mhurhangee/ep-ind-claims huggingface dataset:
Method for detecting a flying object equipped with surface elements made of metamaterials or "Frequency Selective Surfaces" materials, wherein a transmission pulse is transmitted by a transmitting antenna, wherein a check is carried out as to whether the transmission pulse is scattered at the flying object, wherein in the event of backscattering by controlling the surface elements a radar pulse having a modified signal is backscattered, characterized in that two receive signals are received by two receiving antennas (10a, 10b), wherein the two receiving antennas are placed close to each other and form a twin antenna, wherein the receive signals are sampled and samples n=1..N of the receive signals are generated, wherein A(n) describes a random variable of the noise signal voltage of the nth sample, wherein B(n) describes a random variable of the noise signal voltage of the nth sample, wherein C(n) describes a random variable of the radar pulse of the nth sample scattered at the flying object, wherein the random variables of the receive signals A(n)+C(n) or B(n)+C(n) each have a noise component A(n) or B(n) and in the event of backscattering each have an additional signal component C(n) influenced by the surface elements, wherein the samples of the random variables of the receive signals are initially multiplied and the multiplied samples are summed over a sliding time window and a signal is determined, wherein an expected value E S = ∑ n = 1 N E C n 2 + E C n ⋅ B n + E A n ⋅ C n + E A n ⋅ B n is determined, wherein the expected value E is compared with a threshold value, wherein it is ascertained whether or not a common signal is present in the two receive signals.
A system for focal point location, the system comprising: a plurality of inputs; a first converter configured to convert at least a first portion (2010.1, 2010.2) of the plurality of inputs into spatial ECG feature vectors; a second converter configured to convert at least a second portion (2010.3) of the plurality of inputs into spatial shape representations; a neural network configured to operate on the spatial ECG feature vectors and the spatial shape representations to produce a plurality of outputs. a plurality of inputs; a first converter configured to convert at least a first portion (2010.1, 2010.2) of the plurality of inputs into spatial ECG feature vectors; a second converter configured to convert at least a second portion (2010.3) of the plurality of inputs into spatial shape representations; a neural network configured to operate on the spatial ECG feature vectors and the spatial shape representations to produce a plurality of outputs.
An aircraft rudder pedal comprising a frame, a pair of pedals, an output shaft and a mechanical kinematic chain for transmitting to the output shaft a displacement of at least one of the pedals relative to the frame; wherein the mechanical kinematic chain comprises at least one central transmission part, the central transmission part being able to be rotated relative to the frame by a displacement of at least one of the pedals relative to the frame, the mechanical kinematic chain also comprising a transmission mechanism joining the central transmission part to the output shaft, characterized in that the transmission mechanism comprises at least one homokinetic association of two universal joints between said central transmission part and the output shaft.
Apparatus for generating a decorrelation signal using an input signal, comprising: a subband filterbank for providing a plurality of subband signals, wherein a subband signal includes a sequence of at least two subband samples, the sequence of the subband samples representing a bandwidth of the subband signal, which is smaller than a bandwidth of the input signal, wherein the subband filterbank comprises a complex exponential modulated filterbank; and a reverberation filter to obtain a plurality of reverberated subband signals from the plurality of subband signals, the reverberation filter being operative to apply a delay to each subband signal, wherein a delay for a subband signal comprises a fractional delay, and being adapted to have different sets of filter coefficients for each subband signal, wherein the reverberation filter comprises an infinite impulse response filter, wherein the decorrelation signal comprises the plurality of reverberated subband signals. a subband filterbank for providing a plurality of subband signals, wherein a subband signal includes a sequence of at least two subband samples, the sequence of the subband samples representing a bandwidth of the subband signal, which is smaller than a bandwidth of the input signal, wherein the subband filterbank comprises a complex exponential modulated filterbank; and a reverberation filter to obtain a plurality of reverberated subband signals from the plurality of subband signals, the reverberation filter being operative to apply a delay to each subband signal, wherein a delay for a subband signal comprises a fractional delay, and being adapted to have different sets of filter coefficients for each subband signal, wherein the reverberation filter comprises an infinite impulse response filter, wherein the decorrelation signal comprises the plurality of reverberated subband signals.
A compound selected from the group consisting of: Example Structure Name 1 -1-(5-((2,3-dihydro-[1,4]dioxino[2,3-b]pyridin-7-yl)sulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-phenylpropan-1-one 3 -1-(5-((2,3-dihydro-[1,4]dioxino[2,3-b]pyridin-7-yl)sulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-(pyridin-2-yl)propan-1-one 26 (2S,3R and 2R,3S)-1-(5-((4-(difluoromethoxy)phenyl)sulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-phenylbutan-1-one 27 (2R,3R and 2S,3S)-1-(5-((4-(difluoromethoxy)phenyl)sulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-phenylbutan-1-one 29 -1-(5-(benzo[d]thiazol-6-ylsulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-phenylpropan-1-one 31 -1-(5-((4-(difluoromethoxy)phenyl)sulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-phenylpropan-1-one 37 1-(5-((3,4-dihydro-2H-benzo[b][1,4]oxazin-6-yl)sulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2,2-dimethylpropan-1-one 41 -1-(5-((4-(difluoromethoxy)phenyl)sulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-(pyridin-2-yl)propan-1-one 48 1-(5-(benzo[d]thiazol-6-ylsulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-phenylpropan-1-one 49 1-(5-((4-(difluoromethoxy)phenyl)sulfonyl)-3,4,5,6-tetrahydropyrrolo[3,4-c]pyrrol-2 -yl)-3-hydroxy-2-phenylpropan-1-one 51 -3-hydroxy-2-phenyl-1-[5-(pyridine-2-sulfonyl)- 1H,2H,3H,4H,5H,6H-pyrrolo[3,4-c]pyrrol-2-yl]propan-1-one or a pharmaceutically acceptable salt thereof.
A heat exchanger, in particular for use in a conditioning plant, comprising: - a primary tube bundle, inside which, in use a first "hot" operating fluid to be cooled down flows; and - a skirt, circumscribed to said primary tube bundle and apt to receive a second "cold" operating fluid which, in use, laps against said primary tube bundle, by subtracting heat to said first operating fluid and evaporating, wherein said primary tube bundle extends transversally, namely horizontally, inside said skirt and said second operating fluid, in use, flows inside said skirt, like ascending vapour, characterized in that said second operating fluid flows, in use, according to a longitudinal direction, being a vertical direction, of the skirt itself orthogonal to the development of the tubes of said primary tube bundle, wherein - said skirt has a prevalent development dimension ( l) along said longitudinal direction, and - the whole configuration is so that A/B > 0.4 - 0.45, preferably A/B > 0.6, and C/B < 0.3 wherein: A is an enveloping area of said primary tube bundle on a longitudinal plane orthogonal to a prevalent extension direction of the tubes of said bundle (plane xz); B is an overall area of a inner compartment of said skirt receiving said primary tube bundle on an extension transversal plane of said tubes (plane xy); and C is a residual area comprised in the area B and without the overall dimension area of the tubes of said tube bundle, that is the really free area for the passage of vapour of the second operating fluid. - a primary tube bundle, inside which, in use a first "hot" operating fluid to be cooled down flows; and - a skirt, circumscribed to said primary tube bundle and apt to receive a second "cold" operating fluid which, in use, laps against said primary tube bundle, by subtracting heat to said first operating fluid and evaporating, wherein said primary tube bundle extends transversally, namely horizontally, inside said skirt and said second operating fluid, in use, flows inside said skirt, like ascending vapour, characterized in that said second operating fluid flows, in use, according to a longitudinal direction, being a vertical direction, of the skirt itself orthogonal to the development of the tubes of said primary tube bundle, wherein - said skirt has a prevalent development dimension ( l) along said longitudinal direction, and - the whole configuration is so that A/B > 0.4 - 0.45, preferably A/B > 0.6, and C/B < 0.3
Computer-implemented method for generating a prediction model for use in processing machine event data to predict the behavior of industrial machines under supervision, for determining current and future states, the method comprising: receiving an event log with a plurality of event representations of particular events that occurred during operation of a particular industrial machine (110, 210) during an observation time interval, wherein the particular industrial machine (110, 210) and the industrial machines under supervision have common properties, wherein the event representations comprise time stamps and event codes; obtaining event features (Fn) from the event representations and combining the event features into feature vectors (V, V, V), thereby using processing techniques of a first group; clustering the feature vectors (V, V, V) to a plurality of vector clusters (C1, C2) by using processing techniques of a second group, thereby assigning the vector clusters (C1, C2) to machine states (S1, S2, S3); identifying state transition probabilities between the machine states (S1, S2, S3); and providing the prediction model adapted to receive event representations as input, from an industrial machine under supervision, and adapted to provide state transition probabilities as output, to the industrial machine under supervision, the method characterized in that providing the prediction model having event codes as input and having state transition probabilities as output comprises a further step of interacting with an expert human user for receiving a semantic meaning in relation to event codes and to machine states, and adding the semantic to the states in the model. receiving an event log with a plurality of event representations of particular events that occurred during operation of a particular industrial machine (110, 210) during an observation time interval, wherein the particular industrial machine (110, 210) and the industrial machines under supervision have common properties, wherein the event representations comprise time stamps and event codes; obtaining event features (Fn) from the event representations and combining the event features into feature vectors (V, V, V), thereby using processing techniques of a first group; clustering the feature vectors (V, V, V) to a plurality of vector clusters (C1, C2) by using processing techniques of a second group, thereby assigning the vector clusters (C1, C2) to machine states (S1, S2, S3); identifying state transition probabilities between the machine states (S1, S2, S3); and providing the prediction model adapted to receive event representations as input, from an industrial machine under supervision, and adapted to provide state transition probabilities as output, to the industrial machine under supervision, the method characterized in that providing the prediction model having event codes as input and having state transition probabilities as output comprises a further step of interacting with an expert human user for receiving a semantic meaning in relation to event codes and to machine states, and adding the semantic to the states in the model.
A user equipment device, comprising: a radio transceiver for providing an air interface for communicating with an evolved node B (eNB) and for device-to-device (D2D) communications; and processing circuitry connected to the radio transceiver to: receive allocations of time-frequency resources for D2D communications from the eNB; establish a D2D communications session with a second UE and exchange D2D power control parameters with the second UE that include a closed-loop power control function P D2D,CLPC; receive an open-loop power control function P D2D, OLPC via the air interface for controlling transmission power during D2D communications; maintain a transmission power during D2D transmissions as a function of the open-loop and closed-loop power control functions where the transmission power P D2D (i) for each subframe i is calculated as: P D 2 D i = min P D 2 D, MAX, P D 2 D, OLPC i + P D 2 D, CLPC i where P D2D,MAX is a maximum allowed transmission power during D2D communications. a radio transceiver for providing an air interface for communicating with an evolved node B (eNB) and for device-to-device (D2D) communications; and processing circuitry connected to the radio transceiver to: receive allocations of time-frequency resources for D2D communications from the eNB; establish a D2D communications session with a second UE and exchange D2D power control parameters with the second UE that include a closed-loop power control function P D2D,CLPC; receive an open-loop power control function P D2D, OLPC via the air interface for controlling transmission power during D2D communications; maintain a transmission power during D2D transmissions as a function of the open-loop and closed-loop power control functions where the transmission power P D2D (i) for each subframe i is calculated as: P D 2 D i = min P D 2 D, MAX, P D 2 D, OLPC i + P D 2 D, CLPC i where P D2D,MAX is a maximum allowed transmission power during D2D communications. receive allocations of time-frequency resources for D2D communications from the eNB; establish a D2D communications session with a second UE and exchange D2D power control parameters with the second UE that include a closed-loop power control function P D2D,CLPC; receive an open-loop power control function P D2D, OLPC via the air interface for controlling transmission power during D2D communications; maintain a transmission power during D2D transmissions as a function of the open-loop and closed-loop power control functions where the transmission power P D2D (i) for each subframe i is calculated as: P D 2 D i = min P D 2 D, MAX, P D 2 D, OLPC i + P D 2 D, CLPC i where P D2D,MAX is a maximum allowed transmission power during D2D communications.
An elevator system comprising: an elevator car having a first elevator car door; and an audio orientation system, the audio orientation system comprising: an audio system controller; at least one first speaker (502', 502") positioned proximate the first elevator car door; and at least one second speaker (504', 504") positioned in the elevator car opposite the first elevator car door, wherein, when the first elevator car door opens, the audio system controller controls the at least one first speaker (502', 502") and the at least one second speaker (504', 504") such that an audio orientation output is generated at at least one of the speakers to indicate that the first elevator car door is open. characterized in that when a request is made at a landing (525a, 525b) of the elevator system and when the first elevator car door opens, the audio system controller controls the at least one second speaker (504', 504") to generate an audio orientation output indicating that the first elevator car door is open. an elevator car having a first elevator car door; and an audio orientation system, the audio orientation system comprising: an audio system controller; at least one first speaker (502', 502") positioned proximate the first elevator car door; and at least one second speaker (504', 504") positioned in the elevator car opposite the first elevator car door, wherein, when the first elevator car door opens, the audio system controller controls the at least one first speaker (502', 502") and the at least one second speaker (504', 504") such that an audio orientation output is generated at at least one of the speakers to indicate that the first elevator car door is open. an audio system controller; at least one first speaker (502', 502") positioned proximate the first elevator car door; and at least one second speaker (504', 504") positioned in the elevator car opposite the first elevator car door, wherein, when the first elevator car door opens, the audio system controller controls the at least one first speaker (502', 502") and the at least one second speaker (504', 504") such that an audio orientation output is generated at at least one of the speakers to indicate that the first elevator car door is open. characterized in that when a request is made at a landing (525a, 525b) of the elevator system and when the first elevator car door opens, the audio system controller controls the at least one second speaker (504', 504") to generate an audio orientation output indicating that the first elevator car door is open.
An anti-huLRRC15 antibody drug conjugate ("ADC") comprising an antimitotic agent linked to an anti-huLRRC15 antibody by way of a linker, wherein the ADC has a structure of formula (IIIa): wherein: n is an integer ranging from 2 to 8; Ab is an anti-huLRRC15 antibody comprising a V H chain comprising the sequence of SEQ ID NO:16; and a V L chain comprising the sequence of SEQ ID NO:17. n is an integer ranging from 2 to 8; Ab is an anti-huLRRC15 antibody comprising a V H chain comprising the sequence of SEQ ID NO:16; and a V L chain comprising the sequence of SEQ ID NO:17. a V H chain comprising the sequence of SEQ ID NO:16; and a V L chain comprising the sequence of SEQ ID NO:17.
An acoustic device, comprising: a touch panel configured to detect a user's touch operation; a display panel provided with the touch panel; a display control section configured to display a pointer movable by the touch operation on the display panel; a value setting section configured to set a parameter value based on the touch operation detected by the touch panel; and an output control section configured to process an inputted audio based on the parameter value set by the value setting section and output the processed audio, wherein the display control section is configured to display a boundary that defines the movable range of the pointer on the display panel, move the pointer in accordance with a moving direction (D1, D2) and a moving speed of a touch position from a start point, which is the touch position at the start of the touch operation on the touch panel, to an end point, which is the touch position at the end of the touch operation, and display the pointer reflected at the boundary in a case where the pointer is incident on the boundary, and the value setting section is configured to set the parameter value in accordance with the position of the pointer. a touch panel configured to detect a user's touch operation; a display panel provided with the touch panel; a display control section configured to display a pointer movable by the touch operation on the display panel; a value setting section configured to set a parameter value based on the touch operation detected by the touch panel; and an output control section configured to process an inputted audio based on the parameter value set by the value setting section and output the processed audio, wherein the display control section is configured to display a boundary that defines the movable range of the pointer on the display panel, move the pointer in accordance with a moving direction (D1, D2) and a moving speed of a touch position from a start point, which is the touch position at the start of the touch operation on the touch panel, to an end point, which is the touch position at the end of the touch operation, and display the pointer reflected at the boundary in a case where the pointer is incident on the boundary, and display a boundary that defines the movable range of the pointer on the display panel, move the pointer in accordance with a moving direction (D1, D2) and a moving speed of a touch position from a start point, which is the touch position at the start of the touch operation on the touch panel, to an end point, which is the touch position at the end of the touch operation, and display the pointer reflected at the boundary in a case where the pointer is incident on the boundary, and the value setting section is configured to set the parameter value in accordance with the position of the pointer.
A coated stainless-steel substrate comprising a coating comprising nanographites and a binder being sodium silicate, wherein the stainless-steel substrate has the following composition in weight percent: C ≤ 1.2 %, Cr ≥ 11.0 %, Ni ≥ 8.0 % and on a purely optional basis, one or more elements such as Nb ≤ 6.0 %, B ≤ 1.0 %, Ti ≤ 3.0 %, Cu ≤ 5.0 %, Co ≤ 3.0 %, N ≤ 1.0 %, V ≤ 3.0 %, Si ≤ 4.0 %, Mn ≤ 5.0 %, P ≤ 0.5 %, S ≤ 0.5 %, Mo ≤ 6.0 %, Ce ≤ 1.0 %, the remainder of the composition being made of iron and inevitable impurities resulting from the elaboration.
A sole structure for an article of footwear having an upper, the sole structure comprising: an outsole having a ground-engaging surface and an upper surface formed on an opposite side of the outsole than the ground-engaging surface; a midsole having an upper portion and a lower portion, the lower portion attached to the outsole and including a first segment extending from a forefoot region of the upper portion in a direction toward a heel region of the upper portion and a second segment extending from the heel region of the upper portion in a direction toward the forefoot region of the upper portion and spaced apart from the first segment along a longitudinal axis of the midsole by a gap; at least one plate extending from the midsole into the gap; and a cushion disposed in the gap of the midsole and joined to the plate, characterized in that the plate is embedded within a material of the midsole, wherein a portion of the midsole extends between the plate and the upper and another portion of the midsole extends between the plate and the outsole. an outsole having a ground-engaging surface and an upper surface formed on an opposite side of the outsole than the ground-engaging surface; a midsole having an upper portion and a lower portion, the lower portion attached to the outsole and including a first segment extending from a forefoot region of the upper portion in a direction toward a heel region of the upper portion and a second segment extending from the heel region of the upper portion in a direction toward the forefoot region of the upper portion and spaced apart from the first segment along a longitudinal axis of the midsole by a gap; at least one plate extending from the midsole into the gap; and a cushion disposed in the gap of the midsole and joined to the plate, characterized in that the plate is embedded within a material of the midsole, wherein a portion of the midsole extends between the plate and the upper and another portion of the midsole extends between the plate and the outsole.