mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for calibrating a camera, comprising: acquiring an image-point cloud sequence, the image-point cloud sequence including at least one group of an initial image and point cloud data collected at a same time, the initial image being collected by a camera provided on an autonomous vehicle and the point cloud data being collected by a radar provided on the autonomous vehicle; determining target point cloud data of initial images corresponding to groups of image-point cloud in the image-point cloud sequence, wherein the determining target point cloud data of initial images corresponding to groups of image-point cloud in the image-point cloud sequence comprises: determining an actual traveling trajectory of the autonomous vehicle based on the image-point cloud sequence, determining location points corresponding to the initial images in the groups of image-point cloud in the image-point cloud sequence on the actual traveling trajectory, to obtain a location point sequence corresponding to the image-point cloud sequence, and for a location point in the location point sequence, acquiring, at the location point, target point cloud data of a corresponding initial image; and matching the target point cloud data with the corresponding initial images in the image-point cloud sequence, to determine a correction parameter of the camera. acquiring an image-point cloud sequence, the image-point cloud sequence including at least one group of an initial image and point cloud data collected at a same time, the initial image being collected by a camera provided on an autonomous vehicle and the point cloud data being collected by a radar provided on the autonomous vehicle; determining target point cloud data of initial images corresponding to groups of image-point cloud in the image-point cloud sequence, wherein the determining target point cloud data of initial images corresponding to groups of image-point cloud in the image-point cloud sequence comprises: determining an actual traveling trajectory of the autonomous vehicle based on the image-point cloud sequence, determining location points corresponding to the initial images in the groups of image-point cloud in the image-point cloud sequence on the actual traveling trajectory, to obtain a location point sequence corresponding to the image-point cloud sequence, and for a location point in the location point sequence, acquiring, at the location point, target point cloud data of a corresponding initial image; and determining an actual traveling trajectory of the autonomous vehicle based on the image-point cloud sequence, determining location points corresponding to the initial images in the groups of image-point cloud in the image-point cloud sequence on the actual traveling trajectory, to obtain a location point sequence corresponding to the image-point cloud sequence, and for a location point in the location point sequence, acquiring, at the location point, target point cloud data of a corresponding initial image; and matching the target point cloud data with the corresponding initial images in the image-point cloud sequence, to determine a correction parameter of the camera.
A composite fan blade having a body formed from a plurality of fibre reinforced non-metallic layers, the body comprising: a delamination region free from reinforcement members and configured so as to permit delamination; and a deflector region comprising a plurality of reinforcement members and configured so as to resist delamination such that in the event of delamination, and positioned in relation to the delamination region such that the delamination is deflected to and continues to propagate in the delamination region; wherein the reinforcement members are z-pins; wherein the deflector region includes a first deflector portion extending in a spanwise direction and provided proximal to the leading edge, a second deflector portion extending in a spanwise direction and provided proximal to the trailing edge and a third deflector portion extending in a spanwise direction and provided mid-way between the first and second deflector portions, and the deflector region further includes a deflector portion (68d, 68e) extending in a chordwise direction, and wherein the delamination region has a strain energy release rate less than the deflector region; characterised in that the average strain energy release rate of the deflector region is equal to or greater than 2000 J/m 2 and the average strain energy release rate of the delamination region is equal to or less than 600J/m 2. a delamination region free from reinforcement members and configured so as to permit delamination; and a deflector region comprising a plurality of reinforcement members and configured so as to resist delamination such that in the event of delamination, and positioned in relation to the delamination region such that the delamination is deflected to and continues to propagate in the delamination region; wherein the reinforcement members are z-pins; wherein the deflector region includes a first deflector portion extending in a spanwise direction and provided proximal to the leading edge, a second deflector portion extending in a spanwise direction and provided proximal to the trailing edge and a third deflector portion extending in a spanwise direction and provided mid-way between the first and second deflector portions, and the deflector region further includes a deflector portion (68d, 68e) extending in a chordwise direction, and wherein the delamination region has a strain energy release rate less than the deflector region; characterised in that the average strain energy release rate of the deflector region is equal to or greater than 2000 J/m 2 and the average strain energy release rate of the delamination region is equal to or less than 600J/m 2.
A tire, comprising a cap tread, the cap tread comprising a rubber composition for tires, the rubber composition comprising, based on 100% by mass of a rubber component therein: 3 to 25% by mass of a component derived from an aromatic vinyl monomer; 0 to 15% by mass of a component derived from a butadiene monomer and having a vinyl configuration; 1 to 90% by mass of a component derived from a butadiene monomer and having a cis configuration; and 1 to 6% by mass of a component derived from an isoprene monomer and having a cis configuration, the rubber composition having, after vulcanization, physical properties satisfying the following relationships and: − 25 ° C < Tg < 0 ° C wherein Tg denotes a temperature at tan δ peak determined by viscoelastic measurements at a frequency of 10 Hz, an initial strain of 10%, and a dynamic strain amplitude of 0.25%; and 65 < Hs < 75 wherein Hs denotes a hardness at 23°C measured in accordance with JIS K6253. 3 to 25% by mass of a component derived from an aromatic vinyl monomer; 0 to 15% by mass of a component derived from a butadiene monomer and having a vinyl configuration; 1 to 90% by mass of a component derived from a butadiene monomer and having a cis configuration; and 1 to 6% by mass of a component derived from an isoprene monomer and having a cis configuration, the rubber composition having, after vulcanization, physical properties satisfying the following relationships and: − 25 ° C < Tg < 0 ° C wherein Tg denotes a temperature at tan δ peak determined by viscoelastic measurements at a frequency of 10 Hz, an initial strain of 10%, and a dynamic strain amplitude of 0.25%; and 65 < Hs < 75 wherein Hs denotes a hardness at 23°C measured in accordance with JIS K6253.
Method for establishing and maintaining a network having two or more electronic subscribers (20, 21, 22, 25, 26, 27), based on radio connections between the subscribers (20, 21, 22, 25, 26, 27), each subscriber (20, 21, 22, 25, 26, 27) being uniquely characterized by way of a subscriber identifier, characterized in that clusters (30, 31, 32, 33, 34) having a plurality of subscribers (20, 21, 22, 25, 26, 27) connected by means of Bluetooth Low Energy, BLE, connections are formed, in that a unique cluster identifier is allocated to each cluster (30, 31, 32, 33, 34), in that a first subscriber (20, 21, 22, 25, 26, 27) of a first cluster (30, 31, 32, 33, 34) selects a second subscriber (20, 21, 22, 25, 26, 27), which is within range of a BLE connection, from a smaller or equally large second cluster (30, 31, 32, 33, 34), 27) and causes it to be detached from the second cluster (30, 31, 32, 33, 34) by the second subscriber interrupting its BLE connections to subscribers of the second cluster and to be integrated into the first cluster (30, 31, 32, 33, 34) by establishing a BLE connection with the first subscriber (20, 21, 22, 25, 26, 27).
A portable imaging device comprising a housing and at least one microwave sensor, preferably a radiometric sensor, mounted in the housing, the microwave sensor being configured to pick up electromagnetic radiation emitted or reflected by a body or an item in a detection zone of the microwave sensor, and to transform it into a first signal that is representative of said radiation; the device being characterized in that it also comprises: • first connection means for connecting the imaging device to movement measuring means, the movement measuring means being configured to deliver a second signal that is representative of the movement of the detection zone; et • second connection means for connecting the imaging device to a processor unit, the processor unit receiving, as input, the first signal and the second signal, and being configured to form, and possibly display on a display, a microwave image that is constituted by pixels; and in that, during movement of the housing in order to cause the detection zone to scan points of a body or an item, the processor unit is configured to act in iterative manner to form, and possibly display, said microwave image by: • detecting, from the second signal, a determined movement of the detection zone between a first position and a second position; • adding an additional pixel to the microwave image, which pixel is positioned relative to the preceding pixel as a function of said detected movement; and • giving said additional pixel a value of the first signal as determined when the detection zone is in the second position The processor unit being configured to modify the size, and possibly the position, of the pixels of the image, while adding an additional pixel to the microwave image. • first connection means for connecting the imaging device to movement measuring means, the movement measuring means being configured to deliver a second signal that is representative of the movement of the detection zone; et • second connection means for connecting the imaging device to a processor unit, the processor unit receiving, as input, the first signal and the second signal, and being configured to form, and possibly display on a display, a microwave image that is constituted by pixels; and • detecting, from the second signal, a determined movement of the detection zone between a first position and a second position; • adding an additional pixel to the microwave image, which pixel is positioned relative to the preceding pixel as a function of said detected movement; and • giving said additional pixel a value of the first signal as determined when the detection zone is in the second position
A medical device (151, 152), comprising: an elongated lumen shaft comprising: a shaft body having a thermoplastic polymeric cylindrical shaft wall (150, 154, 157); a cylindrical flexible circuit comprising: a dielectric layer; a conductive trace layer; the conductive trace layer comprising individual electrical conductor lines coupled to a medical device element (125, 130, 160) at a distal end of the electrical conductor lines; and an open, unfilled lumen, characterized in that it comprises: the thermoplastic polymer dielectric layer in a cylindrical form; the thermoplastic polymer dielectric layer comprising a bendable and stretchable substrate at least partly attached to the thermoplastic polymeric cylindrical shaft wall (150, 154, 157) via a melted connection between the thermoplastic polymeric cylindrical shaft wall (150, 154, 157) and the thermoplastic polymer dielectric layer, the melted connection comprising a portion of the wall where a first polymer from the thermoplastic polymeric cylindrical shaft wall and a second polymer from the thermoplastic polymer dielectric layer are mixed together; an elongated lumen shaft comprising: a shaft body having a thermoplastic polymeric cylindrical shaft wall (150, 154, 157); a cylindrical flexible circuit comprising: a dielectric layer; a conductive trace layer; the conductive trace layer comprising individual electrical conductor lines coupled to a medical device element (125, 130, 160) at a distal end of the electrical conductor lines; and a dielectric layer; a conductive trace layer; the conductive trace layer comprising individual electrical conductor lines coupled to a medical device element (125, 130, 160) at a distal end of the electrical conductor lines; and an open, unfilled lumen, characterized in that it comprises: the thermoplastic polymer dielectric layer in a cylindrical form; the thermoplastic polymer dielectric layer comprising a bendable and stretchable substrate at least partly attached to the thermoplastic polymeric cylindrical shaft wall (150, 154, 157) via a melted connection between the thermoplastic polymeric cylindrical shaft wall (150, 154, 157) and the thermoplastic polymer dielectric layer, the melted connection comprising a portion of the wall where a first polymer from the thermoplastic polymeric cylindrical shaft wall and a second polymer from the thermoplastic polymer dielectric layer are mixed together; the thermoplastic polymer dielectric layer in a cylindrical form; the thermoplastic polymer dielectric layer comprising a bendable and stretchable substrate at least partly attached to the thermoplastic polymeric cylindrical shaft wall (150, 154, 157) via a melted connection between the thermoplastic polymeric cylindrical shaft wall (150, 154, 157) and the thermoplastic polymer dielectric layer, the melted connection comprising a portion of the wall where a first polymer from the thermoplastic polymeric cylindrical shaft wall and a second polymer from the thermoplastic polymer dielectric layer are mixed together;
An isolated polypeptide having peroxygenase activity, selected from the group consisting of: (a) a polypeptide having at least 80%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the mature polypeptide is amino acids 1 to 241 of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 80%, at least 85%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1, wherein the mature polypeptide coding sequence is nucleotides 49 to 85, 161 to 401, 480 to 754 and 880 to 1049 of SEQ ID NO: 1, or the cDNA sequence thereof; (c) a fragment of the polypeptide of (a) or (b) that has peroxygenase activity. (a) a polypeptide having at least 80%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the mature polypeptide is amino acids 1 to 241 of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 80%, at least 85%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1, wherein the mature polypeptide coding sequence is nucleotides 49 to 85, 161 to 401, 480 to 754 and 880 to 1049 of SEQ ID NO: 1, or the cDNA sequence thereof; (c) a fragment of the polypeptide of (a) or (b) that has peroxygenase activity.
A cooking oven with an oven door and a cooling system for the oven door of said cooking oven, wherein: - the cooling system includes at least one cooling fan, - the cooling system includes at least one suction channel, - an outlet of the suction channel is connected to an inlet of the cooling fan, - an inlet of the suction channel is arranged behind a suction hole of the oven door in a closed state of said oven door, - the cooling system includes at least one exhaust channel, - an inlet of the exhaust channel is connected to an outlet of the cooling fan, and - an outlet of the exhaust channel is arranged behind a Venturi opening of the oven door in the closed state of said oven door, characterised in that the cooling fan is a centrifugal fan, wherein the outlet of the cooling fan is arranged radially to the impeller of said cooling fan, and the cooling fan includes a lower inlet and an upper inlet arranged axially to the impeller of said cooling fan, wherein the lower inlet is connected to the at least one suction channel and the upper inlet is arranged for sucking air from a space above a top wall of a oven cavity in order to cool down components of the cooking oven inside said space. - the cooling system includes at least one cooling fan, - the cooling system includes at least one suction channel, - an outlet of the suction channel is connected to an inlet of the cooling fan, - an inlet of the suction channel is arranged behind a suction hole of the oven door in a closed state of said oven door, - the cooling system includes at least one exhaust channel, - an inlet of the exhaust channel is connected to an outlet of the cooling fan, and - an outlet of the exhaust channel is arranged behind a Venturi opening of the oven door in the closed state of said oven door, characterised in that
A shunting method for multi-network joint transmission, characterized by comprising: transmitting, by a network element of a 3rd Generation Partnership Project, 3GPP, access network, a shunting request message to a network element of a Wireless Local Area Network, WLAN, access network; upon receiving a success response from the network element of the WLAN access network, transmitting, by the network element of the 3GPP access network, a shunting command to a User Equipment, UE, to indicate the UE to access a target WLAN access network corresponding to the network element of the WLAN access network; and after determining that the UE has successfully accessed the target WLAN access network, performing, by the network element of the 3GPP access network, data shunting transmission through a shunting connection between the network element of the 3GPP access network and the network element of the WLAN access network. transmitting, by a network element of a 3rd Generation Partnership Project, 3GPP, access network, a shunting request message to a network element of a Wireless Local Area Network, WLAN, access network; upon receiving a success response from the network element of the WLAN access network, transmitting, by the network element of the 3GPP access network, a shunting command to a User Equipment, UE, to indicate the UE to access a target WLAN access network corresponding to the network element of the WLAN access network; and after determining that the UE has successfully accessed the target WLAN access network, performing, by the network element of the 3GPP access network, data shunting transmission through a shunting connection between the network element of the 3GPP access network and the network element of the WLAN access network.
Process for producing rubber mixtures in a mixing process with a plurality of mixing stages, where these can optionally be divided into a plurality of sub-steps, comprising the mixing of the following components: - one or more rubbers, - one or more hydroxylated oxidic fillers, - one or more sulphur-containing organosilicon and/or one or more hydroxypolysulphidic compounds, - 1,6-bis(N,N-dibenzylthiocarbamoyldithio)hexane (CAS No.: 151900-44-6), where this is incorporated into the mixture in the first mixing stage, - one or more vulcanization additives, - one or more rubber additives. - one or more rubbers, - one or more hydroxylated oxidic fillers, - one or more sulphur-containing organosilicon and/or one or more hydroxypolysulphidic compounds, - 1,6-bis(N,N-dibenzylthiocarbamoyldithio)hexane (CAS No.: 151900-44-6), where this is incorporated into the mixture in the first mixing stage, - one or more vulcanization additives, - one or more rubber additives.
Locking mechanism for a motor vehicle, in which two elements (2, 4) bear against each other along a contact region, and wherein the elements are exposed to an operating and an accident load, wherein at least one element (2, 4) has, at least in the contact region, a coating which changes under the accident load in such a manner that the contact region between the two elements is enlarged and/or that the coefficient of friction between the two elements increases, characterized in that the coating has a plurality of layers, wherein the coating has hollow elements, in particular hollow balls, which are at least partially destroyed under the accident load, as a result of which the contact area between the two elements and/or the coefficient of friction between the element and the coating are/is enlarged.
A lamination apparatus for manufacture of an electrode assembly, the lamination apparatus comprising: a pressing roll configured to press electrodes constituting the electrode assembly; a rotary shaft configured to rotate the pressing roll; a pressing cylinder configured to adjust a pressing force applied to the pressing roll; and a thickness measurement sensor configured to measure a thickness of an electrode mixture layer; wherein the pressing cylinder comprises a first pressing cylinder and a second pressing cylinder coupled to opposite ends of the rotary shaft, respectively; and the lamination apparatus is configured such that a pressing force applied by the first pressing cylinder and a pressing force applied by the second pressing cylinder are different from each other. a pressing roll configured to press electrodes constituting the electrode assembly; a rotary shaft configured to rotate the pressing roll; a pressing cylinder configured to adjust a pressing force applied to the pressing roll; and a thickness measurement sensor configured to measure a thickness of an electrode mixture layer; wherein the pressing cylinder comprises a first pressing cylinder and a second pressing cylinder coupled to opposite ends of the rotary shaft, respectively; and the lamination apparatus is configured such that a pressing force applied by the first pressing cylinder and a pressing force applied by the second pressing cylinder are different from each other.