mhurhangee/patent-ind-claim-en huggingface dataset:
A valve housing for a check valve , the valve housing comprising: a housing body defining a valve opening ; a first pin extending across the valve opening defining a pin axis (A); a pair of first pin support elements provided on the housing body on opposing sides of the valve opening and extending towards the first pin , the first pin support elements for contacting and supporting an under side of the first pin ; characterised by a pair of first pin location elements provided on the housing body on opposing sides of the valve opening , each first pin location element comprising a strip element having a mounting portion mounted to the housing body and a locating portion which extends over an upper side of the first pin and around at least an upper circumference thereof to locate the first pin . a housing body defining a valve opening ; a first pin extending across the valve opening defining a pin axis (A); a pair of first pin support elements provided on the housing body on opposing sides of the valve opening and extending towards the first pin , the first pin support elements for contacting and supporting an under side of the first pin ; characterised by a pair of first pin location elements provided on the housing body on opposing sides of the valve opening , each first pin location element comprising a strip element having a mounting portion mounted to the housing body and a locating portion which extends over an upper side of the first pin and around at least an upper circumference thereof to locate the first pin .
A method for producing polyethylene-based resin foamed particles by foaming polyethylene-based resin particles containing a polyethylene-based resin as a base resin, wherein the polyethylene-based resin particles are cross-linked by a cross-linking process, the crosslinked polyethylene-based resin particles have a melting point of 105°C or more and 125°C or less, and the polyethylene-based resin particles have a tan δ of 0.3 or more and 0.7 or less and a complex viscosity of 5000 Pa·s or more and 20000 Pa·s or less, which are determined by a viscoelasticity measurement at a temperature of 130°C and a frequency of 1.67 Hz, the method comprising a first-step foaming process, the first-step foaming process including dispersing the polyethylene-based resin particles in an aqueous dispersing medium in a sealed vessel, adding a foaming agent containing carbon dioxide to an aqueous dispersion thus prepared, heating and pressurizing the aqueous dispersion, and then releasing the aqueous dispersion to a pressure region where pressure is lower than internal pressure of the sealed vessel, wherein a foaming ratio in the first-step foaming process is 10 times or more and 18 times or less, wherein the melting point of the crosslinked polyethylene-based resin particles is determined by differential scanning calorimetry (DSC) according the description. the polyethylene-based resin particles are cross-linked by a cross-linking process, the crosslinked polyethylene-based resin particles have a melting point of 105°C or more and 125°C or less, and the polyethylene-based resin particles have a tan δ of 0.3 or more and 0.7 or less and a complex viscosity of 5000 Pa·s or more and 20000 Pa·s or less, which are determined by a viscoelasticity measurement at a temperature of 130°C and a frequency of 1.67 Hz, the method comprising a first-step foaming process, the first-step foaming process including dispersing the polyethylene-based resin particles in an aqueous dispersing medium in a sealed vessel, adding a foaming agent containing carbon dioxide to an aqueous dispersion thus prepared, heating and pressurizing the aqueous dispersion, and then releasing the aqueous dispersion to a pressure region where pressure is lower than internal pressure of the sealed vessel, wherein a foaming ratio in the first-step foaming process is 10 times or more and 18 times or less, wherein the melting point of the crosslinked polyethylene-based resin particles is determined by differential scanning calorimetry (DSC) according the description.
Washbasin installation arrangement , at least comprising a washbasin unit , which comprises at least one washbasin with at least one first feed line connector for passing through a fluid up to a fluid outlet on the washbasin , and a first connection angle piece and a wall element to which the first connection angle piece is fastened; wherein the first connection angle piece has an inflow portion for fluidic connection to a first line and an outflow portion arranged at an angle to the inflow section and fluidically connected thereto, wherein the outflow portion and the first feed line connector can be connected to each other via a first sliding seat for passing through the fluid, wherein a sealing element seals the first sliding seat with respect to an environment ; wherein the washbasin installation arrangement comprises at least additionally at least one fastening bolt which is connected to the wall element , wherein the washbasin unit can be slid onto the at least one fastening bolt with simultaneous formation of the first sliding seat between the first feed line connector and the outflow portion .
A chuck for the bonding of a plurality of semiconductor dies to a target wafer , said chuck comprising a plurality of die placement sites , said die placement sites comprising on their surface a resilient film , characterized in that said resilient film consists of carbon nanotubes, CNTs, said CNTs being attached to the surface of the die placement sites at one end and extending outwards from said surface.
A fan motor waterproof structure comprising: a fan motor arranged with a shaft projecting upward from a motor body , the shaft being configured to be attached to a fan ; and a disk-shaped member fitted to an outside of a projecting portion of the shaft of the fan motor on the motor body side; characterized in that the fan motor waterproof structure further comprises a tubular member press-fitted on an outer periphery of the shaft , a space (A) being formed between the disk-shaped member and the tubular member with a lower end face of the tubular member being in contact with an upper surface of the disk-shaped member or not being in contact with the upper surface of the disk-shaped member , the tubular member covering a boundary between an upper surface of the disk-shaped member and the shaft , wherein at a lower end of the tubular member , a flange part is provided, there is provided an annular first protrusion protruding upward on an upper surface and an inner peripheral side of the disk-shaped member , there is provided an annular second protrusion protruding downward on a lower surface and an outer peripheral side of the flange part of the tubular member , and a labyrinth seal is formed by the annular first protrusion of the disk-shaped member and the annular second protrusion of the tubular member . a fan motor arranged with a shaft projecting upward from a motor body , the shaft being configured to be attached to a fan ; and a disk-shaped member fitted to an outside of a projecting portion of the shaft of the fan motor on the motor body side; characterized in that the fan motor waterproof structure further comprises a tubular member press-fitted on an outer periphery of the shaft , a space (A) being formed between the disk-shaped member and the tubular member with a lower end face of the tubular member being in contact with an upper surface of the disk-shaped member or not being in contact with the upper surface of the disk-shaped member , the tubular member covering a boundary between an upper surface of the disk-shaped member and the shaft , wherein at a lower end of the tubular member , a flange part is provided, there is provided an annular first protrusion protruding upward on an upper surface and an inner peripheral side of the disk-shaped member , there is provided an annular second protrusion protruding downward on a lower surface and an outer peripheral side of the flange part of the tubular member , and a labyrinth seal is formed by the annular first protrusion of the disk-shaped member and the annular second protrusion of the tubular member .
A sample analysis system , comprising at least one hematology analyzer , a controller , a first transport apparatus , a sample slide preparation apparatus , and a sample image capturing apparatus , wherein one of the at least one hematology analyzer is configured to perform an initial test on a first test blood sample of a subject, so as to analyze the first test blood sample and obtain a sample analysis result; the controller is configured to control the first transport apparatus to transport the first test blood sample to the sample slide preparation apparatus , when the sample analysis result satisfies a preset condition which is that the output result of the haematology analyzer is abnormal; the sample slide preparation apparatus is configured to prepare a sample slide of the first test blood sample; the sample image capturing apparatus is configured to capture a sample image of a sample region on the sample slide; characterised in that the controller is further configured to generate a retest instruction and send the retest instruction to one of the at least one hematology analyzer , so that said hematology analyzer retests a second test blood sample of the subject, when the sample image contains information indicating that the first test blood sample is an abnormal sample. one of the at least one hematology analyzer is configured to perform an initial test on a first test blood sample of a subject, so as to analyze the first test blood sample and obtain a sample analysis result; the controller is configured to control the first transport apparatus to transport the first test blood sample to the sample slide preparation apparatus , when the sample analysis result satisfies a preset condition which is that the output result of the haematology analyzer is abnormal; the sample slide preparation apparatus is configured to prepare a sample slide of the first test blood sample; the sample image capturing apparatus is configured to capture a sample image of a sample region on the sample slide; characterised in that the controller is further configured to generate a retest instruction and send the retest instruction to one of the at least one hematology analyzer , so that said hematology analyzer retests a second test blood sample of the subject, when the sample image contains information indicating that the first test blood sample is an abnormal sample.
A method for identifying amyloidosis, comprising the steps of: a. contacting a sample of biological material with a lysis buffer having a pH of 8.8, said buffer comprising 65.5 mM Tris-HCL, 10% w/v glycerol, 2.3% w/v SDS, and a 2X protease inhibitor; b. sonicating the sample of step a. at 4°C for 5 minutes and leaving it to rest for another 5 minutes; c. repeating step b. at least two further times; d. centrifuging the sample of step c.; e. recovering the supernatant resulting from the centrifuging step d., thus allowing to obtain a sample of extracted proteins; f. separating and analyzing the proteins present in the sample obtained from step e. by means of an electrophoretic technique and a subsequent immunofixation. a. contacting a sample of biological material with a lysis buffer having a pH of 8.8, said buffer comprising 65.5 mM Tris-HCL, 10% w/v glycerol, 2.3% w/v SDS, and a 2X protease inhibitor; b. sonicating the sample of step a. at 4°C for 5 minutes and leaving it to rest for another 5 minutes; c. repeating step b. at least two further times; d. centrifuging the sample of step c.; e. recovering the supernatant resulting from the centrifuging step d., thus allowing to obtain a sample of extracted proteins; f. separating and analyzing the proteins present in the sample obtained from step e. by means of an electrophoretic technique and a subsequent immunofixation.
A pulse wave detector comprising: a pulse wave detection sensor which is configured to detect a pressure pulse wave from an artery of a measurement subject; a pressing member which supports the pulse wave detection sensor and is configured to be moved in one direction to press the pulse wave detection sensor against a body surface of the measurement subject; a plurality of guiding members which are placed around the pulse wave detection sensor in a plan view as seen in the one direction and extend in the one direction; and a housing which supports the plurality of guiding members , wherein the housing has fitting portions into which end portions in the one direction of the guiding members are fitted, and wherein the pressing member includes pass-through portions through which the plurality of guiding members are passed to allow for movement along the guiding members , respectively. a pulse wave detection sensor which is configured to detect a pressure pulse wave from an artery of a measurement subject; a pressing member which supports the pulse wave detection sensor and is configured to be moved in one direction to press the pulse wave detection sensor against a body surface of the measurement subject; a plurality of guiding members which are placed around the pulse wave detection sensor in a plan view as seen in the one direction and extend in the one direction; and a housing which supports the plurality of guiding members , wherein the housing has fitting portions into which end portions in the one direction of the guiding members are fitted, and wherein the pressing member includes pass-through portions through which the plurality of guiding members are passed to allow for movement along the guiding members , respectively.
A topical Minoxidil foam composition, characterized in that it comprises 1,3-propanediol as a solubilising agent, lactic acid as an acidifying agent at the ratio of 1 to 5% (wt/wt) by weight, and Lauryl Glucoside as a surface active agent at the ratio of 10 to 20% (wt/wt) by weight, ethanol and water; wherein ethyl alcohol: water: 1,3-propanediol is at a ratio of 1:4.5:10 by weight.
A refrigerator comprising a cabinet providing a refrigerating compartment and a freezing compartment , a door opening and closing the freezing compartment , and an ice maker provided in a rear surface of the door and configured to automatically supply water for making ice to the ice tray and to automatically transfer the ice, characterized by comprising: a cabinet duct provided above the freezing compartment to supply cold air for cooling the freezing compartment to the ice maker ; an ice cover disposed above the ice maker and having a cover inflow hole , through which the cold air is introduced, in a position facing an outlet of the cabinet duct ; and a supply duct connecting the cover inflow hole to the ice maker to provide a cold air supply passage for making ice to the inside of the ice maker ; characterized by an inflow hole guide protruding from at least one of the cover inflow hole , the supply duct and the outlet of the cabinet duct , wherein the inflow hole guide is configured to seal a passage connecting the duct outlet and the cover inflow hole when the door is closed. a cabinet duct provided above the freezing compartment to supply cold air for cooling the freezing compartment to the ice maker ; an ice cover disposed above the ice maker and having a cover inflow hole , through which the cold air is introduced, in a position facing an outlet of the cabinet duct ; and a supply duct connecting the cover inflow hole to the ice maker to provide a cold air supply passage for making ice to the inside of the ice maker ; characterized by an inflow hole guide protruding from at least one of the cover inflow hole , the supply duct and the outlet of the cabinet duct , wherein the inflow hole guide is configured to seal a passage connecting the duct outlet and the cover inflow hole when the door is closed.
An electrode for a lithium-ion battery comprising an active layer comprising an electrode active material; a conductive additive; and a linear styrene-ethylene/butylene-styrene (SEBS) copolymer as a binder which is characterized by having: - a melt flow rate (MFR) measured at 230 °C and 2.16 kg load from 4 to 220 g/10 min; - a molecular weight of less than 100,000 g/mol, particularly from 50,000 g/mol to 100,000 g/mol and; - a styrene content from 10 to 20 wt. %. - a melt flow rate (MFR) measured at 230 °C and 2.16 kg load from 4 to 220 g/10 min; - a molecular weight of less than 100,000 g/mol, particularly from 50,000 g/mol to 100,000 g/mol and; - a styrene content from 10 to 20 wt. %.
An implantable device 1 for intrafascicular stimulation and/or sensing of a peripheral nerve, comprising: a) a blocking element adapted for wrapping a nerve, comprising an access point and an exit point and a cavity characterised in that said cavity is between said access point and said exit point ; said implantable device further comprising b) an electrode adapted to entirely traverse the blocking element via the access point and the exit point having a distal end , a proximal end and an elongated body in between, said electrode being electrically isolated from the surrounding environment except that for an active site that is located in an area that allows an electrical connection between the electrode and at least one surrounding nerve. a) a blocking element adapted for wrapping a nerve, comprising an access point and an exit point and a cavity characterised in that said cavity is between said access point and said exit point ; said implantable device further comprising b) an electrode adapted to entirely traverse the blocking element via the access point and the exit point having a distal end , a proximal end and an elongated body in between, said electrode being electrically isolated from the surrounding environment except that for an active site that is located in an area that allows an electrical connection between the electrode and at least one surrounding nerve.
A method for producing a carbon nanotube array for a spinning source member, comprising: a first step for allowing a substrate having a base surface being a surface formed of a silicon oxide-containing material, as at least part of a surface thereof, to exist in an atmosphere including a gas-phase catalyst; and a second step for allowing a hydrocarbon-based material gas and a gas-phase co-catalyst to exist in the atmosphere including the gas-phase catalyst to allow a plurality of carbon nanotubes to grow on the base surface of the substrate to obtain on the base surface the carbon nanotube array formed of the plurality of carbon nanotubes, wherein the second step is applied by feeding the hydrocarbon-based material gas and the gas-phase co-catalyst into the atmosphere including the gas-phase catalyst while flow rates thereof are controlled, and a ratio (gas-phase co-catalyst / hydrocarbon-based material gas) of the flow rate (unit: seem) of feeding the gas-phase co-catalyst to the flow rate (unit: seem) of feeding the hydrocarbon-based material gas is adjusted to be 5% or more and 150% or less, wherein the base surface in the second step is heated to 8 × 10 2 K or higher, wherein the gas-phase co-catalyst includes acetone, and wherein the total pressure in the atmosphere in the second step is 1 × 10 1 Pa or more and 5 × 10 3 Pa or less. a first step for allowing a substrate having a base surface being a surface formed of a silicon oxide-containing material, as at least part of a surface thereof, to exist in an atmosphere including a gas-phase catalyst; and a second step for allowing a hydrocarbon-based material gas and a gas-phase co-catalyst to exist in the atmosphere including the gas-phase catalyst to allow a plurality of carbon nanotubes to grow on the base surface of the substrate to obtain on the base surface the carbon nanotube array formed of the plurality of carbon nanotubes, wherein the second step is applied by feeding the hydrocarbon-based material gas and the gas-phase co-catalyst into the atmosphere including the gas-phase catalyst while flow rates thereof are controlled, and a ratio (gas-phase co-catalyst / hydrocarbon-based material gas) of the flow rate (unit: seem) of feeding the gas-phase co-catalyst to the flow rate (unit: seem) of feeding the hydrocarbon-based material gas is adjusted to be 5% or more and 150% or less, wherein the base surface in the second step is heated to 8 × 10 2 K or higher, wherein the gas-phase co-catalyst includes acetone, and wherein the total pressure in the atmosphere in the second step is 1 × 10 1 Pa or more and 5 × 10 3 Pa or less.
Method for detection and measurements of neutral hydrogen, oxygen or nitrogen atoms in a non-equilibrium gaseous medium, said method at least comprising: - Inserting at least one catalytic material into said non-equilibrium gaseous medium; - Heating said catalytic material to a preset temperature which is at least 100 K above the ambient temperature using a remote source of radiation, said remote source of radiation being a laser the radiation of which is guided with an optical fiber to the catalytic material ; - Detecting said catalytic material temperature; - Controlling the power of said remote source of radiation in such a manner that the temperature of said catalytic material remains substantially at the preset temperature during the measurement of neutral hydrogen, oxygen or nitrogen atoms in said non-equilibrium gaseous medium; - Determining said power of said remote source employed to keep the preset temperature of said catalytic material ; - Transforming said power of said remote source employed to keep the preset temperature of said catalytic material to the density of said neutral atoms in said non-equilibrium gaseous medium; - Storing and/or displaying of said density of neutral atoms in said non-equilibrium gaseous medium. - Inserting at least one catalytic material into said non-equilibrium gaseous medium; - Heating said catalytic material to a preset temperature which is at least 100 K above the ambient temperature using a remote source of radiation, said remote source of radiation being a laser the radiation of which is guided with an optical fiber to the catalytic material ; - Detecting said catalytic material temperature; - Controlling the power of said remote source of radiation in such a manner that the temperature of said catalytic material remains substantially at the preset temperature during the measurement of neutral hydrogen, oxygen or nitrogen atoms in said non-equilibrium gaseous medium; - Determining said power of said remote source employed to keep the preset temperature of said catalytic material ; - Transforming said power of said remote source employed to keep the preset temperature of said catalytic material to the density of said neutral atoms in said non-equilibrium gaseous medium; - Storing and/or displaying of said density of neutral atoms in said non-equilibrium gaseous medium.