mhurhangee/ep-ind-claims huggingface dataset:
Method encoding a data sequence into a code word x according to an LDPC code corresponding to a parity check matrix H, in which: - each column of said parity check matrix H defines a determined number of coded bits forming the code word x, said code word comprising data bits and parity bits, said data bits being decomposed into a set of data vectors (C 1,...,C i) with i≥2, each data vector comprising the same number of bits, said parity bits corresponding to two parity vectors P 1 and P 2; - each row of said parity check matrix H defines a parity equation, - said parity check matrix H consists of two matrix rows, each element of a matrix row being a matrix, and each matrix row comprising at least one so-called processing matrix and one so-called linking matrix comprising a single "1" per column and a single "1" per row, a zero matrix 0 and a triangular matrix H p, said matrixes being disposed in the following manner on one of the matrix rows: H 1 A 2... H i − 1 A i H p 0 and for i=2 according to: H 1 A 2 H p 0 and in the following manner on the other matrix row: A 1 H 2... A i − 1 H i 0 H p and for i=2 according to: A 1 H 2 0 H P A 1,...,A i designating the linking matrixes and H 1,...,H i designating the processing matrixes, the processing and linking matrixes forming a block corresponding to the data bits and the zero and triangular matrixes forming another block corresponding to the parity bits, the parity vectors P 1 and P 2 complying with the set of parity equations defined by the parity check matrix H and by the relation Hx T =0 T where T designates the transposition operator, and being calculatable according to the following equations: P 1 T = H P − 1 H 1 C 1 T +... + A i C i T P 2 T = H P − 1 A 1 C 1 T +... + H i C i T. - each column of said parity check matrix H defines a determined number of coded bits forming the code word x, said code word comprising data bits and parity bits, said data bits being decomposed into a set of data vectors (C 1,...,C i) with i≥2, each data vector comprising the same number of bits, said parity bits corresponding to two parity vectors P 1 and P 2; - each row of said parity check matrix H defines a parity equation, - said parity check matrix H consists of two matrix rows, each element of a matrix row being a matrix, and each matrix row comprising at least one so-called processing matrix and one so-called linking matrix comprising a single "1" per column and a single "1" per row, a zero matrix 0 and a triangular matrix H p,
Method for manufacturing a formulation containing a HASE emulsion (Hydrophobically Alkali Swellable Emulsion) and a pharmaceutical active ingredient, comprising the steps of: a) mixing of a HASE emulsion, a pharmaceutical active ingredient and water, said mixture having a pH greater than 5, said HASE emulsion containing at least a copolymer of: - meth(acrylic) acid, - a non water-soluble meth(acrylic) ester monomer, and - a monomer containing at least a hydrophobic group having the general formula: in which: - m, n, p and q are integers less than 150, - R has a polymerizable vinylic function, - R 1 and R 2 are identical or different and represent H or alkyl groups, - R' is a hydrophobic group comprising at least 6 carbon atoms, b) precipitation by adjusting the pH to a value less than 3, to obtain a dispersion of solid particles in water, c) optionally purification, to obtain solid particles. a) mixing of a HASE emulsion, a pharmaceutical active ingredient and water, said mixture having a pH greater than 5, said HASE emulsion containing at least a copolymer of: - meth(acrylic) acid, - a non water-soluble meth(acrylic) ester monomer, and - a monomer containing at least a hydrophobic group having the general formula: in which: - m, n, p and q are integers less than 150, - R has a polymerizable vinylic function, - R 1 and R 2 are identical or different and represent H or alkyl groups, - R' is a hydrophobic group comprising at least 6 carbon atoms, - meth(acrylic) acid, - a non water-soluble meth(acrylic) ester monomer, and - a monomer containing at least a hydrophobic group having the general formula: in which: - m, n, p and q are integers less than 150, - R has a polymerizable vinylic function, - R 1 and R 2 are identical or different and represent H or alkyl groups, - R' is a hydrophobic group comprising at least 6 carbon atoms, - m, n, p and q are integers less than 150, - R has a polymerizable vinylic function, - R 1 and R 2 are identical or different and represent H or alkyl groups, - R' is a hydrophobic group comprising at least 6 carbon atoms, b) precipitation by adjusting the pH to a value less than 3, to obtain a dispersion of solid particles in water, c) optionally purification, to obtain solid particles.
Blade for a turbomachine impeller, comprising an airfoil formed with a pressure surface, a suction surface, a trailing edge, and a leading edge, the blade further comprising a platform extending at one of the ends of the airfoil in a direction which is globally perpendicular to a longitudinal direction of the airfoil, the blade being adapted to be arranged with a plurality of substantially identical blades to form a ring around a ring axis and define therealong upstream and downstream directions, with the ring having the airfoils arranged substantially radially therein, the adjacent portions of the platform surfaces of two adjacent blades (10, 10') located between their respective airfoils defining an inter-airfoil surface, the platform surface having a suction surface profile and a pressure surface profile, formed on the platform surface respectively along the suction surface and the pressure surface, said pressure surface profile having a pressure surface recessed part located axially in the downstream half of the airfoil, a major part, i.e. about 90 % or 95%, of this pressure surface recessed part being therefore contained within the downstream half of the airfoil, said blade being characterized in that most of the inter-airfoil surface is generated by moving a line segment based on said suction surface and pressure surface profiles (80, 85).
A lattice mast structure comprising supports, which are designed as steel profiles, and diagonal struts extending between the supports or cross-struts extending between the supports or diagonal struts and cross-struts extending between the supports, and comprising at least one reinforcing bar, wherein the reinforcing bar extends in the longitudinal direction of a support, the reinforcing bar follows the course of the support or a cross-strut or a diagonal strut, the reinforcing bar is connected to the support or a cross-strut or a diagonal strut at at least two points which are remote from one another, with the result that the reinforcing bar forms a structural unit with the support or a cross-strut or a diagonal strut with respect to the force flow through said support or said cross-strut or said diagonal strut and the reinforcing bar is designed as an at least two-part composite component which is formed as a structural unit consisting of an element which predominantly transfers tensile forces and an element which predominantly transfers compressive forces, characterized in that the reinforcing bar has a jacket consisting of a tension-resistant woven steel fabric or of a steel-reinforced, carbon-fiber-reinforced or glass-fiber-reinforced woven textile fabric or of a steel mesh and a core consisting of a cured casting compound, and wherein the reinforcing bar comprises a steel core which is embedded in a jacket consisting of a cured casting compound.
A film structure comprising: a substrate; a buffer film formed on the substrate, having a tetragonal crystal structure containing zirconia, and including a film portion and protruding portions; a metal film containing a platinum group element and formed on the buffer film by means of epitaxial growth; and a film containing Sr(Ti 1-x, Ru x)O 3 with 0 ≤ x ≤ 1 and formed on the metal film by means of epitaxial growth. a substrate; a buffer film formed on the substrate, having a tetragonal crystal structure containing zirconia, and including a film portion and protruding portions; a metal film containing a platinum group element and formed on the buffer film by means of epitaxial growth; and a film containing Sr(Ti 1-x, Ru x)O 3 with 0 ≤ x ≤ 1 and formed on the metal film by means of epitaxial growth.
A filtering device for filtering communication channels on a power line branch in a power line communication network, the filtering device having a first and a second contact, the filtering device comprising a switch configured to switch between a pass-through mode and a filtering mode, wherein: - in the pass-through mode the first contact is directly connected with the second contact and configured to pass through a power current frequency and the communication channels; and - in the filtering mode the first contact is connected with the second contact through a first low-pass filter; characterized in that a cut-off frequency of the first low-pass filter is configured to pass through the power carrying current and to block one or more of the communication channels; and that the filtering device is further configured to adjust the cut-off frequency of the first low-pass filter such that one or more communication channels are pass through in the filtering mode. - in the pass-through mode the first contact is directly connected with the second contact and configured to pass through a power current frequency and the communication channels; and - in the filtering mode the first contact is connected with the second contact through a first low-pass filter;
A method executed by a network device in a source packet routing in networking, SPRING, network, the method to establish a multipoint to multipoint multicast distribution tree where the network device is selected as a rendezvous point for the multipoint to multipoint multicast distribution tree, the method comprising: advertising, by the network device, that the network device is the rendezvous point for a multicast group to each node of the SPRING network via a control plane protocol, wherein the advertisement identifies the multicast group using a multicast group identifier and an associated multicast segment identifier, the multicast segment identifier to enable the rendezvous point to map received traffic with the multicast segment identifier to the multipoint to multipoint multicast distribution tree for a multicast group and to be used by nodes in the SPRING network to identify the multipoint to multipoint multicast distribution tree when tunneling traffic for the associated multicast group to the rendezvous point via unicast tunneling; receiving, by the network device, at least one interest registration from receivers of the multicast group via the control plane protocol; and constructing, by the network device, the multipoint to multipoint multicast distribution tree with the rendezvous point as a root and each of the receivers as leaves using unicast tunnels and replication point; receiving data traffic tunneled to the rendezvous point from senders of the multicast group via the unicast tunneling; forwarding the received data traffic to the multicast distribution tree. advertising, by the network device, that the network device is the rendezvous point for a multicast group to each node of the SPRING network via a control plane protocol, wherein the advertisement identifies the multicast group using a multicast group identifier and an associated multicast segment identifier, the multicast segment identifier to enable the rendezvous point to map received traffic with the multicast segment identifier to the multipoint to multipoint multicast distribution tree for a multicast group and to be used by nodes in the SPRING network to identify the multipoint to multipoint multicast distribution tree when tunneling traffic for the associated multicast group to the rendezvous point via unicast tunneling; receiving, by the network device, at least one interest registration from receivers of the multicast group via the control plane protocol; and constructing, by the network device, the multipoint to multipoint multicast distribution tree with the rendezvous point as a root and each of the receivers as leaves using unicast tunnels and replication point; receiving data traffic tunneled to the rendezvous point from senders of the multicast group via the unicast tunneling; forwarding the received data traffic to the multicast distribution tree.
Powershift transmission for an agricultural machine having a transmission housing, an input shaft and an output shaft unit, wherein the input shaft and the output shaft unit extend at least partially within the transmission housing, wherein an auxiliary shaft is arranged offset in parallel between the input shaft and the output shaft unit within the transmission housing, wherein the input shaft and the auxiliary shaft are connected to each other via a front-mounted range unit, and the auxiliary shaft and the output shaft unit are connected to each other via a rear-mounted range unit, wherein each range unit (40, 50) has at least two individual gearwheel pairs which can be coupled and decoupled, and wherein the output shaft unit is formed from a main output shaft and an auxiliary output shaft, which output shafts can be coupled to each other via a layshaft, characterized in that the main output shaft and the auxiliary output shaft are arranged next to each other and coaxially with respect to each other, wherein the layshaft has a clutch which couples the auxiliary output shaft directly to the main output shaft in a first shifting state such that both the transmitted torque and the rotational speed remain unchanged when the clutch is closed. wherein the input shaft and the output shaft unit extend at least partially within the transmission housing, wherein an auxiliary shaft is arranged offset in parallel between the input shaft and the output shaft unit within the transmission housing, wherein the input shaft and the auxiliary shaft are connected to each other via a front-mounted range unit, and the auxiliary shaft and the output shaft unit are connected to each other via a rear-mounted range unit, wherein each range unit (40, 50) has at least two individual gearwheel pairs which can be coupled and decoupled, and wherein the output shaft unit is formed from a main output shaft and an auxiliary output shaft, which output shafts can be coupled to each other via a layshaft, characterized in that the main output shaft and the auxiliary output shaft are arranged next to each other and coaxially with respect to each other, wherein the layshaft has a clutch which couples the auxiliary output shaft directly to the main output shaft in a first shifting state such that both the transmitted torque and the rotational speed remain unchanged when the clutch is closed.
A method of adjusting a pointing angle of a camera housed by an active stabilization system configured to stabilize the camera in accordance with a commanded pointing angle, the system comprising a steering member (112, 1522), the steering member rotatable around one or more of a pan axis, tilt axis, and roll axis of the system, the method comprising: deriving a joint angle measurement of the steering member associated with a rotational movement of the steering member; and adjusting the pointing angle of the camera, based on the derived joint angle measurement, in a direction of the rotational movement of the steering member, if the joint angle measurement exceeds the threshold window; the method further comprising actively stabilizing the pointing angle of the camera in accordance with the commanded pointing angle, if the joint angle measurement is within the threshold window. deriving a joint angle measurement of the steering member associated with a rotational movement of the steering member; and adjusting the pointing angle of the camera, based on the derived joint angle measurement, in a direction of the rotational movement of the steering member, if the joint angle measurement exceeds the threshold window; the method further comprising actively stabilizing the pointing angle of the camera in accordance with the commanded pointing angle, if the joint angle measurement is within the threshold window.
Watercraft comprising a deck and a hull and including at least one seat, said at least one seat including a movable backrest, characterised in that: a. the movable backrest includes two fastening lugs (17, 18) arranged on sides (15, 16) of said movable backrest, axes of said fastening lugs being substantially aligned; b. the deck includes two recesses (22, 23) produced in the structure of said deck, associated with said at least one seat and arranged above a base of said at least one seat, a fastening lug (17, 18) being positioned in each of said recesses; c. said fastening lugs and said recesses form a pivot link of axis A securing the movable backrest to the deck and enabling a rotation of the movable backrest between at least one raised position of said movable backrest, wherein a user of the seat may rest his/her back on said movable backrest, and at least one lowered position, wherein said movable backrest is essentially contained in an internal volume of the deck. a. the movable backrest includes two fastening lugs (17, 18) arranged on sides (15, 16) of said movable backrest, axes of said fastening lugs being substantially aligned; b. the deck includes two recesses (22, 23) produced in the structure of said deck, associated with said at least one seat and arranged above a base of said at least one seat, a fastening lug (17, 18) being positioned in each of said recesses; c. said fastening lugs and said recesses form a pivot link of axis A securing the movable backrest to the deck and enabling a rotation of the movable backrest between at least one raised position of said movable backrest, wherein a user of the seat may rest his/her back on said movable backrest, and at least one lowered position, wherein said movable backrest is essentially contained in an internal volume of the deck.
A method for manufacturing a hinge having two hinge arms (2, 3) that can be displaced in an articulated manner relative to each other, wherein each hinge arm (2, 3) receives respectively one sliding bearing element (4, 5) and a plain bearing bush is arranged between the sliding bearing elements (4, 5), wherein a) the plain bearing bush is inserted between the two sliding bearing elements (4, 5), characterized in that b) melt then flows around the sliding bearing elements (4, 5) for the manufacture of the hinge arms (4, 5), wherein the temperature of the melt is guided such that the sliding bearing elements (4, 5) heat up and thereby heat the plain bearing bush arranged between these in a controlled manner, c) wherein the heating of the plain bearing bush leads to the clearance in the hinge and the coefficient of friction being set in a controlled manner. a) the plain bearing bush is inserted between the two sliding bearing elements (4, 5), b) melt then flows around the sliding bearing elements (4, 5) for the manufacture of the hinge arms (4, 5), wherein the temperature of the melt is guided such that the sliding bearing elements (4, 5) heat up and thereby heat the plain bearing bush arranged between these in a controlled manner, c) wherein the heating of the plain bearing bush leads to the clearance in the hinge and the coefficient of friction being set in a controlled manner.
Cooling circuit for a motor vehicle 1.1 having a cooling medium pump, which circulates a cooling medium in the cooling circuit; 1.2 having a hydrodynamic retarder, comprising a bladed primary wheel and a bladed secondary wheel, which jointly form a working space that can be filled with a working medium, wherein the working medium is the cooling medium; and 1.3 the cooling circuit has a main circuit, in which the cooling medium pump and an engine of the motor vehicle or some other unit for cooling by means of the cooling medium, and a heat exchanger for dissipating the heat of the cooling medium absorbed from the engine or from the other unit are positioned; wherein 1.4 the cooling medium pump circulates the cooling medium in the main circuit; and 1.5 the hydrodynamic retarder is positioned in a secondary branch of the cooling circuit, comprising a feed, which branches off from the main circuit at a branch point and opens into the hydrodynamic retarder, and a return, which starts from the hydrodynamic retarder and opens into the main circuit at an entry point; characterized in that 1.6 the return opens into the main circuit upstream of the branch point of the feed, as seen in the direction of flow of the cooling medium in the main circuit, but opens on the same side of the cooling medium pump, or at the branch point of the feed. 1.1 having a cooling medium pump, which circulates a cooling medium in the cooling circuit; 1.2 having a hydrodynamic retarder, comprising a bladed primary wheel and a bladed secondary wheel, which jointly form a working space that can be filled with a working medium, wherein the working medium is the cooling medium; and 1.3 the cooling circuit has a main circuit, in which the cooling medium pump and an engine of the motor vehicle or some other unit for cooling by means of the cooling medium, and a heat exchanger for dissipating the heat of the cooling medium absorbed from the engine or from the other unit are positioned; wherein 1.4 the cooling medium pump circulates the cooling medium in the main circuit; and 1.5 the hydrodynamic retarder is positioned in a secondary branch of the cooling circuit, comprising a feed, which branches off from the main circuit at a branch point and opens into the hydrodynamic retarder, and a return, which starts from the hydrodynamic retarder and opens into the main circuit at an entry point; characterized in that 1.6 the return opens into the main circuit upstream of the branch point of the feed, as seen in the direction of flow of the cooling medium in the main circuit, but opens on the same side of the cooling medium pump, or at the branch point of the feed.