mhurhangee/ep-ind-claims huggingface dataset:
Fuse block base for receiving and housing at least one fuse, where said fuse block base comprises a lower casing and at least one upper body, where each upper body can be coupled to the lower casing and can house a fuse, the lower casing comprising at least two fixing points, such that a fuse contact (6, 6') is fixed in each fixing point, said at least two fuse contacts (6, 6') being configured for being connected to and receiving a fuse, such that the base comprises a first conductive element which can connect a first fuse contact with a bar of a busbar, and the base comprises a second conductive element which can connect a second fuse contact with a connection terminal,the fuse block base comprising at least one fuse block cover comprising coupling means for being coupled to an upper body, such that when said at least one fuse block cover is coupled to an upper body, said upper body is at least partially covered by the fuse block cover, whereas when said fuse block cover is disconnected from the upper body, it allows access to the inside of said upper body, characterized in that each fuse block cover incorporates retaining elements fixed to the fuse block cover, where said retaining elements can be mechanically fitted in T-shaped pivots which each fuse can incorporate in the upper portion, such that the fuse can thus be placed on and removed from the fuse block base by means of manipulating the fuse block cover.
A percussive massage device comprising: a housing that defines a housing interior, a battery, a motor positioned in the housing, wherein the motor includes a rotatable motor shaft that defines a motor axis, a switch for activating the motor, and a reciprocating shaft operatively connected to the motor and configured to reciprocate in response to activation of the motor, wherein the reciprocating shaft includes a distal end that defines a reciprocation axis, wherein the housing includes a first side portion and a second side portion that cooperate to define the housing interior and are defined on opposite sides of the reciprocation axis, wherein the motor is positioned in the first side portion and the battery is positioned in the second side portion, wherein the motor axis is perpendicular to the reciprocation axis and extends through the battery, and wherein the first side portion and second side portion are generally symmetrical, and characterised in that the first and second side portions taper from a top of the housing toward an opening through which the reciprocating shaft extends. a housing that defines a housing interior, a battery, a motor positioned in the housing, wherein the motor includes a rotatable motor shaft that defines a motor axis, a switch for activating the motor, and a reciprocating shaft operatively connected to the motor and configured to reciprocate in response to activation of the motor, wherein the reciprocating shaft includes a distal end that defines a reciprocation axis, wherein the housing includes a first side portion and a second side portion that cooperate to define the housing interior and are defined on opposite sides of the reciprocation axis, wherein the motor is positioned in the first side portion and the battery is positioned in the second side portion, wherein the motor axis is perpendicular to the reciprocation axis and extends through the battery, and wherein the first side portion and second side portion are generally symmetrical, and characterised in that the first and second side portions taper from a top of the housing toward an opening through which the reciprocating shaft extends. wherein the reciprocating shaft includes a distal end that defines a reciprocation axis, wherein the housing includes a first side portion and a second side portion that cooperate to define the housing interior and are defined on opposite sides of the reciprocation axis, wherein the motor is positioned in the first side portion and the battery is positioned in the second side portion, wherein the motor axis is perpendicular to the reciprocation axis and extends through the battery, and wherein the first side portion and second side portion are generally symmetrical, and characterised in that the first and second side portions taper from a top of the housing toward an opening through which the reciprocating shaft extends.
A method of processing video data, comprising: determining, for a conversion between a current video block of a video and a bitstream of the video, a first prediction block in a first domain from at least one reference picture using an unrefined motion information, wherein the current video block is a luma block; applying, at least based on the first prediction block, a motion information refinement process on the unrefined motion information to obtain a motion offset information; generating a second prediction block from samples in the at least one reference picture using the motion offset information; converting, based on a forward mapping process, the second prediction block from the first domain to a second domain in which samples of the second prediction block are mapped into particular values; and generating reconstructed samples of the current video block based on the second prediction block in the second domain; wherein a piecewise linear model is used to map the samples of the second prediction block into the particular values during the forward mapping process; and wherein scale coefficients of the piecewise linear model are determined based on first variables which are determined based on syntax elements included in an adaptation parameter set and second variables which are determined based on a bit depth. determining, for a conversion between a current video block of a video and a bitstream of the video, a first prediction block in a first domain from at least one reference picture using an unrefined motion information, wherein the current video block is a luma block; applying, at least based on the first prediction block, a motion information refinement process on the unrefined motion information to obtain a motion offset information; generating a second prediction block from samples in the at least one reference picture using the motion offset information; converting, based on a forward mapping process, the second prediction block from the first domain to a second domain in which samples of the second prediction block are mapped into particular values; and generating reconstructed samples of the current video block based on the second prediction block in the second domain; wherein a piecewise linear model is used to map the samples of the second prediction block into the particular values during the forward mapping process; and wherein scale coefficients of the piecewise linear model are determined based on first variables which are determined based on syntax elements included in an adaptation parameter set and second variables which are determined based on a bit depth.
A method for producing hepatic stem/progenitor cells from human hepatocytes, comprising bringing a TGFβ-receptor inhibitor into contact with the hepatocytes in vitro; wherein the method further comprises bringing a GSK3 inhibitor and a ROCK inhibitor into contact with the hepatocytes in vitro.
A device for dosing a product into capsules or the like, comprising at least one dosing disk which has dosing openings, at least one product supply line for supplying the product to the dosing disk in order to achieve a specific product bed depth (82, 84), at least two filling stations with which groups of dosing opening are associated, the filling stations each comprising at least one tamping pin, it being possible for the tamping pin to dip into the dosing opening in order to compact the product to a certain depth (h1-h5), characterized in that at least one pressure means is provided for generating a variable pressure (p1-p5), into which means the corresponding tamping pin can spring, and at least one adjusting means, in particular an adjusting drive, is provided to adjust the depth (h1 to h5) for each tamping pin independently of one another, at least one sensor (78, 80) being provided for detecting at least one product bed depth (82, 84) of the product arranged on the dosing disk.
A method for use in sperm analysis, the method comprising: - processing measured data comprising at least interferometric phase data of a label-free sperm cell, and determining a topographic optical phase delay map of the label-free sperm cell; - utilizing the OPD map and a characteristic refractive index map comprising refractive indices being characteristic of one or more organelles of sperm cells to determine at least one morphological parameter of the one or more organelles of the label-free sperm cell; and - utilizing the at least one morphological parameter for generating a sperm quantitative quality score for the label-free sperm cell. - processing measured data comprising at least interferometric phase data of a label-free sperm cell, and determining a topographic optical phase delay map of the label-free sperm cell; - utilizing the OPD map and a characteristic refractive index map comprising refractive indices being characteristic of one or more organelles of sperm cells to determine at least one morphological parameter of the one or more organelles of the label-free sperm cell; and - utilizing the at least one morphological parameter for generating a sperm quantitative quality score for the label-free sperm cell.
Method for the optimizing of movement profiles (B1, B2) in a system, wherein the system has at least one press (1a, 1b, 1c) with a tool (7a, 7b) and a plurality of transfer systems (3a, 3b), wherein the movement of the respective tool (7a, 7b) is described respectively by a press movement profile, and the movement of the respective transfer system (3a, 3b) is described respectively by a transfer movement profile, wherein the optimizing of the movement profiles (B1, B2) comprises the following steps: - that the respective transfer movement profile is preset, - that by means of the respective transfer movement profile, synchronization points (P1, P2, P3, P4) are preset, wherein a first synchronization point defines the entry of a second transfer system into the press and a second synchronization point defines the exit (P2, P4) of the second transfer system from the press (1a, 1b, 1c) and a third synchronization point defines the entry of the first transfer system into the press (1a, 1b, 1c) and a fourth synchronization point defines the exit of the first transfer system from the press (1a, 1b, 1c), - that instants of time (t1, t2, t3, t4) are respectively assigned to the synchronization points (P1, P2, P3, P4), - that a first time range (t_out) is defined between the first synchronization point and the second synchronization point, - that a second time range (t_in) is defined between the third synchronization point and the fourth synchronization point, - that the time ranges (t_in, t_out) are shortened successively to minimum times (t_min) whilst maintaining boundary conditions, - that by means of the minimum times (t_min) the respective press movement profiles are created. - that the respective transfer movement profile is preset, - that by means of the respective transfer movement profile, synchronization points (P1, P2, P3, P4) are preset, wherein a first synchronization point defines the entry of a second transfer system into the press and a second synchronization point defines the exit (P2, P4) of the second transfer system from the press (1a, 1b, 1c) and a third synchronization point defines the entry of the first transfer system into the press (1a, 1b, 1c) and a fourth synchronization point defines the exit of the first transfer system from the press (1a, 1b, 1c), - that instants of time (t1, t2, t3, t4) are respectively assigned to the synchronization points (P1, P2, P3, P4), - that a first time range (t_out) is defined between the first synchronization point and the second synchronization point, - that a second time range (t_in) is defined between the third synchronization point and the fourth synchronization point, - that the time ranges (t_in, t_out) are shortened successively to minimum times (t_min) whilst maintaining boundary conditions, - that by means of the minimum times (t_min) the respective press movement profiles are created.
A composition comprising: mesoporous silica rods, wherein the rods have a length of 5 μm to 500 μm, and wherein the rods comprise pores of between 2-50 nm in diameter; and a cytokine that recruits an immune cell to the mesoporous silica rods, wherein the cytokine is loaded into the mesoporous silica rods and is released from the mesoporous silica rods upon administration to a subject, and wherein the mesoporous silica rods are capable of self-assembly in vivo into a three-dimensional scaffold that allows for immune cell infiltration. mesoporous silica rods, wherein the rods have a length of 5 μm to 500 μm, and wherein the rods comprise pores of between 2-50 nm in diameter; and a cytokine that recruits an immune cell to the mesoporous silica rods, wherein the cytokine is loaded into the mesoporous silica rods and is released from the mesoporous silica rods upon administration to a subject, and wherein the mesoporous silica rods are capable of self-assembly in vivo into a three-dimensional scaffold that allows for immune cell infiltration.
Seal (01, 10) for sealing intentional a gap in high temperature application, in particular for a combustion apparatus of a gas turbine, with a first side and an opposite second side and a seal width cross to the path of the gap comprising - a steel strap with a flat shape and - a second metal web (11, 31,41) attached to the steel strap on the second side, wherein the seal has a seal thickness with at least the steel strap plus the thickness of the second metal web (11, 31,41) and has a seal height, wherein the seal thickness is at most 0.2-times of the seal width, wherein the second metal web (11, 31,41) comprises an Omega shape and is attached on both sides with a flat shaped portion (13, 33,14, 34) to the steel strap and comprises an convex arch portion (12, 32) between both flat portions (13, 33,14, 34), and wherein the seal height is at least 0.3-times of the seal width and at least 3-times of the seal thickness, characterized in that, the steel strap with a flat shape extending in an essentially closed manner over the full length and width of the seal. - a steel strap with a flat shape and - a second metal web (11, 31,41) attached to the steel strap on the second side, wherein the seal has a seal thickness with at least the steel strap plus the thickness of the second metal web (11, 31,41) and has a seal height, wherein the seal thickness is at most 0.2-times of the seal width, wherein the second metal web (11, 31,41) comprises an Omega shape and is attached on both sides with a flat shaped portion (13, 33,14, 34) to the steel strap and comprises an convex arch portion (12, 32) between both flat portions (13, 33,14, 34), and wherein the seal height is at least 0.3-times of the seal width and at least 3-times of the seal thickness, characterized in that, the steel strap with a flat shape extending in an essentially closed manner over the full length and width of the seal. wherein the seal has a seal thickness with at least the steel strap plus the thickness of the second metal web (11, 31,41) and has a seal height, wherein the seal thickness is at most 0.2-times of the seal width, wherein the second metal web (11, 31,41) comprises an Omega shape and is attached on both sides with a flat shaped portion (13, 33,14, 34) to the steel strap and comprises an convex arch portion (12, 32) between both flat portions (13, 33,14, 34), and wherein the seal height is at least 0.3-times of the seal width and at least 3-times of the seal thickness, characterized in that, the steel strap with a flat shape extending in an essentially closed manner over the full length and width of the seal.
A bio-electrochemical cell comprising: an aqueous chamber comprising at least one anode and at least one cathode; a gaseous chamber separate from the aqueous chamber and comprising at least one cathode, wherein the at least one anode is electrically coupled to both the cathode disposed in the aqueous chamber and the cathode disposed in the gaseous chamber; and at least one electrogenic microbe disposed in the aqueous chamber. an aqueous chamber comprising at least one anode and at least one cathode; a gaseous chamber separate from the aqueous chamber and comprising at least one cathode, wherein the at least one anode is electrically coupled to both the cathode disposed in the aqueous chamber and the cathode disposed in the gaseous chamber; and at least one electrogenic microbe disposed in the aqueous chamber.
An isolated polynucleotide that encodes a protein that provides a plant cell with tolerance to a herbicide selected from the group consisting of a phenoxy auxin and a pyridyloxy auxin, wherein said polynucleotide is operably linked to a promoter that is functional in said plant cell, wherein a nucleic acid molecule that encodes said protein hybridizes under stringent conditions with the full complement of a sequence selected from the group consisting of SEQ ID NO:1, SEQ ID NO:3, and SEQ ID NO:5, and wherein said protein is at least 96% identical to a sequence selected from the group consisting of SEQ ID NO: 2 and SEQ ID NO: 4.
A non-pneumatic tire comprising: - an inner annular portion; - an outer annular portion provided concentrically on an outer side of the inner annular portion; - a plurality of coupling portions (3, 31, 32, 33, 34) which couple the inner annular portion and the outer annular portion to each other and are provided independently of one another in a tire circumferential direction; - at least one annular overall reinforcing layer embedded entirely in the outer annular portion in a tire width direction; and - at least one annular partial reinforcing layer (5, 51, 52, 53, 54, 55, 56, 57) embedded only in a part of the outer annular portion in the tire width direction, - wherein the outer annular portion includes a connecting region (2b, 2d) to which the plurality of coupling portions (3, 31, 32, 33, 34) are connected, and a non-connecting region (2a, 2c, 2e, 2f, 2g, 2h, 2i) to which the plurality of coupling portions (3, 31, 32, 33, 34) are not connected, in the tire width direction, and - wherein the at least one annular partial reinforcing layer (5, 51, 52, 53, 54, 55, 56, 57) overlaps the non-connecting region (2a, 2c, 2e, 2f, 2g, 2h, 2i) in a tire radial direction when viewed from the tire circumferential direction, the non-pneumatic tire being characterized in that a plurality of the annular overall reinforcing layers are provided, and the at least one annular partial reinforcing layer (5, 51, 52, 53, 54, 55, 56, 57) is disposed between the plurality of annular overall reinforcing layers. - an inner annular portion; - an outer annular portion provided concentrically on an outer side of the inner annular portion; - a plurality of coupling portions (3, 31, 32, 33, 34) which couple the inner annular portion and the outer annular portion to each other and are provided independently of one another in a tire circumferential direction; - at least one annular overall reinforcing layer embedded entirely in the outer annular portion in a tire width direction; and - at least one annular partial reinforcing layer (5, 51, 52, 53, 54, 55, 56, 57) embedded only in a part of the outer annular portion in the tire width direction, - wherein the outer annular portion includes a connecting region (2b, 2d) to which the plurality of coupling portions (3, 31, 32, 33, 34) are connected, and a non-connecting region (2a, 2c, 2e, 2f, 2g, 2h, 2i) to which the plurality of coupling portions (3, 31, 32, 33, 34) are not connected, in the tire width direction, and - wherein the at least one annular partial reinforcing layer (5, 51, 52, 53, 54, 55, 56, 57) overlaps the non-connecting region (2a, 2c, 2e, 2f, 2g, 2h, 2i) in a tire radial direction when viewed from the tire circumferential direction, the non-pneumatic tire being characterized in that a plurality of the annular overall reinforcing layers are provided, and the at least one annular partial reinforcing layer (5, 51, 52, 53, 54, 55, 56, 57) is disposed between the plurality of annular overall reinforcing layers.
A method implemented by one or more processors, comprising: receiving a group of data points generated based on sensor data from one or more sensors obtained during imitation learning of a robot trajectory, wherein the imitation learning includes physical manipulation of a reference point from an initial point to a target point; generating a dynamical systems control policy that regulates both robot motion and robot interaction with an environment, wherein generating the dynamical systems control policy comprises: generating a plurality of kernels based on the group of data points, wherein the kernels are generated based on convex optimization, and generating one or more vector fields based on the plurality of kernels, wherein the one or more vector fields comprise a plurality of Reproducing Kernel Hilbert spaces, RKHS, associated with the plurality of kernels, wherein the one or more vector fields collectively form the dynamical systems control policy; and controlling one or more robots (180, 280A, 1000) based on the dynamical systems control policy. receiving a group of data points generated based on sensor data from one or more sensors obtained during imitation learning of a robot trajectory, wherein the imitation learning includes physical manipulation of a reference point from an initial point to a target point; generating a dynamical systems control policy that regulates both robot motion and robot interaction with an environment, wherein generating the dynamical systems control policy comprises: generating a plurality of kernels based on the group of data points, wherein the kernels are generated based on convex optimization, and generating one or more vector fields based on the plurality of kernels, wherein the one or more vector fields comprise a plurality of Reproducing Kernel Hilbert spaces, RKHS, associated with the plurality of kernels, wherein the one or more vector fields collectively form the dynamical systems control policy; and generating a plurality of kernels based on the group of data points, wherein the kernels are generated based on convex optimization, and generating one or more vector fields based on the plurality of kernels, wherein the one or more vector fields comprise a plurality of Reproducing Kernel Hilbert spaces, RKHS, associated with the plurality of kernels, wherein the one or more vector fields collectively form the dynamical systems control policy; and controlling one or more robots (180, 280A, 1000) based on the dynamical systems control policy.