mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising the contact product of: (a) at least one active hydrogen-containing compound; (b) a catalyst composition comprising at least one sterically hindered carboxylate salt; (c) at least one tertiary amine catalyst having at least one isocyanate reactive group comprising a member selected from the group consisting of primary hydroxyl group, a secondary hydroxyl group, a primary amine group, a secondary amine group, a urea group or an amide group, and (d) at least one blowing agent, with the proviso that the at least one blowing agent is not a chlorofluorocarbon, wherein the at least one sterically hindered carboxylate salt is potassium pivalate, tetramethylammonium pivalate, 2-hydroxylpropyltrimethylammonium pivalate, 2-hydroxylpropyltriethylammonium pivalate, tetraethylammonium pivalate, tetrapropylammonium pivalate, tetrabutylammonium pivalate, dimethyldiallylammonium pivalate, potassium triethylacetate, tetramethyl-ammonium triethylacetate, 2-hydroxylpropyltrimethylammonium triethylacetate, 2-hydroxylpropyltriethylammonium triethylacetate, tetraethylammonium triethylacetate, tetrapropylammonium triethylacetate, tetrabutylammonium triethylacetate, tetramethylammonium neoheptanoate, 2-hydroxylpropyltrimethyl-ammonium neoheptanoate, 2-hydroxylpropyltriethylammonium neoheptanoate, tetraethylammonium neoheptanoate, tetrapropylammonium neoheptanoate, tetrabutyl-ammonium neoheptanoate, tetramethylammonium neooctanoate, 2-hydroxylpropyltrimethylammonium neooctanoate, 2-hydroxylpropyltriethylammonium neooctanoate, tetraethylammonium neooctanoate, tetrapropyl-ammonium neooctanoate, tetrabutylammonium neooctanoate, tetramethylammonium neodecanoate, 2-hydroxylpropyltrimethylammonium neodecanoate, 2-hydroxylpropyltriethylammonium neodecanoate, tetraethylammonium neodecanoate, tetrapropylammonium neodecanoate, tetrabutylammonium neodecanoate, or any combination thereof. (a) at least one active hydrogen-containing compound; (b) a catalyst composition comprising at least one sterically hindered carboxylate salt; (c) at least one tertiary amine catalyst having at least one isocyanate reactive group comprising a member selected from the group consisting of primary hydroxyl group, a secondary hydroxyl group, a primary amine group, a secondary amine group, a urea group or an amide group, and (d) at least one blowing agent, with the proviso that the at least one blowing agent is not a chlorofluorocarbon,
Connector housing comprising a housing body and a line lead-in at one end of the housing body, such that two clamping jaws that fasten an electrical line between the inner surfaces thereof in a clamped manner are mounted so as to be movable transversely to the lead-in direction of the electrical line, characterised in that the clamping jaws are movably mounted on a guide bar and in that a carriage that is movable longitudinally in the lead-in direction and has a V-shaped inner contour covers the outer surfaces of the clamping jaws, which surfaces diverge in an inclined manner towards the housing body, as a drive for the clamping jaws.
Inhalation training system for training of a drug inhalation process of a patient, with a mouthpiece in which an air flow occurs in an inhalation process of the patient, and with a converter apparatus which is made for conversion of the air flow into an audible whistling and comprises a whistle for this purpose, characterized in that the inhalation training system comprises a portable communications device which is designed to convert the whistling into a microphone signal by means of a microphone of the portable communications device and in that the converter apparatus is located in and/or at the mouthpiece.
A method for generating a synthetic genome of interest, comprising: (a) providing a first viable genome; (b) designing a second genome based on the first viable genome, wherein the second genome comprises a reduced number of non-essential genes compared to the first viable genome; (c) dividing each of the first and second genomes into at least three corresponding fragments; (d) combining at least one fragment of the second genome with fragments of the first genome to generate a third genome having all corresponding fragments, but not having the fragment of the first genome that corresponds to the at least one fragment of the second genome, wherein the at least one fragment of the second genome has a reduced number of non-essential genes, further comprising reorganizing the gene order in the at least one fragment of the second genome prior to combining; (e) testing the third genome generated in step (d) in an in vitro biological system for sufficiency to sustain viability of a cell; and (f) identifying the third genome as a synthetic genome of interest of reduced size if it is sufficient to sustain the viability of a cell; otherwise modifying the at least one fragment of the second genome by deleting and/or altering individual nucleotides and repeating steps (d)-(f) in one or more iterations until the third genome is sufficient to sustain the viability of a cell; wherein the method is not a method for treatment of the human or animal body. (a) providing a first viable genome; (b) designing a second genome based on the first viable genome, wherein the second genome comprises a reduced number of non-essential genes compared to the first viable genome; (c) dividing each of the first and second genomes into at least three corresponding fragments; (d) combining at least one fragment of the second genome with fragments of the first genome to generate a third genome having all corresponding fragments, but not having the fragment of the first genome that corresponds to the at least one fragment of the second genome, wherein the at least one fragment of the second genome has a reduced number of non-essential genes, further comprising reorganizing the gene order in the at least one fragment of the second genome prior to combining; (e) testing the third genome generated in step (d) in an in vitro biological system for sufficiency to sustain viability of a cell; and (f) identifying the third genome as a synthetic genome of interest of reduced size if it is sufficient to sustain the viability of a cell; otherwise modifying the at least one fragment of the second genome by deleting and/or altering individual nucleotides and repeating steps (d)-(f) in one or more iterations until the third genome is sufficient to sustain the viability of a cell;
A semi-conductive polymer composition comprising: an ethylene copolymer comprising polar co-monomer units, present in an amount from 45 to 65 wt% of the total polymer composition; an olefin homo- or copolymer, present in an amount from 5 to 25 wt% of the total polymer composition; a conductive filler wherein the olefin homo- or copolymer has a degree of crystallinity (measured according to ISO 11357-3) below 20%. an ethylene copolymer comprising polar co-monomer units, present in an amount from 45 to 65 wt% of the total polymer composition; an olefin homo- or copolymer, present in an amount from 5 to 25 wt% of the total polymer composition; a conductive filler
A distributed amplifier, comprising: a plurality of transistors; a first line connecting gate electrodes of the transistors to each other; and a second line connecting drain electrodes of the transistors to each other, wherein the first line and the second line are electromagnetically coupled to each other at a position situated between immediately adjacent transistors among the plurality of transistors, and wherein the distance between the first line and the second line is a first length at positions at which the first line and the second line are connected to the transistors, and is a second length shorter than the first length at the position situated between the immediately adjacent transistors among the plurality of transistors, and wherein the second length at the position situated between the immediately adjacent transistors is shorter than a gate width of the transistors. a plurality of transistors; a first line connecting gate electrodes of the transistors to each other; and a second line connecting drain electrodes of the transistors to each other, wherein the first line and the second line are electromagnetically coupled to each other at a position situated between immediately adjacent transistors among the plurality of transistors, and wherein the distance between the first line and the second line is a first length at positions at which the first line and the second line are connected to the transistors, and is a second length shorter than the first length at the position situated between the immediately adjacent transistors among the plurality of transistors, and wherein the second length at the position situated between the immediately adjacent transistors is shorter than a gate width of the transistors.
(Currently Amended) A method for designing and modeling a lattice structure for additive manufacturing, the method comprising: receiving, by a processor, a parametrized lattice model providing material properties of a unit cell; identifying, with the processor, lattice zones for a density distribution of the lattice structure based on the parametrized lattice model and based on load requirements of the lattice structure; determining, with the processor, geometry sizes for trusses of the unit cell based on the density distribution and based on a sizing function of the unit cell; modeling the lattice structure for additive manufacturing, the modeling further comprising: adjusting the geometry size of the truss of the unit cell for finite-element analysis; and finite-element-modeling the lattice structure using the adjusted unit cell, the finite-element modeling comprising predicting response of the lattice structure to loads, optimizing topology of said design by repeating said acts of receiving, identifying, determining and finite-element modeling and printing a structural component using the design. receiving, by a processor, a parametrized lattice model providing material properties of a unit cell; identifying, with the processor, lattice zones for a density distribution of the lattice structure based on the parametrized lattice model and based on load requirements of the lattice structure; determining, with the processor, geometry sizes for trusses of the unit cell based on the density distribution and based on a sizing function of the unit cell; modeling the lattice structure for additive manufacturing, the modeling further comprising: adjusting the geometry size of the truss of the unit cell for finite-element analysis; and finite-element-modeling the lattice structure using the adjusted unit cell, the finite-element modeling comprising predicting response of the lattice structure to loads, optimizing topology of said design by repeating said acts of receiving, identifying, determining and finite-element modeling and printing a structural component using the design. adjusting the geometry size of the truss of the unit cell for finite-element analysis; and finite-element-modeling the lattice structure using the adjusted unit cell, the finite-element modeling comprising predicting response of the lattice structure to loads, optimizing topology of said design by repeating said acts of receiving, identifying, determining and finite-element modeling and printing a structural component using the design.
Handling apparatus for a processing tool, wherein the handling apparatus has a plurality of, in particular two, cooperating handling units (8, 9) which each have a multi-axis, programmable industrial robot (20, 21) and, together, retain a carrier and guide the same with coordinated movements, wherein the processing tool is arranged in a movable manner on the carrier and the carrier has a transporting device for the processing tool.
A battery pack, comprising a battery module, a box assembly and a first adhesive member; the box assembly having an accommodating cavity, the battery module being positioned in the accommodating cavity of the box assembly; the battery module comprising first batteries arranged sequentially in a horizontal direction; the first battery comprising an electrode assembly and a case, and the electrode assembly being received in the case; the electrode assembly comprising a first electrode plate, a second electrode plate (11 1b) and a separator provided between the first electrode plate and the second electrode plate (11 1b); the electrode assembly being a winding structure and in a flat shape, and the electrode assembly comprising two flat surfaces, the two flat surfaces facing each other in a vertical direction; or, the electrode assembly being a stacking structure, the first electrode plate, the separator (11 1c) and the second electrode plate being stacked in the vertical direction; the box assembly having a connection portion, and the connection portion being positioned at a side of the battery module in the vertical direction; an outer surface of the case comprising a first surface, and the first surface being connected with the connection portion via the first adhesive member; an area A of the first surface and an elastic modulus B of the first adhesive member satisfying a relationship: 0.02 cm 2 / MPa ≤ A / B ≤ 9 cm 2 / Mpa; the elastic modulus B of the first adhesive member is 150MPa-800MPa; the elastic modulus B is Young's modulus. the box assembly having an accommodating cavity, the battery module being positioned in the accommodating cavity of the box assembly; the battery module comprising first batteries arranged sequentially in a horizontal direction; the first battery comprising an electrode assembly and a case, and the electrode assembly being received in the case; the electrode assembly comprising a first electrode plate, a second electrode plate (11 1b) and a separator provided between the first electrode plate and the second electrode plate (11 1b); the electrode assembly being a winding structure and in a flat shape, and the electrode assembly comprising two flat surfaces, the two flat surfaces facing each other in a vertical direction; or, the electrode assembly being a stacking structure, the first electrode plate, the separator (11 1c) and the second electrode plate being stacked in the vertical direction; the box assembly having a connection portion, and the connection portion being positioned at a side of the battery module in the vertical direction; an outer surface of the case comprising a first surface, and the first surface being connected with the connection portion via the first adhesive member; an area A of the first surface and an elastic modulus B of the first adhesive member satisfying a relationship: 0.02 cm 2 / MPa ≤ A / B ≤ 9 cm 2 / Mpa; the elastic modulus B of the first adhesive member is 150MPa-800MPa; the elastic modulus B is Young's modulus.
A method in a wireless communication device, operating in a wireless communication network supporting multiple connectivity, the method comprising - transmitting, to a network node, capability information indicating a capability of the wireless communication device to operate in synchronized and in unsynchronized mode of multiple connectivity operation; - determining a receive timing difference between signals received at the wireless communication device from a candidate cell and a reference cell; - comparing the receive timing difference with a threshold; - reporting information to the network node about one or more candidate cells whose determined receive timing difference is within the threshold; - receiving, in response to the reporting, a first configuration from the network node to switch from synchronized to unsynchronized mode of multiple connectivity operation or vice versa; and - switching from synchronized to unsynchronized mode of multiple connectivity operation or vice versa. - transmitting, to a network node, capability information indicating a capability of the wireless communication device to operate in synchronized and in unsynchronized mode of multiple connectivity operation; - determining a receive timing difference between signals received at the wireless communication device from a candidate cell and a reference cell; - comparing the receive timing difference with a threshold; - reporting information to the network node about one or more candidate cells whose determined receive timing difference is within the threshold; - receiving, in response to the reporting, a first configuration from the network node to switch from synchronized to unsynchronized mode of multiple connectivity operation or vice versa; and - switching from synchronized to unsynchronized mode of multiple connectivity operation or vice versa.
A method for supporting load based signaling performed by a network node in a communication network, the method comprising: - determining, based on a current load of the network node, a load level out of a set of predefined load levels, each load level corresponding to an estimated capability of the network node to handle signaling from at least one network control node; and - indicating the determined load level to at least one network control node, wherein indicating is performed when the determined load level differs from a previously determined load level, and wherein indicating the determined load level comprises transmitting the determined load level in a message to the network control node. - determining, based on a current load of the network node, a load level out of a set of predefined load levels, each load level corresponding to an estimated capability of the network node to handle signaling from at least one network control node; and - indicating the determined load level to at least one network control node, wherein indicating is performed when the determined load level differs from a previously determined load level, and wherein indicating the determined load level comprises transmitting the determined load level in a message to the network control node.
An angular contact ball bearing comprising: an outer ring having an outer ring raceway surface on an inner circumferential surface, an inner ring having an inner ring raceway surface on an outer circumferential surface, a plurality of balls rollably arranged at a predetermined contact angle between the outer ring raceway surface and the inner ring raceway surface, and an outer ring guided cage having pockets that rollably hold the plurality of balls, wherein the cage includes a pair of annular portions and a plurality of pillar portions arranged at predetermined intervals in a circumferential direction, the plurality of pillar portions connecting the pair of annular portions in an axial direction, wherein the cage has a step shaped or an inclined inner circumferential surface, characterised in that when a pitch circle diameter of the ball is PCD and a diameter clearance of a radial guide clearance of the cage is ΔL, an inner diameter D2 of the pocket at axial end portions satisfies PCD < D2 + ΔL. wherein the cage includes a pair of annular portions and a plurality of pillar portions arranged at predetermined intervals in a circumferential direction, the plurality of pillar portions connecting the pair of annular portions in an axial direction, wherein the cage has a step shaped or an inclined inner circumferential surface, characterised in that when a pitch circle diameter of the ball is PCD and a diameter clearance of a radial guide clearance of the cage is ΔL, an inner diameter D2 of the pocket at axial end portions satisfies PCD < D2 + ΔL.
An aircraft assembly comprising: a first structural component comprising a body; an insert in the body; and a second structural component; wherein the insert is arranged to be bored to form a fastener receiving hole during assembly of the first structural component with the second structural component; and wherein the material hardness of the insert is less than the material hardness of the body, and wherein the second structural component abuts a first side of the body. a first structural component comprising a body; an insert in the body; and a second structural component; wherein the insert is arranged to be bored to form a fastener receiving hole during assembly of the first structural component with the second structural component; and wherein the material hardness of the insert is less than the material hardness of the body, and wherein the second structural component abuts a first side of the body.
A method comprising: receiving, by a parent network device in a wireless deterministic network, a retransmit capabilities message from a first child device attached to the parent network device, the retransmit capabilities message specifying a capability of the first child device to detect a data packet transmission to the parent network device by a second child device attached to the parent network device and that is a peer of the first child device, the capability determined by the first child device based on promiscuous detection of a data packet transmission to the parent network device by the second child device on timeslots allocated to the second child device; and allocating, by the parent network device, a peer retransmit timeslot to the first child device from within a channel distribution chunk appropriated by the parent network device, the peer retransmit timeslot enabling the first child device to retransmit a data packet on behalf of the second child device to the parent network device. receiving, by a parent network device in a wireless deterministic network, a retransmit capabilities message from a first child device attached to the parent network device, the retransmit capabilities message specifying a capability of the first child device to detect a data packet transmission to the parent network device by a second child device attached to the parent network device and that is a peer of the first child device, the capability determined by the first child device based on promiscuous detection of a data packet transmission to the parent network device by the second child device on timeslots allocated to the second child device; and allocating, by the parent network device, a peer retransmit timeslot to the first child device from within a channel distribution chunk appropriated by the parent network device, the peer retransmit timeslot enabling the first child device to retransmit a data packet on behalf of the second child device to the parent network device.
An electrochromic window, configured to be powered by a wireless power transmission source which is located away from the electrochromic window, the electrochromic window comprising: an electrochromic device; and a receiver configured to convert wireless power transmissions from the wireless power transmission source to an electrical energy used to power an optical transition of the electrochromic device, characterized in that the wireless power transmissions from the wireless power source are transmitted via radio frequency. an electrochromic device; and a receiver configured to convert wireless power transmissions from the wireless power transmission source to an electrical energy used to power an optical transition of the electrochromic device, characterized in that the wireless power transmissions from the wireless power source are transmitted via radio frequency.