mhurhangee/ep-ind-claims huggingface dataset:
A transport assembly for securing a large heavy load to a load platform during a transport manoeuvre, which transport assembly comprises - a frame unit realized to lie on a load platform of a transport vehicle; - a number of first load-positioning beams, wherein a first load-positioning beam is realized to span a single frame unit; and/or - a number of second load-positioning beams, wherein a second load-positioning beam is realized to span a pair of adjacent frame units; and - a part adapter realized to engage with a load-positioning beam (131, 132) and to engage with the load, characterized in that the frame unit comprises a plurality of transverse beams arranged to extend across the width of the load platform and held in place by a pair of lateral beams arranged to extend lengthways along the sides of the load platform; and wherein a transverse beam is arranged to rest on an upper surface of the load platform. - a frame unit realized to lie on a load platform of a transport vehicle; - a number of first load-positioning beams, wherein a first load-positioning beam is realized to span a single frame unit; and/or - a number of second load-positioning beams, wherein a second load-positioning beam is realized to span a pair of adjacent frame units; and - a part adapter realized to engage with a load-positioning beam (131, 132) and to engage with the load, characterized in that the frame unit comprises a plurality of transverse beams arranged to extend across the width of the load platform and held in place by a pair of lateral beams arranged to extend lengthways along the sides of the load platform; and wherein a transverse beam is arranged to rest on an upper surface of the load platform.
A method for preparing a lithium mixed transition metal oxide comprising: combining Li 2 CO 3 and a mixed transition metal precursor having the formula MOOH, wherein M is as defined in Formula I below, and having a tap density of 1.1 to 1.6 g/cm 3, to form a mixture and performing a solid-state reaction under an oxygen-deficient atmosphere with an oxygen concentration of 10 to 50 % to thereby prepare a powdered lithium mixed transition metal oxide having a composition represented by Formula I below wherein the solid-state reaction involves a single heat treatment of the mixture: Li x MyO 2 wherein: M = M' 1-k A k, wherein M' is Ni l-a-b (Ni 1/2 Mn 1/2) a Co b, 0.65 a+b ≤ 0.85 and 0.1 ≤ b ≤ 0.4; A is a dopant; 0 ≤ k ≤ 0.05; and x+y = 2 and 0.95 ≤ x ≤ 1.05, wherein the lithium mixed transition metal oxide is substantially free of water-soluble bases and that less than 20 ml of 0.1 M HCl is necessary to titrate 100 ml of a solution containing substantially all of the soluble bases present in 10 g of said lithium transition metal oxide, said solution being prepared by repeated soaking and decanting of the lithium transition metal oxide. combining Li 2 CO 3 and a mixed transition metal precursor having the formula MOOH, wherein M is as defined in Formula I below, and having a tap density of 1.1 to 1.6 g/cm 3, to form a mixture and performing a solid-state reaction under an oxygen-deficient atmosphere with an oxygen concentration of 10 to 50 % to thereby prepare a powdered lithium mixed transition metal oxide having a composition represented by Formula I below wherein the solid-state reaction involves a single heat treatment of the mixture: Li x MyO 2 wherein: M = M' 1-k A k, wherein M' is Ni l-a-b (Ni 1/2 Mn 1/2) a Co b, 0.65 a+b ≤ 0.85 and 0.1 ≤ b ≤ 0.4; A is a dopant; 0 ≤ k ≤ 0.05; and x+y = 2 and 0.95 ≤ x ≤ 1.05, wherein the lithium mixed transition metal oxide is substantially free of water-soluble bases and that less than 20 ml of 0.1 M HCl is necessary to titrate 100 ml of a solution containing substantially all of the soluble bases present in 10 g of said lithium transition metal oxide, said solution being prepared by repeated soaking and decanting of the lithium transition metal oxide. M = M' 1-k A k, wherein M' is Ni l-a-b (Ni 1/2 Mn 1/2) a Co b, 0.65 a+b ≤ 0.85 and 0.1 ≤ b ≤ 0.4; A is a dopant; 0 ≤ k ≤ 0.05; and x+y = 2 and 0.95 ≤ x ≤ 1.05, wherein the lithium mixed transition metal oxide is substantially free of water-soluble bases and that less than 20 ml of 0.1 M HCl is necessary to titrate 100 ml of a solution containing substantially all of the soluble bases present in 10 g of said lithium transition metal oxide, said solution being prepared by repeated soaking and decanting of the lithium transition metal oxide.
A composition comprising: a plurality of nucleic acid probes on a solid support, wherein the nucleic acid probes are randomly located and attached across a population of features on the solid support, and wherein a nucleic acid probe of the plurality of nucleic acid probes comprises: i) a universal primer binding sequence, and ii) a spatial barcode sequence that differs from the spatial barcode sequence of other nucleic acid probes on the solid support; with the proviso that the solid support does not comprise a plurality of synthetic beads associated with the plurality of spatial barcodes. i) a universal primer binding sequence, and ii) a spatial barcode sequence that differs from the spatial barcode sequence of other nucleic acid probes on the solid support;
A liquid pharmaceutical composition comprising dihydroergotamine or salt thereof, for use in a method of acutely treating migraine headache with or without aura by intranasal administration, characterized in that the method comprises intranasally administering to a subject with migraine headache an effective dose of the liquid pharmaceutical composition; wherein the dose comprises about 1.45 mg of DHE or salt thereof, and is administered to the nose as a plurality of divided doses over a period of no more than 1 minute by a manually actuated, propellant-driven metered-dose intranasal delivery device.
A combine harvester vehicle with an agricultural harvesting head supported on a feederhouse pivotally coupled to the front of the combine harvester vehicle, the articulated harvesting head including a center section, a left section and a right section, wherein the left section is hingeably coupled to the center section that extends leftward therefrom, wherein the right section is hingeably coupled to the center section and extends rightward therefrom, wherein a left actuator is pivotally coupled to the center section and to the left section to pivot the left section with respect to the center section, wherein a right actuator is pivotally coupled to the center section and to the right section to pivot the right section with respect to the center section, characterized in that the combine harvester vehicle comprises a ground force control circuit comprising an ECU and a first hydraulic control valve driven by the ECU, wherein the first hydraulic control valve is coupled to the right actuator and is configured to maintain a constant pressure in the right actuator, that the first hydraulic control valve or a third hydraulic control valve driven by the ECU is coupled to the left actuator and is configured to maintain a constant pressure in the left actuator, that the center section is supported on the feederhouse and that at least a feederhouse actuator (110, 112) is coupled to the feederhouse to vertically move the feederhouse with respect to the combine harvester vehicle, the ground force control circuit further comprising a second hydraulic control valve driven by the ECU, wherein the second hydraulic control valve is coupled to said feederhouse actuator (110, 112) and is configured to maintain a constant pressure in the feederhouse actuator (110, 112).
A display panel, comprising: a base member including a light guide portion that guides light from a light source toward a front side, wherein the light guide portion is made of a hard light-transmitting resin; upholstery located on a front side of the base member, and a sensor mounted on the front surface of the base member, the sensor including a switch unit, and the sensor being configured for detecting a pressure applied from the front side to the switch unit or a finger approaching the switch unit from the front side, wherein the base member has a protruding portion (9a, 9b) on its surface, and wherein the upholstery includes: a light-transmitting region that is located over the light guide portion of the base member and the switch unit of the sensor and that allows the light from the light source to transmit therethrough to the front side; and a non-light-transmitting region that blocks the light from the light source, a raised portion (15a, 15b) that is raised on a front side of the upholstery is located near the light-transmitting region in the non-light-transmitting region of the upholstery, and the protruding portion (9a, 9b) of the base member is placed in the raised portion (15a, 15b) from the back side of the upholstery. a base member including a light guide portion that guides light from a light source toward a front side, wherein the light guide portion is made of a hard light-transmitting resin; upholstery located on a front side of the base member, and a sensor mounted on the front surface of the base member, the sensor including a switch unit, and the sensor being configured for detecting a pressure applied from the front side to the switch unit or a finger approaching the switch unit from the front side, wherein the base member has a protruding portion (9a, 9b) on its surface, and wherein the upholstery includes: a light-transmitting region that is located over the light guide portion of the base member and the switch unit of the sensor and that allows the light from the light source to transmit therethrough to the front side; and a non-light-transmitting region that blocks the light from the light source, a raised portion (15a, 15b) that is raised on a front side of the upholstery is located near the light-transmitting region in the non-light-transmitting region of the upholstery, and the protruding portion (9a, 9b) of the base member is placed in the raised portion (15a, 15b) from the back side of the upholstery. a light-transmitting region that is located over the light guide portion of the base member and the switch unit of the sensor and that allows the light from the light source to transmit therethrough to the front side; and a non-light-transmitting region that blocks the light from the light source, a raised portion (15a, 15b) that is raised on a front side of the upholstery is located near the light-transmitting region in the non-light-transmitting region of the upholstery, and the protruding portion (9a, 9b) of the base member is placed in the raised portion (15a, 15b) from the back side of the upholstery.
A polarization mode dispersion compensation scheme for use in multilevel ( M> =2) block-coded modulation system comprising the steps of: encoding bit streams originating from m different information sources using different ( n, k i;) LDPC codes of code rate code rate r i =k i / n where k i denotes the number of information bits of i th (i=1,2,..., m) component LDPC code, and n denotes the codeword length, which is the same for all LDPC codes; writing the m outputs produced by the LDPC encoder row-wise, into a block interleaver; mapping the interleaved output of the block interleaver to a corresponding M -ary signal constellation points in two-dimensional constellation diagram; encoding, through the effect of a Polarization-time encoder, the points such that symbols to be transmitted using an x-transmission optical channel and symbols to be transmitted using a y-transmission optical channel are produced, and combining, the symbols into a single output stream for transmission over an optical fiber. encoding bit streams originating from m different information sources using different ( n, k i;) LDPC codes of code rate code rate r i =k i / n where k i denotes the number of information bits of i th (i=1,2,..., m) component LDPC code, and n denotes the codeword length, which is the same for all LDPC codes; writing the m outputs produced by the LDPC encoder row-wise, into a block interleaver; mapping the interleaved output of the block interleaver to a corresponding M -ary signal constellation points in two-dimensional constellation diagram; encoding, through the effect of a Polarization-time encoder, the points such that symbols to be transmitted using an x-transmission optical channel and symbols to be transmitted using a y-transmission optical channel are produced, and combining, the symbols into a single output stream for transmission over an optical fiber.
A stator disk for a turbomolecular pump comprising a vane, an inner ring and an outer ring, wherein the inner ring and the outer ring together define a disk plane, characterized in that the stator disk has at least one lug at a side of the outer ring facing outwardly in the radial direction which projects out of the disk plane and which is manufactured by a punching and by a subsequent reshaping by bending such that the lug satisfies the function of a spacer ring.
A method of cementing a liner, comprising: releasing a first dart in front of a cement; releasing a second dart behind the cement; landing the first dart in a first plug; landing the second dart in an activation seat; increasing pressure to activate a liner hanger; further increasing pressure to release the second dart from the activation seat; landing the second dart in a second plug; releasing the first dart and the first plug releasing the second dart and the second plug; and disposing the cement on an exterior of the liner. releasing a first dart in front of a cement; releasing a second dart behind the cement; landing the first dart in a first plug; landing the second dart in an activation seat; increasing pressure to activate a liner hanger; further increasing pressure to release the second dart from the activation seat; landing the second dart in a second plug; releasing the first dart and the first plug releasing the second dart and the second plug; and disposing the cement on an exterior of the liner.
Method of coating of a cylinder wall of an internal combustion engine, wherein the cylinder wall is roughened prior to coating, characterised in that the cylinder wall is only partially compressed prior to roughening through plastic deformation and several compressed and uncompressed sections of the cylinder wall are created in alternating succession.
A method for transferring an additive solution targeted at a blood bag system including a first bag containing a blood component, a second bag containing additive solution, and a transfer line that forms a flow path between the first bag and the second bag, the method being configured to transfer the additive solution from the second bag to the first bag, the method for transferring the additive solution comprising: a support step of supporting the first bag or the transfer line in a predetermined state such that, when the additive solution is transferred from the second bag to the first bag using a height difference between the first bag and the second bag, air from the second bag stops in the middle of the flow path; and a hanging step of hanging the second bag such that an influx portion of the second bag faces downward, characterized in that the support step supports the first bag diagonally with respect to a horizontal direction to arrange the first bag to be gradually lowered toward an influx portion of the first bag at a position lower than second bag to be hung. a support step of supporting the first bag or the transfer line in a predetermined state such that, when the additive solution is transferred from the second bag to the first bag using a height difference between the first bag and the second bag, air from the second bag stops in the middle of the flow path; and a hanging step of hanging the second bag such that an influx portion of the second bag faces downward, characterized in that the support step supports the first bag diagonally with respect to a horizontal direction to arrange the first bag to be gradually lowered toward an influx portion of the first bag at a position lower than second bag to be hung.
A communication apparatus for use in a communication system including a call control apparatus and a key information distribution apparatus, the communication apparatus comprising: a key generation means configured to, when media communication is performed between the communication apparatus and another communication apparatus, request the key information distribution apparatus to provide common key generation information for generating a first common key; a call control means configured to establish a call connection between the communication apparatus and said another communication apparatus by transmitting a call connection request to the call control apparatus; and a communication means configured to transmit and receive an encrypted media packet by using the first common key or a second common key, the second common key being a common key generated by key exchange between the communication apparatuses; wherein the key generation means generates the first common key by using the common key generation information received from the key information distribution apparatus, and the communication means starts transmitting and receiving an encrypted media packet by using the second common key, and after the first common key is generated, switches the keys so as to transmit and receive an encrypted media packet by using the first common key; characterized in that a type of the second common key is different from a type of the first common key. a key generation means configured to, when media communication is performed between the communication apparatus and another communication apparatus, request the key information distribution apparatus to provide common key generation information for generating a first common key; a call control means configured to establish a call connection between the communication apparatus and said another communication apparatus by transmitting a call connection request to the call control apparatus; and a communication means configured to transmit and receive an encrypted media packet by using the first common key or a second common key, the second common key being a common key generated by key exchange between the communication apparatuses; wherein the key generation means generates the first common key by using the common key generation information received from the key information distribution apparatus, and the communication means starts transmitting and receiving an encrypted media packet by using the second common key, and after the first common key is generated, switches the keys so as to transmit and receive an encrypted media packet by using the first common key; characterized in that a type of the second common key is different from a type of the first common key.
A thermoelectric conversion device comprising: a first material represented by composition formula AB x (wherein A is at least one element selected from the group consisting of Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Sc, Y, La, Bi, He, Ne, Ar, Kr, and Xe, and B is at least one element selected from the group consisting of Zn, Cu, Ag, Au, Al, Ga, In, Si, Ge, and Sn), and having a lattice thermal conductivity that is lower than its electron thermal conductivity; and a second material having a higher Seebeck coefficient than the first material, and an electron thermal conductivity that is lower than its lattice thermal conductivity, wherein the lattice thermal conductivity of the first material is lower than the lattice thermal conductivity of the second material, and wherein the distance from the interface between the first material and the second material to an end portion of the first material and to an end portion of the second material is 500 nm or less. a first material represented by composition formula AB x (wherein A is at least one element selected from the group consisting of Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Sc, Y, La, Bi, He, Ne, Ar, Kr, and Xe, and B is at least one element selected from the group consisting of Zn, Cu, Ag, Au, Al, Ga, In, Si, Ge, and Sn), and having a lattice thermal conductivity that is lower than its electron thermal conductivity; and a second material having a higher Seebeck coefficient than the first material, and an electron thermal conductivity that is lower than its lattice thermal conductivity, wherein the lattice thermal conductivity of the first material is lower than the lattice thermal conductivity of the second material, and wherein the distance from the interface between the first material and the second material to an end portion of the first material and to an end portion of the second material is 500 nm or less.
A chicken B cell, in which the chicken antibody light chain gene locus is replaced by the DNA sequences of a human antibody light chain variable region and by the DNA sequences of a human antibody light chain constant region, and in which in the chicken antibody heavy chain gene locus the DNA sequences of a human antibody heavy chain variable region and of a human antibody heavy chain constant region are inserted, and in which the chicken antibody light chain pseudogene locus is replaced by 25 or more DNA sequences of human antibody light chain variable regions, and in which in the chicken antibody heavy chain pseudogene locus 30 or more DNA sequences of human antibody heavy chain variable regions are inserted, wherein the chicken B cell has the ability to express a human antibody on the cell surface and also to secrete the human antibody into the culture solution. and in which in the chicken antibody heavy chain gene locus the DNA sequences of a human antibody heavy chain variable region and of a human antibody heavy chain constant region are inserted, and in which the chicken antibody light chain pseudogene locus is replaced by 25 or more DNA sequences of human antibody light chain variable regions, and in which in the chicken antibody heavy chain pseudogene locus 30 or more DNA sequences of human antibody heavy chain variable regions are inserted, wherein the chicken B cell has the ability to express a human antibody on the cell surface and also to secrete the human antibody into the culture solution.
An identification device intended to be fixed on an object having a receiving support, including a label made of plastic material provided with an upper face having a visible identifier and a lower face intended to be fixed on said receiving support, the lower face of the identification device including a frame integral with the lower face of the label and made with the same material as the label, and including on its lower face an adhesive layer enabling sticking thereof on the receiving support, and said frame conforming to the periphery of the label so as to delimit a cavity, characterized in that the cavity is filled before fixing the identification device on the receiving support with a resin curable by polymerization under a UV lamp consisting of a bi-component resin including a mixture of a curable resin and a curing agent, and in that said frame includes on its back face a thin protective film including a cutout corresponding to the surface of the cavity.