mhurhangee/patent-ind-claim-en huggingface dataset:
A sonication device for sonicating a biological sample contained in a sample tube with an essentially round-shaped side wall , the sonication device comprising: - a sample tube holder pivotally suspended in a corresponding mount , allowing for a rotational movement of the sample tube holder in vertical direction about an x-axis being a rotational axis of a pivot , wherein the sample tube holder is configured, in the absence of a rotational movement, to hold the sample tube in a vertical orientation along a z-axis being essentially parallel to the direction of gravity and perpendicular to the x-axis , and wherein the sample tube holder comprises an opening towards at least one side; - a sonotrode comprising a sonicating area for applying ultrasound to the sample tube , the sonicating area comprising a concave surface and being mounted at essentially the same height as the pivot with the x-axis being essentially at the height of the vertical center of the sonicating area , wherein the sonotrode is mounted on a guiding rail for moving the sonotrode along a γ-axis perpendicular to the x-axis and to the z-axis towards or away from the sample tube holder , wherein the mount for the sample tube holder is fixed to one end of the guiding rail with the opening of the sample tube holder facing the sonicating area such that the sonicating area in a sonication position is in physical contact with a side wall of the sample tube in the sample tube holder ; - an actuator for moving the sonotrode on the guiding rail along the γ-axis relative to the sample tube holder . - a sample tube holder pivotally suspended in a corresponding mount , allowing for a rotational movement of the sample tube holder in vertical direction about an x-axis being a rotational axis of a pivot , wherein the sample tube holder is configured, in the absence of a rotational movement, to hold the sample tube in a vertical orientation along a z-axis being essentially parallel to the direction of gravity and perpendicular to the x-axis , and wherein the sample tube holder comprises an opening towards at least one side; - a sonotrode comprising a sonicating area for applying ultrasound to the sample tube , the sonicating area comprising a concave surface and being mounted at essentially the same height as the pivot with the x-axis being essentially at the height of the vertical center of the sonicating area , wherein the sonotrode is mounted on a guiding rail for moving the sonotrode along a γ-axis perpendicular to the x-axis and to the z-axis towards or away from the sample tube holder , wherein the mount for the sample tube holder is fixed to one end of the guiding rail with the opening of the sample tube holder facing the sonicating area such that the sonicating area in a sonication position is in physical contact with a side wall of the sample tube in the sample tube holder ; - an actuator for moving the sonotrode on the guiding rail along the γ-axis relative to the sample tube holder .
A process for the production of an amine-based polyol comprising reacting: a) an amine adduct comprising the reaction product of (i) an amine and (ii) an alkylene oxide in amounts such that from 1 to 2 moles of alkylene oxide are present for each amine group, and b) a triglyceride, in the presence of d) an alkylene oxide, and e) a catalyst to form an amine-based polyol characterized by a calculated mean hydroxyl functionality of from 1.5 to 3.5, a number average equivalent weight, as determined by end group analysis of from 100 to 600, and an overall renewable content of from 20 to 85% by weight, wherein the renewables content is calculated by a mass balance of the material charges to the reactor, followed by an assessment of the extent of the reaction by carrying out size exclusion chromatography of the reaction product; wherein ASTM D6866 is used to determine the biobased carbon content of the product; and wherein e) is potassium hydroxide (KOH) or a potassium alkoxide (KOR) a) an amine adduct comprising the reaction product of (i) an amine and (ii) an alkylene oxide in amounts such that from 1 to 2 moles of alkylene oxide are present for each amine group, and (i) an amine and (ii) an alkylene oxide b) a triglyceride, in the presence of d) an alkylene oxide, and e) a catalyst d) an alkylene oxide, and e) a catalyst to form an amine-based polyol characterized by a calculated mean hydroxyl functionality of from 1.5 to 3.5, a number average equivalent weight, as determined by end group analysis of from 100 to 600, and an overall renewable content of from 20 to 85% by weight, wherein the renewables content is calculated by a mass balance of the material charges to the reactor, followed by an assessment of the extent of the reaction by carrying out size exclusion chromatography of the reaction product; wherein ASTM D6866 is used to determine the biobased carbon content of the product; and wherein e) is potassium hydroxide (KOH) or a potassium alkoxide (KOR)
A composite, comprising a matrix material; and a plurality of semiconductor structures cross-linked with, polarity bound by, or tethered to the matrix material, each semiconductor structure comprising: a nanocrystalline core comprising a first semiconductor material; a nanocrystalline shell comprising a second, different, semiconductor material at least partially surrounding the nanocrystalline core ; and a nanocrystalline outer shell from a third semiconductor material, different from the second semiconductor material, to at least partially surround the nanocrystalline shell (204, 904A, 904B, 904C, 1004 ; and an insulation layer encapsulating the nanocrystalline outer shell, the nanocrystalline shell and core . a nanocrystalline core comprising a first semiconductor material; a nanocrystalline shell comprising a second, different, semiconductor material at least partially surrounding the nanocrystalline core ; and a nanocrystalline outer shell from a third semiconductor material, different from the second semiconductor material, to at least partially surround the nanocrystalline shell (204, 904A, 904B, 904C, 1004 ; and an insulation layer encapsulating the nanocrystalline outer shell, the nanocrystalline shell and core .
An apparatus for preventing removal of an article of footwear, the apparatus comprising: a sock having a first strap coupled thereto, the first strap having a first end and a second end , wherein the first end has a first connector disposed thereon and the second end has a second connector disposed thereon; a second strap coupled to the first strap , the second strap being configured to form at least one channel ; characterised in that the apparatus further comprises a third strap configured to pass through the at least one channel , wherein the third strap has a third connector disposed thereon. a sock having a first strap coupled thereto, the first strap having a first end and a second end , wherein the first end has a first connector disposed thereon and the second end has a second connector disposed thereon; a second strap coupled to the first strap , the second strap being configured to form at least one channel ;
Particulate composite ceramic material, comprising, preferably consisting of: - particles made of at least one first ultra-high-temperature ceramic (UHTC) in crystallised form, the outer surface of said particles being at least partially covered by a porous layer made of at least one second ultra-high-temperature ceramic in amorphous form, said first ultra-high-temperature ceramic (UHTC) in crystallised form representing 25% to 90% by mass with respect to the mass of the material and said second ultra-high-temperature ceramic in amorphous form representing 2% to 15% by mass with respect to the total mass of the material; and the particles defining a space therebetween; - optionally, porous clusters of said at least one second ultra-high-temperature ceramic in amorphous form, distributed in said space; - a dense matrix made of at least one third ultra-high-temperature ceramic in crystallised form at least partially filling said space; - optionally, a dense coating made of at least said third ultra-high-temperature ceramic in crystallised form, covering the outer surface of said matrix, said matrix and said coating representing 5% to 90% by mass with respect to the total mass of the material; the porosity of said porous layer made of at least one second ultra-high-temperature ceramic in amorphous form being 15% to 30%. - particles made of at least one first ultra-high-temperature ceramic (UHTC) in crystallised form, the outer surface of said particles being at least partially covered by a porous layer made of at least one second ultra-high-temperature ceramic in amorphous form, said first ultra-high-temperature ceramic (UHTC) in crystallised form representing 25% to 90% by mass with respect to the mass of the material and said second ultra-high-temperature ceramic in amorphous form representing 2% to 15% by mass with respect to the total mass of the material; and the particles defining a space therebetween; - optionally, porous clusters of said at least one second ultra-high-temperature ceramic in amorphous form, distributed in said space; - a dense matrix made of at least one third ultra-high-temperature ceramic in crystallised form at least partially filling said space; - optionally, a dense coating made of at least said third ultra-high-temperature ceramic in crystallised form, covering the outer surface of said matrix, said matrix and said coating representing 5% to 90% by mass with respect to the total mass of the material; the porosity of said porous layer made of at least one second ultra-high-temperature ceramic in amorphous form being 15% to 30%.
Method for obtaining a porous titanium part, characterized in that the starting titanium powder is pure grade 2, with a mean particle size of 200 micrometers, a flow rate of 93s calculated according to ISO 4490 standard, an apparent density of 1.0 g/cm 3 calculated according to ISO 3923/1, and said powder is mixed at a proportion of 34% titanium by weight with NaCl with a particle size between 300 and 600 micrometers and at least 50% by weight of NaCl, and further characterised in that it comprises the following steps: i) adding a binder at a proportion of at least 15%; ii) compacting the resulting material between 200-400 MPa; iii) removing the binder and salt by means of a thermal process followed by continuous rinsing in double-distilled water; iv) sintering at a temperature between 1200°C and 1400°C and at a pressure less than 4.10 -4 mbar; v) machining the surface of the part. i) adding a binder at a proportion of at least 15%; ii) compacting the resulting material between 200-400 MPa; iii) removing the binder and salt by means of a thermal process followed by continuous rinsing in double-distilled water; iv) sintering at a temperature between 1200°C and 1400°C and at a pressure less than 4.10 -4 mbar; v) machining the surface of the part.
A collimating metalens , comprising: a substrate having a first side and a second side ; and a metasurface formed on said first side of said substrate, the metasurface comprising at least one region ; wherein: the at least one region comprises an array of first unit cells , wherein the array of first unit cells comprises an arrangement of nanostructures , such that each first unit cell functions as a radial diffraction grating structure, and wherein the array of first unit cells is configured to impart an approximately hyperboloidal phase shift on incident light thereon. a substrate having a first side and a second side ; and a metasurface formed on said first side of said substrate, the metasurface comprising at least one region ; wherein: the at least one region comprises an array of first unit cells , wherein the array of first unit cells comprises an arrangement of nanostructures , such that each first unit cell functions as a radial diffraction grating structure, and wherein the array of first unit cells is configured to impart an approximately hyperboloidal phase shift on incident light thereon.
Make-up product comprising at least one visible writing surface on which at least a plurality of three-dimensional basic elements (B) and a plurality of three-dimensional modified elements (M) are present, the three-dimensional basic elements (B) being arranged on the surface according to a primary plot (P) and organized in primary rows (P1, P2, ...) mutually placed side by side, the basic elements (B) following each other within each primary row (P1, P2, ...), the three-dimensional modified elements (M) being arranged on the surface according to a secondary plot (S) and being organized in secondary rows (S1, S2, ...), mutually placed side by side, the modified elements (M) following each other within each secondary row (S1, S2, ...), the secondary plot (S) replacing the primary plot (P), thus interrupting it, in some parts of the surface (S) so as to form a visible figure (F) when the light illuminates it from predefined angles, wherein the writing surface is a surface used by an end user by picking up part of the material composing the said writing surface to perform a make-up operation.
A resin composition for a supporting material for use in shaping a supporting material by an ink-jet photofabrication method, the resin composition comprising, based on 100 parts by weight of the whole resin composition: 20 to 50 parts by weight of a water-soluble monofunctional ethylenically unsaturated monomer (G); 20 to 49 parts by weight of polyalkylene glycol (H) comprising an oxyethylene group and/or an oxypropylene group; 35 parts by weight or less of a water-soluble organic solvent (I); and a photopolymerization initiator (D). 20 to 50 parts by weight of a water-soluble monofunctional ethylenically unsaturated monomer (G); 20 to 49 parts by weight of polyalkylene glycol (H) comprising an oxyethylene group and/or an oxypropylene group; 35 parts by weight or less of a water-soluble organic solvent (I); and a photopolymerization initiator (D).
A carbonation system for multiple types of drinks, the system comprising: a carbonation head to carbonate a drink in a bottle , the carbonation head comprising a pressure regulator to reduce the pressure of an incoming gas to an operating pressure, a gas activator to control the passage of said reduced pressure gas and a pressure transducer to control said gas activator based on a pressure level in said bottle during carbonation; characterized in that the carbonation system further comprises: a stirrer ; a flexible outlet pipe ; a controllable valve , wherein said controllable valve is a pinch valve to pinch said flexible outlet pipe , wherein said pinch valve , flexible pipe and stirrer are formed into a single head, said single head designed to operate for one of: a group of drinks, a type of bottle and a bottle volume; and a multi-drink controller to control at least said valve to steppably release excess pressure from said bottle after carbonation as a function of the type of drink in said bottle, wherein said controller has multiple schedules for opening and closing said pinch valve, each schedule associated with said single head. a stirrer ; a flexible outlet pipe ; a controllable valve , wherein said controllable valve is a pinch valve to pinch said flexible outlet pipe , wherein said pinch valve , flexible pipe and stirrer are formed into a single head, said single head designed to operate for one of: a group of drinks, a type of bottle and a bottle volume; and a multi-drink controller to control at least said valve to steppably release excess pressure from said bottle after carbonation as a function of the type of drink in said bottle, wherein said controller has multiple schedules for opening and closing said pinch valve, each schedule associated with said single head.
Bag dispenser for dispensing refuse bags, having a pouch which is produced from a textile material, wherein the pouch has a first receptacle compartment for receiving an in particular comparatively wide first refuse bag roll, wherein the first receptacle compartment has a lateral first side opening for inserting the first refuse bag roll, and a first retrieval opening , different from the first side opening , for retrieving a first refuse bag of the first refuse bag roll, wherein the retrieval opening has a reinforced periphery, characterized in that a lateral region of the periphery of the retrieval opening for configuring a tear-off edge for a refuse bag of the refuse bag roll is reinforced by buttonhole stitches and/or chain stitches.
An air conditioner comprising: an outdoor unit ; a liquid-refrigerant connection pipe and a gas-refrigerant connection pipe ; an indoor unit connected to the outdoor unit via the liquid-refrigerant connection pipe and the gas-refrigerant connection pipe , arranged in an air-conditioning target space, and including an indoor heat exchanger that performs heat exchange between a refrigerant, which is circulated between the indoor unit and the outdoor unit via the liquid-refrigerant connection pipe and the gas-refrigerant connection pipe , and an air, which is sent to the air-conditioning target space, an indoor expansion valve that decompresses the refrigerant, a heat-exchange-side indoor liquid-refrigerant pipe that connects a liquid side of the indoor heat exchanger to the indoor expansion valve, and a connection-side indoor liquid-refrigerant pipe that connects the indoor expansion valve to the liquid-refrigerant connection pipe ; a gas-side shutoff valve that is connected to a gas side of the indoor heat exchanger; refrigerant leakage detecting means for detecting leakage of the refrigerant; and a control unit , characterized in that the indoor expansion valve is connected to the connection-side indoor liquid-refrigerant pipe by brazing, brazing portions brazing the indoor expansion valve and the connection-side indoor liquid-refrigerant pipe each are provided with a coating material , and the control unit causes the indoor expansion valve and the gas-side shutoff valve to be closed in accordance with information of the refrigerant leakage detecting means when the refrigerant leaks. an outdoor unit ; a liquid-refrigerant connection pipe and a gas-refrigerant connection pipe ; an indoor unit connected to the outdoor unit via the liquid-refrigerant connection pipe and the gas-refrigerant connection pipe , arranged in an air-conditioning target space, and including an indoor heat exchanger that performs heat exchange between a refrigerant, which is circulated between the indoor unit and the outdoor unit via the liquid-refrigerant connection pipe and the gas-refrigerant connection pipe , and an air, which is sent to the air-conditioning target space, an indoor expansion valve that decompresses the refrigerant, a heat-exchange-side indoor liquid-refrigerant pipe that connects a liquid side of the indoor heat exchanger to the indoor expansion valve, and a connection-side indoor liquid-refrigerant pipe that connects the indoor expansion valve to the liquid-refrigerant connection pipe ; a gas-side shutoff valve that is connected to a gas side of the indoor heat exchanger; refrigerant leakage detecting means for detecting leakage of the refrigerant; and a control unit , characterized in that the indoor expansion valve is connected to the connection-side indoor liquid-refrigerant pipe by brazing, brazing portions brazing the indoor expansion valve and the connection-side indoor liquid-refrigerant pipe each are provided with a coating material , and the control unit causes the indoor expansion valve and the gas-side shutoff valve to be closed in accordance with information of the refrigerant leakage detecting means when the refrigerant leaks.
A secondary battery comprising: a positive electrode ; and a positive electrode lead connected to the positive electrode ; and an insulating member for a secondary battery which is placed to oppose a part of a positive electrode lead connected to a surface of a positive electrode , the insulating member comprising: a base member portion ; a heat resistive portion formed over a part of one surface of the base member portion , and containing an insulating inorganic material; and an adhesive portion which covers at least a part of each of surfaces of the base member portion and the heat resistive portion , wherein a width of the heat resistive portion is narrower than a width of the base member portion , and the heat resistive portion is provided at an approximate center of the base member portion in a width direction, and the adhesive portion is provided on respective ends of the base member portion in the width direction, and covers the surface of the heat resistive portion at peripheries of respective ends in the width direction. a positive electrode ; and a positive electrode lead connected to the positive electrode ; and an insulating member for a secondary battery which is placed to oppose a part of a positive electrode lead connected to a surface of a positive electrode , the insulating member comprising: a base member portion ; a heat resistive portion formed over a part of one surface of the base member portion , and containing an insulating inorganic material; and an adhesive portion which covers at least a part of each of surfaces of the base member portion and the heat resistive portion , wherein a base member portion ; a heat resistive portion formed over a part of one surface of the base member portion , and containing an insulating inorganic material; and an adhesive portion which covers at least a part of each of surfaces of the base member portion and the heat resistive portion , wherein a width of the heat resistive portion is narrower than a width of the base member portion , and the heat resistive portion is provided at an approximate center of the base member portion in a width direction, and the adhesive portion is provided on respective ends of the base member portion in the width direction, and covers the surface of the heat resistive portion at peripheries of respective ends in the width direction.