mhurhangee/ep-ind-claims huggingface dataset:
A thin-walled, flexible and collapse-resistant thermo-plastic tubing having a substantially smooth bore and a helical outer support bead structure, the tubing including plural conductors helically disposed within said support bead structure, said tubing comprising: a flexible tubing wall formed of an elongate thermo-plastic ribbon including a comparatively thinner wall portion and a comparatively thicker bead-foundation plateau portion, said plateau portion defining plural elongate fine-dimension grooves said thermo-plastic ribbon while molten being helically wrapped repeatedly on itself to overlap successive wraps of said ribbon a certain amount forming a helical lap joint where successive wraps of said ribbon heat-bond integrally to one another so that an elongate tubing body is formed; plural elongate conductors each disposed individually in a respective one of said fine-dimension grooves of said plateau portion and helically around and along said elongate tubular body; characterized in that it further includes a pair of axially spaced apart divergent lip portions bracketing said plural fine-dimension grooves, an elongate molten thermoplastic support bead portion while molten being disposed helically around and along said elongate tubular body atop of said plateau portion and between said pair of divergent lip portions, said support bead portion integrally heat-bonding to said ribbon so that said plateau portion, said secondary ribbon, and said support bead portion cooperatively form said bead structure, and said tubing comprises a unitary thin-walled tubing structure with helical outer support bead and embedded conductors extending helically about and along said tubing. a flexible tubing wall formed of an elongate thermo-plastic ribbon including a comparatively thinner wall portion and a comparatively thicker bead-foundation plateau portion, said plateau portion defining plural elongate fine-dimension grooves said thermo-plastic ribbon while molten being helically wrapped repeatedly on itself to overlap successive wraps of said ribbon a certain amount forming a helical lap joint where successive wraps of said ribbon heat-bond integrally to one another so that an elongate tubing body is formed; plural elongate conductors each disposed individually in a respective one of said fine-dimension grooves of said plateau portion and helically around and along said elongate tubular body; characterized in that it further includes a pair of axially spaced apart divergent lip portions bracketing said plural fine-dimension grooves, an elongate molten thermoplastic support bead portion while molten being disposed helically around and along said elongate tubular body atop of said plateau portion and between said pair of divergent lip portions, said support bead portion integrally heat-bonding to said ribbon so that said plateau portion, said secondary ribbon, and said support bead portion cooperatively form said bead structure, and said tubing comprises a unitary thin-walled tubing structure with helical outer support bead and embedded conductors extending helically about and along said tubing.
Composition comprising the following components: (a) a core particle; and (b) a coating that at least partially surrounds said core particle and that comprises an optionally substituted ester of a polyol and a saturated or unsaturated monocarboxylic acid; wherein said core particle and said coating are not the same material and wherein the core particle has an average particle size d 50 of between 1 and 500 μm wherein the core particle is a filler or a pigment; and wherein the filler is a compound selected from the list consisting of calcium carbonate, dolomite, kaolinite, carbon, zeolite, graphite, mica, borosilicate, silicon dioxide, cellulose, silicic acid, aluminiumhydroxide, magnesiumhydroxide, magnesiumoxide, zincoxide and calciumoxide, chalk, kaolin, quartz powder, baryte, a metal powder, hydrated alumina, cement, talc, diatomaceous earth, sawdust, wood chips and a mixture of at least two of these fillers; and wherein the pigment is selected from the list consisting of a cadmium pigment, a carbon pigment, a chromium pigment, a cobalt pigment, a copper pigment, an iron oxide pigment, a clay earth pigment, a lead pigment, a mercury pigment, a titanium pigment, an ultramarine pigment, a zinc pigment, an organic pigment, a biological pigment and a mixture of at least two of these pigments. (a) a core particle; and (b) a coating that at least partially surrounds said core particle and that comprises an optionally substituted ester of a polyol and a saturated or unsaturated monocarboxylic acid;
Process for the purification of a mixture comprising three compounds: a) water, b) 1 to 60wt.-% of N-alkyl hydroxylammonium salt of formula I and with R1, R2, R3 each independently are selected from the group of H, methyl, ethyl, n-propyl, isopropyl, n-butyl, 2-butyl and tert-butyl, with X is selected from Cl, SO 4, PO 4, CH 3 COO, 2, with n dependent of the valence of X in water is a natural number selected from the group of 1, 2 and 3 and c) byproducts wherein the process comprises the following steps: I) putting the mixture into a purification apparatus, II) bringing the mixture in contact with steam III) removing a composition comprising water vapor and compound c) by distillation until the purity of compound b) in the residue is 95 % or greater wherein the amount of water in the residue remains during and after the distillation ≥ 40 wt.-%. a) water, b) 1 to 60wt.-% of N-alkyl hydroxylammonium salt of formula I and with R1, R2, R3 each independently are selected from the group of H, methyl, ethyl, n-propyl, isopropyl, n-butyl, 2-butyl and tert-butyl, with X is selected from Cl, SO 4, PO 4, CH 3 COO, 2, with n dependent of the valence of X in water is a natural number selected from the group of 1, 2 and 3 and with R1, R2, R3 each independently are selected from the group of H, methyl, ethyl, n-propyl, isopropyl, n-butyl, 2-butyl and tert-butyl, with X is selected from Cl, SO 4, PO 4, CH 3 COO, 2, with n dependent of the valence of X in water is a natural number selected from the group of 1, 2 and 3 and c) byproducts wherein the process comprises the following steps: I) putting the mixture into a purification apparatus, II) bringing the mixture in contact with steam III) removing a composition comprising water vapor and compound c) by distillation until the purity of compound b) in the residue is 95 % or greater wherein the amount of water in the residue remains during and after the distillation ≥ 40 wt.-%. I) putting the mixture into a purification apparatus, II) bringing the mixture in contact with steam III) removing a composition comprising water vapor and compound c) by distillation until the purity of compound b) in the residue is 95 % or greater wherein the amount of water in the residue remains during and after the distillation ≥ 40 wt.-%.
An anchor delivery system for treatment of body tissue, comprising: an anchor assembly including a first anchor component, second anchor component, and a connector; a needle assembly, wherein the first anchor component is positioned in the needle assembly; and a delivery device including a needle assembly, a spool assembly configured to control the position of the needle assembly, a trigger assembly configured to control severing of the connector of the anchor assembly, characterized in that the delivery device includes a first actuator, a second actuator and a third actuator; wherein the first actuator is configured to be directly actuated by a user to advance both the needle assembly and a portion of the anchor assembly into the body tissue, wherein the second actuator (1 10) is configured to be directly actuated by the user to withdraw the needle assembly from the body tissue and wherein the third actuator is configured to be directly actuated by the user to lock the second anchor component to the connector. an anchor assembly including a first anchor component, second anchor component, and a connector; a needle assembly, wherein the first anchor component is positioned in the needle assembly; and a delivery device including a needle assembly, a spool assembly configured to control the position of the needle assembly, a trigger assembly configured to control severing of the connector of the anchor assembly, characterized in that the delivery device includes a first actuator, a second actuator and a third actuator; wherein the first actuator is configured to be directly actuated by a user to advance both the needle assembly and a portion of the anchor assembly into the body tissue, wherein the second actuator (1 10) is configured to be directly actuated by the user to withdraw the needle assembly from the body tissue and wherein the third actuator is configured to be directly actuated by the user to lock the second anchor component to the connector.
A high pressure compressor, comprising: a rotor hub; a first rotor coupled to the rotor hub; a stator adjacent and aft the first rotor; a second rotor adjacent and aft the stator, the second rotor coupled to the rotor hub; and a thermal shield coupled to the rotor hub and disposed radially inward of the stator, the thermal shield comprising a knife seal, characterised in that the thermal shield is coupled to the rotor hub by one or more first interlocking arms disposed on a portion of an outer diameter of the rotor hub coupling to one or more second interlocking arms disposed on a portion of an inner diameter of the thermal shield a rotor hub; a first rotor coupled to the rotor hub; a stator adjacent and aft the first rotor; a second rotor adjacent and aft the stator, the second rotor coupled to the rotor hub; and a thermal shield coupled to the rotor hub and disposed radially inward of the stator, the thermal shield comprising a knife seal, characterised in that the thermal shield is coupled to the rotor hub by one or more first interlocking arms disposed on a portion of an outer diameter of the rotor hub coupling to one or more second interlocking arms disposed on a portion of an inner diameter of the thermal shield
Use of an antibody or antigen-binding fragment that specifically binds human interleukin-4 receptor (hIL-4R) (SEQ ID NO:274) in the manufacture of a medicament for the treatment of a disease or disorder, wherein the disease or disorder is selected from the group consisting of lung disorders, inflammatory disorders and allergic reactions, wherein the antibody or fragment thereof comprises a heavy chain variable region (HCVR) comprising the amino acid sequence shown in SEQ ID NO:162 and a light chain variable region (LCVR) comprising the amino acid sequence shown in SEQ ID NO:164.
A power connector assembly, comprising: a connector housing; and a plurality of receptacles (104a, 104b, 104c) defined in the connector housing, each of the receptacles defining a keyed interface profile such that each interface profile is adapted to individually couple to a respective feeder connector (106a, 106b, 106c), wherein each one of the receptacles has an interface profile different from the other interface profiles, and characterized by: each of the plurality of receptacles includes a contact pin (108a, 108b, 108c) extending upwardly from the connector housing with an internal thread and a counter bore. a connector housing; and a plurality of receptacles (104a, 104b, 104c) defined in the connector housing, each of the receptacles defining a keyed interface profile such that each interface profile is adapted to individually couple to a respective feeder connector (106a, 106b, 106c), wherein each one of the receptacles has an interface profile different from the other interface profiles, and characterized by: each of the plurality of receptacles includes a contact pin (108a, 108b, 108c) extending upwardly from the connector housing with an internal thread and a counter bore.
An electronic viewfinder installed at a main body of a photographing apparatus to provide a viewfinder image, the electronic viewfinder comprising: a first holder fixed to the main body; a viewfinder comprising a display unit and an ocular portion configured to view an image of the subject displayed on the display unit; wherein the viewfinder is supported by the first holder such that the ocular portion is slid to a first position adjacent to the main body and a second position spaced apart from the main body; and characterised in that the electronic viewfinder comprises a toggle spring configured to elastically connect the first holder and the viewfinder, wherein a direction of an elastic force of the toggle spring is switched from a slide obstructing direction to a slide allowing direction when the viewfinder is slid. a first holder fixed to the main body; a viewfinder comprising a display unit and an ocular portion configured to view an image of the subject displayed on the display unit; wherein the viewfinder is supported by the first holder such that the ocular portion is slid to a first position adjacent to the main body and a second position spaced apart from the main body; and characterised in that the electronic viewfinder comprises a toggle spring configured to elastically connect the first holder and the viewfinder, wherein a direction of an elastic force of the toggle spring is switched from a slide obstructing direction to a slide allowing direction when the viewfinder is slid.
Method for producing a fibre compound that comprises at least one additive and at least one organic fibrous material, the fibrous material being selected from a group comprising mechanical wood pulp, semi-chemical pulp, chemical pulp, wool, silk, linen, cotton, synthetic polymer fibres and/or other fibrous materials having fibre thicknesses of less than 0.5 mm, at least one additive being added that comprises Ca and/or Mg compounds as a sulfate, hydroxide, silicate, aluminate, ferrite and/or mixtures thereof, characterised in that the Ca and/or Mg compounds are used in an amount of from 1 to 50 wt.%, and said compounds are transformed into the three-dimensional compound of the Ca and/or Mg compounds by a reaction with water, CO2, carbonate ions, sulfate ions, oxygen, further additives and/or combinations thereof or by separating water or gases, such as CO2, O2 or others, optionally while supplying or discharging energy, and the structure of said compounds changes in the fibre compound and/or said compounds form a structure in the fibre compound, and after the structural change and/or the structure formation, individual crystals or particles are interconnected and/or physically interact so as to achieve a cross-linked fibrous material structure, formed by the fibrous material, in order to stabilise the fibre compound as a three-dimensional compound of the Ca and/or Mg compounds, the three-dimensional compound of the Ca and/or Mg compounds being formed after the organic fibrous materials have been cross-linked.
A load carrier, such as a roof box, for a vehicle comprising a base and a lid, said load carrier comprising a lock arrangement arranged on said base and/or said lid, said lock arrangement being operated via an actuator, said lock arrangement comprises at least a first and a second displaceable lock element arranged at a distance from each other and being operable between a locked and unlocked positon, wherein said actuator is a slideable handle configured to be translatable characterized in that the slideable handle is slideably arranged in a housing mounted to the load carrier.
An image forming apparatus comprising: a recording head (61Y, 61M, 61C, 61BK)that jets a recording liquid for forming an image; an intermediate transfer body that carries the image formed by the recording liquid, the intermediate transfer body facing the recording head; a voltage applying unit that applies a voltage between the recording head and the intermediate transfer body; and a transfer unit that transfers the image onto a recording target material, wherein the recording liquid includes water, a coloring agent, a wetting agent, a water-soluble metal complex including polyvalent metal ions, and an anionic polymer whose viscosity increases by being cross-linked with the polyvalent metal ions, wherein the recording liquid is adjusted to have a pH value by which the viscosity-increasing effect of the polyvalent metal ions is inactivated, wherein the recording liquid jetted from the recording head forms a bridge between the recording head and the intermediate transfer body, and as the voltage applying unit applies the voltage, electrolysis occurs in the water in the recording liquid, and the pH value of the recording liquid is changed so that a viscosity of the recording liquid increases. a recording head (61Y, 61M, 61C, 61BK)that jets a recording liquid for forming an image; an intermediate transfer body that carries the image formed by the recording liquid, the intermediate transfer body facing the recording head; a voltage applying unit that applies a voltage between the recording head and the intermediate transfer body; and a transfer unit that transfers the image onto a recording target material, wherein the recording liquid includes water, a coloring agent, a wetting agent, a water-soluble metal complex including polyvalent metal ions, and an anionic polymer whose viscosity increases by being cross-linked with the polyvalent metal ions, wherein the recording liquid is adjusted to have a pH value by which the viscosity-increasing effect of the polyvalent metal ions is inactivated, wherein the recording liquid jetted from the recording head forms a bridge between the recording head and the intermediate transfer body, and as the voltage applying unit applies the voltage, electrolysis occurs in the water in the recording liquid, and the pH value of the recording liquid is changed so that a viscosity of the recording liquid increases.
A perforating gun system comprising: a cylindrical housing with a bottom end and a top end; a prewired loading tube assembly disposed within the cylindrical housing and having a corresponding bottom end and top end; an upper end fitting coupled to the top end of the prewired loading tube and the top end of the cylindrical housing; a lower end fitting coupled to the bottom end of the prewired loading tube and the bottom end of the cylindrical housing; upper electrical connections coupled to the upper end fitting; lower electrical connections coupled to the lower end fitting; a selective switch coupled to a detonator connector receptacle disposed within the upper end fitting; and characterized by an auto-shunting modular detonator electrically coupled to the selective switch and further disposed within the upped end fitting; wherein the auto-shunting modular detonator does not un-shunt until a mating receptacle is inserted, which disengages the shunt of the detonator; and wherein the upper end fitting contains a portion to receive the detonator by electrically connecting it to a mating receptacle of the selective switch and affixing the detonator proximate to a detonating cord. a cylindrical housing with a bottom end and a top end; a prewired loading tube assembly disposed within the cylindrical housing and having a corresponding bottom end and top end; an upper end fitting coupled to the top end of the prewired loading tube and the top end of the cylindrical housing; a lower end fitting coupled to the bottom end of the prewired loading tube and the bottom end of the cylindrical housing; upper electrical connections coupled to the upper end fitting; lower electrical connections coupled to the lower end fitting; a selective switch coupled to a detonator connector receptacle disposed within the upper end fitting; and characterized by an auto-shunting modular detonator electrically coupled to the selective switch and further disposed within the upped end fitting; wherein the auto-shunting modular detonator does not un-shunt until a mating receptacle is inserted, which disengages the shunt of the detonator; and wherein the upper end fitting contains a portion to receive the detonator by electrically connecting it to a mating receptacle of the selective switch and affixing the detonator proximate to a detonating cord.
A vehicle configured to drive on a public road and on an agricultural field, and further configured to operate next to a harvesting machine, the vehicle comprising: - a first receptacle suitable to receive crops delivered by the harvesting machine through a delivering conveyor of the harvesting machine while the vehicle is driving alongside the harvesting machine during a mobile harvesting operation; and - a cleaning device adapted to: - receive the received crops of the first receptacle; and - automatically separate the received crops in excess materials and cleaned crops; - a second receptacle adapted to buffer the cleaned crops of the cleaning device, CHARACTERIZED IN THAT - the first receptacle is configured to collect the received crops comprising excess materials, the excess materials comprising soil; and - the vehicle is configured to scatter the excess materials of the cleaning device on the agricultural field while the vehicle is driving along the agricultural field next to the harvesting machine during the mobile harvesting operation, and to buffer the excess materials during a stationary dumping operation. - a first receptacle suitable to receive crops delivered by the harvesting machine through a delivering conveyor of the harvesting machine while the vehicle is driving alongside the harvesting machine during a mobile harvesting operation; and - a cleaning device adapted to: - receive the received crops of the first receptacle; and - automatically separate the received crops in excess materials and cleaned crops; - receive the received crops of the first receptacle; and - automatically separate the received crops in excess materials and cleaned crops; - a second receptacle adapted to buffer the cleaned crops of the cleaning device, CHARACTERIZED IN THAT - the first receptacle is configured to collect the received crops comprising excess materials, the excess materials comprising soil; and - the vehicle is configured to scatter the excess materials of the cleaning device on the agricultural field while the vehicle is driving along the agricultural field next to the harvesting machine during the mobile harvesting operation, and to buffer the excess materials during a stationary dumping operation.
A method for purifying a protein, which comprises erythropoietin and a single poly (ethylene glycol) residue, comprising the following steps: a) applying a solution comprising a mixture of erythropoietin and conjugates of erythropoietin and poly (ethylene glycol) with one or more poly (ethylene glycol) residues per erythropoietin molecule to a column, comprising a chromatography material that has a matrix of methacrylate with a sulfopropyl as functional group, to which a first solution with a pH of about 2.4 to about 2.7 has been applied, b) applying a second solution with an increased pH value with respect to the first solution, c) applying a solution with increased or increasing conductivity to the column and thereby recovering the protein, which comprises erythropoietin and a single poly (ethylene glycol) residue. a) applying a solution comprising a mixture of erythropoietin and conjugates of erythropoietin and poly (ethylene glycol) with one or more poly (ethylene glycol) residues per erythropoietin molecule to a column, comprising a chromatography material that has a matrix of methacrylate with a sulfopropyl as functional group, to which a first solution with a pH of about 2.4 to about 2.7 has been applied, b) applying a second solution with an increased pH value with respect to the first solution, c) applying a solution with increased or increasing conductivity to the column and thereby recovering the protein, which comprises erythropoietin and a single poly (ethylene glycol) residue.