mhurhangee/ep-ind-claims huggingface dataset:
Use of a device for predicting the growth inhibition of cancer cells of a cancer patient by at least one treatment for cancer, wherein said device comprises at least one single-stranded nucleic acid molecule that is complementary or identical to at least 5 consecutive nucleotides of hsa-miR-766_st, wherein said at least one single stranded nucleic acid molecule is capable of specifically hybridizing with hsa-miR-766_st or its complement, said device allowing determination of a level of expression of hsa-miR-766_st in a biological sample from said patient, wherein said use further comprises assaying a level of expression of hsa-miR-766_st in a sample from said patient using said device, and wherein: said patient is predicted to exhibit growth inhibition of cancer cells by said at least one treatment if said level of expression of hsa-miR-766_st is substantially similar to the level of expression of hsa-miR-766_st in a cell or tissue known to exhibit growth inhibition of cancer cells by said at least one treatment, wherein said at least one treatment for cancer is selected from the group consisting of etoposide, adriamycin, paclitaxel, dexamethasone, methylprednisolone, belinostat, 5-Aza-2'-deoxycytidine (decitabine), melphalan, suberoylanilide hydroxamic acid (SAHA, vorinostat), leukeran, fludarabine, busulfan, dacarbazine, hydroxyurea, daunorubicin, mechlorethamine, carmustine, lomustine, mercaptopurine, teniposide, dactinomycin, ifosfamide, irinotecan, and thioguanine. said patient is predicted to exhibit growth inhibition of cancer cells by said at least one treatment if said level of expression of hsa-miR-766_st is substantially similar to the level of expression of hsa-miR-766_st in a cell or tissue known to exhibit growth inhibition of cancer cells by said at least one treatment, wherein said at least one treatment for cancer is selected from the group consisting of etoposide, adriamycin, paclitaxel, dexamethasone, methylprednisolone, belinostat, 5-Aza-2'-deoxycytidine (decitabine), melphalan, suberoylanilide hydroxamic acid (SAHA, vorinostat), leukeran, fludarabine, busulfan, dacarbazine, hydroxyurea, daunorubicin, mechlorethamine, carmustine, lomustine, mercaptopurine, teniposide, dactinomycin, ifosfamide, irinotecan, and thioguanine.
A heat exchanger of a heat exchange device for use on an air-cooled water chiller unit or commercial rooftop machine, wherein the heat exchanger comprises: a main body part (15, 65), having a substantially quadrilateral side; two bent parts (16, 17; 66, 67) connected to the main body part; at least one heat exchange tube, extending between the main body part (15, 65) and both bent parts (16, 17; 66, 67), wherein at least one heat exchange tube in the bent parts (16, 17; 66, 67) is inclined and bent relative to a heat exchange tube in the main body part, such that the plane in which the main body part lies is perpendicular or substantially perpendicular to the planes in which the bent parts (16, 17; 66, 67) lie, wherein one of the two bent parts (17; 66, 67) has a substantially trapezoidal side comprising two non-parallel sides, characterized by the other bent part having a substantially parallelogram-shaped side. a main body part (15, 65), having a substantially quadrilateral side; two bent parts (16, 17; 66, 67) connected to the main body part; at least one heat exchange tube, extending between the main body part (15, 65) and both bent parts (16, 17; 66, 67), wherein at least one heat exchange tube in the bent parts (16, 17; 66, 67) is inclined and bent relative to a heat exchange tube in the main body part, such that the plane in which the main body part lies is perpendicular or substantially perpendicular to the planes in which the bent parts (16, 17; 66, 67) lie, wherein one of the two bent parts (17; 66, 67) has a substantially trapezoidal side comprising two non-parallel sides, characterized by the other bent part having a substantially parallelogram-shaped side.
A process for producing a brewers wort comprising forming a mash from a grist, and contacting said mash with a pullulanase, wherein said pullulanase has an amino acid sequence which is at least 98 % identical to the amino acid sequence shown in SEQ ID NO: 4.
A fire-resistant laminate comprising: a meltable outer textile layer; which melts when subjected to the "Melting and Thermal stability test" conditions described herein; a first adhesive material comprising an additive which enhances the flame resistance of the laminate bonding said outer textile layer to a protective layer comprising a waterproof film; a second adhesive material comprising an additive which enhances the flame resistance of the laminate bonding said protective layer to a thermally stable backer textile layer, said thermally stable backer textile being thermally stable at 265°C when subjected to the "Melting and Thermal stability test" conditions described herein; wherein the additive to the first adhesive material and the additive to the second adhesive material are independently selected from the group consisting of chlorinated compounds, brominated compounds, antimony oxide, organic phosphorous-based compounds, zinc borate, ammonium polyphosphate, melamine cyanurate, melamine polyphosphate, molybdenum compounds, alumina trihydrate and magnesium hydroxide wherein said laminate has a breathability greater than 4000g/m 2 /24 hours MVTR, and a water entry pressure of at least 3.4 kPa (0.5 psi), measured according to test conditions described herein and has a horizontal flame break open time of at least 20 seconds measured according to test conditions described herein. a meltable outer textile layer; which melts when subjected to the "Melting and Thermal stability test" conditions described herein; a first adhesive material comprising an additive which enhances the flame resistance of the laminate bonding said outer textile layer to a protective layer comprising a waterproof film; a second adhesive material comprising an additive which enhances the flame resistance of the laminate bonding said protective layer to a thermally stable backer textile layer, said thermally stable backer textile being thermally stable at 265°C when subjected to the "Melting and Thermal stability test" conditions described herein; wherein the additive to the first adhesive material and the additive to the second adhesive material are independently selected from the group consisting of chlorinated compounds, brominated compounds, antimony oxide, organic phosphorous-based compounds, zinc borate, ammonium polyphosphate, melamine cyanurate, melamine polyphosphate, molybdenum compounds, alumina trihydrate and magnesium hydroxide wherein said laminate has a breathability greater than 4000g/m 2 /24 hours MVTR, and a water entry pressure of at least 3.4 kPa (0.5 psi), measured according to test conditions described herein and has a horizontal flame break open time of at least 20 seconds measured according to test conditions described herein.
A communications system, comprising: a user equipment, and a network element in a wireless communication system, and a gateway between the network element and the user equipment; wherein a first interface is provided between the gateway and the user equipment, and a second interface is provided between the gateway and the network element; the gateway is configured to obtain information that is directly provided by the network element through the second interface, characterized in that the gateway is further configured to perform anonymization processing on user information in the information that is directly provided by the network element; and the user equipment is configured to obtain anonymization-processed information from the gateway through the first interface. a user equipment, and a network element in a wireless communication system, and a gateway between the network element and the user equipment; wherein a first interface is provided between the gateway and the user equipment, and a second interface is provided between the gateway and the network element; the gateway is configured to obtain information that is directly provided by the network element through the second interface, characterized in that the gateway is further configured to perform anonymization processing on user information in the information that is directly provided by the network element; and the user equipment is configured to obtain anonymization-processed information from the gateway through the first interface.
An apparatus comprising: a liquid tank structured to enclose a working liquid within an interior of the tank, the tank including a port on top of the tank through which a robotic submersible can be inserted into the tank from an exterior position, the port coupled with a launching tube attached opposite the interior of the liquid tank, the launching tube having an outside valve configured to be opened and closed, a launching chamber sized to receive the robotic submersible through the outside valve, and a tank-side valve placed opposite the launching chamber from the outside valve and structured to be open to permit ingress of the robotic submersible into the interior of the tank, and an air release passage in fluid communication with the launching chamber to enable air to escape from the launching tube as liquid fills into the launching tube. a liquid tank structured to enclose a working liquid within an interior of the tank, the tank including a port on top of the tank through which a robotic submersible can be inserted into the tank from an exterior position, the port coupled with a launching tube attached opposite the interior of the liquid tank, the launching tube having an outside valve configured to be opened and closed, a launching chamber sized to receive the robotic submersible through the outside valve, and a tank-side valve placed opposite the launching chamber from the outside valve and structured to be open to permit ingress of the robotic submersible into the interior of the tank, and an air release passage in fluid communication with the launching chamber to enable air to escape from the launching tube as liquid fills into the launching tube.
A pulse combustor of the type having a. a first outer plate having a central hub and a conical region inside a flat outer region; b. a second outer plate having a central hub and a conical region inside a flat outer region; c. a combustion chamber defined by the volume between the conical regions (14, 74) of the first and second outer plates (23, 30); d. a burner assembly coupled to one of said hubs, said burner assembly operative to ignite a fuel/air mixture in said combustion chamber; and e. characterised in that a plurality of intermediate plates (24, 26, 28) is located between the first outer plate and the second outer plate, wherein said intermediate plates (24, 26, 28) are spaced apart to form tailpipe regions (41,42) therebetween and between said outer plates (23, 30) and adjacent ones of said intermediate plates (24, 26,28), wherein said first and second outer plates (23, 30) comprise spiral coolant passageways, and wherein said pulse combustor is further characterised by said Intermediate plates (24, 26, 28) comprising spiral coolant passageways therein for conducting coolant through said intermediate plates. a. a first outer plate having a central hub and a conical region inside a flat outer region; b. a second outer plate having a central hub and a conical region inside a flat outer region; c. a combustion chamber defined by the volume between the conical regions (14, 74) of the first and second outer plates (23, 30); d. a burner assembly coupled to one of said hubs, said burner assembly operative to ignite a fuel/air mixture in said combustion chamber; and e. characterised in that a plurality of intermediate plates (24, 26, 28) is located between the first outer plate and the second outer plate, wherein said intermediate plates (24, 26, 28) are spaced apart to form tailpipe regions (41,42) therebetween and between said outer plates (23, 30) and adjacent ones of said intermediate plates (24, 26,28), wherein said first and second outer plates (23, 30) comprise spiral coolant passageways, and wherein said pulse combustor is further characterised by said Intermediate plates (24, 26, 28) comprising spiral coolant passageways therein for conducting coolant through said intermediate plates.
A method for configuring a multicast group by a root node in a Multiple Protocol Label Switching, MPLS, network, comprising: - Obtaining a multicast group configuration request to configure the multicast groups of at least one downstream node, the downstream node is a transit node or a leaf node, the obtaining step comprising: receiving an in-band layer 2 or layer 3 protocol message from the leaf node over a MPLS Generic Associated Channel, G-ACH via a pseudo-wire, PW, between the root node and the leaf node and processing the message to obtain the multicast group configuration request, wherein the processing comprises transmitting the message to an operation source for verifying the validity of the message, receiving a feedback from the operation source in response to the message and composing the multicast group configuration request according to the feedback; - Generating a multicast group configuration packet based on the multicast group configuration request; and - Transmitting the multicast group configuration packet from the root node to the at least one downstream node via a multicast tree in the MPLS network. - Obtaining a multicast group configuration request to configure the multicast groups of at least one downstream node, the downstream node is a transit node or a leaf node, the obtaining step comprising: receiving an in-band layer 2 or layer 3 protocol message from the leaf node over a MPLS Generic Associated Channel, G-ACH via a pseudo-wire, PW, between the root node and the leaf node and processing the message to obtain the multicast group configuration request, wherein the processing comprises transmitting the message to an operation source for verifying the validity of the message, receiving a feedback from the operation source in response to the message and composing the multicast group configuration request according to the feedback; - Generating a multicast group configuration packet based on the multicast group configuration request; and - Transmitting the multicast group configuration packet from the root node to the at least one downstream node via a multicast tree in the MPLS network.
A fluorescence reading device comprising: an observation object holding unit that holds an observation object that is excited with excitation light to emit fluorescence; a light source that emits the excitation light; a detecting unit in which detecting elements for detecting the fluorescence are two-dimensionally arranged; a lens unit which is disposed between the observation object holding unit and the detecting unit to focus the fluorescence on the detecting unit, and on which a plurality of refractive index distribution type lenses are two-dimensionally arranged: and a light guide unit that guides the excitation light emitted from the light source to radiate the guided excitation light toward a surface of the observation object that faces the lens unit, wherein the lens unit is configured such that a plurality of lens arrays, in each of which the plurality of refractive index distribution type lenses are arranged in a line in a first direction, are arranged in a second direction orthogonal to the first direction, the lens unit further has a lens holding part, the lens holding part include a plurality of pairs of parallel flat plates each sandwiching and holding a line of lens arrays, and each extending in a direction perpendicular to the second direction; characterized in that the light guide unit includes a plurality of the optical fibers (20, 20A) that guide the excitation light, the optical fibers are buried in the lens holding part, and emission ends of the optical fibers (20, 20A) are exposed to a surface of the lens holding part that faces the observation object holding unit. an observation object holding unit that holds an observation object that is excited with excitation light to emit fluorescence; a light source that emits the excitation light; a detecting unit in which detecting elements for detecting the fluorescence are two-dimensionally arranged; a lens unit which is disposed between the observation object holding unit and the detecting unit to focus the fluorescence on the detecting unit, and on which a plurality of refractive index distribution type lenses are two-dimensionally arranged: and a light guide unit that guides the excitation light emitted from the light source to radiate the guided excitation light toward a surface of the observation object that faces the lens unit, wherein the lens unit is configured such that a plurality of lens arrays, in each of which the plurality of refractive index distribution type lenses are arranged in a line in a first direction, are arranged in a second direction orthogonal to the first direction, the lens unit further has a lens holding part, the lens holding part include a plurality of pairs of parallel flat plates each sandwiching and holding a line of lens arrays, and each extending in a direction perpendicular to the second direction; characterized in that the light guide unit includes a plurality of the optical fibers (20, 20A) that guide the excitation light, the optical fibers are buried in the lens holding part, and emission ends of the optical fibers (20, 20A) are exposed to a surface of the lens holding part that faces the observation object holding unit.
An aircraft with an aircraft fuselage, wherein the aircraft fuselage comprises a space arranged in the aircraft fuselage; wherein the space is designed as a cargo compartment with a floor or as a passenger cabin with a floor, wherein the floor resists burnthrough for a period of at least four minutes from outside the aircraft fuselage towards the space, wherein a region of the aircraft fuselage underneath the space does not comprise burnthrough-resistant insulation, wherein the aircraft comprises a fairing of a wing/fuselage transition of the aircraft, and wherein the fairing resists burnthrough for a period of at least four minutes from outside the aircraft fuselage towards the space. wherein the aircraft fuselage comprises a space arranged in the aircraft fuselage; wherein the space is designed as a cargo compartment with a floor or as a passenger cabin with a floor, wherein the floor resists burnthrough for a period of at least four minutes from outside the aircraft fuselage towards the space, wherein a region of the aircraft fuselage underneath the space does not comprise burnthrough-resistant insulation, wherein the aircraft comprises a fairing of a wing/fuselage transition of the aircraft, and wherein the fairing resists burnthrough for a period of at least four minutes from outside the aircraft fuselage towards the space.
A coupling module for coupling a passenger boarding bridge with an aircraft, wherein the coupling module has a canopy roof and a floor assembly spanned by the canopy roof, and wherein the coupling module and/or the floor assembly is received at a cabin of the passenger boarding bridge so that it can swivel relative to the cabin around a horizontal swivel axis, and wherein the coupling module comprises a position sensor, by means of which an inclination of the floor assembly relative to a geodetic horizontal position can be measured, characterized in that - a support body is disposed centrally in the transverse direction under the floor assembly and wherein the swivel axis runs perpendicularly to the transverse direction and is disposed in or under the walkable surface of the floor assembly, and wherein - a control unit is provided and designed in such a manner that through the interaction with the position sensor and through the interaction with the swivel motor, the floor assembly can be maintained in or moved into a geodetic horizontal position independently from a movement of the passenger boarding bridge and independently from a movement of the cabin. - a support body is disposed centrally in the transverse direction under the floor assembly and wherein the swivel axis runs perpendicularly to the transverse direction and is disposed in or under the walkable surface of the floor assembly, and wherein - a control unit is provided and designed in such a manner that through the interaction with the position sensor and through the interaction with the swivel motor, the floor assembly can be maintained in or moved into a geodetic horizontal position independently from a movement of the passenger boarding bridge and independently from a movement of the cabin.
A method for collision-free motion planning of a first manipulator of a robot from a starting point to a destination point, having the steps: - determining a target path of said first manipulator to the destination point with a global planner; - continuously determining a movement of the first manipulator with a local planner based on a current target path of the global planner; - performing the movement by the first manipulator in parallel with the determination by said global planner and said local planner (34, 36) characterized in that the global planner carries out replanning at least once and the local planner performs the movement of the first manipulator based on the replanned target path. - determining a target path of said first manipulator to the destination point with a global planner; - continuously determining a movement of the first manipulator with a local planner based on a current target path of the global planner; - performing the movement by the first manipulator in parallel with the determination by said global planner and said local planner (34, 36)
A chamber frame element (4, 14, 24, 34) for an electrolyzer or an electrodialysis cell, the chamber frame element (4, 14, 24, 34) comprising: a bag body (141, 241, 341); a frame (142, 242, 342) housed in an interior space of the bag body (141, 241, 341); and an inlet (143, 243, 343) and an outlet (144, 244, 344) to which piping can be attached, the inlet (143, 243, 343) and the outlet (144, 244, 344) being formed on the outside of a region where the frame (142, 242, 342) is housed in the bag body (141, 241, 341), wherein the frame (142, 242, 342) comprises a flow path that allows a liquid inflowing from the inlet (143, 243, 343) to flow inside the frame (142, 242, 342) and a liquid inside the frame (142, 242, 342) to flow to the outlet (144, 244, 344), and the flow path is a groove (142a, 242a, 342a) or a channel that communicates to the outside and the inside of the frame (142, 242, 342). a bag body (141, 241, 341); a frame (142, 242, 342) housed in an interior space of the bag body (141, 241, 341); and an inlet (143, 243, 343) and an outlet (144, 244, 344) to which piping can be attached, the inlet (143, 243, 343) and the outlet (144, 244, 344) being formed on the outside of a region where the frame (142, 242, 342) is housed in the bag body (141, 241, 341), wherein the frame (142, 242, 342) comprises a flow path that allows a liquid inflowing from the inlet (143, 243, 343) to flow inside the frame (142, 242, 342) and a liquid inside the frame (142, 242, 342) to flow to the outlet (144, 244, 344), and the flow path is a groove (142a, 242a, 342a) or a channel that communicates to the outside and the inside of the frame (142, 242, 342).