mhurhangee/patent-ind-claim-en huggingface dataset:
A shoe with shoe eyelet structure, comprising: a flexible substrate for cladding foot, which has a sock like shape that is an integrate structure made of braided fabric or textile fabric; a plastic protective layer formed on an outer side of the flexible substrate; a shoe sole connected to a bottom of the flexible substrate; and a plurality of shoe eyelet structures formed on an upper side between a shoe toe portion and a shoe throat portion of the flexible structure, one end of each shoe eyelet structure being fixed to the flexible substrate, and the shoe eyelet structures being protruded from the flexible substrate and suspended, thereby a shoe lace runs through the shoe eyelet structures so as to adjust the tightness of the flexible substrate; and the shoe eyelet structures are made of plastic materials and molded on the outer side of the flexible substrate. a flexible substrate for cladding foot, which has a sock like shape that is an integrate structure made of braided fabric or textile fabric; a plastic protective layer formed on an outer side of the flexible substrate; a shoe sole connected to a bottom of the flexible substrate; and a plurality of shoe eyelet structures formed on an upper side between a shoe toe portion and a shoe throat portion of the flexible structure, one end of each shoe eyelet structure being fixed to the flexible substrate, and the shoe eyelet structures being protruded from the flexible substrate and suspended, thereby a shoe lace runs through the shoe eyelet structures so as to adjust the tightness of the flexible substrate; and the shoe eyelet structures are made of plastic materials and molded on the outer side of the flexible substrate.
Setting method for fixing an insulating material to a substrate , having a fixing plug with a screw as expander element, a fixing plug sleeve and a holding plate , - wherein the screw is driven rotationally into the fixing plug sleeve by a setting tool , and as the screw is driven into the fixing plug sleeve the latter is axially shortened, and in a first step only the screw is rotated and then in a second step the screw and the holding plate are rotated together, wherein the fixing plug sleeve has a channel for receiving the screw , an expansion portion and a shank portion , and wherein the channel in the expansion portion is narrowed relative to the shank portion in such a way that the expansion portion is expanded by driving in the screw , and wherein the holding plate is rotatable relative to the expansion portion and axially fixedly and rotatably connected to the fixing plug sleeve , characterised in that the fixing plug sleeve has in the shank portion a shortening zone such that it is axially shortened and plastically compressed by tightening of the screw during anchoring of the fixing plug in the substrate . - wherein the screw is driven rotationally into the fixing plug sleeve by a setting tool , and as the screw is driven into the fixing plug sleeve the latter is axially shortened, and
An apparatus for performing multiple transcendental function operations, characterized in that the apparatus comprises a pre-processing unit group, a core unit and a post-processing unit group, wherein: the pre-processing unit group is configured to transform an externally input independent variable a into x, y coordinates, an angle z, and other information k, and determine an operation mode to be used by the core unit; the core unit is configured to perform trigonometric or hyperbolic transformation on the x, y coordinates and the angle z, obtain transformed x' , y' coordinates and angle z' , and output them to the post-processing unit group; and the post-processing unit group is configured to transform the x' , y' coordinates and the angle z' input by the core unit according to the other information k and a function f input by the pre-processing unit group to obtain an output result c. the pre-processing unit group is configured to transform an externally input independent variable a into x, y coordinates, an angle z, and other information k, and determine an operation mode to be used by the core unit; the core unit is configured to perform trigonometric or hyperbolic transformation on the x, y coordinates and the angle z, obtain transformed x' , y' coordinates and angle z' , and output them to the post-processing unit group; and the post-processing unit group is configured to transform the x' , y' coordinates and the angle z' input by the core unit according to the other information k and a function f input by the pre-processing unit group to obtain an output result c.
A sugar substitute for baked goods and confectionery, characterized in that the sugar substitute comprises (a) 40-60 % by weight of isomaltulose, (b) 20-40 % by weight of erythritol, (c) 8-20 % by weight of inulin, and (d) 0.1-1 % by weight of steviol glycosides, based on the total dry weight of the sugar substitute. (a) 40-60 % by weight of isomaltulose, (b) 20-40 % by weight of erythritol, (c) 8-20 % by weight of inulin, and (d) 0.1-1 % by weight of steviol glycosides,
A medical device suspension system , including: a spindle having an outer major surface and extending along a longitudinal axis ; and; a hub rotatably mounted to the spindle, the hub including a hub housing ; the medical device suspension system is characterized by a cable management cover surrounding the spindle about the longitudinal axis and having an inner major surface , the cable management cover extending along the longitudinal axis between a first end and a second end such that a gap is formed between the inner major surface of the cable management cover and a portion of the outer major surface of the spindle; and a top hub cover disposed along the longitudinal axis between the hub and the cable management cover, the top hub cover defining an end of the gap formed between the inner major surface of the cable management cover and the outer major surface of the spindle along the longitudinal axis, the top hub cover comprising a passage in fluid communication with an internal volume of the hub housing, the top hub cover rotatable with respect to the spindle about the longitudinal axis; wherein rotation of the top hub cover about the longitudinal axis causes the position of the passage to rotate about the longitudinal axis, while the position at which a cable can enter the gap about the longitudinal axis remains stationary. a spindle having an outer major surface and extending along a longitudinal axis ; and; a hub rotatably mounted to the spindle, the hub including a hub housing ; the medical device suspension system is characterized by a cable management cover surrounding the spindle about the longitudinal axis and having an inner major surface , the cable management cover extending along the longitudinal axis between a first end and a second end such that a gap is formed between the inner major surface of the cable management cover and a portion of the outer major surface of the spindle; and a top hub cover disposed along the longitudinal axis between the hub and the cable management cover, the top hub cover defining an end of the gap formed between the inner major surface of the cable management cover and the outer major surface of the spindle along the longitudinal axis, the top hub cover comprising a passage in fluid communication with an internal volume of the hub housing, the top hub cover rotatable with respect to the spindle about the longitudinal axis; wherein rotation of the top hub cover about the longitudinal axis causes the position of the passage to rotate about the longitudinal axis, while the position at which a cable can enter the gap about the longitudinal axis remains stationary.
A process for producing a reusable regenerant gas stream, the process comprising: compressing a reactor effluent from a catalyst dehydrogenation process to provide a compressed effluent; removing chlorides from the compressed effluent in a chloride removal zone to provide a treated effluent; removing water and hydrogen sulfide from the treated effluent in a dryer zone to provide a dryer output stream, the dryer zone having at least one vessel comprising a regenerable adsorbent; regenerating the regenerable adsorbent in the dryer zone with a regenerant gas stream to provide a spent regenerant gas stream, the spent regenerant stream including water and hydrogen sulfide; and, removing the hydrogen sulfide from the spent regenerant gas stream in a regenerant cleaning zone to provide a cleaned regenerant stream, the regenerant cleaning zone including one or more vessels having a sorbent configured to remove hydrogen sulfide from the spent regenerant gas stream; wherein the regenerant cleaning zone comprises two vessels operated in a lead-lag configuration; wherein at least one vessel is used as a heat exchanger to provide heat or remove heat from a stream of gas including regenerant; and wherein the heat exchanger cools the cleaned regenerant stream to provide a cooled regenerant stream; and wherein the process further comprises recycling the cooled regenerant stream to the dryer zone as the regenerant gas stream. compressing a reactor effluent from a catalyst dehydrogenation process to provide a compressed effluent; removing chlorides from the compressed effluent in a chloride removal zone to provide a treated effluent; removing water and hydrogen sulfide from the treated effluent in a dryer zone to provide a dryer output stream, the dryer zone having at least one vessel comprising a regenerable adsorbent; regenerating the regenerable adsorbent in the dryer zone with a regenerant gas stream to provide a spent regenerant gas stream, the spent regenerant stream including water and hydrogen sulfide; and, removing the hydrogen sulfide from the spent regenerant gas stream in a regenerant cleaning zone to provide a cleaned regenerant stream, the regenerant cleaning zone including one or more vessels having a sorbent configured to remove hydrogen sulfide from the spent regenerant gas stream; wherein the regenerant cleaning zone comprises two vessels operated in a lead-lag configuration; wherein at least one vessel is used as a heat exchanger to provide heat or remove heat from a stream of gas including regenerant; and wherein the heat exchanger cools the cleaned regenerant stream to provide a cooled regenerant stream; and wherein the process further comprises recycling the cooled regenerant stream to the dryer zone as the regenerant gas stream.
A method performed by a first node , the method being for configuring a second node to handle two or more ingress member flows split from a flow of packets, each of the two or more ingress member flows comprising a plurality of packets, wherein the configuring is to handle the two or more ingress member flows via at least one elimination function , and at least one replication function supported by the second node , the first node and the second node operating in a communications network , the method comprising: - allocating a first indication to a first ingress member flow to be input into the at least one elimination function , the first indication identifying the first ingress member flow as being comprised in the flow of packets, and the first indication uniquely identifying the first ingress member flow from at least one of: i. a second ingress member flow , of the two or more ingress member flows , to be input into the at least one replication function , and ii. any other ingress member flow, of the two or more ingress member flows , to be input into the second node , and - configuring the second node to use the allocated first indication. - allocating a first indication to a first ingress member flow to be input into the at least one elimination function , the first indication identifying the first ingress member flow as being comprised in the flow of packets, and the first indication uniquely identifying the first ingress member flow from at least one of: i. a second ingress member flow , of the two or more ingress member flows , to be input into the at least one replication function , and ii. any other ingress member flow, of the two or more ingress member flows , to be input into the second node , and i. a second ingress member flow , of the two or more ingress member flows , to be input into the at least one replication function , and ii. any other ingress member flow, of the two or more ingress member flows , to be input into the second node , and - configuring the second node to use the allocated first indication.
An apparatus for producing optical pulses of a desired wavelength, said apparatus comprising: an optical pulse source operable to generate input optical pulses at a first wavelength that is below 1300 nanometers (nm); and a higher order mode (HOM) fiber module including an HOM fiber optically coupled to the optical pulse source so as to receive the input optical pulses at the first wavelength, wherein the HOM fiber provides anomalous dispersion at the first wavelength so as to produce output optical pulses at the desired wavelength that is different than the first wavelength by soliton self-frequency shift (SSFS) in the HOM fiber, wherein the desired wavelength is below 1300 nm. an optical pulse source operable to generate input optical pulses at a first wavelength that is below 1300 nanometers (nm); and a higher order mode (HOM) fiber module including an HOM fiber optically coupled to the optical pulse source so as to receive the input optical pulses at the first wavelength, wherein the HOM fiber provides anomalous dispersion at the first wavelength so as to produce output optical pulses at the desired wavelength that is different than the first wavelength by soliton self-frequency shift (SSFS) in the HOM fiber, wherein the desired wavelength is below 1300 nm.
A cell preparation for use in a method of treating brain tumors in combination with a prodrug that is converted to 5-fluorouracil by cytosine deaminase, wherein the cell preparation comprises neural stem cells derived from pluripotent stem cells having a cytosine deaminase gene and a uracil phosphoribosyltransferase gene, wherein the neural stem cells derived from pluripotent stem cells are neural stem cells obtained by performing the following step and then performing the following step : introducing a cytosine deaminase gene and a uracil phosphoribosyltransferase gene into pluripotent stem cells, differentiating the pluripotent stem cells into neural stem cells. introducing a cytosine deaminase gene and a uracil phosphoribosyltransferase gene into pluripotent stem cells, differentiating the pluripotent stem cells into neural stem cells.
A flameproof input intrinsically-safe output transmitter for outputting, to an intrinsically-safe side, a loop electrical signal input from a flameproof side, the flameproof input intrinsically-safe output transmitter being covered with a flameproof enclosure and comprising: an intrinsically-safe-side terminal configured to connect to an intrinsically-safe built-in battery type wireless device ; a flameproof-side electrical signal terminal configured to input a loop electrical signal from a loop signal line at a flameproof side, the loop signal line of a flameproof type two-terminal transmitter ; and an electrical input signal transmitter circuit configured to measure the loop electrical signal and transmit a signal according to a measurement result to the intrinsically-safe-side terminal, wherein the electrical input signal transmitter circuit comprises a current and voltage limiting circuit configured not to perform a specified electrical output or more to the intrinsically-safe-side terminal . an intrinsically-safe-side terminal configured to connect to an intrinsically-safe built-in battery type wireless device ; a flameproof-side electrical signal terminal configured to input a loop electrical signal from a loop signal line at a flameproof side, the loop signal line of a flameproof type two-terminal transmitter ; and an electrical input signal transmitter circuit configured to measure the loop electrical signal and transmit a signal according to a measurement result to the intrinsically-safe-side terminal, wherein the electrical input signal transmitter circuit comprises a current and voltage limiting circuit configured not to perform a specified electrical output or more to the intrinsically-safe-side terminal .
A fluorinated copolymer composition comprising: a thermoplastic resin A having a shear stress (τ A ) of greater than 0.11 MPa when measured with a capillary rheometer at a shear rate of 243 sec -1 and at 360°C in accordance with ASTM D3835; and a fluorinated elastomer B dispersed within thermoplastic resin A and having an average dispersed particle size of less than 50 μm, where the particle size is measured by the Scanning Electron Microscopy (SEM) technique given in the present description ; wherein the ratio of the viscosity of thermoplastic resin A to fluorinated elastomer B is greater than 0.35 when the viscosity is measured with a capillary rheometer at a shear rate of 12.1 sec -1 and at 360°C in accordance with ASTM D3835. a thermoplastic resin A having a shear stress (τ A ) of greater than 0.11 MPa when measured with a capillary rheometer at a shear rate of 243 sec -1 and at 360°C in accordance with ASTM D3835; and a fluorinated elastomer B dispersed within thermoplastic resin A and having an average dispersed particle size of less than 50 μm, where the particle size is measured by the Scanning Electron Microscopy (SEM) technique given in the present description ; wherein the ratio of the viscosity of thermoplastic resin A to fluorinated elastomer B is greater than 0.35 when the viscosity is measured with a capillary rheometer at a shear rate of 12.1 sec -1 and at 360°C in accordance with ASTM D3835.
A recessed luminaire , comprising: a housing having an internal surface ; a light subassembly having a first end and a second end , wherein the first end is pivotally secured to a pivot arranged on, in, or proximate to the internal surface of the housing; a thermally conductive body engaged with the light subassembly , the thermally conductive body having a first end and a second end , wherein the thermally conductive body is in thermal contact with the internal surface of the housing; and a gear plate non-rotatably secured to at least a portion of the thermally conductive body , the gear plate comprising a first set of gear teeth ; characterised by further comprising a lever comprising a first lever portion and a second lever portion non-rotatably connected, the first lever portion and the second lever portion arranged to pivot about a lever pivot point , wherein the second lever portion has a second set of gear teeth , wherein at least a portion of the second set of gear teeth are arranged to engage with at least a portion of the first set of gear teeth. a housing having an internal surface ; a light subassembly having a first end and a second end , wherein the first end is pivotally secured to a pivot arranged on, in, or proximate to the internal surface of the housing; a thermally conductive body engaged with the light subassembly , the thermally conductive body having a first end and a second end , wherein the thermally conductive body is in thermal contact with the internal surface of the housing; and a gear plate non-rotatably secured to at least a portion of the thermally conductive body , the gear plate comprising a first set of gear teeth ; characterised by further comprising a lever comprising a first lever portion and a second lever portion non-rotatably connected, the first lever portion and the second lever portion arranged to pivot about a lever pivot point , wherein the second lever portion has a second set of gear teeth , wherein at least a portion of the second set of gear teeth are arranged to engage with at least a portion of the first set of gear teeth.
A powdery composition comprising an amorphous curcumin compound and a hydrophilic modified starch, wherein the powdery composition has a Raman spectrum including one or more peaks at wavenumbers of 1630, 1599, 1428, and 1243 (expressed in ±2 cm -1 ), wherein the curcumin compound in the powdery composition is amorphous, and wherein a weight ratio of the amorphous curcumin compound to the hydrophilic modified starch is 1 : 2 to 2 : 1.
A heat radiation structure of an inverter, comprising: at least two heat radiators configured to radiate heat from a heating element of the inverter, and a heat radiation fan configured to air-cool the at least two heat radiators; wherein each of the at least two heat radiators comprises a plurality of heat radiation fins configured to be air-cooled; wherein two adjacent heat radiators are a first heat radiator and a second heat radiator respectively; and wherein the heat radiation fan is provided between the first heat radiator and the second heat radiator , whereby each of the at least two heat radiators comprises a heat radiation substrate , whereby two adjacent heat radiators may share the same heat radiation substrate or may independently adopt different heat radiation substrates, and the heat radiation fins are provided on the heat radiation substrate or substrates, wherein a plane defined by a base of the heat radiation fan is not closer to the heat radiation substrate or substrates than a plane defined by tops of the heat radiation fins to the heat radiation substrate or substates. at least two heat radiators configured to radiate heat from a heating element of the inverter, and a heat radiation fan configured to air-cool the at least two heat radiators; wherein each of the at least two heat radiators comprises a plurality of heat radiation fins configured to be air-cooled; wherein two adjacent heat radiators are a first heat radiator and a second heat radiator respectively; and wherein the heat radiation fan is provided between the first heat radiator and the second heat radiator , whereby each of the at least two heat radiators comprises a heat radiation substrate , whereby two adjacent heat radiators may share the same heat radiation substrate or may independently adopt different heat radiation substrates, and the heat radiation fins are provided on the heat radiation substrate or substrates, wherein a plane defined by a base of the heat radiation fan is not closer to the heat radiation substrate or substrates than a plane defined by tops of the heat radiation fins to the heat radiation substrate or substates.