mhurhangee/ep-ind-claims huggingface dataset:
A glenoid implant for a shoulder prosthesis comprising: an anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) comprising a longitudinal portion (216; 216A; 216B; 216C; 216D; 216E) configured to be secured to a bone and a proximal head (220; 340), wherein the proximal head has a first engaging surface (232; 344); a baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) comprising a proximal end and a distal end, wherein the distal end comprises a centrally disposed first aperture (168; 348) sized to accept the proximal head (220; 340) of the anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) and a second engaging surface (172; 352); and a perimeter anchor provided to be inserted through the baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) from the proximal end, the baseplate comprising a hole (188, 192) configured to accept the perimeter anchor, wherein the first engaging surface and the second engaging surface couple the anchor and the base member with each other so as both to restrain the anchor member against axial translation with respect to the baseplate and to permit the baseplate to rotate freely with respect to both the anchor member and the glenoid when i) the longitudinal portion of the anchor member is secured to a glenoid and ii) the baseplate is placed adjacent to the glenoid so that the proximal head of the anchor member is inserted from the distal end of the baseplate into the first aperture of the baseplate. an anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) comprising a longitudinal portion (216; 216A; 216B; 216C; 216D; 216E) configured to be secured to a bone and a proximal head (220; 340), wherein the proximal head has a first engaging surface (232; 344); a baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) comprising a proximal end and a distal end, wherein the distal end comprises a centrally disposed first aperture (168; 348) sized to accept the proximal head (220; 340) of the anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) and a second engaging surface (172; 352); and a perimeter anchor provided to be inserted through the baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) from the proximal end, the baseplate comprising a hole (188, 192) configured to accept the perimeter anchor, wherein the first engaging surface and the second engaging surface couple the anchor and the base member with each other so as both to restrain the anchor member against axial translation with respect to the baseplate and to permit the baseplate to rotate freely with respect to both the anchor member and the glenoid when i) the longitudinal portion of the anchor member is secured to a glenoid and ii) the baseplate is placed adjacent to the glenoid so that the proximal head of the anchor member is inserted from the distal end of the baseplate into the first aperture of the baseplate.
A method of communications for use in an unstructured supplementary service data USSD gateway (117, 310, 410) comprising: determining if a USSD based message is able to be communicated using a common channel; and if it determined that the USSD message is able to be communicated using a common channel, sending the USSD based message as part of a USSD session to a mobile switching center, MSC, with a service indicator prompting the MSC to communicate an informational element of the message to a mobile station, MS using the common channel.
A linear object comprising magnesium-alloy comprising: on a mass percent basis, 5.2% Y; 0.1% Zn; 0.4% Zr; 1.7% Nd; and the balance being Mg and incidental impurities, wherein the linear object comprising magnesium-alloy has a creep strain of 1.0% or less, the creep strain being determined by a creep test at a temperature of 150°C and a stress of 75 MPa for 100 hours. on a mass percent basis, 5.2% Y; 0.1% Zn; 0.4% Zr; 1.7% Nd; and the balance being Mg and incidental impurities, wherein the linear object comprising magnesium-alloy has a creep strain of 1.0% or less, the creep strain being determined by a creep test at a temperature of 150°C and a stress of 75 MPa for 100 hours.
A method for storing a liquid aminoether acid gas absorbent for use in an acid gas treatment process in a cold climatic zone having an ambient temperature below the freezing point of the aminoether itself which comprises mixing the aminoether absorbent with water prior to storage in the cold climatic zone to form an amino ether/water mixture with 10 to 45 weight percent water, based on the weight of the aminoether, wherein the aminoether comprises an ethylene glycol or polyethylene glycol derivative containing a severely sterically hindered amino group having an Es value (Taft) of at least 1.75.
Method for determining a light-emission capacity of a light emitting diode, referred to as a LED, said LED comprising a cathode and an anode connected to ports of a control device, referred to respectively as cathode port and anode port, characterised in that the method comprises the following steps: reverse-biasing the LED so as to cause an accumulation of an electric charge by the LED, said LED being subjected to a light source incident to the LED; controlling the cathode port and the anode port in order to cause a discharge of the electric charge accumulated by the LED; obtaining a value representing a time taken for discharging the charge from the LED; determining the light-emission capacity of the LED as a function of the discharge time obtained. reverse-biasing the LED so as to cause an accumulation of an electric charge by the LED, said LED being subjected to a light source incident to the LED; controlling the cathode port and the anode port in order to cause a discharge of the electric charge accumulated by the LED; obtaining a value representing a time taken for discharging the charge from the LED; determining the light-emission capacity of the LED as a function of the discharge time obtained.
A polypeptide represented by the following formula: W-L 1 -X n -Y... in which W represents an amino acid sequence of the entirety of P domain of the capsid protein of norovirus as an immunogen; L 1 represents a first linker sequence having 10 to 40 amino acids; X represents an amino acid sequence represented by SEQ ID NO: 1; Y represents an amino acid sequence of a cell introduction domain; and repetition number n of X is an integer of 1 to 3, wherein the amino acid sequence of the cell introduction domain Y is represented by the following formula: Y 1 -L 2 -Y 2 -Y 3... in which Y 1 represents an amino acid sequence of SEQ ID NO: 2; Y 2 represents any one amino acid sequence selected from the group consisting of SEQ ID NOs: 6 to 9; L 2 represents a second linker sequence having 0 to 5 amino acids; Y 3 represents an amino acid sequence for purifying or protecting the polypeptide; and either of Y 2 and Y 3 may be absent, wherein the amino acid sequence represented by X n, Y 1 or Y 2 may be a modified amino acid sequence thereof obtained by deleting, substituting, or adding one or more amino acid residues from, with, or to the original amino acid sequence represented by X n, Y 1 or Y 2 included in formula or, the number of modifications of amino acid residues in each amino acid sequence is ≤ 2n in the case of X n; ≤ 10 in the case of Y 1; and ≤ 5 in the case of Y 2. in which W represents an amino acid sequence of the entirety of P domain of the capsid protein of norovirus as an immunogen; L 1 represents a first linker sequence having 10 to 40 amino acids; X represents an amino acid sequence represented by SEQ ID NO: 1; Y represents an amino acid sequence of a cell introduction domain; and repetition number n of X is an integer of 1 to 3, wherein the amino acid sequence of the cell introduction domain Y is represented by the following formula: Y 1 -L 2 -Y 2 -Y 3... in which Y 1 represents an amino acid sequence of SEQ ID NO: 2; Y 2 represents any one amino acid sequence selected from the group consisting of SEQ ID NOs: 6 to 9; L 2 represents a second linker sequence having 0 to 5 amino acids; Y 3 represents an amino acid sequence for purifying or protecting the polypeptide; and either of Y 2 and Y 3 may be absent, wherein the amino acid sequence represented by X n, Y 1 or Y 2 may be a modified amino acid sequence thereof obtained by deleting, substituting, or adding one or more amino acid residues from, with, or to the original amino acid sequence represented by X n, Y 1 or Y 2 included in formula or, the number of modifications of amino acid residues in each amino acid sequence is ≤ 2n in the case of X n; ≤ 10 in the case of Y 1; and ≤ 5 in the case of Y 2.
A topical formulation comprising in terms of % w/w: 10% - 40% alpha hydroxy acid, AHA; 10% - 40% urea or urea derivative; 5% - 30% potassium hydroxide for maintaining the pH in the range between 2.0 and 9.0; 0.1% - 5% hydrolyzed sodium hyaluronate; 0.1% - 15% capric triglyceride; 0.1% - 5% cetearyl glucoside; 0.1% - 5% cetearyl alcohol; 0.1% - 10% vitamin E acetate; 0.1% - 10% glyceryl stearate; 0.1% - 10% stearyl alcohol; 0.1% - 5% PEG-100 stearate; 0.2% - 15% emulsifying wax; 0.02% - 2% phenoxyethanol; 0.02% - 2% xanthan gum; 0.01% - 10% squalane; 0.01% - 10% dimethicone. 10% - 40% alpha hydroxy acid, AHA; 10% - 40% urea or urea derivative; 5% - 30% potassium hydroxide for maintaining the pH in the range between 2.0 and 9.0; 0.1% - 5% hydrolyzed sodium hyaluronate; 0.1% - 15% capric triglyceride; 0.1% - 5% cetearyl glucoside; 0.1% - 5% cetearyl alcohol; 0.1% - 10% vitamin E acetate; 0.1% - 10% glyceryl stearate; 0.1% - 10% stearyl alcohol; 0.1% - 5% PEG-100 stearate; 0.2% - 15% emulsifying wax; 0.02% - 2% phenoxyethanol; 0.02% - 2% xanthan gum; 0.01% - 10% squalane; 0.01% - 10% dimethicone.
A masonry block (100; 200) for a retaining wall system formed from at least two such blocks, the masonry block comprising: a masonry block body having a front (104; 204), a back (109; 209), a top surface (106; 206), a bottom surface (103; 203), a first side (105; 205) and a second side (105; 205), the front having a front-top edge and a front-bottom edge, the masonry block having an opening (102; 202) formed between the top surface and the bottom surface; at least two steps (112, 112A, 114, 114A; 212, 212A, 214, 214A) on the top surface rising above the top surface and formed between the opening and the front-top edge, a first step of the at least two steps being setback from the front-top edge by a first setback distance; an equal number of notches (122, 124; 222, 224) in the bottom surface, a first notch of the notches being setback from the front-bottom edge by a second setback distance; such that, when stacked to form a wall, the steps of a lower masonry block interface with the notches of a second masonry block for the retaining wall system; and wherein the first setback distance is greater than the second setback distance and an overall setback is defined by a difference between the first setback distance minus the second setback distance. a masonry block body having a front (104; 204), a back (109; 209), a top surface (106; 206), a bottom surface (103; 203), a first side (105; 205) and a second side (105; 205), the front having a front-top edge and a front-bottom edge, the masonry block having an opening (102; 202) formed between the top surface and the bottom surface; at least two steps (112, 112A, 114, 114A; 212, 212A, 214, 214A) on the top surface rising above the top surface and formed between the opening and the front-top edge, a first step of the at least two steps being setback from the front-top edge by a first setback distance; an equal number of notches (122, 124; 222, 224) in the bottom surface, a first notch of the notches being setback from the front-bottom edge by a second setback distance; such that, when stacked to form a wall, the steps of a lower masonry block interface with the notches of a second masonry block for the retaining wall system; and wherein the first setback distance is greater than the second setback distance and an overall setback is defined by a difference between the first setback distance minus the second setback distance.
Apparatus for generating energy with at least one material inlet for carbonaceous mass, in particular biomass, having at least one thermal energy-producing gasification unit (3, 4, 5) for converting the carbonaceous mass into combustible gas and having at least one device for generating electrical energy from combustible gas, wherein at least one material outlet for coke as an intermediate product prepared for energy from at least one gasification unit (3, 4, 5) is provided, which opens into an intermediate storage unit, characterized in that it comprises a biomass dryer into which a line for hot exhaust air from at least one gasification unit (3, 4, 5) opens, that it comprises a device for processing the extracted coke and dried biomass to heat value stores, in particular pellets, and that the quantity of coke removed from a gasification unit (3, 4, 5) is controllable in such a way that it corresponds to that quantity or the heat value which with the dried biomass, according to the mixing ratio, results in the heat value desired in the heat value store, in particular pellet.
A method for synthesis of Roxadustat, including the following steps: (a) a compound of formula (VIII) is reacted with phenol to obtain a compound of formula (b) the compound of formula is reacted with a compound of formula to obtain a compound of formula (c) the compound of formula is subjected to acid hydrolysis reaction to obtain a compound of formula; optionally, the compound of formula is subjected to hydrolysis reaction to obtain a compound of formula or a salt thereof; (d) the compound of formula or the compound of formula or a salt thereof is reacted with hydroxylamine to obtain a compound of formula; (e) the compound of formula is reacted with a compound of formula (XIII) to obtain a compound of formula or its tautomer or a mixture thereof; (f) the compound of formula or its tautomer or a mixture thereof is reacted with glycine to obtain Roxadustat; herein, R 1 in the compound of the formula (VIII), the compound of the formula, the compound of the formula, the compound of the formula, R 2 in the compound of the formula (XIII) and the compound, and R 3 in the compound of formula and compound of are each independently unsubstituted C 1 -C 4 alkyl, C 1 -C 4 alkyl substituted with C 1 -C 4 alkoxy, C 1 -C 4 alkyl substituted with unsubstituted aromatic group, C 1 -C 4 alkyl substituted with unsubstituted aromatic oxy group, C 1 -C 4 alkyl substituted with substituted aromatic group; X in the compound of formula (VIII) and the compound of formula is bromine, iodine or chlorine. (a) a compound of formula (VIII) is reacted with phenol to obtain a compound of formula (b) the compound of formula is reacted with a compound of formula to obtain a compound of formula (c) the compound of formula is subjected to acid hydrolysis reaction to obtain a compound of formula; optionally, the compound of formula is subjected to hydrolysis reaction to obtain a compound of formula or a salt thereof; (d) the compound of formula or the compound of formula or a salt thereof is reacted with hydroxylamine to obtain a compound of formula; (e) the compound of formula is reacted with a compound of formula (XIII) to obtain a compound of formula or its tautomer or a mixture thereof; (f) the compound of formula or its tautomer or a mixture thereof is reacted with glycine to obtain Roxadustat;
A charging apparatus for a combustion engine - comprising an electrically driven compressor which has a compressor housing, • in which a compressor wheel is arranged, said compressor wheel being mounted on one end of a rotor shaft, and • which has a compressor housing rear wall which is adjacent to a compressor wheel rear side; - comprising an electric motor • which is mounted on the compressor housing, and - comprising a power electronics circuit, wherein - the power electronics circuit is arranged between the compressor housing rear wall and the electric motor, and characterised in that the compressor housing rear wall is provided with a cooling jacket. - comprising an electrically driven compressor which has a compressor housing, • in which a compressor wheel is arranged, said compressor wheel being mounted on one end of a rotor shaft, and • which has a compressor housing rear wall which is adjacent to a compressor wheel rear side; • in which a compressor wheel is arranged, said compressor wheel being mounted on one end of a rotor shaft, and • which has a compressor housing rear wall which is adjacent to a compressor wheel rear side; - comprising an electric motor • which is mounted on the compressor housing, and • which is mounted on the compressor housing, and - comprising a power electronics circuit, - the power electronics circuit is arranged between the compressor housing rear wall and the electric motor, and characterised in that the compressor housing rear wall is provided with a cooling jacket.
A breathing assistance apparatus, for use with delivery of respiratory gases to a patient comprising: a full face mask, having a body section adapted to cover the nose and mouth of said patient, a sealing interface, including at least an outer sealing member, said outer sealing member adapted to attach to said body section in a sealing manner, said outer sealing member having a substantially thin section in at least its nasal bridge region, wherein said outer sealing member is adapted to seal around the facial contours of said patient thereby providing a sealed fluid communication to the respiratory tract of said patient, characterised in that said thin section of the outer sealing member has a wall thickness substantially thinner than the wall thickness of the rest of said outer sealing member, the rest including a bottom side wall region of the outer sealing member, preferably the bottom side wall region being much thicker in cross-section, and wherein said outer sealing member includes a second thin section in the region of said outer sealing member that rests against the chin of said patient in use, said second thin section being substantially thinner than the rest of said outer sealing member. a full face mask, having a body section adapted to cover the nose and mouth of said patient, a sealing interface, including at least an outer sealing member, said outer sealing member adapted to attach to said body section in a sealing manner, said outer sealing member having a substantially thin section in at least its nasal bridge region, wherein said outer sealing member is adapted to seal around the facial contours of said patient thereby providing a sealed fluid communication to the respiratory tract of said patient, characterised in that said thin section of the outer sealing member has a wall thickness substantially thinner than the wall thickness of the rest of said outer sealing member, the rest including a bottom side wall region of the outer sealing member, preferably the bottom side wall region being much thicker in cross-section, and wherein said outer sealing member includes a second thin section in the region of said outer sealing member that rests against the chin of said patient in use, said second thin section being substantially thinner than the rest of said outer sealing member.
A kneader machine for alimentary doughs comprising a container provided with a tight lid and a rotor rotatably arranged in said container about a vertical rotation axis, wherein said rotor comprises a flat base consisting of a plurality of arms (32, 33) and a plurality of mixing paddles which extend from said arms (32, 33) in a vertical direction, and wherein the arms (32, 33) of the rotor comprise bevelled surfaces formed along their peripheries on the sides intended to face a rotation direction of the rotor, characterized in that said mixing said paddles comprise first and second mixing paddles (35, 36) that are inclined both relative to the flat base of the rotor radially outwards and to a generic plane passing through its rotation axis and perpendicular to its base, the free ends of said first mixing paddles being bent towards the rotation axis of the rotor and the free ends of said second mixing paddles being bent away from the rotation axis of the rotor, and in that each arm (32, 33) of the rotor comprises at least one pair of paddles consisting of a first mixing paddle and a second mixing paddle, wherein the distance between the second paddle mixing and the rotation axis of the rotor is smaller than the distance between the first mixing paddle and the rotation axis of the rotor and wherein for each pair of paddles the first paddle and the second mixing paddles (35, 36) are inclined in opposite directions relative to said plane perpendicular to the base of the rotor and passing through its rotation axis.
A protector for a razor cartridge, the protector comprising a housing extending longitudinally along a longitudinal axis and having a front face and a rear face, characterized in that the protector is provided with a first comb and a second comb, a first trimming blade having a first cutting edge and a second trimming blade having a second cutting edge (156'A), the first and the second combs (154, 154') being opposite one to the other with regard to the longitudinal axis, each of said combs (154, 154') having several teeth (154A, 154'A) projecting obliquely to said longitudinal axis along an oblique axis, each of the teeth (154A, 154'A) having a height (H154, H154') that defines a trimming length, the teeth of the first comb protruding forwardly with regard to the first cutting edge and the teeth of the second comb protruding forwardly with regard to the second cutting edge (156'A), and in that the trimming length is adjustable.
A device comprising: a III-nitride light emitting layer disposed between an n-type region and a p-type region; a nanopipe terminating layer, wherein the n-type region is disposed between the nanopipe terminating layer and the light emitting layer; and a layer comprising a nanopipe defect; wherein the nanopipe terminating layer is disposed between the layer comprising a nanopipe defect and the light emitting layer, and wherein the nanopipe defect terminates in the nanopipe terminating layer, characterized in that, the nanopipe terminating layer is a III-nitride layer doped with an acceptor, and the dopant concentration in the III-nitride layer is graded. a III-nitride light emitting layer disposed between an n-type region and a p-type region; a nanopipe terminating layer, wherein the n-type region is disposed between the nanopipe terminating layer and the light emitting layer; and a layer comprising a nanopipe defect; wherein the nanopipe terminating layer is disposed between the layer comprising a nanopipe defect and the light emitting layer, and wherein the nanopipe defect terminates in the nanopipe terminating layer, characterized in that, the nanopipe terminating layer is a III-nitride layer doped with an acceptor, and the dopant concentration in the III-nitride layer is graded.