mhurhangee/ep-ind-claims huggingface dataset:
A coated steel sheet comprising: a material steel sheet; an under coat layer including a cured product of a resin composition for the under coat layer which contains a main resin and a metal powder and which satisfies a condition of the following formula 1, the under coat layer being formed on one side or both sides of the material steel sheet; and a top coat layer formed on the under coat layer: Tb / 3 ≤ 01 < 3 Tb wherein D1 means an average particle size of a major axis of the metal powder, and Tb means a thickness of the under coat layer formed by the cured product of the resin composition for the under coat layer, wherein the main resin is contained in a range of 20 volume part to 90 volume parts on the basis of 100 volume parts of a solid content of the resin composition for the under coat layer, wherein the metal powder is contained in a range of 1 volume part to 30 volume parts on the basis of 100 volume parts of a solid content of the resin composition for the under coat layer, wherein the thickness of the under coat layer is 1 μ m to 10 μ m, wherein the top coat layer comprises a cured product of an UV curing paint composition containing an oligomer, a photo-polymerizable monomer and a photo-initiator, wherein the UV curing paint composition contains 30 weight parts to 70 weight parts of the oligomer, 30 weight parts to 70 weight parts of the photo-polymerizable monomer, and 0.1 weight parts to 30 weight parts of the photo-initiator on the basis of 100 weight parts of the UV curing paint composition, wherein a thickness of the top coat layer is 1 μ m to 20 μ m. a material steel sheet; an under coat layer including a cured product of a resin composition for the under coat layer which contains a main resin and a metal powder and which satisfies a condition of the following formula 1, the under coat layer being formed on one side or both sides of the material steel sheet; and a top coat layer formed on the under coat layer: Tb / 3 ≤ 01 < 3 Tb wherein D1 means an average particle size of a major axis of the metal powder, and Tb means a thickness of the under coat layer formed by the cured product of the resin composition for the under coat layer, wherein the main resin is contained in a range of 20 volume part to 90 volume parts on the basis of 100 volume parts of a solid content of the resin composition for the under coat layer, wherein the metal powder is contained in a range of 1 volume part to 30 volume parts on the basis of 100 volume parts of a solid content of the resin composition for the under coat layer, wherein the thickness of the under coat layer is 1 μ m to 10 μ m, wherein the top coat layer comprises a cured product of an UV curing paint composition containing an oligomer, a photo-polymerizable monomer and a photo-initiator, wherein the UV curing paint composition contains 30 weight parts to 70 weight parts of the oligomer, 30 weight parts to 70 weight parts of the photo-polymerizable monomer, and 0.1 weight parts to 30 weight parts of the photo-initiator on the basis of 100 weight parts of the UV curing paint composition, wherein a thickness of the top coat layer is 1 μ m to 20 μ m.
A method for implementing a general packet radio service (GPRS) tunnel protocol in a packet core of a third generation network, the PC of the 3G network comprising a serving GPRS support node (SGSN) and a gateway GPRS support node (GGSN) and having a split architecture where a control plane of the PC of the 3G network, including control plane components of the SGSN and GGSN, is in a cloud computing system, the cloud computing system including a controller, the controller to execute a plurality of control plane modules, the control plane to communicate with the data plane of the PC through a control plane protocol, the data plane implemented in a plurality of network elements of the 3G network, the method comprising the steps of: receiving a request by the controller to create a GTP tunnel in the PC of the 3G network between the SGSN and the GGSN for a subscriber session; configuring a switch implementing a data plane of the SGSN, via the control protocol, to encapsulate and decapsulate packets of the subscriber session and to establish a first GTP tunnel endpoint; configuring at least one switch in a route of the GTP tunnel, via the control plane protocol, to forward packets of the subscriber session according to the GTP tunnel; and configuring a switch implementing a data plane of the GGSN, via the control plane protocol, to encapsulate and decapsulate the packets of the subscriber session and to establish a second GTP tunnel endpoint. receiving a request by the controller to create a GTP tunnel in the PC of the 3G network between the SGSN and the GGSN for a subscriber session; configuring a switch implementing a data plane of the SGSN, via the control protocol, to encapsulate and decapsulate packets of the subscriber session and to establish a first GTP tunnel endpoint; configuring at least one switch in a route of the GTP tunnel, via the control plane protocol, to forward packets of the subscriber session according to the GTP tunnel; and configuring a switch implementing a data plane of the GGSN, via the control plane protocol, to encapsulate and decapsulate the packets of the subscriber session and to establish a second GTP tunnel endpoint.
Method of producing a thermally rearranged polybenzoxazole, polybenzimidazole or polybenzothiazole (TR PBX), including the following method steps: - preparing a polyimide or aromatic polyamide as a precursor polymer in a solution, wherein in each recurring monomer unit of the precursor polymer an aromatic ring is located adjacent to the nitrogen atom of the imide group or amide group of the monomer unit, wherein the aromatic ring is functionalized with an -XR group at the ortho- position to the nitrogen atom, wherein X=O, N or S, and - performing a thermal treatment to carry out a thermal rearrangement resulting in the thermally rearranged polybenzoxazole, polybenzimidazole or polybenzothiazole, characterized in that R is an allyl group or an allyl-based group, wherein a processing temperature used during the thermal treatment for the thermal rearrangement is between 0 °C and 350 °C. - preparing a polyimide or aromatic polyamide as a precursor polymer in a solution, wherein in each recurring monomer unit of the precursor polymer an aromatic ring is located adjacent to the nitrogen atom of the imide group or amide group of the monomer unit, wherein the aromatic ring is functionalized with an -XR group at the ortho- position to the nitrogen atom, wherein X=O, N or S, and - performing a thermal treatment to carry out a thermal rearrangement resulting in the thermally rearranged polybenzoxazole, polybenzimidazole or polybenzothiazole,
A method for modulation coding a stream of binary input data, the method comprising: applying a 4-ary enumerative encoding algorithm to the input bit-stream of M bit words to produce a succession of 4-ary output codewords, wherein each 4-ary codeword is represented by two bits, the 4-ary algorithm being operative to simultaneously encode respective generalized Fibonacci codes in the odd and even interleaves of the input bit-stream; and interleaving bits of each successive 4-ary output codeword to produce an output bit-stream; wherein an output bit-stream comprising a succession of 2N-bit codewords is produced from a succession of M-bit words in the input bit-stream, and wherein the 4-ary algorithm comprises, for each M-bit word, initialising an input value to the M-bit word value and then, for each iteration i of i=1 to N: calculating partitioning indices for partitioning the range of possible input values into four sub-ranges; comparing the input value to the partitioning indices to determine which sub-range contains the input value; producing a 4-ary output codeword of value dependent on the sub-range containing the input value; and updating the input value by subtracting the lower boundary value of the sub-range containing the input value. applying a 4-ary enumerative encoding algorithm to the input bit-stream of M bit words to produce a succession of 4-ary output codewords, wherein each 4-ary codeword is represented by two bits, the 4-ary algorithm being operative to simultaneously encode respective generalized Fibonacci codes in the odd and even interleaves of the input bit-stream; and interleaving bits of each successive 4-ary output codeword to produce an output bit-stream; wherein an output bit-stream comprising a succession of 2N-bit codewords is produced from a succession of M-bit words in the input bit-stream, and wherein the 4-ary algorithm comprises, for each M-bit word, initialising an input value to the M-bit word value and then, for each iteration i of i=1 to N: calculating partitioning indices for partitioning the range of possible input values into four sub-ranges; comparing the input value to the partitioning indices to determine which sub-range contains the input value; producing a 4-ary output codeword of value dependent on the sub-range containing the input value; and updating the input value by subtracting the lower boundary value of the sub-range containing the input value. calculating partitioning indices for partitioning the range of possible input values into four sub-ranges; comparing the input value to the partitioning indices to determine which sub-range contains the input value; producing a 4-ary output codeword of value dependent on the sub-range containing the input value; and updating the input value by subtracting the lower boundary value of the sub-range containing the input value.
A connection system for connecting a hemostasis valve with a splittable sheath the system comprising a hemostasis valve having a first engagement structure (206, 240, 250, 274, 310) disposed thereon; a splittable sheath; a sheath hub joined with a proximal end of the splittable sheath, the sheath hub further having a second engagement structure (214, 242a-d, 252, 270, 300) disposed on a proximal end thereof; a pair of handles joined with the sheath hub, wherein each handle is positioned on an opposing lateral half of the sheath hub, respectively; wherein the first engagement structure mechanically engages with the second engagement structure to couple the hemostasis valve with the splittable sheath; and the second engagement structure disengages from the first engagement structure when the opposing lateral halves of the sheath hub are separated from each other to split the splittable sheath, characterized in that the connection system further comprises a third engagement structure disposed on the hemostasis valve proximally displaced from the first engagement structure; and a fourth engagement structure disposed on the sheath hub; wherein the third engagement structure mechanically engages with the fourth engagement structure to axially couple the hemostasis valve with the splittable sheath; and the fourth engagement structure disengages from the third engagement structure when the opposing lateral halves of the sheath hub are separated from each other to split the splittable sheath:
A filter for a kitchen hood, wherein - said filter comprises a plurality of filter elements, - the filter elements are formed as elongated profile parts having the same cross-section, - the filter elements are arranged side by side and parallel to each other, - the shapes of opposite surfaces of two adjacent filter elements are substantially complementary to each other, - the opposite surfaces of the adjacent filter elements are spaced from each other at a predetermined distance, and - an air flow channel is formed in each intermediate space between two adjacent filter elements, so that - said air flow channel extends perpendicular to the longitudinal axes of the filter elements, characterised in that the shapes of opposite surfaces of two adjacent filter elements have a corrugated and wave-like structure, so that the shortest path through the air flow channel has a wave-like structure, and wherein the intermediate spaces between the adjacent filter elements are filled with at least one porous material. - said filter comprises a plurality of filter elements, - the filter elements are formed as elongated profile parts having the same cross-section, - the filter elements are arranged side by side and parallel to each other, - the shapes of opposite surfaces of two adjacent filter elements are substantially complementary to each other, - the opposite surfaces of the adjacent filter elements are spaced from each other at a predetermined distance, and - an air flow channel is formed in each intermediate space between two adjacent filter elements, so that - said air flow channel extends perpendicular to the longitudinal axes of the filter elements,
A body support apparatus for discrete manipulation of pressure on a body comprising: - a plurality of self-inflating fluid cells affixed together to form a support surface, wherein each of said plurality of self-inflating fluid cells has at least one port, an exterior, and an interior, and wherein said interior is defined by an open area for receiving fluid; and - a harnessing system that controls the direction and flow volume of fluid into the self-inflating fluid cells such that the pressure in one or a group of the plurality of self-inflating cells may be discretely controlled; characterized in that said harnessing system is configured to releasably interconnect said plurality of self-inflating fluid cells in a plurality of harnessing configurations. - a plurality of self-inflating fluid cells affixed together to form a support surface, wherein each of said plurality of self-inflating fluid cells has at least one port, an exterior, and an interior, and wherein said interior is defined by an open area for receiving fluid; and - a harnessing system that controls the direction and flow volume of fluid into the self-inflating fluid cells such that the pressure in one or a group of the plurality of self-inflating cells may be discretely controlled;
An apparatus for testing an independent monitoring circuit in an LED traffic signal, the apparatus comprising: an independent monitoring circuit that is configured to continuously receive LED information and disconnect an LED signal when the independent monitoring circuit detects that the LED signal is not generating light; a proof test circuit embedded within the traffic signal and in communication with the independent monitoring circuit, wherein the proof test circuit is configured to simulate a faulty traffic signal state to activate the independent monitoring circuit without switching the traffic signal into a high impedance state; and a proof test device embedded within the traffic signal and in communication with the independent monitoring circuit, wherein the proof test device is configured to communicate externally a current state of the independent monitoring circuit. an independent monitoring circuit that is configured to continuously receive LED information and disconnect an LED signal when the independent monitoring circuit detects that the LED signal is not generating light; a proof test circuit embedded within the traffic signal and in communication with the independent monitoring circuit, wherein the proof test circuit is configured to simulate a faulty traffic signal state to activate the independent monitoring circuit without switching the traffic signal into a high impedance state; and a proof test device embedded within the traffic signal and in communication with the independent monitoring circuit, wherein the proof test device is configured to communicate externally a current state of the independent monitoring circuit. a proof test circuit embedded within the traffic signal and in communication with the independent monitoring circuit, wherein the proof test circuit is configured to simulate a faulty traffic signal state to activate the independent monitoring circuit without switching the traffic signal into a high impedance state; and a proof test device embedded within the traffic signal and in communication with the independent monitoring circuit, wherein the proof test device is configured to communicate externally a current state of the independent monitoring circuit.
Arrangement for changing the shape of a sheet-like workpiece, which has a mould recess formed by reducing the thickness of the material, comprising the workpiece, at least two spaced-apart supporting elements designed for arranging the workpiece on the machine bed, a forming device designed for forming the workpiece into a final shape by step-by-step, repetitive free bending with an upper die, which is designed to be controllably lowerable from a waiting position into a forming position for bending a part of the workpiece as well as with positioning means which are designed for moving the position of the workpiece relative to the machine bed in at least one infeed direction, characterised in that the arrangement further comprises a filling element adapted to the mould recess and designed to make up the material thickness which is designed to be arranged in the region of the mould recess before the workpiece is formed into the final shape. the workpiece, at least two spaced-apart supporting elements designed for arranging the workpiece on the machine bed, a forming device designed for forming the workpiece into a final shape by step-by-step, repetitive free bending with an upper die, which is designed to be controllably lowerable from a waiting position into a forming position for bending a part of the workpiece as well as with positioning means which are designed for moving the position of the workpiece relative to the machine bed in at least one infeed direction, characterised in that the arrangement further comprises a filling element adapted to the mould recess and designed to make up the material thickness which is designed to be arranged in the region of the mould recess before the workpiece is formed into the final shape.
A method of upgrading a plant for transmitting electric power through High Voltage Direct Current (HVDC), said plant comprising two converter stations (1, 2) interconnected by a pole conductor of a monopolar direct voltage network and each having an alternating voltage side (5, 6) for feeding electric power from one of said alternating voltage sides to the other, each station having a line commutated Current Source Converter (3, 4) having at least one phase leg with one end connected to said pole conductor of the direct voltage network and the other end having an earth connection in the form of a connection to an earth electrode (8, 9) or a return current conductor, the method comprising: - interconnecting said stations by a further pole conductor such that said direct voltage network is made bipolar, and - providing each station with a Voltage Source Converter (11, 12) having at least one phase leg, one end of which is connected to said further pole conductor and the other end to said earth connection and by that to said Current Source Converter (3, 4), the method characterized by further comprising: - providing two switches (17-20, 23, 24) for both Voltage Source Converters of the plant, and - providing means (21, 22) for controlling said four switches so as to enable to change, when the feeding direction of power transmitted between said stations is to be changed, which end of a said phase leg of each converter provided with said switches is connected to one of said pole conductors and which end is connected to said earth connection and by that to the other converter of the station so as to maintain the direction of the current flowing in each said pole conductor (7, 10) upon a said change of the feeding direction of the power transmitted between said stations (1, 2), wherein the further pole conductor is a cable. - interconnecting said stations by a further pole conductor such that said direct voltage network is made bipolar, and - providing each station with a Voltage Source Converter (11, 12) having at least one phase leg, one end of which is connected to said further pole conductor and the other end to said earth connection and by that to said Current Source Converter (3, 4), - providing two switches (17-20, 23, 24) for both Voltage Source Converters of the plant, and - providing means (21, 22) for controlling said four switches so as to enable to change, when the feeding direction of power transmitted between said stations is to be changed, which end of a said phase leg of each converter provided with said switches is connected to one of said pole conductors and which end is connected to said earth connection and by that to the other converter of the station so as to maintain the direction of the current flowing in each said pole conductor (7, 10) upon a said change of the feeding direction of the power transmitted between said stations (1, 2), wherein the further pole conductor is a cable.
A tuyere for bottom and side blowing, wherein the tuyere comprises a tuyere body having a passage, a main blast pipe, a protective blast pipe, a tuyere nose, a cooled element and a ceramometal headpiece, wherein the main blast pipe and the protective blast pipe are arranged coaxially with respect to each other, the ceramometal headpiece is disposed on the tuyere nose and is made of a material having an average thermal conductivity of at least 30 W/m°C and a phase transition latent heat of at least 1000 kJ/kg, the ceramometal headpiece being made of layers of different materials of those having a low thermal conductivity and a high melting point, and those having a high thermal conductivity and a melting point of about 1100°C.
A method for producing a membrane, in particular a gas separating membrane, wherein the membrane has a selective separating layer, comprising the following steps: a) a polymer solution is produced from at least one polyether block amide and at least one etherified polyethylene glycol, wherein the etherified polyethylene glycol is added to the polymer solution in an amount of 5% by weight to 60% by weight, preferably 50% by weight, with reference to the mixture with the polyether block amide, and the etherified polyethylene glycols have 2 to 8 ethylene glycol units, and the ether groups consist of linear or branched alkyl groups with 1 to 6 carbon atoms, b) the polymer solution is poured into a film, c) in an additional step, the selective separating layer is produced from the film, preferably by drying. a) a polymer solution is produced from at least one polyether block amide and at least one etherified polyethylene glycol, wherein the etherified polyethylene glycol is added to the polymer solution in an amount of 5% by weight to 60% by weight, preferably 50% by weight, with reference to the mixture with the polyether block amide, and the etherified polyethylene glycols have 2 to 8 ethylene glycol units, and the ether groups consist of linear or branched alkyl groups with 1 to 6 carbon atoms, b) the polymer solution is poured into a film, c) in an additional step, the selective separating layer is produced from the film, preferably by drying.