and a ground reference node , wherein the third set of bondwires is parallel to the first and second set of bondwires ; wherein a current flowing through the third set of bondwires is in an opposite direction with regards to currents flowing through the first and second sets of bondwires ; and wherein the first set of bondwires , the second set of bondwires , and the third set of bondwires have profiles configured to increase the electromagnetic coupling between the first and third sets of bondwires , to decrease the positive mutual inductance between the first and second sets of bondwires , and to decrease the electromagnetic coupling between the second and third sets of bondwires .
A stretching unit for transversely stretching elastic films , comprising first and second stretching devices each comprising first and second stretching members having respective outer edges provided with gripping elements configured for gripping corresponding edges of elastic films , wherein said first and second stretching members have respective first and second axes of rotation inclined with respect to each other, wherein said first and second stretching devices have respective gripping zones and respective release zones , and wherein the release zones of the first and second stretching devices are aligned to each other along a common transverse release line , wherein the first and second stretching devices are arranged on opposite sides of a central plane orthogonal to said common transverse release line , and wherein each of said first and second stretching devices comprises a respective driving assembly configured for driving the respective first and second stretching members in rotation about the respective axes of rotation , wherein the driving assembly of each of said first and second stretching devices extends on only one side with respect to said central plane . wherein said first and second stretching members have respective first and second axes of rotation inclined with respect to each other, wherein said first and second stretching devices have respective gripping zones and respective release zones , and wherein the release zones of the first and second stretching devices are aligned to each other along a common transverse release line , wherein the first and second stretching devices are arranged on opposite sides of a central plane orthogonal to said common transverse release line , and wherein each of said first and second stretching devices comprises a respective driving assembly configured for driving the respective first and second stretching members in rotation about the respective axes of rotation , wherein the driving assembly of each of said first and second stretching devices extends on only one side with respect to said central plane .
A camera module comprising: a lens part ; a front body configured to receive the lens part ; a rear body coupled to the front body ; a substrate part received within the rear body and comprising a plurality of printed circuit boards; a cable conductively connected to the substrate part ; a connector part disposed in the rear body and configured to connect the cable to the substrate part ; wherein the connector part comprises a first connector coupled to the substrate part and a second connector and a first shielding part disposed between the rear body and the second connector and formed of a conductive material, wherein the second connector is provided with one side coupled to the first connector and another side coupled to the first shielding part , and wherein an inner wall of the rear body contacting the first shielding part is coated with a conductive material, a holder coupled to the rear body , the cable passing through the holder ; and a second shielding part formed of a conductive material and arranged between the rear body and the holder to shield the electromagnetic noise generated from the substrate part or the outside. a lens part ; a front body configured to receive the lens part ; a rear body coupled to the front body ; a substrate part received within the rear body and comprising a plurality of printed circuit boards; a cable conductively connected to the substrate part ; a connector part disposed in the rear body and configured to connect the cable to the substrate part ; wherein the connector part comprises a first connector coupled to the substrate part and a second connector and a first shielding part disposed between the rear body and the second connector and formed of a conductive material, wherein the second connector is provided with one side coupled to the first connector and another side coupled to the first shielding part , and wherein an inner wall of the rear body contacting the first shielding part is coated with a conductive material, a holder coupled to the rear body , the cable passing through the holder ; and a second shielding part formed of a conductive material and arranged between the rear body and the holder to shield the electromagnetic noise generated from the substrate part or the outside.
A wound treatment apparatus comprising: a wound dressing comprising: a cover layer comprising an aperture; and an absorbent layer positioned beneath the cover layer, the absorbent layer having a thickness; a fluidic connector configured to provide negative pressure to the wound dressing through the aperture in the cover layer; and a three-dimensional filter element configured to prevent wound exudate from exiting the wound dressing through the aperture of the cover layer when negative pressure is provided to the wound dressing wherein the filter element is impermeable to liquids, but permeable to gases, wherein the three-dimensional filter element has a thickness greater than 1mm. a wound dressing comprising: a cover layer comprising an aperture; and an absorbent layer positioned beneath the cover layer, the absorbent layer having a thickness; a cover layer comprising an aperture; and an absorbent layer positioned beneath the cover layer, the absorbent layer having a thickness; a fluidic connector configured to provide negative pressure to the wound dressing through the aperture in the cover layer; and a three-dimensional filter element configured to prevent wound exudate from exiting the wound dressing through the aperture of the cover layer when negative pressure is provided to the wound dressing wherein the filter element is impermeable to liquids, but permeable to gases, wherein the three-dimensional filter element has a thickness greater than 1mm.
A compound selected from formula I and II: in which: R 1 is selected from: R 2 and R 3 together with the nitrogen to which both R 2 and R 3 are attached form a ring selected from piperidinyl, piperazinyl, 2-oxa-8-azaspiro[4.5]decan-8-yl, 8-azaspiro[4.5]decan-8-yl and pyrrolidinyl; wherein said pyrrolidinyl, piperazinyl, 2-oxa-8-azaspiro[4.5]decan-8-yl, 8-azaspiro[4.5]decan-8-yl or piperidinyl is unsubstituted or substituted with 1 to 3 groups independently selected from amino, methyl, ethyl, aminomethyl, methyl-amino, hydroxyl, cyano, fluoro-methyl, fluoro and ((((5-methyl-2-oxo-1,3-dioxol-4-yl)methoxy)carbonyl)amino)methyl; R 4 is selected from hydroxyl, C 1-3 alkoxy and OC(O)C 1-3 alkyl; R 5 is selected from H and methyl; R 6 is selected from hydrogen, methyl and phenyl; R 7 is selected from hydrogen, methyl, ethyl, phenyl and benzyl; R 8 is selected from hydrogen and methyl; Y 1 is selected from N and CH; Y 2 is selected from N and CH; Y 3 is selected from NH and CH 2 ; Y 4 is selected from N and CH; Y 5 is selected from N and CH; or a pharmaceutically acceptable salt thereof. R 1 is selected from: R 2 and R 3 together with the nitrogen to which both R 2 and R 3 are attached form a ring selected from piperidinyl, piperazinyl, 2-oxa-8-azaspiro[4.5]decan-8-yl, 8-azaspiro[4.5]decan-8-yl and pyrrolidinyl; wherein said pyrrolidinyl, piperazinyl, 2-oxa-8-azaspiro[4.5]decan-8-yl, 8-azaspiro[4.5]decan-8-yl or piperidinyl is unsubstituted or substituted with 1 to 3 groups independently selected from amino, methyl, ethyl, aminomethyl, methyl-amino, hydroxyl, cyano, fluoro-methyl, fluoro and ((((5-methyl-2-oxo-1,3-dioxol-4-yl)methoxy)carbonyl)amino)methyl; R 4 is selected from hydroxyl, C 1-3 alkoxy and OC(O)C 1-3 alkyl; R 5 is selected from H and methyl; R 6 is selected from hydrogen, methyl and phenyl; R 7 is selected from hydrogen, methyl, ethyl, phenyl and benzyl; R 8 is selected from hydrogen and methyl; Y 1 is selected from N and CH; Y 2 is selected from N and CH; Y 3 is selected from NH and CH 2 ; Y 4 is selected from N and CH; Y 5 is selected from N and CH; or a pharmaceutically acceptable salt thereof.
An apparatus for optical inspection of objects comprising: - a conveyor configured to transport the objects in succession, each object having a bottom wall , which rests on the conveyor , and a side wall extending round a respective axis (A2); - an inspection station , disposed along the conveyor and configured to receive an object to be inspected oriented with its axis (A2) along a longitudinal direction (L); the inspection station including at least one camera , directed at the object to be inspected, to capture an image of the side wall of the object to be inspected; - an illuminator mounted above the inspection station along the longitudinal direction (L) to emit a beam of light rays towards the conveyor ; - a collimator, interposed between the conveyor and the illuminator , to receive the beam of light rays, and configured to transmit a corresponding beam of collimated rays along the longitudinal direction (L); - a focalizer, interposed between the conveyor and the collimator, to receive the beam of collimated rays, and configured to make the light rays converge on the side wall of the object to be inspected, characterized in that the focalizer includes a plurality of lens portions which have respective focuses (F1, F2 F3, F4, F5) positioned on respective focal planes (P1, P2, P3, P4, P5) which are offset along the longitudinal direction (L). - a conveyor configured to transport the objects in succession, each object having a bottom wall , which rests on the conveyor , and a side wall extending round a respective axis (A2); - an inspection station , disposed along the conveyor and configured to receive an object to be inspected oriented with its axis (A2) along a longitudinal direction (L); the inspection station including at least one camera , directed at the object to be inspected, to capture an image of the side wall of the object to be inspected; - an illuminator mounted above the inspection station along the longitudinal direction (L) to emit a beam of light rays towards the conveyor ; - a collimator, interposed between the conveyor and the illuminator , to receive the beam of light rays, and configured to transmit a corresponding beam of collimated rays along the longitudinal direction (L); - a focalizer, interposed between the conveyor and the collimator, to receive the beam of collimated rays, and configured to make the light rays converge on the side wall of the object to be inspected,