mhurhangee/ep-ind-claims huggingface dataset:
A process for the sterilisation of a bacterium without deactivation of enzymatic activity, comprising the addition of (i) a surfactant (ii) glutaraldehyde wherein the surfactant and glutaraldehyde are added to the bacterium so as to have concentrations of 0.05 to 10% and 0.05 to 5%, respectively, and wherein the bacterium has a dry cell weight of 5 to 200 g/L in an aqueous medium, wherein the bacterium has at least one enzyme activity selected from the group consisting of nitrile hydratase, nitrilase, amidase, fumarase, aspartase, and ethylenediamine-N, N'-disuccinic acid: ethylenediamine lyase; and wherein the surfactant is a cationic surfactant or an ampholytic surfactant, and wherein the bacterium is selected from a gene-recombinant bacterium, Rhodococcus rhodochrous having the deposit number FERM BP-1478, Rhodococcus rhodochrous having the deposit number FERM BP-3733, Rhodococcus sp. having the deposit number FERM BP-3324, Rhodococcus sp. having the deposit number FERM-BP-6231, Bacillus subtilis having the deposit number ATCC 6051, Bacillus stearothermophilus having the deposit number ATCC 12016, Rhodococcus rhodochrous having the deposit number ATCC 12674, Rhodococcus rhodochrous ATCC 12674/pAR016 as described in JP 10-337185, and Rhodococcus rhodochrous having the deposit number FERM BP-6548. (i) a surfactant (ii) glutaraldehyde wherein the surfactant and glutaraldehyde are added to the bacterium so as to have concentrations of 0.05 to 10% and 0.05 to 5%, respectively, and wherein the bacterium has a dry cell weight of 5 to 200 g/L in an aqueous medium, wherein the bacterium has at least one enzyme activity selected from the group consisting of nitrile hydratase, nitrilase, amidase, fumarase, aspartase, and ethylenediamine-N, N'-disuccinic acid: ethylenediamine lyase; and wherein the surfactant is a cationic surfactant or an ampholytic surfactant, and wherein the bacterium is selected from a gene-recombinant bacterium, Rhodococcus rhodochrous having the deposit number FERM BP-1478, Rhodococcus rhodochrous having the deposit number FERM BP-3733, Rhodococcus sp. having the deposit number FERM BP-3324, Rhodococcus sp. having the deposit number FERM-BP-6231, Bacillus subtilis having the deposit number ATCC 6051, Bacillus stearothermophilus having the deposit number ATCC 12016, Rhodococcus rhodochrous having the deposit number ATCC 12674, Rhodococcus rhodochrous ATCC 12674/pAR016 as described in JP 10-337185, and Rhodococcus rhodochrous having the deposit number FERM BP-6548.
An apparatus for pumping blood in the circulatory system of an animal, comprising: a rotor (80, 180, 280) symmetrical about a rotational axis and symmetrical about a plane perpendicular to the rotational axis, the rotor having an external shape adapted and configured for centrifugal pumping of blood, said rotor (80, 180, 280) having an interior shape, said rotor (80, 180, 280) having a plurality of apertures (84a, 84b, 184a, 184b, 286) therein; a stator (60, 160, 260) having a portion located within the interior shape of said rotor (80, 180, 280), the portion of said stator (60, 160, 260) having an external shape that cooperates with the interior shape of said rotor (80, 180, 280) to define a flow passage (79, 179, 279A-C) therebetween; and wherein rotation of said rotor (80, 180, 280) about said stator (60, 160, 260) results in flow of blood through the flow passage (79, 179, 279A-C) that hydrodynamically supports rotation of said rotor (80, 180, 280) about said stator (60, 160, 260), the apertures (84a, 84b, 184a, 184b, 286) of the rotor (80, 180) being adapted and configured to permit the flow of blood out of the flow passage (79, 179, 279A-C). a rotor (80, 180, 280) symmetrical about a rotational axis and symmetrical about a plane perpendicular to the rotational axis, the rotor having an external shape adapted and configured for centrifugal pumping of blood, said rotor (80, 180, 280) having an interior shape, said rotor (80, 180, 280) having a plurality of apertures (84a, 84b, 184a, 184b, 286) therein; a stator (60, 160, 260) having a portion located within the interior shape of said rotor (80, 180, 280), the portion of said stator (60, 160, 260) having an external shape that cooperates with the interior shape of said rotor (80, 180, 280) to define a flow passage (79, 179, 279A-C) therebetween; and wherein rotation of said rotor (80, 180, 280) about said stator (60, 160, 260) results in flow of blood through the flow passage (79, 179, 279A-C) that hydrodynamically supports rotation of said rotor (80, 180, 280) about said stator (60, 160, 260), the apertures (84a, 84b, 184a, 184b, 286) of the rotor (80, 180) being adapted and configured to permit the flow of blood out of the flow passage (79, 179, 279A-C).
A modular platform edge formed from individual platform edge elements fixedly disposed side by side in the longitudinal direction of the platform forming the portion facing the track of the flat top of a platform mounted on at least one front longitudinal support element, having an undercut on the side facing the track and a mount for each platform edge element on at least one bearing, wherein the platform edge comprises the platform edge element and the mount, wherein the platform edge further comprises: a configuration of the platform edge element as a detachable, one-piece platform edge plate, • a configuration of the bearing as a bearing bracket with a horizontal limb and a vertical limb which is disposed essentially perpendicular thereto, • a configuration of the horizontal limb of the bearing bracket as a mount for the platform edge plate, • a configuration of the vertical limb of the bearing bracket as a connection of the platform edge plate with the front longitudinal support element (09, 14) of the platform, and • a configuration of the undercut as a refuge recess, characterized by a configuration of the platform edge element as a removable edge plate and a configuration of the bearing bracket as a laterally hingable bearing bracket which can be disposed on the front longitudinal support element via an articulation and a fastening or characterized by a configuration of the platform edge element as an edge plate which can be pivoted about an articulation by hand or by means of a controllable drive. a configuration of the platform edge element as a detachable, one-piece platform edge plate, • a configuration of the bearing as a bearing bracket with a horizontal limb and a vertical limb which is disposed essentially perpendicular thereto, • a configuration of the horizontal limb of the bearing bracket as a mount for the platform edge plate, • a configuration of the vertical limb of the bearing bracket as a connection of the platform edge plate with the front longitudinal support element (09, 14) of the platform, and • a configuration of the undercut as a refuge recess, characterized by • a configuration of the bearing as a bearing bracket with a horizontal limb and a vertical limb which is disposed essentially perpendicular thereto, • a configuration of the horizontal limb of the bearing bracket as a mount for the platform edge plate, • a configuration of the vertical limb of the bearing bracket as a connection of the platform edge plate with the front longitudinal support element (09, 14) of the platform, and • a configuration of the undercut as a refuge recess, a configuration of the platform edge element as a removable edge plate and a configuration of the bearing bracket as a laterally hingable bearing bracket which can be disposed on the front longitudinal support element via an articulation and a fastening or characterized by a configuration of the platform edge element as an edge plate which can be pivoted about an articulation by hand or by means of a controllable drive.
A piston unit of a working cylinder, comprising a first coupling partner and a second coupling partner, wherein the first coupling partner is designed as a piston and the second coupling partner as a piston rod, and wherein the second coupling partner is inserted axially in the first coupling partner, characterized in that the coupling partners each have an annular groove, wherein the annular groove of the inserted coupling partner is formed by an outer groove and the annular groove of the second coupling partner is formed by an inner groove, and wherein the annular grooves of the coupling partners correspondingly face each other, and that the piston unit has a coupling ring, which is elastically tensionable and which, in the event of a deformation in the tensioning direction, can be completely accommodated by the annular groove of one coupling partner and which, in the event of a deformation in the relaxation direction, engages in the annular grooves of both coupling partners, wherein a positive connection is provided between the two coupling partners by the engagement of the coupling ring in their annular grooves, and that the inserted second coupling partner has an oversize relative to an inner diameter of the first coupling partner, wherein a frictional connection is provided between the coupling partners, characterized in that the coupling ring has a conical and segmented design.
A kit comprising a roof window, which is configured for being mounted in a roof structure comprising a roofing material, and a covering assembly, said roof window comprising a frame and a sash carrying a pane, where the frame comprises a plurality of frame members (21, 22, 23, 24) together defining a frame opening and a frame plane and each frame member extends in a length direction, where the frame comprises an interface unit extending in the length direction of at least one frame member (21, 22, 23, 24), where said covering assembly comprises a plurality of flashing members (1011, 1012, 1013, 1014) configured for covering a joint between the frame and the roof structure, and where the interface unit comprises a flashing reception groove configured for receiving a flange of at least one flashing member (1011, 1012, 1013, 1014) via a groove opening by insertion in a direction parallel to the frame plane, said flashing reception groove extending in the length direction of the frame member (21, 22, 23, 24), and where one or more protrusions are provided in the flashing reception groove for engagement with the flange(s), characterised in that the protrusion(s) is/are made by co-extrusion with one or more parts (80, 86, 88) of the interface unit delimiting the flashing reception groove, and that the flange of at least one flashing member (1011, 1012, 1013, 1014) comprises a marking indicating an intended insertion depth of the flange into the flashing reception groove. where said covering assembly comprises a plurality of flashing members (1011, 1012, 1013, 1014) configured for covering a joint between the frame and the roof structure, and where the interface unit comprises a flashing reception groove configured for receiving a flange of at least one flashing member (1011, 1012, 1013, 1014) via a groove opening by insertion in a direction parallel to the frame plane, said flashing reception groove extending in the length direction of the frame member (21, 22, 23, 24), and where one or more protrusions are provided in the flashing reception groove for engagement with the flange(s), characterised in that the protrusion(s) is/are made by co-extrusion with one or more parts (80, 86, 88) of the interface unit delimiting the flashing reception groove, and that the flange of at least one flashing member (1011, 1012, 1013, 1014) comprises a marking indicating an intended insertion depth of the flange into the flashing reception groove.
A method of controlling spider mites, the method comprising generating nanobubbles in water by pressurized dissolution to generate nanobubble water, and applying the nanobubble water to a plant which is a fruit vegetable. generating nanobubbles in water by pressurized dissolution to generate nanobubble water, and applying the nanobubble water to a plant which is a fruit vegetable.
A demodulation program that causes a computer to execute a process comprising: receiving radio signals (31, 32, 33, 34) from base stations, the radio signals being generated by the base stations based on a modulated signal received at the base stations; determining one or more reception target signals in the received radio signals, the reception target signals having a predetermined target frequency and being modulated according to a predetermined target modulation scheme; aligning the reception target signals with each other; generating a demodulation target signal based on the aligned reception target signals; and demodulating the generated demodulation target signal, wherein among the received radio signals having the predetermined target frequency and, being modulated according to the predetermined target modulation scheme, one or more radio signals that include a characteristic signal (301, 302) are determined as the reception target signals, and radio signals that do not include the characteristic signal are excluded from the reception target signals; and wherein the characteristic signal includes a synchronization signal having a predetermined synchronization frequency and a predetermined period, and wherein the characteristic signal also includes a header information signal that includes information indicating a position of a corresponding one of the base stations, information indicating a date and time when the modulated signal is received at the corresponding one of the base stations, and information indicating the predetermined target frequency. receiving radio signals (31, 32, 33, 34) from base stations, the radio signals being generated by the base stations based on a modulated signal received at the base stations; determining one or more reception target signals in the received radio signals, the reception target signals having a predetermined target frequency and being modulated according to a predetermined target modulation scheme; aligning the reception target signals with each other; generating a demodulation target signal based on the aligned reception target signals; and demodulating the generated demodulation target signal,
Vehicle consisting of a covering device forming an aerial deflector under a floor of the said vehicle and having an initial attachment interface, a parechocs joining the vehicle comprising a second attachment interface, the covering device including the less a projection of deflection and/or guidance configured to assist the said assembly, according to a movement of translation of the dressing device parallel to an assembly plane of the said fixing interfaces (11, 21), and to spaced the said first and second fixing interfaces (11, 21) each other during a phase of the assembly of the said fitting device to the vehicle, characterized by the fact that the first fixing interface is placed above the second fixing interface in the vehicle repository, and that the protruding extends over the first fixing interface.
A resource scheduling method, wherein the method comprises: • receiving, by a terminal, UE, a first time division duplex, TDD, configuration and a second TDD configuration, wherein a quantity of downlink, DL, subframes in the first TDD configuration is greater than a quantity of DL subframes in the second TDD configuration (step 101); • determining the first TDD configuration or the second TDD configuration as a target TDD configuration corresponding to the UE (step 102); • dividing, based on the target TDD configuration, subframes corresponding to the UE into a first subframe subset, a second subframe subset, and a third subframe subset, wherein the first subframe subset comprises subframes that are opposite to directions of links corresponding to UEs in a first terminal group and a second terminal group, the second subframe subset comprises uplink subframes corresponding to the UEs in the first terminal group and the second terminal group, and the third subframe subset comprises DL subframes corresponding to the UEs in the first terminal group and the second terminal group; and DL services of the UE in the first terminal group are more than DL services of the UE in the second terminal group (step 103); and • performing channel quality state measurement based on the first subframe subset, the second subframe subset, and the third subframe subset, and reporting a measurement result of the channel quality state measurement to an evolved NodeB, eNB, (step 104). • receiving, by a terminal, UE, a first time division duplex, TDD, configuration and a second TDD configuration, wherein a quantity of downlink, DL, subframes in the first TDD configuration is greater than a quantity of DL subframes in the second TDD configuration (step 101); • determining the first TDD configuration or the second TDD configuration as a target TDD configuration corresponding to the UE (step 102); • dividing, based on the target TDD configuration, subframes corresponding to the UE into a first subframe subset, a second subframe subset, and a third subframe subset, wherein the first subframe subset comprises subframes that are opposite to directions of links corresponding to UEs in a first terminal group and a second terminal group, the second subframe subset comprises uplink subframes corresponding to the UEs in the first terminal group and the second terminal group, and the third subframe subset comprises DL subframes corresponding to the UEs in the first terminal group and the second terminal group; and DL services of the UE in the first terminal group are more than DL services of the UE in the second terminal group (step 103); and • performing channel quality state measurement based on the first subframe subset, the second subframe subset, and the third subframe subset, and reporting a measurement result of the channel quality state measurement to an evolved NodeB, eNB, (step 104).
Rotary drive member comprising a longitudinal axis defining a length direction, a curved cam contact surface forming a closed contour around the longitudinal axis and extending in the length direction, a reciprocating member having a carrier movable in the length direction, at least one cam follower wheel being rotatably mounted on the carrier via a cam follower axis that extends in a direction transverse to the length direction and that is oriented at an angle α with respect to the transverse direction, the wheel having a wheel contact surface engaging with the cam contact surface for rolling along the cam contact surface and driving the cam contact surface in rotation around the longitudinal axis, wherein the cam contact surface is oriented substantially in the transverse direction, wherein the cam follower axis comprises a cylindrical body and a transverse end part, the wheel contact surface being part of a ring-shaped wheel mounted around the cylindrical body and displaceable in an axial direction of said cylindrical body, characterized in that a fluid supply duct (25,28) extends through the cylindrical body and connects a fluid pressure source to a space between the transverse end part and the ring-shaped wheel for axially displacing the cylindrical body relative to the wheel, the fluid supply duct comprising a check valve situated in the cylindrical body.
A smoke screening munition comprising a shearable tail unit, a main body which comprises a payload cavity for receiving a smoke payload apparatus, a fuze, an ogive element located between said main body and the fuze, and an explosive train operably connected to said fuze, wherein the smoke payload apparatus comprises a plurality of unconfined portions of a smoke generating energetic material, wherein said portions burn on at least two surfaces, characterised in that the smoke payload apparatus comprises a support shaft, said support shaft comprising at least two separate vertical supports and at least one horizontal supports to accommodate said unconfined portions of a smoke generating energetic material, said unconfined portions abutting said at least two separate vertical supports
A method for monitoring a network of N nodes (1, 2, 3,..., 12, 23, 34, 40, 77, 78, 86, 92, 94), the method performed by each node of the N nodes (1, 2, 3,..., 12, 23, 34, 40, 77, 78, 86, 92, 94) comprising: partitioning the N nodes (1, 2, 3,..., 12, 23, 34, 40, 77, 78, 86, 92, 94) into a plurality of domains (D 1, D 2, D 3) according to a sorted order, wherein the domains (D 1, D 2, D 3) include a local domain in which a node performing the method is located and one or more remote domains, each remote domain having a domain head designated to monitor member nodes in the remote domain; sending probes at a given frequency to actively monitored nodes that include all other member nodes in the local domain and domain heads in the remote domains; determining whether each of the actively monitored nodes is up based on replies received from the actively monitored nodes in response to the probes; and setting up the local domain to include a sequence of M nodes in the sorted order with the node being the first of the sequence. partitioning the N nodes (1, 2, 3,..., 12, 23, 34, 40, 77, 78, 86, 92, 94) into a plurality of domains (D 1, D 2, D 3) according to a sorted order, wherein the domains (D 1, D 2, D 3) include a local domain in which a node performing the method is located and one or more remote domains, each remote domain having a domain head designated to monitor member nodes in the remote domain; sending probes at a given frequency to actively monitored nodes that include all other member nodes in the local domain and domain heads in the remote domains; determining whether each of the actively monitored nodes is up based on replies received from the actively monitored nodes in response to the probes; and setting up the local domain to include a sequence of M nodes in the sorted order with the node being the first of the sequence.
A method of preparing a thermoplastic polymer combined with a carbon nanomaterial, the method comprising: combining the carbon nanomaterial with a pyrene derivative by stirring 1 to 40 wt% of a carbon nanomaterial, 1 to 40 wt% of a polycyclic aromatic hydrocarbon derivative, and 20 to 98 wt% of a solvent with a mechanical mixer, wherein a weight ratio of the carbon nanomaterial to the polycyclic aromatic hydrocarbon derivative is 1:0.1 to 1:1.5, and wherein the polycyclic aromatic hydrocarbon derivative comprises at least one functional group selected from trialkyl azanium groups, and acylchloride groups; and coating a polymer pellet with the carbon nanomaterial combined with the polycyclic aromatic hydrocarbon derivative, wherein the solvent does not solve the polymer pellet. combining the carbon nanomaterial with a pyrene derivative by stirring 1 to 40 wt% of a carbon nanomaterial, 1 to 40 wt% of a polycyclic aromatic hydrocarbon derivative, and 20 to 98 wt% of a solvent with a mechanical mixer, wherein a weight ratio of the carbon nanomaterial to the polycyclic aromatic hydrocarbon derivative is 1:0.1 to 1:1.5, and wherein the polycyclic aromatic hydrocarbon derivative comprises at least one functional group selected from trialkyl azanium groups, and acylchloride groups; and coating a polymer pellet with the carbon nanomaterial combined with the polycyclic aromatic hydrocarbon derivative, wherein the solvent does not solve the polymer pellet.