mhurhangee/ep-ind-claims huggingface dataset:
A projectile launch detector, comprising: - a body arranged along a first axis; - a mast extending along the first axis, said mast comprising a first and a second end, respectively arranged inside and outside the body; and - a blade secured to the second end of the mast and extending radially relative to said mast, - said blade including: first and second opposite faces, parallel to the first axis; and an end surface, substantially perpendicular to the first axis and opposite the body; the mast being able to slide relative to the body along the first axis, between a retracted configuration and a deployed configuration, the blade being axially closer to the body in the retracted configuration than in the deployed configuration; the mast further being able to pivot relative to the body about the first axis, between a first and a second angular position; the detector further comprising: - a first elastic return element, returning said mast to the deployed configuration relative to the body; - a first sensor, able to determine whether the mast is in the retracted configuration or in the deployed configuration; - a second elastic return element, returning said mast to the first angular position relative to the body; and - a second sensor, able to determine whether the mast is in the first or the second angular position. - a body arranged along a first axis; - a mast extending along the first axis, said mast comprising a first and a second end, respectively arranged inside and outside the body; and - a blade secured to the second end of the mast and extending radially relative to said mast, - said blade including: first and second opposite faces, parallel to the first axis; and an end surface, substantially perpendicular to the first axis and opposite the body; the mast being able to slide relative to the body along the first axis, between a retracted configuration and a deployed configuration, the blade being axially closer to the body in the retracted configuration than in the deployed configuration; the mast further being able to pivot relative to the body about the first axis, between a first and a second angular position; the detector further comprising: - a first elastic return element, returning said mast to the deployed configuration relative to the body; - a first sensor, able to determine whether the mast is in the retracted configuration or in the deployed configuration; - a second elastic return element, returning said mast to the first angular position relative to the body; and - a second sensor, able to determine whether the mast is in the first or the second angular position. - a first elastic return element, returning said mast to the deployed configuration relative to the body; - a first sensor, able to determine whether the mast is in the retracted configuration or in the deployed configuration; - a second elastic return element, returning said mast to the first angular position relative to the body; and - a second sensor, able to determine whether the mast is in the first or the second angular position.
A haptic device comprising: a drum configured to rotate about an axis; a cord wound around the drum; a user-actuatable lever operatively coupled to the drum and configured to receive a user-actuation force that causes the user-actuatable lever to actuate and correspondingly the drum to rotate; a position sensor configured to determine a rotational position of the drum; and an actuator operatively coupled to the cord and configured to apply a tension to the cord that further applies friction to brake the drum to cause the user-actuatable lever to provide a user-perceived resistance that opposes the user-actuation force, and where the user-perceived resistance varies as a function of the rotational position of the drum, when the tension applied on the cord, Tioad, is greater than the minimum cord tension threshold, T h o l d, the cord does not slip on the drum providing static friction and when the tension applied on the cord, Tioad, is less than the minimum cord tension threshold, T h o l d, the cord slips on the drum providing dynamic friction. a drum configured to rotate about an axis; a cord wound around the drum; a user-actuatable lever operatively coupled to the drum and configured to receive a user-actuation force that causes the user-actuatable lever to actuate and correspondingly the drum to rotate; a position sensor configured to determine a rotational position of the drum; and an actuator operatively coupled to the cord and configured to apply a tension to the cord that further applies friction to brake the drum to cause the user-actuatable lever to provide a user-perceived resistance that opposes the user-actuation force, and where the user-perceived resistance varies as a function of the rotational position of the drum, when the tension applied on the cord, Tioad, is greater than the minimum cord tension threshold, T h o l d, the cord does not slip on the drum providing static friction and when the tension applied on the cord, Tioad, is less than the minimum cord tension threshold, T h o l d, the cord slips on the drum providing dynamic friction.
Air conditioning device (2, 2a) for the indoor installation in a storage, ripening or growing room, wherein the device comprises: a housing having a suction chamber and an outlet chamber, an air conveyer (10, 10a) arranged in the housing, wherein the air conveyor is adapted to convey air from the suction chamber to the outlet chamber, a heat exchanger system arranged in the housing or below the suction chamber, at least one air outlet opening (26, 50) arranged at the outlet chamber, and wherein the at least one air outlet opening (26, 50) comprises an air nozzle, in particular at least one pivotably mounted air nozzle, characterized in that a suction opening is provided between the at least one air nozzle and the associated opening in the wall of the housing, preferably a suction gap, and/or one or more lateral inlet openings or inlet gaps are provided at the air nozzle, through which the air flows from outside the air nozzle and from outside the housing into the air nozzle. a housing having a suction chamber and an outlet chamber, an air conveyer (10, 10a) arranged in the housing, wherein the air conveyor is adapted to convey air from the suction chamber to the outlet chamber, a heat exchanger system arranged in the housing or below the suction chamber, at least one air outlet opening (26, 50) arranged at the outlet chamber, and wherein the at least one air outlet opening (26, 50) comprises an air nozzle, in particular at least one pivotably mounted air nozzle, characterized in that a suction opening is provided between the at least one air nozzle and the associated opening in the wall of the housing, preferably a suction gap, and/or one or more lateral inlet openings or inlet gaps are provided at the air nozzle, through which the air flows from outside the air nozzle and from outside the housing into the air nozzle.
A MESFET, comprising: an active region comprising a channel; a source electrode, drain electrode, and gate all in electrical contact with said active region with said gate between said source and drain electrodes on said active region; a spacer layer over at least a portion of said active region between said gate and said drain electrode; and a field plate on said spacer layer and isolated thereby from said active region and gate, said field plate extending on said spacer layer a distance L f as measured from the edge of said gate to said drain electrode, wherein first portions of said field plate extend beyond the channel on both sides, in the width direction of the channel, such that at least one conductive path electrically connecting said field plate to the source electrode comprises one of said portions; wherein first portions of said gate extend beyond the channel, on both sides, in the width direction of the channel, and, wherein said at least one conductive path is not directly over said active region. an active region comprising a channel; a source electrode, drain electrode, and gate all in electrical contact with said active region with said gate between said source and drain electrodes on said active region; a spacer layer over at least a portion of said active region between said gate and said drain electrode; and a field plate on said spacer layer and isolated thereby from said active region and gate, said field plate extending on said spacer layer a distance L f as measured from the edge of said gate to said drain electrode, wherein first portions of said field plate extend beyond the channel on both sides, in the width direction of the channel, such that at least one conductive path electrically connecting said field plate to the source electrode comprises one of said portions;
Method for sorting wafers obtained by cutting a Czochralski-type monocrystalline silicon ingot, the method being carried out when the wafers are in an as-cut state or in a surface-shaped state and comprising the following steps: a) measuring the majority free charge carrier concentration (n 0, p 0) in at least one area of each wafer; b) calculating the thermal donor concentration () in said area of each wafer from the majority free charge carrier concentration (n 0, p 0); c) calculating the thermal donors-limited lifetime (τ DT) of the charge carriers in said area of each wafer, from the thermal donor concentration (); d) determining a bulk lifetime value (τ bulk) of the charge carriers in each wafer, from the thermal donors-limited lifetime (τ DT); e) comparing the bulk lifetime value (τ bulk) or a normalised value of the bulk lifetime with a threshold value (τ lim); and f) discarding the wafer when the bulk lifetime value (τ eff) or the normalised value of the bulk lifetime is lower than a threshold value (τ lim). a) measuring the majority free charge carrier concentration (n 0, p 0) in at least one area of each wafer; b) calculating the thermal donor concentration () in said area of each wafer from the majority free charge carrier concentration (n 0, p 0); c) calculating the thermal donors-limited lifetime (τ DT) of the charge carriers in said area of each wafer, from the thermal donor concentration (); d) determining a bulk lifetime value (τ bulk) of the charge carriers in each wafer, from the thermal donors-limited lifetime (τ DT); e) comparing the bulk lifetime value (τ bulk) or a normalised value of the bulk lifetime with a threshold value (τ lim); and f) discarding the wafer when the bulk lifetime value (τ eff) or the normalised value of the bulk lifetime is lower than a threshold value (τ lim).
A system (100, 200, 300), comprising: a lighting unit (120, 220, 320), including, a lighting driver (240, 340), and a lighting module (250, 350) configured to be supplied with power by the lighting driver, the lighting module including, one or more light sources (252-1/252-2, 352-1/352-2), one or more sensors (254, 354) configured to sense data indicating one or more operating parameters of the lighting module, and a secondary processor (156, 256, 356) configured to receive the sensed data indicating the one or more operating parameters of the lighting module; and a primary processor (110, 210, 310) configured to use the sensed data to monitor the one or more operating parameters of the lighting module, characterised in that the primary processor and the secondary processor are configured to communicate with each other according to a symmetrical message-based communication protocol, wherein each message communicated between the primary processor and the secondary processor has an identical message format and includes a command field and a response field, wherein the response field is provided for indicating a response that is expected to a command included in the command field. a lighting unit (120, 220, 320), including, a lighting driver (240, 340), and a lighting module (250, 350) configured to be supplied with power by the lighting driver, the lighting module including, one or more light sources (252-1/252-2, 352-1/352-2), one or more sensors (254, 354) configured to sense data indicating one or more operating parameters of the lighting module, and a secondary processor (156, 256, 356) configured to receive the sensed data indicating the one or more operating parameters of the lighting module; and a lighting driver (240, 340), and a lighting module (250, 350) configured to be supplied with power by the lighting driver, the lighting module including, one or more light sources (252-1/252-2, 352-1/352-2), one or more sensors (254, 354) configured to sense data indicating one or more operating parameters of the lighting module, and a secondary processor (156, 256, 356) configured to receive the sensed data indicating the one or more operating parameters of the lighting module; and one or more light sources (252-1/252-2, 352-1/352-2), one or more sensors (254, 354) configured to sense data indicating one or more operating parameters of the lighting module, and a secondary processor (156, 256, 356) configured to receive the sensed data indicating the one or more operating parameters of the lighting module; and a primary processor (110, 210, 310) configured to use the sensed data to monitor the one or more operating parameters of the lighting module, characterised in that the primary processor and the secondary processor are configured to communicate with each other according to a symmetrical message-based communication protocol, wherein each message communicated between the primary processor and the secondary processor has an identical message format and includes a command field and a response field, wherein the response field is provided for indicating a response that is expected to a command included in the command field.
A compound of formula Wherein Z denotes a group wherein X is CH or N, Y is CH or N, Ra, Rc, R1 denote each independently H, Hal or A1, Rb is H or alkyl A1 1 is branched or linear alkyl having 1 to 12 C-atoms, wherein one or more, such as 1 to 7, H atoms may be replaced by Hal, ORb, COORb, CN or N(Rb) 2 and wherein one or more, preferably 1 to 5 CH 2 -groups may be replaced by O, CO, NRb or S, SO, SO 2, 1,2-, 1,3- or 1,4-phenylen, -CH=CH- or -C≡C-, and Hal denotes F, Cl, Br, I and pharmaceutically usable solvates, salts and stereoisomers thereof, including mixtures thereof in all ratios. Z denotes a group wherein X is CH or N, Y is CH or N, Ra, Rc, R1 denote each independently H, Hal or A1, Rb is H or alkyl A1 1 is branched or linear alkyl having 1 to 12 C-atoms, wherein one or more, such as 1 to 7, H atoms may be replaced by Hal, ORb, COORb, CN or N(Rb) 2 and wherein one or more, preferably 1 to 5 CH 2 -groups may be replaced by O, CO, NRb or S, SO, SO 2, 1,2-, 1,3- or 1,4-phenylen, -CH=CH- or -C≡C-, and Hal denotes F, Cl, Br, I and pharmaceutically usable solvates, salts and stereoisomers thereof, including mixtures thereof in all ratios. X is CH or N, Y is CH or N, Ra, Rc, R1 denote each independently H, Hal or A1, Rb is H or alkyl A1 1 is branched or linear alkyl having 1 to 12 C-atoms, wherein one or more, such as 1 to 7, H atoms may be replaced by Hal, ORb, COORb, CN or N(Rb) 2 and wherein one or more, preferably 1 to 5 CH 2 -groups may be replaced by O, CO, NRb or S, SO, SO 2, 1,2-, 1,3- or 1,4-phenylen, -CH=CH- or -C≡C-, and Hal denotes F, Cl, Br, I and pharmaceutically usable solvates, salts and stereoisomers thereof, including mixtures thereof in all ratios. Ra, Rc, R1 denote each independently H, Hal or A1, Rb is H or alkyl A1 1 is branched or linear alkyl having 1 to 12 C-atoms, wherein one or more, such as 1 to 7, H atoms may be replaced by Hal, ORb, COORb, CN or N(Rb) 2 and wherein one or more, preferably 1 to 5 CH 2 -groups may be replaced by O, CO, NRb or S, SO, SO 2, 1,2-, 1,3- or 1,4-phenylen, -CH=CH- or -C≡C-, Hal denotes F, Cl, Br, I and pharmaceutically usable solvates, salts and stereoisomers thereof, including mixtures thereof in all ratios.
A conditioned medium comprising: a culture medium conditioned by a plurality of mesenchymal stem cells, wherein the conditioned medium contains: (a) at least 4000 pg/ml of VEGF and (b) at least 500 pg/ml of GRO/KC.
Filled polyamide moulding compounds made of A) 35 - 80% by weight of a polymer mixture forming a polyamide matrix containing A1) 55 to 85% by weight of an aliphatic polyamide selected from the group PA6, PA46, PA66, PA610, PA612, PA6/12, PA1010, PA11, PA12, PA1012, PA1212 and/or mixtures and/or copolyamides hereof, and A2) 15 to 45% by weight of a polyamide selected from MACM10-18, PACM10-18, MACMI, MACMT, MXDI, MXD6, 6I, 6T, 6I/6T and/or mixtures and/or copolyamides hereof. B) 20 to 65% by weight of a long glass fibre in the form of endless strands (rovings) with non-circular cross-sectional area and a dimensional ratio of the main cross-sectional axis to the subsidiary cross-sectional axis of 2 to 8. C) up to 30% by weight of particle and/or layer-shaped fillers, and D) up to 5% by weight additives. A) 35 - 80% by weight of a polymer mixture forming a polyamide matrix containing A1) 55 to 85% by weight of an aliphatic polyamide selected from the group PA6, PA46, PA66, PA610, PA612, PA6/12, PA1010, PA11, PA12, PA1012, PA1212 and/or mixtures and/or copolyamides hereof, and A2) 15 to 45% by weight of a polyamide selected from MACM10-18, PACM10-18, MACMI, MACMT, MXDI, MXD6, 6I, 6T, 6I/6T and/or mixtures and/or copolyamides hereof. A1) 55 to 85% by weight of an aliphatic polyamide selected from the group PA6, PA46, PA66, PA610, PA612, PA6/12, PA1010, PA11, PA12, PA1012, PA1212 and/or mixtures and/or copolyamides hereof, and A2) 15 to 45% by weight of a polyamide selected from MACM10-18, PACM10-18, MACMI, MACMT, MXDI, MXD6, 6I, 6T, 6I/6T and/or mixtures and/or copolyamides hereof. B) 20 to 65% by weight of a long glass fibre in the form of endless strands (rovings) with non-circular cross-sectional area and a dimensional ratio of the main cross-sectional axis to the subsidiary cross-sectional axis of 2 to 8. C) up to 30% by weight of particle and/or layer-shaped fillers, and D) up to 5% by weight additives.
An implantable ankle-prosthesis component, said component comprising a main body provided with a bone contact face that is intended to be arranged in contact with an area of a bone body (Ti, Ta) of an ankle and that extends along a median contact plane (Pc), said component comprising at least one anchoring means that protrudes from said bone contact face to anchor said component into said bone body (Ti, Ta), said component comprising two pairs (20A, 20B) of anchoring wings (21A, 22A, 21B, 22B), which each extend in a plane (P1, P2), respectively, between a first end (23A, 23B) connected to said bone contact face and an opposite second end (24A, 24B), said respective planes of extension (P1, P2) of the pairs (20A, 20B) of anchoring wings (21A, 22A, 21B, 22B) intersecting each other, said second ends (24A, 24B) of the pairs (20A, 20B) of anchoring wings (21A, 22A, 21B, 22B) being inscribed in a leading plane (Pa) inclined with respect to said median contact plane (Pc), characterized in that the planes (P1, P2) in which said pairs (20A, 20B) of anchoring wings (21A, 22A, 21B, 22B) extend are orthogonal to said median contact plane (Pc) of the bone contact face.
An apparatus for generating spectral replacement values for an audio signal comprising: a buffer unit for storing previous spectral values relating to a previously received error-free audio signal frame, and a concealment frame generator for generating the spectral replacement values when a current audio signal frame has not been received or is erroneous, wherein the previously received error-free audio signal frame comprises filter information, the filter information having associated a filter stability value indicating a stability of a prediction filter defined by the filter information, and wherein the concealment frame generator is adapted to generate the spectral replacement values based on the previous spectral values and based on the filter stability value. a buffer unit for storing previous spectral values relating to a previously received error-free audio signal frame, and a concealment frame generator for generating the spectral replacement values when a current audio signal frame has not been received or is erroneous, wherein the previously received error-free audio signal frame comprises filter information, the filter information having associated a filter stability value indicating a stability of a prediction filter defined by the filter information, and wherein the concealment frame generator is adapted to generate the spectral replacement values based on the previous spectral values and based on the filter stability value.
A skyrmion driving method that utilizes electric current to drive a skyrmion, the skyrmion driving method being characterized by: driving the skyrmion according to a driving amount (R(t)-R) proportional to a time integrated value of an electric current density j for a location R(t) of the skyrmion at a clock time t expressed by: R t − R 0 = η ∫ 0 t dt ′ j t ′ and a driving amount that is in accordance with a diffusive motion due to thermal fluctuation and decreases as a Gilbert attenuation constant decreases, where j(t) is an electric current density (Am -2) at a clock time t and η is a constant that associates an electric current density with a speed. and a driving amount that is in accordance with a diffusive motion due to thermal fluctuation and decreases as a Gilbert attenuation constant decreases, where j(t) is an electric current density (Am -2) at a clock time t and η is a constant that associates an electric current density with a speed.
A flexographic printing plate precursor for laser engraving comprising: a first resin layer formed from a composition containing a diene-based polymer; a second resin layer formed from a composition containing a diene-based polymer; and a support in this order, wherein a thickness of the first resin layer is equal to or less than 0.03 mm, and a ratio of the dynamic hardness of the first resin layer to the dynamic hardness of the second resin layer is equal to or less than 0.3. a first resin layer formed from a composition containing a diene-based polymer; a second resin layer formed from a composition containing a diene-based polymer; and a support in this order, wherein a thickness of the first resin layer is equal to or less than 0.03 mm, and a ratio of the dynamic hardness of the first resin layer to the dynamic hardness of the second resin layer is equal to or less than 0.3.