mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving a higher-layer signaling containing configuration of one or more bandwidth parts, BWPs, per cell by a user equipment, UE, in a wireless communication network, wherein each BWP of the one or more BWPs includes one or more contiguous physical resource blocks, PRBs; receiving a first configuration of a second-part of a broadcast system information, SI, embedded in a first-part of the broadcast SI carried in a downlink, DL, broadcast channel by the user equipment, UE, wherein the first configuration includes at least a DL bandwidth for the second-part of the broadcast SI; receiving, by the UE, a second configuration of one or more DL control resource set, CORESET, with common search space, CSS, in the first-part of the broadcast SI; determining, by the UE, time-frequency radio resources; and receiving the broadcast SI based on a DL scheduler in the CSS of the one or more DL CORESET, the method being characterized in that the second configuration of the one or more DL control resource set, CORESET, includes at least one of a time duration and periodicity for each DL CORESET; and determining time-frequency radio resources comprises determining time-frequency radio resources of each DL CORESET of the one or more DL CORESET with CSS based on the DL bandwidth for the second-part of the broadcast SI and the configuration for the corresponding DL CORESET. receiving a higher-layer signaling containing configuration of one or more bandwidth parts, BWPs, per cell by a user equipment, UE, in a wireless communication network, wherein each BWP of the one or more BWPs includes one or more contiguous physical resource blocks, PRBs; receiving a first configuration of a second-part of a broadcast system information, SI, embedded in a first-part of the broadcast SI carried in a downlink, DL, broadcast channel by the user equipment, UE, wherein the first configuration includes at least a DL bandwidth for the second-part of the broadcast SI; receiving, by the UE, a second configuration of one or more DL control resource set, CORESET, with common search space, CSS, in the first-part of the broadcast SI; determining, by the UE, time-frequency radio resources; and receiving the broadcast SI based on a DL scheduler in the CSS of the one or more DL CORESET, the method being characterized in that the second configuration of the one or more DL control resource set, CORESET, includes at least one of a time duration and periodicity for each DL CORESET; and determining time-frequency radio resources comprises determining time-frequency radio resources of each DL CORESET of the one or more DL CORESET with CSS based on the DL bandwidth for the second-part of the broadcast SI and the configuration for the corresponding DL CORESET.
A resin composition comprising: an acrylic block copolymer comprising a polymer block predominantly containing methacrylic acid ester units and a polymer block predominantly containing acrylic acid ester units, the acrylic block copolymer having a refractive index of 1.485 to 1.495, as measured in accordance with the method specified in the description, and an order-disorder transition temperature (ODTT) of not more than 260°C, as measured in accordance with the method specified in the description; and an additional polymer other than the acrylic block copolymer, wherein the resin composition contains the acrylic block copolymer in a proportion of more than 90 mass%. an acrylic block copolymer comprising a polymer block predominantly containing methacrylic acid ester units and a polymer block predominantly containing acrylic acid ester units, the acrylic block copolymer having a refractive index of 1.485 to 1.495, as measured in accordance with the method specified in the description, and an order-disorder transition temperature (ODTT) of not more than 260°C, as measured in accordance with the method specified in the description; and an additional polymer other than the acrylic block copolymer, wherein the resin composition contains the acrylic block copolymer in a proportion of more than 90 mass%.
An anti-cancer drug for use in a method for killing or inhibiting the growth of cancer cells in a target region, the method comprising the simultaneous steps of treating the cancer cells with the anti-cancer drug and applying an electric field to the target region for a period of time while the cancer cells are being treated with the anti-cancer drug, wherein the electric field is configured to damage the cancer cells or inhibit growth of the cancer cells but leaving normal cells in the target region substantially unharmed, wherein the electric field is an AC electric field having a frequency between 100 kHz and 500 kHz and a field strength in the target region of at least 1 V/cm.
An indoor unit of an air conditioner, comprising: an indoor heat exchanger; a body in which are formed a plurality of discharge passages (P2, P3) for discharging air that has passed through the indoor heat exchanger; a centrifugal fan for generating a flow of air that passes through the indoor heat exchanger and is blown out of the discharge passages; a shutter that is rotatably movable around a shaft from a first position, at which the shutter is in an open state, to a second position, at which the shutter is in a closed state, by rotation away from the centrifugal fan in the discharge passage, which shutter is provided to at least one discharge passage of the plurality of discharge passages and kept in a closed state by the pressure of the air flow; a rotational drive unit for rotatably driving the shutter, arranged to stop rotational driving in the closed state; and a stopper that is formed inside the discharge passage and that is in contact with the shutter in the closed state, the shutter being vertically aligned with, or laying against, the stopper while closed in the second position, characterised in that the shaft is positioned on a bottom surface of an inner wall that forms a bottom space of the at least one discharge passage. an indoor heat exchanger; a body in which are formed a plurality of discharge passages (P2, P3) for discharging air that has passed through the indoor heat exchanger; a centrifugal fan for generating a flow of air that passes through the indoor heat exchanger and is blown out of the discharge passages; a shutter that is rotatably movable around a shaft from a first position, at which the shutter is in an open state, to a second position, at which the shutter is in a closed state, by rotation away from the centrifugal fan in the discharge passage, which shutter is provided to at least one discharge passage of the plurality of discharge passages and kept in a closed state by the pressure of the air flow; a rotational drive unit for rotatably driving the shutter, arranged to stop rotational driving in the closed state; and a stopper that is formed inside the discharge passage and that is in contact with the shutter in the closed state, the shutter being vertically aligned with, or laying against, the stopper while closed in the second position, characterised in that the shaft is positioned on a bottom surface of an inner wall that forms a bottom space of the at least one discharge passage.
A radiation detector, comprising: a photoelectric conversion substrate converting light into an electrical signal; and a scintillator layer contacting the photoelectric conversion substrate and converting radiation incident from the outside into light, wherein the scintillator layer is a fluorescent substance of CsI containing Tl as an activator, the CsI is a halide, the scintillator layer includes a central portion and a peripheral portion, the central portion is a central region of a formation region of the scintillator layer, the peripheral portion is an outer circumferential region of the formation region of the scintillator layer, a concentration of the activator inside the fluorescent substance in an in-plane direction of the scintillator layer in the central portion is higher than a concentration of the activator inside the fluorescent substance in an in-plane direction of the scintillator layer in the peripheral portion, characterized in that the concentration of the activator inside the fluorescent substance is 1.6 mass% ± 0.4 mass%. a photoelectric conversion substrate converting light into an electrical signal; and a scintillator layer contacting the photoelectric conversion substrate and converting radiation incident from the outside into light, wherein the scintillator layer is a fluorescent substance of CsI containing Tl as an activator, the CsI is a halide, the scintillator layer includes a central portion and a peripheral portion, the central portion is a central region of a formation region of the scintillator layer, the peripheral portion is an outer circumferential region of the formation region of the scintillator layer, a concentration of the activator inside the fluorescent substance in an in-plane direction of the scintillator layer in the central portion is higher than a concentration of the activator inside the fluorescent substance in an in-plane direction of the scintillator layer in the peripheral portion, characterized in that the concentration of the activator inside the fluorescent substance is 1.6 mass% ± 0.4 mass%.
A method comprising: receiving, by a container platform, a container for running an application, wherein the container has a metadata record that specifies an application type of the application; receiving, by the container platform, a data structure specifying a set of system call policies for a set of application types; querying, by the container platform, the data structure to determine a policy of the set of system call policies to apply to the container based on the application type in the metadata record; and implementing, by a kernel, the policy for the container to allow or deny permission for a system call by the application running in the container based on a comparison of the system call to the policy. receiving, by a container platform, a container for running an application, wherein the container has a metadata record that specifies an application type of the application; receiving, by the container platform, a data structure specifying a set of system call policies for a set of application types; querying, by the container platform, the data structure to determine a policy of the set of system call policies to apply to the container based on the application type in the metadata record; and implementing, by a kernel, the policy for the container to allow or deny permission for a system call by the application running in the container based on a comparison of the system call to the policy.
A driving system (1, 100) comprising: - a motor (2A, 2B, 102) that is connected to a wheel (W, LWr, RWr) of a vehicle so as to transmit power to the wheel (W, LWr, RWr); - a power transmission device (CL, 60A, 60B) that is provided on a power transmission path between the motor (2A, 2B, 102) and the wheel (W, LWr, RWr) and that can change a power transmission capacity of the power transmission path by controlling an application force; - a motor controller (108a, 8) that controls power that is generated by the motor (2A, 2B, 102); - an application force controller (108b, 8) that controls the application force of the power transmission device (CL, 60A, 60B); and - an application force acquiring device (104, 92) that acquires a current application force which is an application force that the power transmission device (CL, 60A, 60B) is currently exerting, and characterized in that when the motor controller (108a, 8) receives a request for generation of power or for an increase in power respectively, in such a motor rotating state that the motor (2A, 2B, 102) currently generates no power or is generating power respectively, the motor controller (108a, 8) is configured to control to permit or prohibit the generation of power or the increase in power of the motor (2A, 2B, 102) respectively, irrespective of a magnitude of the request, when the current application force is smaller than a necessary application force, which is an application force of the power transmission device (CL, 60A, 60B) that is needed to transmit a maximum torque of the motor (2A, 2B, 102) in a current rotating state quantity, which is a rotating state quantity that the motor (2A, 2B, 102) is currently having, the generation of power or the increase in power of the motor (2A, 2B, 102) is prohibited, respectively, to avoid slip of the power transmission device (CL, 60A, 60B). - a motor (2A, 2B, 102) that is connected to a wheel (W, LWr, RWr) of a vehicle so as to transmit power to the wheel (W, LWr, RWr); - a power transmission device (CL, 60A, 60B) that is provided on a power transmission path between the motor (2A, 2B, 102) and the wheel (W, LWr, RWr) and that can change a power transmission capacity of the power transmission path by controlling an application force; - a motor controller (108a, 8) that controls power that is generated by the motor (2A, 2B, 102); - an application force controller (108b, 8) that controls the application force of the power transmission device (CL, 60A, 60B); and - an application force acquiring device (104, 92) that acquires a current application force which is an application force that the power transmission device (CL, 60A, 60B) is currently exerting, and
A polarization mode converter comprising: a rectangular waveguide, wherein a height of the rectangular waveguide is a first height, a first tapered waveguide, wherein a side of the first tapered waveguide is connected to a side of the rectangular waveguide in an optical signal propagation direction, a width of the first tapered waveguide changes gradually in the optical signal propagation direction, a height of the first tapered waveguide is a second height, and the second height is less than the first height; and a second tapered waveguide, wherein the second tapered waveguide is unconnected to the rectangular waveguide, the second tapered waveguide is unconnected to the first tapered waveguide), a width of the second tapered waveguide changes gradually in the optical signal propagation direction, a height of the second tapered waveguide is the first height, a distance between a first end of the second tapered waveguide and the rectangular waveguide is a first distance, a distance between a second end of the second tapered waveguide and the rectangular waveguide is a second distance, the second distance is greater than the first distance, and the first tapered waveguide is located between the rectangular waveguide and the second tapered waveguide; wherein the width extends in a direction between said rectangular waveguide and said second waveguide, wherein the first tapered waveguide and the second tapered waveguide are optically coupled.
An occlusion evaluation apparatus comprising an input device, an arithmetic device and a display device, wherein the input device is configured to input three dimensional data of geometries of maxillary molar teeth (1, 2, 3, 4) and mandibular molar teeth (5, 6, 7, 8) into the arithmetic device, the arithmetic device is configured to determine a geometry of a fluxion space (Va, Vc, Vw) which is defined between occlusal surfaces (1a, 2a, 3a, 4a) of the maxillary molar teeth (1, 2, 3, 4) and occlusal surfaces (5a, 6a, 7a, 8a) of the mandibular molar teeth (5, 6, 7, 8) when the maxillary molar teeth (1, 2, 3, 4) and the mandibular molar teeth (5, 6, 7, 8) are occluded, and to slidingly moves the maxillary molar teeth (1, 2, 3, 4) and the mandibular molar teeth (5, 6, 7, 8) with respect to each other to change an occlusal condition arbitrarily so that the geometry of the fluxion space (Va, Vc, Vw) is changed, and the display device is configured to display the geometry of the fluxion space (Va, Vc, Vw) in a visible manner, and to change the displayed geometry of the fluxion space (Va, Vc, Vw) in response to the change of the occlusal condition.
A spark gap with multiple individual spark gaps connected in series in a stack arrangement which are spaced apart by annular isolating gaps and are provided with a contact unit (1; 2), wherein the respective individual spark gaps have disc-shaped electrodes, and furthermore comprising controlling elements for influencing the voltage distribution across the stack arrangement, wherein the disc-shaped electrodes required for forming one of the respective individual spark gaps each are inserted and centrally held in an isolation body, wherein the controlling elements are arranged on an external periphery of the envelope of the stack arrangement, each individually or combined in groups, at a radial angular offset, characterized in that in the respective isolation body, a recess is present for receiving the respective disc-shaped electrode, whose shape corresponds to the contour of the respective electrode, wherein the recess has centering protrusions or centering lugs on the inner circumferential side, and furthermore, the respective annular isolating gap is located between and fixed by respective adjacent isolation bodies, wherein the controlling elements are situated on a supporting part which features means for making electrical contact, wherein the supporting parts each are received by a module segment which is an integral part of a housing having base plates (3; 4), wherein the module segments are screwed to the base plates (3; 4) while forming a closed housing, and the respective supporting part being a circuit board receiving resilient contact pins which contact the corresponding electrode via openings in the respective isolation body.
A peripherally-implanted medical device, comprising: a balloon-expandable scaffold formed from a biaxially expanded polymer tube having a diameter to wall thickness ratio of between 20 - 40, the scaffold having a post-dilation diameter when expanded by a balloon and a pre-crimp diameter before being crimped to the balloon; the scaffold forming a network of rings (212, 312) interconnected by links (234,334), including 8 or 12 crests per ring, and at most 2 links (234, 334) connecting a ring (212, 312) to an adjacent ring (212a, 312a); wherein the scaffold has a crush recovery such that it attains at least 90%, or at least 80% of its post-dilation or pre-crimp diameter after being crushed to at most 50% of its post-dilation or pre-crimp diameter; wherein for any ring of the scaffold there are an equal number of unsupported crests on each side of each crest connected to a link; and wherein after being submerged in water at 37 Deg. C for 6-7 days a mechanical property of the scaffold increases by between about 1.3 to 2.25 or about 1.3 to 2.0. a balloon-expandable scaffold formed from a biaxially expanded polymer tube having a diameter to wall thickness ratio of between 20 - 40, the scaffold having a post-dilation diameter when expanded by a balloon and a pre-crimp diameter before being crimped to the balloon; the scaffold forming a network of rings (212, 312) interconnected by links (234,334), including 8 or 12 crests per ring, and at most 2 links (234, 334) connecting a ring (212, 312) to an adjacent ring (212a, 312a); wherein the scaffold has a crush recovery such that it attains at least 90%, or at least 80% of its post-dilation or pre-crimp diameter after being crushed to at most 50% of its post-dilation or pre-crimp diameter; wherein for any ring of the scaffold there are an equal number of unsupported crests on each side of each crest connected to a link; and wherein after being submerged in water at 37 Deg. C for 6-7 days a mechanical property of the scaffold increases by between about 1.3 to 2.25 or about 1.3 to 2.0. 8 or 12 crests per ring, and at most 2 links (234, 334) connecting a ring (212, 312) to an adjacent ring (212a, 312a); wherein the scaffold has a crush recovery such that it attains at least 90%, or at least 80% of its post-dilation or pre-crimp diameter after being crushed to at most 50% of its post-dilation or pre-crimp diameter; wherein for any ring of the scaffold there are an equal number of unsupported crests on each side of each crest connected to a link; and wherein after being submerged in water at 37 Deg. C for 6-7 days a mechanical property of the scaffold increases by between about 1.3 to 2.25 or about 1.3 to 2.0.
Two-component structural adhesive, comprising at least the following components: (i) at least one polyisocyanate containing free isocyanate groups and having a content of aliphatically bound NCO groups of 16.0 to 24.0 wt. %, which is essentially free of ester groups and/or ether groups and/or carbonate groups, where "essentially free of ester groups and/or ether groups and/or carbonate groups" means that in the two-component structural adhesive less than 15%, based on the total weight of the two-component structural adhesive, is used as reactive component in the preparation of isocyanate prepolymers in the context of component (i); (ii) at least one amino-functional polyaspartic ester of the general formula in which n = 2 and X is a 2-valent organic radical obtainable by removing the amino groups from a straight-chain or branched aliphatic diamine having up to 9 carbon atoms, and R 1 and R 2 represent a methyl or an ethyl group, wherein solvents are present in amounts of less than 5% by weight, based on the total weight of the structural adhesive, wherein the structural adhesive having a tensile shear strength in the cured state of at least 7 MPa, preferably at least 10 MPa, further preferably at least 12 MPa, the tensile shear strength being measured according to standard DIN/EN 1465 between two test specimens of roughened V2A steel. (i) at least one polyisocyanate containing free isocyanate groups and having a content of aliphatically bound NCO groups of 16.0 to 24.0 wt. %, which is essentially free of ester groups and/or ether groups and/or carbonate groups, where "essentially free of ester groups and/or ether groups and/or carbonate groups" means that in the two-component structural adhesive less than 15%, based on the total weight of the two-component structural adhesive, is used as reactive component in the preparation of isocyanate prepolymers in the context of component (i); (ii) at least one amino-functional polyaspartic ester of the general formula in which n = 2 and X is a 2-valent organic radical obtainable by removing the amino groups from a straight-chain or branched aliphatic diamine having up to 9 carbon atoms, and R 1 and R 2 represent a methyl or an ethyl group,
Respiratory assistance apparatus comprising a rigid casing comprising a motor compartment within which a motorized micro-blower is arranged, in which the casing is formed from a first and a second half-casing (1a, 1b) which are rigidly connected to each other in a leaktight manner, said rigid casing comprising: - an air inlet compartment comprising an air inlet opening in communication with the atmosphere, said air inlet compartment additionally being in fluidic communication with the motor compartment via at least one air outlet opening, - a gas outlet compartment comprising a gas supply opening, said gas outlet compartment being fed with gas by the motorized micro-blower, and - an oxygen circuit comprising an oxygen inlet and at least one oxygen outlet, said at least one oxygen outlet being in fluidic communication with the motor compartment, characterized in that the casing additionally comprises a venting circuit comprising an air inlet, formed in the air inlet compartment, and an air outlet, and allowing the patient to be able to breathe through said venting circuit in the event of a failure of the micro-blower. - an air inlet compartment comprising an air inlet opening in communication with the atmosphere, said air inlet compartment additionally being in fluidic communication with the motor compartment via at least one air outlet opening, - a gas outlet compartment comprising a gas supply opening, said gas outlet compartment being fed with gas by the motorized micro-blower, and - an oxygen circuit comprising an oxygen inlet and at least one oxygen outlet, said at least one oxygen outlet being in fluidic communication with the motor compartment,