mhurhangee/patent-ind-claim-en huggingface dataset:
An article processing apparatus in which a plurality of hoppers are disposed in a circular shape and each of the plurality of hoppers causes an article received from an upstream side to temporarily stay and then discharges the article toward a discharge opening on a downstream side, wherein each of the hoppers includes: a body portion ; a slide portion provided on a downstream side of the body portion , and having a slide surface extending continuously from the body portion ; and a gate provided on the body portion to switch between a first state where the gate causes the article to stay in the body portion and a second state where the gate releases the staying of the article to cause the article to slide down from the body portion , and characterised in that the article processing apparatus comprises a chute disposed around the discharge opening in a state where the chute is separate from the hoppers by a space where the slide surface does not exist in a vertical direction and the slide portion has a length or an angle with respect to a horizontal direction of a path along which the article slides down the slide surface , takes off from a downstream end portion of the slide portion , freely falls in the space where the slide surface does not exist, and then reaches the discharge opening , in the second state. each of the hoppers includes: a body portion ; a slide portion provided on a downstream side of the body portion , and having a slide surface extending continuously from the body portion ; and a gate provided on the body portion to switch between a first state where the gate causes the article to stay in the body portion and a second state where the gate releases the staying of the article to cause the article to slide down from the body portion , and a body portion ; a slide portion provided on a downstream side of the body portion , and having a slide surface extending continuously from the body portion ; and a gate provided on the body portion to switch between a first state where the gate causes the article to stay in the body portion and a second state where the gate releases the staying of the article to cause the article to slide down from the body portion , and characterised in that the article processing apparatus comprises a chute disposed around the discharge opening in a state where the chute is separate from the hoppers by a space where the slide surface does not exist in a vertical direction and the slide portion has a length or an angle with respect to a horizontal direction of a path along which the article slides down the slide surface , takes off from a downstream end portion of the slide portion , freely falls in the space where the slide surface does not exist, and then reaches the discharge opening , in the second state.
An apparatus, comprising: a first secured processor; two or more secured applications embedded in the first secured processor, each of the secured applications associated with an artificial intelligence, AI, model; two or more first secured memories coupled to the first secured processor, each of the first secured memories configured to store an AI executable binary that is associated with a corresponding one of the AI models; a second secured processor coupled to the first secured memories, the second secured processor configured to execute the AI executable binaries stored in the first secured memories; a sub-system coupled to the second secured processor; and an AI session manager coupled to the sub-system and the secured applications, the AI session manager configured to receive from the sub-system an AI session that identifies one of the AI models, and prepare and store an AI executable binary associated with the AI model to one of the first secured memories that corresponds to the AI executable binary, wherein the sub-system triggers the second secured processor to execute the AI executable binary stored in the first secured memory. a first secured processor; two or more secured applications embedded in the first secured processor, each of the secured applications associated with an artificial intelligence, AI, model; two or more first secured memories coupled to the first secured processor, each of the first secured memories configured to store an AI executable binary that is associated with a corresponding one of the AI models; a second secured processor coupled to the first secured memories, the second secured processor configured to execute the AI executable binaries stored in the first secured memories; a sub-system coupled to the second secured processor; and an AI session manager coupled to the sub-system and the secured applications, the AI session manager configured to receive from the sub-system an AI session that identifies one of the AI models, and prepare and store an AI executable binary associated with the AI model to one of the first secured memories that corresponds to the AI executable binary, wherein the sub-system triggers the second secured processor to execute the AI executable binary stored in the first secured memory.
A method for performing a Hybrid Automatic Repeat Request, HARQ, transmission in a downlink of a 3GPP wireless communication network from a base station to at least one user equipment, comprising: performing (S502) a target number of HARQ transmissions according to an incremental redundancy version sequence; selecting (S504), for a second HARQ transmission, one of: an explicit modulation coding scheme and an implicit modulation coding scheme, when the target number of HARQ transmissions is two and a first received HARQ feedback is ambiguous; and performing (S510) a HARQ retransmission with an initial redundancy version immediately after the target number of HARQ transmissions have been performed; wherein the selecting of the explicit modulation coding scheme or the implicit modulation coding scheme comprises: - selecting (S506) the explicit modulation coding scheme if a coding rate or a modulation and coding scheme index for a first HARQ transmission or a second HARQ transmission is above a respective threshold value; and - selecting (S508) the implicit modulation coding scheme if a coding rate or a modulation and coding scheme for a first HARQ transmission or a second HARQ transmission is below the respective threshold value. performing (S502) a target number of HARQ transmissions according to an incremental redundancy version sequence; selecting (S504), for a second HARQ transmission, one of: an explicit modulation coding scheme and an implicit modulation coding scheme, when the target number of HARQ transmissions is two and a first received HARQ feedback is ambiguous; and performing (S510) a HARQ retransmission with an initial redundancy version immediately after the target number of HARQ transmissions have been performed; wherein the selecting of the explicit modulation coding scheme or the implicit modulation coding scheme comprises: - selecting (S506) the explicit modulation coding scheme if a coding rate or a modulation and coding scheme index for a first HARQ transmission or a second HARQ transmission is above a respective threshold value; and - selecting (S508) the implicit modulation coding scheme if a coding rate or a modulation and coding scheme for a first HARQ transmission or a second HARQ transmission is below the respective threshold value. - selecting (S506) the explicit modulation coding scheme if a coding rate or a modulation and coding scheme index for a first HARQ transmission or a second HARQ transmission is above a respective threshold value; and - selecting (S508) the implicit modulation coding scheme if a coding rate or a modulation and coding scheme for a first HARQ transmission or a second HARQ transmission is below the respective threshold value.
A pump assembly (GP) for recirculating a cooling fluid of a heat engine, comprising: - a pump body (CT), an impeller (PW) carried by a driven shaft (SH), adapted to be associated with a cooling circuit of the heat engine; - a pulley (PL) adapted to be dragged into rotation by the heat engine, - a first friction reversible clutch (C1), adapted to connect/disconnect said pulley to/from said driven shaft (SH), - an electric motor (EM) associated with said driven shaft (SH) for guiding the impeller (PW) into rotation, characterised in that it comprises - a planetary gear train (EPC) having a first inlet or outlet (R) operatively associated with said electric motor (EM), a second inlet or outlet (CR) associated with said driven shaft (SH) and a third outlet (RG), and - a second friction reversible clutch (C2), independent of said first reversible clutch (C1), adapted to block said third outlet with respect to said pump body (CT) . - a pump body (CT), an impeller (PW) carried by a driven shaft (SH), adapted to be associated with a cooling circuit of the heat engine; - a pulley (PL) adapted to be dragged into rotation by the heat engine, - a first friction reversible clutch (C1), adapted to connect/disconnect said pulley to/from said driven shaft (SH), - an electric motor (EM) associated with said driven shaft (SH) for guiding the impeller (PW) into rotation, characterised in that it comprises - a planetary gear train (EPC) having a first inlet or outlet (R) operatively associated with said electric motor (EM), a second inlet or outlet (CR) associated with said driven shaft (SH) and a third outlet (RG), and - a second friction reversible clutch (C2), independent of said first reversible clutch (C1), adapted to block said third outlet with respect to said pump body (CT) .
An item comprising a body which comprises a fiber composite structure incorporating at least one sensor (33a-n) for sensing a parameter and circuitry , wherein the fiber composite structure is formed of a plurality of structural layers or laminations (43a-e) which are each formed from a sheet which is impregnated with a graphene-containing resin, and wherein the at least one sensor (33a-n) and the circuitry are provided by patterned conductive regions having a conductive graphene resin in the laminations which are separated by non-conductive regions having a non-conductive graphene resin.
System comprising an optical line terminal OLT, a passive optical network port dynamic bandwidth allocation, PON port DBA, module and two PON path DBA modules, wherein the OLT comprises: a service processing module , configured to: when service congestion occurs, send a backpressure request message to the PON port DBA, module ; the PON port DBA module being configured to receive the backpressure request message from the service processing module , and perform backpressure on one of two PON path DBA modules with a lower priority according to a backpressure priority and send a backpressure indication signal to the one of two PON path DBA modules with the lower priority, wherein the PON path DBA modules are configured such that the one of two PON path DBA modules with the lower priority receives the backpressure indication signal, reduces uplink bandwidth; wherein the two PON path DBA modules comprise Gigabit-capable Passive Optical Network, GPON, path DBA module and Next Generation PON, NG-PON, path DBA module. a service processing module , configured to: when service congestion occurs, send a backpressure request message to the PON port DBA, module ; the PON port DBA module being configured to receive the backpressure request message from the service processing module , and perform backpressure on one of two PON path DBA modules with a lower priority according to a backpressure priority and send a backpressure indication signal to the one of two PON path DBA modules with the lower priority, wherein the PON path DBA modules are configured such that the one of two PON path DBA modules with the lower priority receives the backpressure indication signal, reduces uplink bandwidth; wherein the two PON path DBA modules comprise Gigabit-capable Passive Optical Network, GPON, path DBA module and Next Generation PON, NG-PON, path DBA module.
A process for converting invertebrates into an animal food or component of an animal food comprising: (a) perforating and extracting the invertebrates to provide a solid invertebrate component and a liquid invertebrate component, wherein the solid invertebrate component typically comprises the chitinous exoskeletion of the invertebrate and any residual protein and/or oil that has not been extracted; and the liquid invertebrate component typically comprises haemolymph, oils and residual chitin; (b) separating the solid invertebrate component from the liquid invertebrate component; (c) optionally separating the liquid invertebrate component into lipid and non-lipid fractions; (d) creating one or more growth media, wherein the growth media comprise or consist of the solid invertebrate component and, optionally, one or more additives; the liquid invertebrate component or a fraction thereof and, optionally, one or more additives; or the solid and liquid invertebrate component and, optionally, one or more additives; (e) subjecting one or more of the growth media to microbial fermentation; (f) inhibiting or terminating microbial fermentation; wherein microbial fermentation is carried out as a two or more step process. (a) perforating and extracting the invertebrates to provide a solid invertebrate component and a liquid invertebrate component, wherein the solid invertebrate component typically comprises the chitinous exoskeletion of the invertebrate and any residual protein and/or oil that has not been extracted; and the liquid invertebrate component typically comprises haemolymph, oils and residual chitin; (b) separating the solid invertebrate component from the liquid invertebrate component; (c) optionally separating the liquid invertebrate component into lipid and non-lipid fractions; (d) creating one or more growth media, wherein the growth media comprise or consist of the solid invertebrate component and, optionally, one or more additives; the liquid invertebrate component or a fraction thereof and, optionally, one or more additives; or the solid and liquid invertebrate component and, optionally, one or more additives; (e) subjecting one or more of the growth media to microbial fermentation; (f) inhibiting or terminating microbial fermentation;
Device for manufacturing a tube skirt from a flexible strip, comprising a frame, an elongated cylindrical mandrel 30, a means used to advance and guide this strip to place it in the form of a sleeve around the mandrel 30, one of the side edges of this strip overlapping the other side edge to form an overlap region to be welded, an internal heating means 32 located inside the mandrel 30 to heat the internal face of the overlap region, and an internal cooling means 33 located inside the mandrel 30 to cool the internal face of the overlap region and downstream from the internal heating means 32, characterised in that said cooling means 33 is arranged opposite the overlap region and configured to be in direct contact with the overlap region.
An oral care composition comprising silica in an amount from 6 to 40 wt.-%, based on the total weight of the composition, and a surface reacted calcium carbonate in an amount from 1 to 40 wt.-%, based on the total weight of the composition, wherein the surface-reacted calcium carbonate is a reaction product of natural or synthetic calcium carbonate with carbon dioxide and at least one H 3 O + -ion donor, and the surface-reacted calcium carbonate is in form of particles having a volume determined median particle size d 50 from 2 to 5 μm, having a volume determined top cut particle size d 98 from 4 to 15 μm, and a specific surface area from 55 to 110 m 2 /g, measured using nitrogen and the BET method according to ISO 9277.
A method of transmitting feedback information by a user equipment, the method comprising: calculating a first matrix by multiplying left and right sides of a covariance matrix related to a channel measured by the user equipment by Discrete Fourier Transform, DFT, matrixes, respectively; setting all off-diagonal elements of the first matrix to 0; calculating a second matrix by performing a first transformation of transforming the rest of elements except a prescribed number of large-sized elements among elements of the first matrix into 0 or a second transformation of transforming the rest of elements except elements exceeding a threshold value among the elements of the first matrix into 0; calculating a third matrix by quantizing non-zero elements of the second matrix; configuring a vector by selecting a specific part from the third matrix according to a predetermined pattern; configuring output bits calculated by multiplying the configured vector by a sensing matrix for compressed sensing; and transmitting the output bits to a base station. calculating a first matrix by multiplying left and right sides of a covariance matrix related to a channel measured by the user equipment by Discrete Fourier Transform, DFT, matrixes, respectively; setting all off-diagonal elements of the first matrix to 0; calculating a second matrix by performing a first transformation of transforming the rest of elements except a prescribed number of large-sized elements among elements of the first matrix into 0 or a second transformation of transforming the rest of elements except elements exceeding a threshold value among the elements of the first matrix into 0; calculating a third matrix by quantizing non-zero elements of the second matrix; configuring a vector by selecting a specific part from the third matrix according to a predetermined pattern; configuring output bits calculated by multiplying the configured vector by a sensing matrix for compressed sensing; and transmitting the output bits to a base station.
Optical structure comprising at least one stack comprising a central filter and two sandwiching optical elements between which said central filter is interposed, wherein said central filter is in a matrix material, said matrix material being doped with at least one doping agent, the central filter and the two optical elements on either side thereof being assembled by bonding layers of a material based on the same matrix material as that of the central filter, the optical elements on either side of the central filter and the bonding layers each having a refractive index equal to that of the material of the central filter or only differing from this refractive index within a range of plus or minus 0.05, preferably within a range of plus or minus 0.02.
Non-therapeutic use of a composition comprising oleuropein for reducing a loss of muscle functionality in an individual, increasing muscle functionality in an individual, and/or improving recovery of muscle functionality after muscle atrophy in an individual, the use comprising administering the composition to the individual.
A method of predicting tonal noise produced by a wind turbine, the method comprising: acquiring a first set of vibration data, the first set of vibration data being from a plurality of vibration sensors positioned at locations about a wind turbine drivetrain when the wind turbine drivetrain is undergoing testing in a test rig; acquiring a second set of vibration data, the second set of vibration data being from a plurality of vibration sensors positioned at locations about the same or a similar wind turbine drivetrain when located in a wind turbine; acquiring noise data including tonal noise produced by the wind turbine; identifying a vibration sensor of interest using vibration data of the second set of vibration data and the noise data; determining, for the identified vibration sensor, a first relationship between vibration data of the first set of vibration data and vibration data of the second set of vibration data; and determining, for the identified vibration sensor, a second relationship between the first set of vibration data and tonal noise produced by a wind turbine based on the first relationship. acquiring a first set of vibration data, the first set of vibration data being from a plurality of vibration sensors positioned at locations about a wind turbine drivetrain when the wind turbine drivetrain is undergoing testing in a test rig; acquiring a second set of vibration data, the second set of vibration data being from a plurality of vibration sensors positioned at locations about the same or a similar wind turbine drivetrain when located in a wind turbine; acquiring noise data including tonal noise produced by the wind turbine; identifying a vibration sensor of interest using vibration data of the second set of vibration data and the noise data; determining, for the identified vibration sensor, a first relationship between vibration data of the first set of vibration data and vibration data of the second set of vibration data; and determining, for the identified vibration sensor, a second relationship between the first set of vibration data and tonal noise produced by a wind turbine based on the first relationship.
A dynamic image capturing method comprising: generating an image by pre-capturing a scene via an event sensor ; generating event data from the image; determining a row-wise exposure value for each row of the image based on the event data; generating row-wise motion information for each row of the image based on the event data; determining a row-wise readout priority order for each row of the image based on the row-wise motion information; transmitting, by a processor , the row-wise exposure value and the row-wise readout priority order to a colour image sensor as feedback; and capturing, by the colour image sensor implementing a rolling-shutter, an image of the scene by exposing and reading out each row of the image based on the determined row-wise exposure value and the determined row-wise readout priority order. generating an image by pre-capturing a scene via an event sensor ; generating event data from the image; determining a row-wise exposure value for each row of the image based on the event data; generating row-wise motion information for each row of the image based on the event data; determining a row-wise readout priority order for each row of the image based on the row-wise motion information; transmitting, by a processor , the row-wise exposure value and the row-wise readout priority order to a colour image sensor as feedback; and capturing, by the colour image sensor implementing a rolling-shutter, an image of the scene by exposing and reading out each row of the image based on the determined row-wise exposure value and the determined row-wise readout priority order.
Method for detecting the wind during distributing processes in agriculture by means of a detection device of at least one preferably autonomously operating, unmanned aerial vehicle (UAV) which is preferably capable of taking off and landing substantially perpendicularly, characterized in that the unmanned aerial vehicle (UAV) has at least one unit for detecting wind conditions , which unmanned aerial vehicle has a unit for receiving control signals from a base station and/or sending control signals to an agricultural apparatus and a unit for transmitting the detected wind conditions to a base station and/or to an agricultural apparatus , the wind conditions over an area to be processed being detected by means of detecting wind indicators and/or suitable sensors for detecting wind speed(s) and/or wind direction(s), the unmanned aerial vehicle detecting the wind conditions on the windward side of the current and/or future travel lane and/or the agricultural machine ; and in that operating parameters of the agricultural machine are adapted to the wind conditions prevailing at the location of the agricultural machine at the time of deployment on the basis of the wind conditions detected by the unmanned aerial vehicle. the unmanned aerial vehicle detecting the wind conditions on the windward side of the current and/or future travel lane and/or the agricultural machine ; and in that operating parameters of the agricultural machine are adapted to the wind conditions prevailing at the location of the agricultural machine at the time of deployment on the basis of the wind conditions detected by the unmanned aerial vehicle.