mhurhangee/patent-ind-claim-en huggingface dataset:
An ophthalmic membrane forceps , comprising: a forceps extension ; and forceps jaws extending from a distal termination of the forceps extension , the forceps jaws comprising: a first jaw comprising a first gripping tip ; a second jaw comprising a second gripping tip ; and a coating disposed on a distal end of the forceps jaws, the coating configured to increase a coefficient of friction with an ophthalmic membrane, the first gripping tip and the second gripping tip abutting one another when the forceps jaws are in a closed configuration; wherein a surface of the forceps jaws covered by the coating excludes the first gripping tip and the second gripping tip . a forceps extension ; and forceps jaws extending from a distal termination of the forceps extension , the forceps jaws comprising: a first jaw comprising a first gripping tip ; a second jaw comprising a second gripping tip ; and a coating disposed on a distal end of the forceps jaws, the coating configured to increase a coefficient of friction with an ophthalmic membrane, the first gripping tip and the second gripping tip abutting one another when the forceps jaws are in a closed configuration; wherein a surface of the forceps jaws covered by the coating excludes the first gripping tip and the second gripping tip . a first jaw comprising a first gripping tip ; a second jaw comprising a second gripping tip ; and a coating disposed on a distal end of the forceps jaws, the coating configured to increase a coefficient of friction with an ophthalmic membrane, the first gripping tip and the second gripping tip abutting one another when the forceps jaws are in a closed configuration; wherein a surface of the forceps jaws covered by the coating excludes the first gripping tip and the second gripping tip .
A method for a structural characterization of polysaccharides, comprising steps of characterizing a polysaccharide by physical measurements in a device comprising a determination of a mass of the polysaccharide by means of mass spectrometry, a further determination of a rotationally averaged cross section of the polysaccharide by means of ion mobility spectrometry, the method being characterized in that it further comprises a determination of an infrared spectrum of the polysaccharide by means of cryogenic, messenger-tagging IR spectroscopy.
A method for preparing spirulina infused gummy completely free from the natural taste and bad odour of spirulina, the method comprising: a) pouring 8 g citric acid into 200 g water; b) heating the citric acid and water mixture to a temperature of 80 degree Celsius; c) adding pectin 30 g and sugar 100 g to the citric acid and water mixture; d) stirring the pectin, sugar, citric acid and water mixture to form a buffer solution; e) pouring the buffer solution into 700 g hot liquid glucose syrup; f) stirring the buffer solution-hot liquid glucose syrup mixture and heat to a temperature of 100 degree Celsius for 5 minutes to provide a final composition; g) cooling the final composition to a temperature of 90 degrees Celsius; h) adding spirulina in an amount of 80 g to the cooled final composition with continued stirring; i) after 15 minutes, add 2.5 ml flavour and 0.1 g preservative diluted in 0.5 ml water with continuous stirring to the spirulina-cooled final composition mixture; j) adding citric acid to the flavour, preservative, spirulina and cooled final composition mixture with stirring until jellification occurs; k) pouring the composition formed in j) mixture into a mold and allowing said composition to cool in said mold; and k) removing spirulina gummies from said mold. a) pouring 8 g citric acid into 200 g water; b) heating the citric acid and water mixture to a temperature of 80 degree Celsius; c) adding pectin 30 g and sugar 100 g to the citric acid and water mixture; d) stirring the pectin, sugar, citric acid and water mixture to form a buffer solution; e) pouring the buffer solution into 700 g hot liquid glucose syrup; f) stirring the buffer solution-hot liquid glucose syrup mixture and heat to a temperature of 100 degree Celsius for 5 minutes to provide a final composition; g) cooling the final composition to a temperature of 90 degrees Celsius; h) adding spirulina in an amount of 80 g to the cooled final composition with continued stirring; i) after 15 minutes, add 2.5 ml flavour and 0.1 g preservative diluted in 0.5 ml water with continuous stirring to the spirulina-cooled final composition mixture; j) adding citric acid to the flavour, preservative, spirulina and cooled final composition mixture with stirring until jellification occurs; k) pouring the composition formed in j) mixture into a mold and allowing said composition to cool in said mold; and k) removing spirulina gummies from said mold.
A terminal comprising: a control section configured to control first coding of coding at least one of multiple uplink control information, and concatenating multiple information obtained from the first coding, and second coding of coding the concatenated information; a transmitting section configured to transmit information obtained from the second coding using an uplink control channel; and wherein the control section is configured to perform the second coding according to a length of the concatenated information, characterized in that : the control section is configured to not add a CRC to each of the multiple uplink control information and to add a CRC, calculated according to the length of the information obtained from the second coding, to the information obtained from the second coding. a control section configured to control first coding of coding at least one of multiple uplink control information, and concatenating multiple information obtained from the first coding, and second coding of coding the concatenated information; a transmitting section configured to transmit information obtained from the second coding using an uplink control channel; and wherein the control section is configured to perform the second coding according to a length of the concatenated information, characterized in that : the control section is configured to not add a CRC to each of the multiple uplink control information and to add a CRC, calculated according to the length of the information obtained from the second coding, to the information obtained from the second coding.
A synthetic resin member welding method for welding together a first member (10; 100) and a second member (20; 200) which are made of the same synthetic resin material, the method comprising: providing a protrusion (12; 121, 122) on the first member (10; 100) formed integrally with a body (11; 110) of the first member (10; 110); and applying a laser beam (L) to a side surface of the protrusion (12; 121, 122) in a state in which a top surface (12a; 121a, 122a) of the protrusion (12; 121, 122) of the first member (10; 100) is abutted against the second member (20; 200), so as to melt at least the entire top surface (12a; 121a, 122a) of the protrusion (12; 121, 122) and melt a portion of the second member (20; 200), which portion is in contact with the top surface, followed by solidification of the melted portions, whereby the first member (10; 100) and the second member (20; 200) are welded together, characterized in that the first member (10; 100) and the second member (20; 200) are formed of a carbon fiber reinforced plastic that contains carbon fibers.. providing a protrusion (12; 121, 122) on the first member (10; 100) formed integrally with a body (11; 110) of the first member (10; 110); and applying a laser beam (L) to a side surface of the protrusion (12; 121, 122) in a state in which a top surface (12a; 121a, 122a) of the protrusion (12; 121, 122) of the first member (10; 100) is abutted against the second member (20; 200), so as to melt at least the entire top surface (12a; 121a, 122a) of the protrusion (12; 121, 122) and melt a portion of the second member (20; 200), which portion is in contact with the top surface, followed by solidification of the melted portions, whereby the first member (10; 100) and the second member (20; 200) are welded together, characterized in that the first member (10; 100) and the second member (20; 200) are formed of a carbon fiber reinforced plastic that contains carbon fibers..
Casting compound for producing gelatin products by pouring into solid hollow moulds, comprising a homogeneous aqueous solution containing the following constituents: - 4 to 16 wt % of gelatin having a mean molecular weight, determined by gel chromatography, of at least 130 kDa, preferably at least 145 kDa, wherein the proportion of the gelatin having a molecular weight of more than 130 kDa is at least 35 wt %, preferably at least 45 wt %; - 6 to 76 wt % of one or more sugar alcohols; - 8 to 40 wt % of glucose syrup with a viscosity of less than 800 mPa·s, preferably less than 700 mPa·s, measured with a dry matter content of 80 wt % and at a temperature of 50°C; and - 0 to 50 wt % of sucrose, wherein the glucose syrup and the sugar alcohol(s) together make up 25 to 76 wt % of the aqueous solution, and wherein the aqueous solution has a dry matter content of at least 78 wt % and/or a water activity (a w value) of less than 0.75. - 4 to 16 wt % of gelatin having a mean molecular weight, determined by gel chromatography, of at least 130 kDa, preferably at least 145 kDa, wherein the proportion of the gelatin having a molecular weight of more than 130 kDa is at least 35 wt %, preferably at least 45 wt %; - 6 to 76 wt % of one or more sugar alcohols; - 8 to 40 wt % of glucose syrup with a viscosity of less than 800 mPa·s, preferably less than 700 mPa·s, measured with a dry matter content of 80 wt % and at a temperature of 50°C; and - 0 to 50 wt % of sucrose,
An additive manufacturing device, AMD, for manufacturing objects through deposition of superposed layers of material in a granulate or powder form, the AMD comprising: - a hydraulic cylinder ; - a mold for sealable attachment to the hydraulic cylinder ; - a material deposition station having an outlet for depositing the material in the mold layer-by-layer; - a heating element ; and - a compressor ; wherein between the deposition of one or more layers of material in the mold , the mold and the hydraulic cylinder are sealably attached thereto, whereby the cylinder seals the mold to form a pressurized container, and wherein the compressor injects pressurized gas in the container to increase a pressure within the pressurized container, thus over the material and the heating element provides heat within the pressurized container to further increase the pressure and to perform sintering or high-temperature synthesis of the material while submitting the material to the pressure from the pressurized gas. - a hydraulic cylinder ; - a mold for sealable attachment to the hydraulic cylinder ; - a material deposition station having an outlet for depositing the material in the mold layer-by-layer; - a heating element ; and - a compressor ;
A method for refining a titanium material, in which oxygen contained in a titanium material made of a pure titanium, a titanium alloy or an intermetallic compound containing titanium as one of main components is removed, the titanium content of the titanium material being 45 mass% or higher, the method comprising: a first melting step of melting the titanium material under a noble gas atmosphere containing 5 to 70 vol% of hydrogen, thereby introducing hydrogen into a melt of the titanium material; and a second melting step of melting the titanium material into which hydrogen has been introduced in the first melting step under a noble gas atmosphere containing lower than 5 vol% of hydrogen, thereby removing oxygen contained in the titanium material from the melt of the titanium material together with the hydrogen, wherein the melting retention time in the first and second melting step is set within a range of 0.3 to 3.6 ks, and wherein each of the first melting step and the second melting step is carried out at least once. a first melting step of melting the titanium material under a noble gas atmosphere containing 5 to 70 vol% of hydrogen, thereby introducing hydrogen into a melt of the titanium material; and a second melting step of melting the titanium material into which hydrogen has been introduced in the first melting step under a noble gas atmosphere containing lower than 5 vol% of hydrogen, thereby removing oxygen contained in the titanium material from the melt of the titanium material together with the hydrogen, wherein the melting retention time in the first and second melting step is set within a range of 0.3 to 3.6 ks, and wherein each of the first melting step and the second melting step is carried out at least once.
Article having a single-layered or multi-layered main body having elastic characteristics, characterized in that at least a layer D of the main body is constructed from a rubber mixture which is free from halogen-containing flame retardants and contains a first aluminum trihydrate (ATH_1) and at least one further aluminum trihydrate (ATH_2) and at least one amorphous silicic acid having spherical particle geometry, wherein the first aluminum trihydrate (ATH_1) and the at least one further aluminum trihydrate (ATH_2) each have a different particle size, wherein the particle size D 50 of the first aluminum trihydrate (ATH_1) determined by laser diffraction is between 0.1 and 0.6 μm and the further aluminum trihydrate (ATH_2) has a particle size D 50 determined by laser diffraction of between 0.9 and 1.5 μm.
An apparatus for playing a game, the apparatus comprising a three dimensional structure assembled from a plurality of interconnectable and disengageable male and female construction elements, where each female construction element is a shaped elongate body piece with two end mating faces or surfaces , each mating face having an orifice to enable each female construction element to connect to and disengage male construction elements, wherein the interconnection between two mating faces or surfaces is allowable in one orientation only, wherein each male construction element comprises two double ended pairs of male connectors , the first pair of male connectors being used to connect with two complementary female orifices in two female construction elements, the second pair of male connectors being disposed through 90 degrees to the first, rotated through 180 degrees along its axis, then offset and joined with a barrel section to the first, this second pair of male connectors also being used to connect with two corresponding female orifices in two construction elements, wherein a key in each orifice is always orientated in the same way to each end, there also being a locating notch or hemispherical channel in each mating surface which widens out as it reaches the underside of each end, this channel being used to house half of the barrel section of a male construction element and enable it to flex so that other construction elements may be attached to it and alternatively, the hemispherical channels are parallel and do not widen out when construction elements are used, and wherein there are a minimum of two to four core construction elements that create Celtic knotwork or weaving patterns in a three dimensional general plane, the four being: a straight 0 degrees construction element (A) , a quadrant 90 degrees construction element (B) , a U-bend 180 degrees construction element (C) and a loop 270 degrees construction element (D) as viewed from above, the front or side; where each core construction element has a side profile resembling a "stretched out half a sine wave/curve" which is stretched around each top profile in the three dimensional structure, the distance the side profile of a drop being equivalent to the diameter of the female construction element, whereby each male construction element is operable to connect with up to two, three or four core construction elements and hold them together in a structure.
A method for navigating a vehicle comprising: with a vehicle, traversing an ingress path during an ingress cycle; monitoring a ground surface during both the ingress cycle and an egress cycle to generate a plurality of complex images, wherein each pixel of the complex images comprises amplitude and a phase; comparing successive local complex egress images to one or more reference complex ingress images to obtain successive normalized cross-correlation coefficients 'NCCCs'; monitoring the successive NCCCs over time to determine if the successive NCCCs are increasing or decreasing relative to a maximum NCCC as the vehicle moves through the egress cycle; maintaining the vehicle in as close a position relative to the ingress path as possible based on the increase or decrease of the successive NCCCs. with a vehicle, traversing an ingress path during an ingress cycle; monitoring a ground surface during both the ingress cycle and an egress cycle to generate a plurality of complex images, wherein each pixel of the complex images comprises amplitude and a phase; comparing successive local complex egress images to one or more reference complex ingress images to obtain successive normalized cross-correlation coefficients 'NCCCs'; monitoring the successive NCCCs over time to determine if the successive NCCCs are increasing or decreasing relative to a maximum NCCC as the vehicle moves through the egress cycle; maintaining the vehicle in as close a position relative to the ingress path as possible based on the increase or decrease of the successive NCCCs.
An in-wheel motor unit comprising: an in-wheel motor having an axle , a stator fixed to the axle and a motor housing supported by the axle so as to be rotatable; an arm body having a first face to which one end part of the axle is fixed and a second face facing a region opposite to the first face ; fasteners in which at least part thereof is exposed in the second face , fixing the arm body and the axle so as to be detachable; an arm cover including a main cover having a cover opening at a position facing the fasteners and a sub-cover attached to the main cover so as to block the cover opening , which is fastened to the arm body so as to cover the second face and to form an arm internal space ; a motor cable including a first end connected to the in-wheel motor and a second end positioned in the arm internal space , at least part of which between the first end and the second end passes the inside of the axle ; a power cable including a third end positioned in the outside of the arm internal space and a forth end positioned in the inside of the arm internal space ; and a terminal board arranged inside the arm internal space , including a first terminal to which the motor cable is connected so as to be detachable at a position facing the cover opening and a second terminal to which the power cable is connected. an in-wheel motor having an axle , a stator fixed to the axle and a motor housing supported by the axle so as to be rotatable; an arm body having a first face to which one end part of the axle is fixed and a second face facing a region opposite to the first face ; fasteners in which at least part thereof is exposed in the second face , fixing the arm body and the axle so as to be detachable; an arm cover including a main cover having a cover opening at a position facing the fasteners and a sub-cover attached to the main cover so as to block the cover opening , which is fastened to the arm body so as to cover the second face and to form an arm internal space ; a motor cable including a first end connected to the in-wheel motor and a second end positioned in the arm internal space , at least part of which between the first end and the second end passes the inside of the axle ; a power cable including a third end positioned in the outside of the arm internal space and a forth end positioned in the inside of the arm internal space ; and a terminal board arranged inside the arm internal space , including a first terminal to which the motor cable is connected so as to be detachable at a position facing the cover opening and a second terminal to which the power cable is connected.
A method for determining the amount of one or more tamoxifen metabolites in a human sample by mass spectrometry, comprising: (a) extracting one or more tamoxifen metabolites from the human sample by protein precipitation followed by filtration; (b) ionizing said one or more tamoxifen metabolites to produce one or more ions detectable by mass spectrometry; (c) detecting the amount of the ion(s) from step (b) by mass spectrometry; wherein the amount of the ion(s) detected is related to the amount of each of tamoxifen metabolites in said sample, wherein said metabolite(s) comprise norendoxifen. (a) extracting one or more tamoxifen metabolites from the human sample by protein precipitation followed by filtration; (b) ionizing said one or more tamoxifen metabolites to produce one or more ions detectable by mass spectrometry; (c) detecting the amount of the ion(s) from step (b) by mass spectrometry; wherein the amount of the ion(s) detected is related to the amount of each of tamoxifen metabolites in said sample, wherein said metabolite(s) comprise norendoxifen.
A system for use in monitoring registration of a patient to a surgical robot, said system comprising: a computer ; a tracking camera electronically coupled to the computer ; a surgical robot electronically coupled to the computer; a dynamic reference base , including at least one array marker configured to be viewed by the tracking camera; a dynamic reference base post connected to the dynamic reference base ; and a surveillance marker configured to be viewed by the tracking camera, the surveillance marker further configured to be disposed at a predetermined distance from the dynamic reference base , wherein the surveillance marker is configured to be secured to the patient independently from the dynamic reference base ; a surveillance marker post , wherein the surveillance marker is configured to be disposed on the surveillance marker post , characterised in that the surveillance marker post is configured to be disposed in a hollow channel of the dynamic reference base post . a computer ; a tracking camera electronically coupled to the computer ; a surgical robot electronically coupled to the computer; a dynamic reference base , including at least one array marker configured to be viewed by the tracking camera; a dynamic reference base post connected to the dynamic reference base ; and a surveillance marker configured to be viewed by the tracking camera, the surveillance marker further configured to be disposed at a predetermined distance from the dynamic reference base , wherein the surveillance marker is configured to be secured to the patient independently from the dynamic reference base ; a surveillance marker post , wherein the surveillance marker is configured to be disposed on the surveillance marker post , characterised in that the surveillance marker post is configured to be disposed in a hollow channel of the dynamic reference base post .
An inorganic sulfide electrolyte material represented by the following formula (I), Li 10 M(P 1-a Sb a ) 2 S 12 , (I); wherein, M is one or more of Ge, Si and Sn, 0.01≤a≤1; preferably, 0.01≤a≤0.2. wherein, M is one or more of Ge, Si and Sn, 0.01≤a≤1; preferably, 0.01≤a≤0.2.