mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling the heat-delivery of a heating or cooling body, to which by means of a control valve a heating or cooling agent with a mass flow (m) is fed at a supply temperature (T v) and is removed at a return temperature (T R) in order to deliver into a space, with assistance by means of a fan, a requested heating or cooling capacity (Q s), wherein the mass flow (m) and the fan speed (n G) of the fan are set in such a way that the required heating or cooling capacity (Q s) is delivered with a predeterminable spread (ΔT) between supply and return temperature (T v, T R), characterised in that a) the fan speed (n G) of the fan can be set in a variable manner, and b) for a predeterminable capacity (Q s) and/or a predeterminable spread (ΔT) values of mass flow (m) and fan speed (n G) respectively associated with each other are provided as retrievable pairs of values (m, n G). a) the fan speed (n G) of the fan can be set in a variable manner, and b) for a predeterminable capacity (Q s) and/or a predeterminable spread (ΔT) values of mass flow (m) and fan speed (n G) respectively associated with each other are provided as retrievable pairs of values (m, n G).
Method of oxidizing a cycloalkane to form a product mixture containing a corresponding alcohol and ketone, said method comprising contacting a cycloalkane with an oxidant agent in the presence of at least a catalyst of formula as follow: wherein: - YisNorO; - X=1 when Y=O or 2 when Y=N; - Z is valency of the metal; and - M is a metal chosen in the group consisting of: transition metal, post transition metal, and lanthanide; valency of M depends on Z. - YisNorO; - X=1 when Y=O or 2 when Y=N; - Z is valency of the metal; and - M is a metal chosen in the group consisting of: transition metal, post transition metal, and lanthanide; valency of M depends on Z.
A rope (1; 301; 401; 501; 601; 701), wherein the rope along a longitudinal rope direction of the rope towards a longitudinal rope end of the rope successively comprises at least a main rope segment, a branching position and an end connector segment, wherein the end connector segment comprises a first rope-branch and a second rope-branch, wherein each of the first rope-branch and the second rope-branch at said branching position is branched off from the main rope segment, wherein the second rope-branch comprises a thickened second rope-branch portion, and wherein the first rope-branch comprises a noosed first rope-branch portion for making a noosed connection with the thickened second rope-branch portion, characterized in that the noosed first rope-branch portion is formed by an adjustable loop having a line, which is transversely running through itself in a transversely slidable manner. wherein the second rope-branch comprises a thickened second rope-branch portion, and wherein the first rope-branch comprises a noosed first rope-branch portion for making a noosed connection with the thickened second rope-branch portion, characterized in that the noosed first rope-branch portion is formed by an adjustable loop having a line, which is transversely running through itself in a transversely slidable manner.
A thermal block assembly (400, 500, 600, 900), comprising: a sample block (410, 610, 910) with a top surface configured to receive a plurality of reaction vessels and an opposing bottom surface; and two or more thermoelectric devices (420a, 420b, 620, 920, 939, 940) operably coupled to the sample block, wherein each thermoelectric device includes a housing (450, 460, 640, 925, 935, 945) for a thermal sensor (430, 440, 630) and a thermal control interface in communications with a controller, wherein each thermoelectric device is a configured to operate independently from each other to provide a substantially uniform temperature profile throughout the sample block, wherein each of the thermoelectric devices further comprise a top surface in thermal contact with the bottom surface of the sample block and an opposing bottom surface facing away from the sample block, wherein the housing is a groove carved out of an edge surface of each thermoelectric device, and wherein each of the thermoelectric devices houses a unique thermal sensor. a sample block (410, 610, 910) with a top surface configured to receive a plurality of reaction vessels and an opposing bottom surface; and two or more thermoelectric devices (420a, 420b, 620, 920, 939, 940) operably coupled to the sample block, wherein each thermoelectric device includes a housing (450, 460, 640, 925, 935, 945) for a thermal sensor (430, 440, 630) and a thermal control interface in communications with a controller, wherein each thermoelectric device is a configured to operate independently from each other to provide a substantially uniform temperature profile throughout the sample block, wherein each of the thermoelectric devices further comprise a top surface in thermal contact with the bottom surface of the sample block and an opposing bottom surface facing away from the sample block, wherein the housing is a groove carved out of an edge surface of each thermoelectric device, and wherein each of the thermoelectric devices houses a unique thermal sensor.
Parking brake, which is releasable by pressure means, having an outer part which is a housing, and having a circular cylindrical inner part which is a brake piston or is fastened on a brake piston, wherein the brake piston is prestressed against a plate stack by a cup spring, and having a sealing ring between the outer part and the inner part, which is accommodated within said outer part at least in sections, wherein the two parts (5, 6) are movable in a linear manner in relation to each other, and wherein a circumferential closed groove, into which a groove portion of the sealing ring is inserted at least in sections, is realized on an inner circumference of the outer part or on an outer circumference of the inner part, and wherein the sealing ring is in one part and consists of high-temperature-resistant thermoplastic plastics material, and wherein the sealing ring has a main portion, to which the groove portion is attached by means of an approximately tubular elastic portion.
A centrifugal pump of the barrel type in a back-to-back configuration, comprising: an outer case; an inner case enclosed in the outer case; at least a first unit and a second unit placed in fluid communication with each other, each unit (4, 5) representing one part of the back-to-back configuration, each unit (4, 5) having an intake duct and a discharge duct, the intake duct of the second unit being coupled with the discharge duct of the first unit, each unit (4, 5) comprising a plurality of impellers (6, 6a, 6b) having an axis of rotation and a plurality of diffusers, each placed around a respective impeller; the inner case comprising two half-parts joined along a connection plane containing the axis of rotation; wherein each diffuser comprises two half-parts joined along the connection plane, the centrifugal pump comprising a connecting element between the first unit and the second unit, the connecting element being engaged with a last impeller of the first unit and with a last impeller of the second unit, and a first diffuser and a second diffuser being placed around the last impeller (6a, 6b) respectively of the first unit and of the second unit; characterized by each unit (4, 5) having a chamber between the outer and the inner case; the first diffuser and the second diffuser being placed in fluid communication with the chamber of the first unit and of the second unit respectively; and a duct placed in fluid communication with the chamber of the first unit and with the intake duct of the second unit, wherein the duct is integrated into the outer case.
A glass antenna for a window glass for a vehicle, comprising: a first antenna that includes a first power feeding point, and a first element connected to the first power feeding point; a second antenna that includes a second power feeding point, and a second element connected to the second power feeding point; characterised in that the glass antenna further comprises: a no-power-fed element, not connected to an electrode, that includes a first overlapping part placed in parallel with at least a part of the first element, separated by a first interval, and a second overlapping part placed in parallel with at least a part of the second element, separated by a second interval, wherein the no-power-fed element is formed of a linear conductive wire, and wherein the no-power-fed element is capacitively coupled at the first overlapping part and the second overlapping part. a first antenna that includes a first power feeding point, and a first element connected to the first power feeding point; a second antenna that includes a second power feeding point, and a second element connected to the second power feeding point; characterised in that the glass antenna further comprises: a no-power-fed element, not connected to an electrode, that includes a first overlapping part placed in parallel with at least a part of the first element, separated by a first interval, and a second overlapping part placed in parallel with at least a part of the second element, separated by a second interval, wherein the no-power-fed element is formed of a linear conductive wire, and wherein the no-power-fed element is capacitively coupled at the first overlapping part and the second overlapping part. a first overlapping part placed in parallel with at least a part of the first element, separated by a first interval, and a second overlapping part placed in parallel with at least a part of the second element, separated by a second interval, wherein the no-power-fed element is formed of a linear conductive wire, and wherein the no-power-fed element is capacitively coupled at the first overlapping part and the second overlapping part.
A filter for removing ferrous particles from a fluid, comprising (a) a cylindrical filter housing defining an elongate lumen having a first end, a second end and a center, (b) a single, removable non-ferrous liner disposed within the housing elongate lumen and extending coaxially with the cylindrical filter housing substantially between the first end and the second end; (c) a plurality of magnets longitudinally extended at intervals outside the single, removable, non-ferrous liner; and (d) an insert inside the liner for imparting a directional flow to the fluid inside the filter, wherein: (i) the single, removable non-ferrous liner is constructed and arranged to hold ferrous particles and remove ferrous particles from the fluid and (ii) the insert comprises: (a) helical flighting constructed and arranged to induce a spiral flow pattern to the fluid inside the cylindrical filter and (b) a central return tube for directing filtered fluid outside of the filter. (a) a cylindrical filter housing defining an elongate lumen having a first end, a second end and a center, (b) a single, removable non-ferrous liner disposed within the housing elongate lumen and extending coaxially with the cylindrical filter housing substantially between the first end and the second end; (c) a plurality of magnets longitudinally extended at intervals outside the single, removable, non-ferrous liner; and (d) an insert inside the liner for imparting a directional flow to the fluid inside the filter, (i) the single, removable non-ferrous liner is constructed and arranged to hold ferrous particles and remove ferrous particles from the fluid and (ii) the insert comprises: (a) helical flighting constructed and arranged to induce a spiral flow pattern to the fluid inside the cylindrical filter and (b) a central return tube for directing filtered fluid outside of the filter. (a) helical flighting constructed and arranged to induce a spiral flow pattern to the fluid inside the cylindrical filter and (b) a central return tube for directing filtered fluid outside of the filter.
A process for lowering water in a biomass-derived pyrolysis oil comprising the steps of: • condensing pyrolysis gases to separate condensable pyrolysis gases from water-containing non-condensable pyrolysis gases; • drying the water-containing non-condensable pyrolysis gases to reduce the water content of the water-containing non-condensable pyrolysis gases to form reduced-water non-condensable pyrolysis gases; • introducing the reduced-water non-condensable pyrolysis gases into a riser of a pyrolysis reactor; • pyrolyzing a biomass material in the pyrolysis reactor with the reduced-water non-condensable pyrolysis gases to form reduced-water pyrolysis gases; and • condensing the reduced-water pyrolysis gases to form a low water biomass-derived pyrolysis oil. • condensing pyrolysis gases to separate condensable pyrolysis gases from water-containing non-condensable pyrolysis gases; • drying the water-containing non-condensable pyrolysis gases to reduce the water content of the water-containing non-condensable pyrolysis gases to form reduced-water non-condensable pyrolysis gases; • introducing the reduced-water non-condensable pyrolysis gases into a riser of a pyrolysis reactor; • pyrolyzing a biomass material in the pyrolysis reactor with the reduced-water non-condensable pyrolysis gases to form reduced-water pyrolysis gases; and • condensing the reduced-water pyrolysis gases to form a low water biomass-derived pyrolysis oil.
A shelf system comprising a base unit having a first profile and a second profile and a shelf having a rear face and a support surface extending from the rear face, the rear face of the shelf being arranged between the first profile and the second profile and being fixed in two directions at right angles to one another by the first profile, and fixed in a first of the two directions by second profile, wherein the rear face of the shelf comprises at least one deformable region capable of being deformed such that the rear face of the shelf is fixed by the said region to the second profile in the second of said two directions, characterised in that the shelf comprises a rear face opening engageable with a tool and that the rear face deformable region is located proximate to the rear face opening wherein manipulation of a tool engaged in the rear face opening deforms the rear face deformable region locking the rear face and thus the shelf relative to the second profile in the second of said two directions.
A computer-implemented method for simulating the process of filling a mold and ejecting a part from a mold cavity with the help of ejector pins, said method comprising: providing a three dimensional computer model defining the geometry of the solution domain, specifying the boundary conditions, discretizing a solution domain based on the model to form a mesh with a plurality of cells, attaching the physical data for the materials, solving the energy and flow equations for at least a portion of the solution domain, computing flow and temperature conditions in the respective cells as a function of time, using the results of the mold filling simulation as the start conditions for the ejection simulation, wherein the mold filling simulation includes the cooling and/or packing phase where solidification takes place, updating the location of the ejector pins, solving static equilibrium equations for at least a portion of the solution domain, computing the effects of the ejection process on the part, wherein said step of computing the effects of the ejection process on the part includes calculating deformation, wherein the stresses in the part caused by a pin are computed, and verifying if the ejection process has finished; if the ejection process is not finished the process returns to the step of updating the location of the ejector pins. providing a three dimensional computer model defining the geometry of the solution domain, specifying the boundary conditions, discretizing a solution domain based on the model to form a mesh with a plurality of cells, attaching the physical data for the materials, solving the energy and flow equations for at least a portion of the solution domain, computing flow and temperature conditions in the respective cells as a function of time, using the results of the mold filling simulation as the start conditions for the ejection simulation, wherein the mold filling simulation includes the cooling and/or packing phase where solidification takes place, updating the location of the ejector pins, solving static equilibrium equations for at least a portion of the solution domain, computing the effects of the ejection process on the part, wherein said step of computing the effects of the ejection process on the part includes calculating deformation, wherein the stresses in the part caused by a pin are computed, and verifying if the ejection process has finished; if the ejection process is not finished the process returns to the step of updating the location of the ejector pins.
A method for manufacturing a compound semiconductor, the method comprising: forming a graphene-derived material layer on a first substrate; forming at least one layer of compound semiconductor layers on the graphene-derived material layer; and characterised in that it comprises the step of, transforming the graphene-derived material layer into a graphene oxide layer to separate the at least one layer of compound semiconductor layers from the first substrate. forming a graphene-derived material layer on a first substrate; forming at least one layer of compound semiconductor layers on the graphene-derived material layer; and characterised in that it comprises the step of, transforming the graphene-derived material layer into a graphene oxide layer to separate the at least one layer of compound semiconductor layers from the first substrate.
A method for encoding a binary message composed of a first sub-message having a first priority level and of a second sub-message having a second priority level, using an LDPC code defined by a parity matrix H having a first dimension corresponding to the bits of the coded binary message (M c) and a second dimension, the parity-check matrix H consisting of four sub-sets (ES 1, ES 2, ES 3, ES 4) of two sub-matrices that are concatenated along the second dimension, the four sub-sets (ES 1, ES 2, ES 3, ES 4) being concatenated along the first dimension, the first sub-matrix (J 1) of the first sub-set (ES 1) taking the form where x is equal to the size of half of the first sub-message, y is equal to the size of half of the second sub-message, I is an identity matrix of dimensions (x,x) and G 1 is a nonzero matrix of dimensions (x,y), the second sub-matrix (H 1) of the first sub-set (ES 1) being a nonzero matrix, the first sub-matrix of the second sub-set (ES 2) being a zero matrix, the second sub-matrix (H 2) of the second sub-set (ES 1) being a nonzero matrix, the first sub-matrix (H 3) of the third sub-set (ES 3) being a nonzero matrix, the second sub-matrix (J 2) of the third sub-set (ES 3) taking the form where G 2 is a nonzero matrix of dimensions (x,y), the first sub-matrix (H 4) of the fourth sub-set (ES 4) being a nonzero matrix, and the second sub-matrix of the fourth sub-set (ES 4) being a zero matrix, the sub-matrices (H 1, H 2, H 3, H 4, J 1, J 2) of the four sub-sets being square and of dimensions (x+y,x+y), the encoding method comprising a step of encoding the binary message using the parity matrix H to produce the coded binary message (M c).
A channel state information feedback method, wherein the method comprises: sending, by a terminal device, matrix information of a dimension reduction matrix to a network device, wherein a first dimension of the dimension reduction matrix is the same as a quantity of transmit antenna ports of the network device, and a second dimension of the dimension reduction matrix is less than the first dimension of the dimension reduction matrix; and sending, by the terminal device, vector information of an eigenvector of a downlink equivalent channel to the network device, wherein the eigenvector of the downlink equivalent channel is obtained based on the dimension reduction matrix, wherein the matrix information comprises a matrix index of the dimension reduction matrix, or the matrix information comprises information obtained by the terminal device by quantizing an element of the dimension reduction matrix; and the vector information comprises an index of the eigenvector, or the vector information comprises information obtained by the terminal device by quantizing an element of the eigenvector, characterized in that the dimension reduction matrix is determined by the terminal device based on channel matrices corresponding to downlink reference signals received in a first time period, energy of a subspace corresponding to the dimension reduction matrix in the first time period is highest among a plurality of subspaces corresponding to the downlink channel in a same dimension, and orthogonality is met between column vectors of the dimension reduction matrix. sending, by a terminal device, matrix information of a dimension reduction matrix to a network device, wherein a first dimension of the dimension reduction matrix is the same as a quantity of transmit antenna ports of the network device, and a second dimension of the dimension reduction matrix is less than the first dimension of the dimension reduction matrix; and sending, by the terminal device, vector information of an eigenvector of a downlink equivalent channel to the network device, wherein the eigenvector of the downlink equivalent channel is obtained based on the dimension reduction matrix, wherein the matrix information comprises a matrix index of the dimension reduction matrix, or the matrix information comprises information obtained by the terminal device by quantizing an element of the dimension reduction matrix; and the vector information comprises an index of the eigenvector, or the vector information comprises information obtained by the terminal device by quantizing an element of the eigenvector, characterized in that the dimension reduction matrix is determined by the terminal device based on channel matrices corresponding to downlink reference signals received in a first time period, energy of a subspace corresponding to the dimension reduction matrix in the first time period is highest among a plurality of subspaces corresponding to the downlink channel in a same dimension, and orthogonality is met between column vectors of the dimension reduction matrix.