mhurhangee/patent-ind-claim-en huggingface dataset:
An expression vector encoding a chimeric Hepatitis B virus core antigen polypeptide with an insert for use in the treatment or prophylaxis of cancer, wherein the insert is an amino acid sequence of up to 80 amino acids in length comprising a specific epitope of VEGF or angiopoietin-2, wherein the amino acid sequence comprising the specific epitope is inserted between the amino acid residues 80 and 81 of the hepatitis B virus core antigen polypeptide, wherein the specific epitope of VEGF consists of the amino acid sequence shown in SEQ ID NO: 32 or 33, or a partial sequence thereof having 13 or more amino acids containing the amino acid sequence shown in SEQ ID NO: 31, and wherein the specific epitope of angiopoietin-2 consists of the amino acid sequence shown in SEQ ID NO: 3.
A rotor blade for a gas turbine engine , comprising: a platform comprising a radially inner surface , an undulating radially outer surface , a leading edge portion , a trailing edge portion , a pressure-side slash face , and a suction-side slash face ; an airfoil extending outwardly from the undulating radially outer surface of the platform to an airfoil tip ; and a connecting portion extending radially inwardly from the radially inner surface of the platform ; wherein the platform , the airfoil , and the connection portion collectively define a cooling circuit extending from an inlet in the connection portion through the airfoil to a plurality of outlet plena (124, 124(a), 124(b)) in the platform , the outlet plena (124, 124(a), 124(b)) extending through the pressure-side slash face and/or the suction-side slash face , and wherein two or more outlet plena (124, 124(a), 124(b)) of the plurality of outlet plena (124, 124(a), 124(b)) are spaced equidistant from the undulating radially outer surface of the platform ; characterized in that the two or more outlet plena (124, 124(a), 124(b)) comprise: one or more primary outlet plena 124(a); and one or more secondary outlet plena 124(b), each extend between one of the primary outlet plena (124(a)) and the pressure-side or suction-side slash faces . a platform comprising a radially inner surface , an undulating radially outer surface , a leading edge portion , a trailing edge portion , a pressure-side slash face , and a suction-side slash face ; an airfoil extending outwardly from the undulating radially outer surface of the platform to an airfoil tip ; and a connecting portion extending radially inwardly from the radially inner surface of the platform ; wherein the platform , the airfoil , and the connection portion collectively define a cooling circuit extending from an inlet in the connection portion through the airfoil to a plurality of outlet plena (124, 124(a), 124(b)) in the platform , the outlet plena (124, 124(a), 124(b)) extending through the pressure-side slash face and/or the suction-side slash face , and wherein two or more outlet plena (124, 124(a), 124(b)) of the plurality of outlet plena (124, 124(a), 124(b)) are spaced equidistant from the undulating radially outer surface of the platform ; characterized in that the two or more outlet plena (124, 124(a), 124(b)) comprise: one or more primary outlet plena 124(a); and one or more secondary outlet plena 124(b), each extend between one of the primary outlet plena (124(a)) and the pressure-side or suction-side slash faces . one or more primary outlet plena 124(a); and one or more secondary outlet plena 124(b), each extend between one of the primary outlet plena (124(a)) and the pressure-side or suction-side slash faces .
A method of prefabricating a module configured to form a part of a building (B), said method comprising the steps of: (a) providing four walls , a floor slab and a roof slab ; (b) assembling the four walls in such a way that they extend between the floor slab and the roof slab to form a rectangular cuboid shape in the module; (c) forming at least two compartments within said cuboid shape by providing at least one inner partition wall within the cuboid shape; (d) creating wet areas within the module by providing waterproof layers on the interior sides of the walls and the floor of each compartment; (e) arranging technical installations within said cuboid shape; (f) providing interior equipment (WC, WB, SC) within said cuboid shape; and (g) providing the module with pre-mounted engagement means for later engagement with prefabricated panels or slabs or other prefabricated modules by means of connecting devices , characterised in that said technical installations are being accommodated in a two-shaft arrangement serving two compartments of the module . (a) providing four walls , a floor slab and a roof slab ; (b) assembling the four walls in such a way that they extend between the floor slab and the roof slab to form a rectangular cuboid shape in the module; (c) forming at least two compartments within said cuboid shape by providing at least one inner partition wall within the cuboid shape; (d) creating wet areas within the module by providing waterproof layers on the interior sides of the walls and the floor of each compartment; (e) arranging technical installations within said cuboid shape; (f) providing interior equipment (WC, WB, SC) within said cuboid shape; and (g) providing the module with pre-mounted engagement means for later engagement with prefabricated panels or slabs or other prefabricated modules by means of connecting devices , characterised in that said technical installations are being accommodated in a two-shaft arrangement serving two compartments of the module .
The use of an encapsulating film in an electronic device comprising: an upper substrate ; a bottom substrate ; and a diode between the upper substrate and the bottom substrate; said encapsulating film, comprising: a first layer including a resin component and a moisture scavenger of 30 parts by weight or more with respect to 100 parts by weight of the resin component, and a second layer including 0 to 5 parts by weight of a moisture scavenger with respect to 100 parts by weight of a solid content of the second layer, wherein the second layer is solid or semi-solid at room temperature in a non-cured state, wherein the moisture scavenger comprises a metal oxide, a sulphate or an organic metal oxide, and wherein the second layer is disposed to be in contact with the diode and the bottom substrate , characterized in that the tensile modulus at 25 °C after curing of the first layer is lower than that of the second layer , and in that the tensile modulus at 25 °C of the first layer is of 0.001 to 100 MPa after curing. an upper substrate ; a bottom substrate ; and a diode between the upper substrate and the bottom substrate; said encapsulating film, comprising: a first layer including a resin component and a moisture scavenger of 30 parts by weight or more with respect to 100 parts by weight of the resin component, and a second layer including 0 to 5 parts by weight of a moisture scavenger with respect to 100 parts by weight of a solid content of the second layer, wherein the second layer is solid or semi-solid at room temperature in a non-cured state, wherein the moisture scavenger comprises a metal oxide, a sulphate or an organic metal oxide, and wherein the second layer is disposed to be in contact with the diode and the bottom substrate , characterized in that the tensile modulus at 25 °C after curing of the first layer is lower than that of the second layer , and in that the tensile modulus at 25 °C of the first layer is of 0.001 to 100 MPa after curing. a first layer including a resin component and a moisture scavenger of 30 parts by weight or more with respect to 100 parts by weight of the resin component, and a second layer including 0 to 5 parts by weight of a moisture scavenger with respect to 100 parts by weight of a solid content of the second layer, wherein the second layer is solid or semi-solid at room temperature in a non-cured state, wherein the moisture scavenger comprises a metal oxide, a sulphate or an organic metal oxide, and wherein the second layer is disposed to be in contact with the diode and the bottom substrate , characterized in that the tensile modulus at 25 °C after curing of the first layer is lower than that of the second layer , and in that the tensile modulus at 25 °C of the first layer is of 0.001 to 100 MPa after curing.
A lead acid battery, comprising: positive electrode plates each including a positive electrode grid and a positive electrode active material, and negative electrode plates each including a negative electrode grid and a negative electrode active material, the positive electrode plates and the negative electrode plates being stacked alternately with a separator between the positive electrode plate and the negative electrode plate to form an electrode plate group; a positive strap integrated with current collecting tabs of the positive electrode plates collectively for each electrode plate group, and a negative strap integrated with current collecting tabs of the negative electrode plates collectively for each electrode plate group; a battery container having a plurality of cell chambers each containing the electrode plate group and an electrolyte; and a cover sealing an opening of the battery container, wherein a boundary layer containing bismuth is provided at a boundary between the current collecting tab of the negative electrode plate and the negative strap, and the negative electrode grid comprises a lead-calcium-tin alloy containing tin in an amount of 0.45 mass% or less wherein the boundary layer contains bismuth in an amount of 25 mass% or more and 50 mass% or less. positive electrode plates each including a positive electrode grid and a positive electrode active material, and negative electrode plates each including a negative electrode grid and a negative electrode active material, the positive electrode plates and the negative electrode plates being stacked alternately with a separator between the positive electrode plate and the negative electrode plate to form an electrode plate group; a positive strap integrated with current collecting tabs of the positive electrode plates collectively for each electrode plate group, and a negative strap integrated with current collecting tabs of the negative electrode plates collectively for each electrode plate group; a battery container having a plurality of cell chambers each containing the electrode plate group and an electrolyte; and a cover sealing an opening of the battery container, wherein a boundary layer containing bismuth is provided at a boundary between the current collecting tab of the negative electrode plate and the negative strap, and the negative electrode grid comprises a lead-calcium-tin alloy containing tin in an amount of 0.45 mass% or less wherein the boundary layer contains bismuth in an amount of 25 mass% or more and 50 mass% or less.
Appliance system having at least two appliances , in particular at least two household appliances , the appliances each having a water heater ; the respective appliance having a communication interface , by way of which it communicates with the other appliances in the appliance system during operation; at least one of the appliances having a water quantity meter facility , a temperature meter facility and a control facility ; the control facility being connected to each of the water heater , the water quantity meter facility and the temperature meter facility for communication purposes, so that the control facility can request values from them and/or activate them; the control facility being programmed and/or containing and implementing corresponding algorithms to perform a method step to identify water hardness; and the control facility being programmed and/or containing and implementing corresponding algorithms so that it transmits the identified water hardness to at least one of the other appliances in the appliance system by way of the communication interface .
Method for controlling a towing train consisting of a ship and at least one tug (2, 2.1, 2.2) acting on the ship , comprising the steps of: a) providing a data model which comprises fixed data relating to the ship and relating to the at least one tug (2, 2.1, 2.2) and variable environmental data; b) determining the current course, the thrust vector and the inertial force of the ship and specifying a desired travel direction (Fs) of the ship with a subsequent calculation of the correction force vector (K) and the correction torque (M) required to achieve the desired travel direction (Fs); c) calculating the required positions, orientations, and drive settings of the at least one acting tug (2, 2.1, 2.2) using an algorithm that accesses the data model and generating control commands for the at least one tug (2, 2.1, 2.2) such that the sum of all the force vectors (Fs1, Fs2) and torques of the at least one acting tug (2, 2.1, 2.2) corresponds to the required correction force vector (K) and correction torque (M); d) transmitting the generated control commands to the at least one acting tug (2, 2.1, 2.2) and monitoring the completion of the control commands; e) conducting an evaluation of the produced correction force vector and correction torque after completion of the control commands and producing and storing correction values in the data model when deviations are detected between the produced correction force vector (K') and the required correction force vector (K) and/or between the produced correction torque (M') and the required correction torque (M), and then repeating steps c) to e). a) providing a data model which comprises fixed data relating to the ship and relating to the at least one tug (2, 2.1, 2.2) and variable environmental data; b) determining the current course, the thrust vector and the inertial force of the ship and specifying a desired travel direction (Fs) of the ship with a subsequent calculation of the correction force vector (K) and the correction torque (M) required to achieve the desired travel direction (Fs); c) calculating the required positions, orientations, and drive settings of the at least one acting tug (2, 2.1, 2.2) using an algorithm that accesses the data model and generating control commands for the at least one tug (2, 2.1, 2.2) such that the sum of all the force vectors (Fs1, Fs2) and torques of the at least one acting tug (2, 2.1, 2.2) corresponds to the required correction force vector (K) and correction torque (M); d) transmitting the generated control commands to the at least one acting tug (2, 2.1, 2.2) and monitoring the completion of the control commands; e) conducting an evaluation of the produced correction force vector and correction torque after completion of the control commands and producing and storing correction values in the data model when deviations are detected between the produced correction force vector (K') and the required correction force vector (K) and/or between the produced correction torque (M') and the required correction torque (M), and then repeating steps c) to e).
A device for cleaning an instrument, the device comprising: a manifold comprising one or more fluid inlets ; and a tubular member coupled to and rotatable relative to and extending distally from the manifold, the tubular member comprising: a proximal end , a distal end, a fluid outlet at the distal end, the fluid outlet being configured to direct a flow of fluid generally across the distal end of the tubular member, and one or more fluid passages fluidically coupled to the fluid outlet , the one or more fluid passages extending from the fluid outlet to the manifold ; wherein the manifold and tubular member are configured to receive a shaft of an imaging instrument extending through the manifold to the distal end of the tubular member. a manifold comprising one or more fluid inlets ; and a tubular member coupled to and rotatable relative to and extending distally from the manifold, the tubular member comprising: a proximal end , a distal end, a fluid outlet at the distal end, the fluid outlet being configured to direct a flow of fluid generally across the distal end of the tubular member, and one or more fluid passages fluidically coupled to the fluid outlet , the one or more fluid passages extending from the fluid outlet to the manifold ; a proximal end , a distal end, a fluid outlet at the distal end, the fluid outlet being configured to direct a flow of fluid generally across the distal end of the tubular member, and one or more fluid passages fluidically coupled to the fluid outlet , the one or more fluid passages extending from the fluid outlet to the manifold ; wherein the manifold and tubular member are configured to receive a shaft of an imaging instrument extending through the manifold to the distal end of the tubular member.
Method for manufacturing a panel component, in particular an interior panel component, using a plastic skin , in particular a PVC or TPU slush skin, wherein the plastic skin having a seam region, wherein in the seam region by introducing a yarn into the plastic skin stitch openings are present therein, wherein a sealing of the seam region of the plastic skin comprises: - providing a plastic skin provided with at least one yarn and having a visible side and a rear side such that the rear side of the plastic skin is accessible, and - heating the rear side of the plastic skin in the seam region such that the plastic skin contacts the yarn in the region of the stitch openings, wherein the manufacturing of the panel component comprises the steps of: placing the plastic skin and a dimensionally stable carrier in a moulding tool, inserting a filling material, in particular a polyurethane foam or a thermoplastic elastomer, in a region between the rear side of the plastic skin and the dimensionally stable carrier. - providing a plastic skin provided with at least one yarn and having a visible side and a rear side such that the rear side of the plastic skin is accessible, and - heating the rear side of the plastic skin in the seam region such that the plastic skin contacts the yarn in the region of the stitch openings, placing the plastic skin and a dimensionally stable carrier in a moulding tool, inserting a filling material, in particular a polyurethane foam or a thermoplastic elastomer, in a region between the rear side of the plastic skin and the dimensionally stable carrier.
A polycarbonate resin composition comprising polycarbonate resin; and [[4-(dimethylamino)phenyl]methylene] propanedioic acid dimethyl ester as a hindered amine UV absorber that selectively absorbs UVA having a wavelength of 420nm or less, wherein transmittance of UV having a wavelength of 420nm according to ASTM D1003 is 30% or less, and a yellow index change value(ΔYI) represented by the following General Formula 1 is 0.5 or less: ΔYI = YI 340 ° C − YI 285 ° C YI(X°C) denotes a yellow index value measured at a corresponding temperature X°C according to ASTM D1925, and a temperature rise time from 285°C to 340°C is 20 minutes. polycarbonate resin; and [[4-(dimethylamino)phenyl]methylene] propanedioic acid dimethyl ester as a hindered amine UV absorber that selectively absorbs UVA having a wavelength of 420nm or less, wherein transmittance of UV having a wavelength of 420nm according to ASTM D1003 is 30% or less, and a yellow index change value(ΔYI) represented by the following General Formula 1 is 0.5 or less: ΔYI = YI 340 ° C − YI 285 ° C YI(X°C) denotes a yellow index value measured at a corresponding temperature X°C according to ASTM D1925, and a temperature rise time from 285°C to 340°C is 20 minutes.
An ultrasound catheter comprising: an elongate tubular body having a distal portion and a proximal portion , the elongate tubular body having material properties similar to that of standard external ventricular drainage (EVD) catheter; a drainage lumen formed within the elongate tubular body , wherein the drainage lumen includes a plurality of drainage ports on the distal portion of the elongate tubular body configured to allow fluid to flow therethrough; a delivery lumen formed within the elongate tubular body , wherein the delivery lumen includes a plurality of delivery ports on the distal portion of the elongate tubular body configured to allow fluid to flow therethrough; and a plurality of ultrasound radiating elements positioned within the elongate tubular body . an elongate tubular body having a distal portion and a proximal portion , the elongate tubular body having material properties similar to that of standard external ventricular drainage (EVD) catheter; a drainage lumen formed within the elongate tubular body , wherein the drainage lumen includes a plurality of drainage ports on the distal portion of the elongate tubular body configured to allow fluid to flow therethrough; a delivery lumen formed within the elongate tubular body , wherein the delivery lumen includes a plurality of delivery ports on the distal portion of the elongate tubular body configured to allow fluid to flow therethrough; and a plurality of ultrasound radiating elements positioned within the elongate tubular body .
A system including: a central processing unit CPU ; a peripheral device ; a memory controller configured to arbitrate access to a main memory , wherein the CPU and the peripheral device operatively connect to said memory controller ; wherein access to and from the main memory by the CPU and access to and from the main memory by the peripheral device is prioritized respectively according to a CPU priority level and a peripheral device priority level; an arbitration module is operatively attached to the CPU , the peripheral device and the memory controller , wherein the arbitration module is configured to receive the peripheral device priority level; characterised in that : the memory controller is configured to receive the CPU priority level from the arbitration module and to receive the peripheral device priority level from the peripheral device; and when the CPU priority level and the peripheral device priority level are both set at the highest available priority level, the arbitration module is configured to output to the memory controller a new CPU priority level less than the highest available priority level. a central processing unit CPU ; a peripheral device ; a memory controller configured to arbitrate access to a main memory , wherein the CPU and the peripheral device operatively connect to said memory controller ; wherein access to and from the main memory by the CPU and access to and from the main memory by the peripheral device is prioritized respectively according to a CPU priority level and a peripheral device priority level; an arbitration module is operatively attached to the CPU , the peripheral device and the memory controller , wherein the arbitration module is configured to receive the peripheral device priority level; characterised in that : the memory controller is configured to receive the CPU priority level from the arbitration module and to receive the peripheral device priority level from the peripheral device; and when the CPU priority level and the peripheral device priority level are both set at the highest available priority level, the arbitration module is configured to output to the memory controller a new CPU priority level less than the highest available priority level. the memory controller is configured to receive the CPU priority level from the arbitration module and to receive the peripheral device priority level from the peripheral device; and when the CPU priority level and the peripheral device priority level are both set at the highest available priority level, the arbitration module is configured to output to the memory controller a new CPU priority level less than the highest available priority level.
An antisense oligonucleotide with the nucleotide sequence of SEQ ID NO: 54 having a morpholino or 2-OMe backbone.