mhurhangee/patent-ind-claim-en huggingface dataset:
A kit comprising - an outer element and - an inner element, wherein - the outer element is a medical invasive device, - the medical invasive device has a body portion arranged to be inserted into one of, a patient's blood vessel, a patient's body cavity and a patient's body tissue, - the medical invasive device is equipped with an electronic circuit, - the medical invasive device incorporates, in the body portion, a sensor arrangement and a digital data transmission arrangement, - the medical invasive device is a sheath, the sheath being an elongated object arranged to guide the inner element, wherein the sheath covers at least a segment of the inner element, and - the inner element is a shaft of a percutaneous heart pump, wherein the shaft comprises an integrated emitter coil circuit and wherein the sensor-equipped sheath is used to guide the shaft of the percutaneous heart pump into the body, thus assuring close proximity of emitting coil and sensor-equipped device and optimizing energy transfer. - an outer element and - an inner element, - the outer element is a medical invasive device, - the medical invasive device has a body portion arranged to be inserted into one of, a patient's blood vessel, a patient's body cavity and a patient's body tissue, - the medical invasive device is equipped with an electronic circuit, - the medical invasive device incorporates, in the body portion, a sensor arrangement and a digital data transmission arrangement, - the medical invasive device is a sheath, the sheath being an elongated object arranged to guide the inner element, wherein the sheath covers at least a segment of the inner element, and - the inner element is a shaft of a percutaneous heart pump, wherein the shaft comprises an integrated emitter coil circuit and wherein the sensor-equipped sheath is used to guide the shaft of the percutaneous heart pump into the body, thus assuring close proximity of emitting coil and sensor-equipped device and optimizing energy transfer.
An ink jet recording method for recording an image by ejecting an ink from a recording head including a member defining an ejection orifice through which the ink is ejected, an ejection element configured to generate an energy used for ejecting the ink, and a first flow path communicating with a portion between the ejection orifice and the ejection element, the method comprising: ejecting an ink through the ejection orifice; characterized by further comprising: moving the ink from the first flow path to the portion between the ejection orifice and the ejection element , separately from the ejecting of the ink and separately from an operation to fill the portion between the ejection orifice and the ejection element with the ink, wherein the ink is an aqueous ink comprising a coloring material and a compound containing a chain hydrocarbon having a carbon number of 8 or more to 18 or less substituted by a hydroxy group or an anionic group. ejecting an ink through the ejection orifice; characterized by further comprising: moving the ink from the first flow path to the portion between the ejection orifice and the ejection element , separately from the ejecting of the ink and separately from an operation to fill the portion between the ejection orifice and the ejection element with the ink, wherein the ink is an aqueous ink comprising a coloring material and a compound containing a chain hydrocarbon having a carbon number of 8 or more to 18 or less substituted by a hydroxy group or an anionic group. moving the ink from the first flow path to the portion between the ejection orifice and the ejection element , separately from the ejecting of the ink and separately from an operation to fill the portion between the ejection orifice and the ejection element with the ink, wherein the ink is an aqueous ink comprising a coloring material and a compound containing a chain hydrocarbon having a carbon number of 8 or more to 18 or less substituted by a hydroxy group or an anionic group.
A culturing device (1-3) comprising: a microplate including a plurality of vessels for accommodating a culture medium , each of the plurality of vessels having a bottom surface and a component (24; 24; 26) attached into the vessel, the component (23; 24; 26) extending from an upper end of the vessel to an interior of the vessel so that the vessel has an opening ; and a lid covering an upper surface of the microplate , wherein the component (23; 24; 26) has two surfaces (23A, 23B; 24A, 24B) substantially parallel to the bottom surface of the vessel , one (23A; 24A) of the two surfaces being located at the same height as the upper surface of the microplate or at a position higher than the upper surface of the microplate , characterised in that the bottom surface of the vessels , the component (23; 24; 26) and the lid each have light transmittance, and the size of the component is adjusted so that the other (23B; 24B) of the two surfaces is immersed into the culture medium accommodated in the vessel when in use. a microplate including a plurality of vessels for accommodating a culture medium , each of the plurality of vessels having a bottom surface and a component (24; 24; 26) attached into the vessel, the component (23; 24; 26) extending from an upper end of the vessel to an interior of the vessel so that the vessel has an opening ; and a lid covering an upper surface of the microplate , wherein the component (23; 24; 26) has two surfaces (23A, 23B; 24A, 24B) substantially parallel to the bottom surface of the vessel , one (23A; 24A) of the two surfaces being located at the same height as the upper surface of the microplate or at a position higher than the upper surface of the microplate , characterised in that the bottom surface of the vessels , the component (23; 24; 26) and the lid each have light transmittance, and the size of the component is adjusted so that the other (23B; 24B) of the two surfaces is immersed into the culture medium accommodated in the vessel when in use.
A downlink control information detecting method, applied to a terminal, comprising: obtaining indication information for indicating a candidate downlink control information, DCI, payload size; according to the candidate DCI payload size indicated by the indication information, performing blind detection on a physical downlink control channel, PDCCH, and determining DCI transmitted in the PDCCH; wherein the method is characterized in that the step of according to the candidate DCI payload size indicated by the indication information, performing blind detection on a physical downlink control channel, PDCCH, and determining DCI transmitted in the PDCCH, comprises: performing blind detection on the PDCCH according to the candidate DCI payload size indicated by the indication information, to obtain a bit string; parsing an indication field in the bit string, and determining a DCI format of DCI transmitted in the PDCCH according to a parsing result; parsing DCI carried in the bit string according to the DCI format. obtaining indication information for indicating a candidate downlink control information, DCI, payload size; according to the candidate DCI payload size indicated by the indication information, performing blind detection on a physical downlink control channel, PDCCH, and determining DCI transmitted in the PDCCH; wherein the method is characterized in that the step of according to the candidate DCI payload size indicated by the indication information, performing blind detection on a physical downlink control channel, PDCCH, and determining DCI transmitted in the PDCCH, comprises: performing blind detection on the PDCCH according to the candidate DCI payload size indicated by the indication information, to obtain a bit string; parsing an indication field in the bit string, and determining a DCI format of DCI transmitted in the PDCCH according to a parsing result; parsing DCI carried in the bit string according to the DCI format. performing blind detection on the PDCCH according to the candidate DCI payload size indicated by the indication information, to obtain a bit string; parsing an indication field in the bit string, and determining a DCI format of DCI transmitted in the PDCCH according to a parsing result; parsing DCI carried in the bit string according to the DCI format.
An annular combustion chamber for a gas turbine engine comprising an external wall, an internal wall, a wall connecting these two walls and constituting a chamber end wall , the chamber end wall being provided with openings for fuel injection systems, heat shielding deflectors being fixed to the wall, the deflectors comprising a flat wall portion (10a, 10'a) with an opening per deflector centred on an opening of a fuel injection system, the openings being bordered by collars (10b1, 10'b1) through which the deflectors are secured to the chamber end wall , the deflectors bearing against the edges of said opening by means of a shoulder (10b1e, 10'b1e) and immobilised with respect to the chamber end wall by means of clips forming with the shoulders (10b1e, 10'b1e) a clamp for the chamber end wall , the deflectors comprising two longitudinal edges (10c, 10d; 10'c, 10'd) and two transverse edges (10e, 10f; 10'e, 10'f), characterised in that at least along one of the longitudinal edges , a deflector comprises a tongue (10d1), extending from the rear face of said deflector and forming a joint cover, creating a housing (10d10) along said edge for the edge (10'c) of the adjacent deflector so as to seal the junction between the two adjacent edges of the two deflectors, said tongue (10d1) being spaced from the chamber end wall so as to create a space supplied with cooling air via orifices in the chamber end wall .
An energy storage system comprising: a positive electrode; a negative electrode; and an ion-permeable membrane separating the positive electrode and the negative electrode, wherein at least one of the positive electrode and the negative electrode includes a flowable semi-solid composition, wherein the flowable semi-solid composition comprises ion storage compound particles capable of taking up or releasing ions during operation of the cell; characterized in that the ion storage compound particles have a polydisperse size distribution in which the finest particles present in at least 5 vol% of the total volume, is at least a factor of 5 smaller than the largest particles present in at least 5 vol% of the total volume; and in that the volume percentage of the ion storage compound particles is between 5% and 70%; and in that the finest particles fit into interstitial spaces arising from packing of the largest particles. a positive electrode; a negative electrode; and an ion-permeable membrane separating the positive electrode and the negative electrode, wherein at least one of the positive electrode and the negative electrode includes a flowable semi-solid composition, wherein the flowable semi-solid composition comprises ion storage compound particles capable of taking up or releasing ions during operation of the cell; characterized in that the ion storage compound particles have a polydisperse size distribution in which the finest particles present in at least 5 vol% of the total volume, is at least a factor of 5 smaller than the largest particles present in at least 5 vol% of the total volume; and in that the volume percentage of the ion storage compound particles is between 5% and 70%; and in that the finest particles fit into interstitial spaces arising from packing of the largest particles.
A hybrid antimicrobial protein having a strong bactericidal effect, wherein the hybrid antimicrobial protein is: 1) a hybrid protein named AB469 with the amino acid sequence shown in SEQ ID NO 1; 2) a hybrid protein named AB46M9 with the amino acid sequence shown in SEQ ID NO 3; 3) a hybrid protein named AB469M with the amino acid sequence shown in SEQ ID NO 5; or 4) a hybrid protein named B946 with the amino acid sequence shown in SEQ ID NO 7. 1) a hybrid protein named AB469 with the amino acid sequence shown in SEQ ID NO 1; 2) a hybrid protein named AB46M9 with the amino acid sequence shown in SEQ ID NO 3; 3) a hybrid protein named AB469M with the amino acid sequence shown in SEQ ID NO 5; or 4) a hybrid protein named B946 with the amino acid sequence shown in SEQ ID NO 7.
A high-loading and alkali-resistant protein A magnetic bead, wherein the magnetic bead can maintain chemical stability under pH 2-14 and has an immunoglobulin IgG binding capacity greater than 50 mg/mL, wherein the magnetic bead comprises a magnetic core portion and a ligand portion, wherein the main component of the magnetic core portion is Fe 3 O 4 , and the ligand portion is an alkali-resistant protein A, wherein the alkali-resistant protein A refers to a protein A that has been artificially altered in amino acid sequence such that it retains its tertiary structure in high alkaline conditions of pH 10-14, thereby retaining immunoglobulin IgG binding activity; preferably, wherein the magnetic core portion further comprises Fe 2 O 3 , wherein the mass ratio of Fe 2 O 3 :Fe 3 O 4 is 1:1 to 1:100.
A titanium alloy consisting of, in weight percentages based on total alloy weight: 2.0 to 5.0 aluminum; 3.0 to 8.0 tin; 1.0 to 5.0 zirconium; and a combined total of up to 16.0 of: 6.0 to 12.0 of one or more elements selected from the group consisting of vanadium and niobium; and 0 to a total of 10.0 of one or more elements selected from the group consisting of oxygen, molybdenum, chromium, iron, copper, nitrogen, and carbon; balance titanium and impurities. 2.0 to 5.0 aluminum; 3.0 to 8.0 tin; 1.0 to 5.0 zirconium; and a combined total of up to 16.0 of: 6.0 to 12.0 of one or more elements selected from the group consisting of vanadium and niobium; and 0 to a total of 10.0 of one or more elements selected from the group consisting of oxygen, molybdenum, chromium, iron, copper, nitrogen, and carbon; 6.0 to 12.0 of one or more elements selected from the group consisting of vanadium and niobium; and 0 to a total of 10.0 of one or more elements selected from the group consisting of oxygen, molybdenum, chromium, iron, copper, nitrogen, and carbon; balance titanium and impurities.
Tool (502; 602) for shaping a material, in particular for bending plate material, comprising: - a mounting part (511; 611) directed in a first direction, the first direction corresponding to the shaping direction, and configured to be at least partially received in a receiving space of an apparatus, - a shaping part (513; 613) extending from the mounting part (511; 611) in a second direction opposite the first direction, wherein the shaping part (513; 613) has a substantially V-shaped groove (514; 614), and - means for displacing the mounting part (511; 611) in longitudinal direction parallel to the groove (514; 614) through the receiving space , wherein the displacing means comprise at least one displacing member (532; 632) protruding from the mounting part (511; 611) of the tool (1502; 602), wherein the at least one displacing member (532; 632) is mounted rotatably in the tool (502; 602), and comprise a roller arranged rotatably on a shaft (534; 634) via an internal bearing (533; 633), characterized in that the mounting part (511; 611) has an end surface where the at least one displacing member (532; 632) protrudes, and wherein the at least one displacing member (532; 632) is movable in the first direction relative to the tool (502; 602). - a mounting part (511; 611) directed in a first direction, the first direction corresponding to the shaping direction, and configured to be at least partially received in a receiving space of an apparatus, - a shaping part (513; 613) extending from the mounting part (511; 611) in a second direction opposite the first direction, wherein the shaping part (513; 613) has a substantially V-shaped groove (514; 614), and - means for displacing the mounting part (511; 611) in longitudinal direction parallel to the groove (514; 614) through the receiving space , wherein the displacing means comprise at least one displacing member (532; 632) protruding from the mounting part (511; 611) of the tool (1502; 602), wherein the at least one displacing member (532; 632) is mounted rotatably in the tool (502; 602), and comprise a roller arranged rotatably on a shaft (534; 634) via an internal bearing (533; 633), characterized in that the mounting part (511; 611) has an end surface where the at least one displacing member (532; 632) protrudes, and wherein the at least one displacing member (532; 632) is movable in the first direction relative to the tool (502; 602).
A textile product with a means for indicating an intended end of the useful life of the textile product , wherein the textile product or a label of the textile product has an indicator field which in one region has a colour which changes over the course of the useful life of the textile product and the associated washing operations, characterised in that the indicator field in addition to the first region , in which it has the first colour which changes over the course of the useful life of the textile product and the associated washing operations, in a second region has a second colour, with the wash-fastness of the first colour being less than the wash-fastness of the second colour and the first colour in the delivery condition differing from the second colour and over a number of washing operations of the textile product increasingly approaches the second colour.
A multi-functional cleaning and floor care system, comprising a reservoir defining an interior space operable to hold a fresh cleaning liquid, a wet vacuum assembly including a vacuum recovery tank , and a vacuum motor assembly fluidly connected to the vacuum recovery tank , a wheeled chassis configured to support at least one of the fresh liquid reservoir and the vacuum recovery tank , a spigot fluidly connected to the reservoir interior space, the spigot adjustable between a fully open position and a fully closed position, whereby when the reservoir contains a fresh cleaning liquid, a user may regulate the flow of the fresh cleaning liquid from the reservoir through the spigot by adjusting the spigot , a liquid spreader assembly connected to at least one of the fresh liquid reservoir , the wet vacuum assembly and the wheeled chassis , the liquid spreader assembly including a frame and a spreader pad, and a squeegee head assembly connected to at least one of the fresh liquid reservoir , the wet vacuum assembly , and the wheeled chassis , the squeegee head assembly fluidly connectable to the vacuum recovery tank , the liquid spreader assembly operable to spread on a floor surface at least a portion of the fresh cleaning liquid from the reservoir and the squeegee head assembly operable to vacuum at least a portion of the liquid on the floor surface into the vacuum recovery tank , wherein the multi-functional cleaning and floor care system is operable in a spread-only mode, a vacuum-only mode, and in a spread-and-vacuum mode.
A sterilized oxygen-absorbing resin composition obtained by performing at least: a sterilizing step of irradiating with radiation an oxygen-absorbing resin composition comprising a transition metal catalyst and a thermoplastic resin (a) having a tetralin ring as a constituent unit; and a step of heating the oxygen-absorbing resin composition at a temperature equal to or higher than a glass transition temperature of the thermoplastic resin (a) and equal to or lower than 200°C, after the sterilizing step, wherein the glass transition temperature is measured by a differential scanning calorimeter. a sterilizing step of irradiating with radiation an oxygen-absorbing resin composition comprising a transition metal catalyst and a thermoplastic resin (a) having a tetralin ring as a constituent unit; and a step of heating the oxygen-absorbing resin composition at a temperature equal to or higher than a glass transition temperature of the thermoplastic resin (a) and equal to or lower than 200°C, after the sterilizing step, wherein the glass transition temperature is measured by a differential scanning calorimeter.
Use of a suction nozzle, which can be connected to a floor vacuum cleaner, comprising a suction head , a suction pipe connecting piece , which is connected to a suction duct of the suction head so as to be pivotably movable about a pivot axis , a sliding sole , which has at least one suction mouth , which is limited on the underside by suction mouth edges , at least one supporting sealing element , which is fastened to a vertically adjustable support , and a switching element , which can be accessed on the suction head , for vertically adjusting the support between at least two functional positions (A, B or C), for vacuuming a textile floor surface, a tiled hard floor surface and an unjoined smooth hard floor surface, wherein, for vacuuming the textile floor surface, the supporting sealing element is raised to such an extent by positioning the switching element in a first functional position (A) that the sliding sole bears on the textile floor surface, wherein, for vacuuming the hard floor surfaces, the supporting sealing element is lowered by positioning the switching element in a second functional position (B, C), and supports the suction head on the hard floor surface, so that a gap (s) appears between the suction mouth edges and the hard floor surface, characterized in that the gap (s) between the suction mouth edges and the hard floor surface can be adjusted between two different default values specified for a tiled floor surface and for an unjoined smooth floor surface, and that for vacuuming a tiled hard floor surface, a smaller gap (s) than for vacuuming an unjoined smooth floor is adjusted between the suction mouth edge and the hard floor surface by means of a vertical adjustment of the supporting element and the suction mouth edges , and that the switching element has three functional positions (A, B, C) for vacuuming a textile floor surface, a tiled floor surface or an unjoined smooth floor.
Domestic appliance , in particular a floor cultivating appliance, having an appliance housing , a fan arranged in the appliance housing , an outlet opening formed in the appliance housing behind the fan in the direction of flow, a flow duct which connects the outlet opening to the fan in a flow-guiding manner, and a sound damping device associated with the flow duct for damping sound generated by operation of the domestic appliance , wherein the sound damping device has a plurality of sound-absorbing wall elements , which together form at least one section of the flow channel , wherein the wall elements have a wall surface which is curved with respect to a direction of a longitudinal extension of the flow channel and are positioned relative to one another in such a way that a flow path formed between opposing wall surfaces extends in a curved manner, wherein the sound-absorbing device has a carrier body for receiving the sound-absorbing wall elements , characterised in that the flow channel has a sound-reducing wall , wherein a wall plane of the sound-reducing wall is orientated parallel to the flow path and wherein the sound-reducing wall is arranged centrally between the opposing wall surfaces of the flow channel with respect to a direction orthogonal to the longitudinal extent of the flow channel , and wherein the carrier body together with the wall elements and the sound-reducing wall forms an installation module which can be installed as a whole in the appliance housing , namely between the fan and the outlet opening of the appliance housing .