mhurhangee/patent-ind-claim-en huggingface dataset:
Synthesis method of an injectable, monophasic gel made from monophasic, cross-linked sodium hyaluronate (NaHA) and linear, intercalated multifractional sodium hyaluronate (NaHA) comprising the following steps: Step 1. mixing of sodium hyaluronate with an intrinsic viscosity of between 10 and 30 dl/g and an aqueous solution of a sucrose epoxide selected from: epoxy allyl sucrose (EAS), or epoxy crotyl sucrose (ECS) and 0.25-molar NaOH in a mixer set at 10 rpm, at a temperature between 15°C and 25°C and for a time of 10 hours; Step 2. acidification of the solution to interrupt the cross-linking process; Step 3. dialysis purification of the resulting solution characterized by a concentration of monophasic, cross-linked sodium hyaluronate between 1% and 10% and an osmolarity of about 200-400 mosm; Step 4. pH stabilization with pH 7.4 buffer; Step 5. intercalation of multifractional sodium hyaluronate through addition to the cross-linked sodium hyaluronate solution of a gelatinous solution prepared separately and containing No. 5 sodium hyaluronate fractions with molecular weight respectively of 1,000,000 Da, 500,000 Da, 200,000 Da, 100,000 Da and 2,000 Da, in quantities between 1% and 20% of the weight of cross-linked sodium hyaluronate (NaHA). Step 1. mixing of sodium hyaluronate with an intrinsic viscosity of between 10 and 30 dl/g and an aqueous solution of a sucrose epoxide selected from: epoxy allyl sucrose (EAS), or epoxy crotyl sucrose (ECS) and 0.25-molar NaOH in a mixer set at 10 rpm, at a temperature between 15°C and 25°C and for a time of 10 hours; Step 2. acidification of the solution to interrupt the cross-linking process; Step 3. dialysis purification of the resulting solution characterized by a concentration of monophasic, cross-linked sodium hyaluronate between 1% and 10% and an osmolarity of about 200-400 mosm; Step 4. pH stabilization with pH 7.4 buffer; Step 5. intercalation of multifractional sodium hyaluronate through addition to the cross-linked sodium hyaluronate solution of a gelatinous solution prepared separately and containing No. 5 sodium hyaluronate fractions with molecular weight respectively of 1,000,000 Da, 500,000 Da, 200,000 Da, 100,000 Da and 2,000 Da, in quantities between 1% and 20% of the weight of cross-linked sodium hyaluronate (NaHA).
The use of a polymer in a cosmetic, dermatological or pharmaceutical composition, wherein the polymer is crosslinked or non-crosslinked, characterized in that the polymer comprises at least 9.49 mol% of repeating units (a) according to Formula wherein at least 10 wt.-%, preferably at least 20 wt.-% of the repeating units according to Formula comprise from 28 wt.-% to 100 wt.-% bio-based carbon content, relative to the total mass of carbon in the repeating unit according to Formula , measured according to standard ASTM D6866-12, Method B; wherein: R 1 and R 2 are independently selected from H, methyl or ethyl; A is a linear or branched C 1 -C 12 -alkyl group; and Q + is H + , NH 4 + , organic ammonium ions [NHR 5 R 6 R 7 ] + wherein R 5 , R 6 , and R 7 independently of one another may be hydrogen, a linear or branched alkyl group having 1 to 22 carbon atoms, a linear or branched, singularly or multiply unsaturated alkenyl group having 2 to 22 carbon atoms, a C 6 -C 22 alkylamidopropyl group, and where at least one of the radicals R 5 , R 6 , and R 7 is not hydrogen, or Q + is Li + , Na + , K + , 1⁄2 Ca ++ , 1⁄2 Mg ++ , 1⁄2 Zn ++ , 1/3 Al +++ , or combinations thereof.
Memory card reader body 20, having a generally rectangular parallelepiped shape, comprising a slot 30 for inserting a memory card, the reader body furthermore comprising a housing 22 for receiving a memory card connector 10, and at least one protection circuit 23, and an upper lid 20A and a lower lid 20B, said upper lid 20A and said lower lid 20B being two distinct parts that can be fitted with each other, said protection circuit being positioned on the internal face of the upper lid 20A, said protection circuit 23 takes the form of at least one lattice, memory card reader body 20 the Memory card reader body 20 being characterized in that the etching density of the protection circuit 23 is variable according to the location of the protection circuit.
A device for producing a component by forming a workpiece from sheet metal, having a bending machine with two press beams (5-1, 5-2) aligned parallel to one another and with a lower bending tool and an upper bending tool which are attached to the press beams (5-1, 5-2) opposite one another, and having a camera for capturing images of a processing region between the bending tools , and with a display device for displaying images of the camera , and with a controller with a production program for operating the bending machine , and with a bending angle measuring device (8-1, 8-2), characterized in that the controller comprises a memory with values of a minimum leg length for different values of a bending angle to be produced on the workpiece and for different bending tools , wherein the minimum leg length is that smallest value of a leg length , measured perpendicularly with respect to a bending edge to be formed, of the component to be produced, the bending angle of which can be measured at any time of the forming using the bending angle measuring device (8-1, 8-2), and that the controller comprises a program for processing image information, wherein the program for processing image information is configured to generate a graphical length symbol of the length corresponding to the value of the minimum leg length and to display it together with the image of the processing region to scale on the bending edge to be formed on the display device .
An electromagnetic signal amplifier, comprising: a gain stage electrically disposed between a supply rail and a return rail , wherein the gain stage includes an input and an output; a rail voltage controller operably coupled to at least one of the supply rail and the return rail, the rail voltage controller being configured to provide a rail voltage responsive to a rail voltage control signal; a drive controller operably coupled to the gain stage input and configured to provide an input signal thereto responsive to a drive control signal; at least one sensor configured to sense an operational parameter of the amplifier and to provide a sensor signal corresponding thereto; and an amplifier controller adapted to receive the at least one sensor signal and in response thereto provide a rail voltage control signal to the rail voltage controller and a drive control signal to the drive controller, characterised in that the amplifier controller is further adapted to: set a rail voltage to a minimum value; set a drive signal to a minimum amplitude; measure an output signal; determine whether the output signal meets a predetermined criteria; respond to a determination the output signal does not meet the predetermined criteria by determining whether the drive signal is set to a maximum value; respond to a determination the drive signal is not set to a maximum value by increasing the drive signal; and respond to a determination the drive signal is set to a maximum value by increasing the rail voltage. a gain stage electrically disposed between a supply rail and a return rail , wherein the gain stage includes an input and an output; a rail voltage controller operably coupled to at least one of the supply rail and the return rail, the rail voltage controller being configured to provide a rail voltage responsive to a rail voltage control signal; a drive controller operably coupled to the gain stage input and configured to provide an input signal thereto responsive to a drive control signal; at least one sensor configured to sense an operational parameter of the amplifier and to provide a sensor signal corresponding thereto; and an amplifier controller adapted to receive the at least one sensor signal and in response thereto provide a rail voltage control signal to the rail voltage controller and a drive control signal to the drive controller, characterised in that the amplifier controller is further adapted to: set a rail voltage to a minimum value; set a drive signal to a minimum amplitude; measure an output signal; determine whether the output signal meets a predetermined criteria; respond to a determination the output signal does not meet the predetermined criteria by determining whether the drive signal is set to a maximum value; respond to a determination the drive signal is not set to a maximum value by increasing the drive signal; and respond to a determination the drive signal is set to a maximum value by increasing the rail voltage.
A stereo signal processing apparatus , comprising: a delay estimation unit 1401, configured to perform delay estimation based on a stereo signal of a current frame to determine an inter-channel time difference of the current frame; and a processing unit 1402, configured to: perform delay alignment processing on a first-channel signal of the current frame based on the inter-channel time difference of the current frame if a sign of the inter-channel time difference of the current frame is different from a sign of an inter-channel time difference of a previous frame, and perform delay alignment processing on a second-channel signal of the current frame based on the inter-channel time difference of the previous frame, wherein the first-channel signal is a target-channel signal of the current frame, and the second-channel signal is a signal that is in the stereo signal of the current frame and that is on a same channel as a target channel of the previous frame. a delay estimation unit 1401, configured to perform delay estimation based on a stereo signal of a current frame to determine an inter-channel time difference of the current frame; and a processing unit 1402, configured to: perform delay alignment processing on a first-channel signal of the current frame based on the inter-channel time difference of the current frame if a sign of the inter-channel time difference of the current frame is different from a sign of an inter-channel time difference of a previous frame, and perform delay alignment processing on a second-channel signal of the current frame based on the inter-channel time difference of the previous frame, wherein the first-channel signal is a target-channel signal of the current frame, and the second-channel signal is a signal that is in the stereo signal of the current frame and that is on a same channel as a target channel of the previous frame.
A catheter , comprising: a multilayer hollow body , comprising, a single-stripe hollow body that is wound by one element wire, an inner hollow body that is disposed adjacently to an inner periphery of the single-stripe hollow body , and an outer hollow body that is disposed adjacently to an outer periphery of the single-stripe hollow body ; and a distal end tip that is connected to a distal end of the multilayer hollow body ; and a connector that is connected to a proximal end of the multilayer hollow body , characterised in that the inner hollow body is a multi-stripe hollow body that is wound by a plurality of element wires in an opposite direction from the single-stripe hollow body , and the outer hollow body is a multi-stripe hollow body that is wound by a plurality of element wires in an opposite direction from the single-stripe hollow body . a multilayer hollow body , comprising, a single-stripe hollow body that is wound by one element wire, an inner hollow body that is disposed adjacently to an inner periphery of the single-stripe hollow body , and an outer hollow body that is disposed adjacently to an outer periphery of the single-stripe hollow body ; and a single-stripe hollow body that is wound by one element wire, an inner hollow body that is disposed adjacently to an inner periphery of the single-stripe hollow body , and an outer hollow body that is disposed adjacently to an outer periphery of the single-stripe hollow body ; and a distal end tip that is connected to a distal end of the multilayer hollow body ; and a connector that is connected to a proximal end of the multilayer hollow body , characterised in that the inner hollow body is a multi-stripe hollow body that is wound by a plurality of element wires in an opposite direction from the single-stripe hollow body , and the outer hollow body is a multi-stripe hollow body that is wound by a plurality of element wires in an opposite direction from the single-stripe hollow body .
A refrigeration appliance having an interior refrigeration cabin enclosed by a heat-insulating housing, a door opening and closing a front side of the refrigeration cabin and at least one extractable storage container for storing food items in a refrigerated manner, said extractable storage container communicating with railing devices at lateral sides and said railing devices being fixedly secured on receiving devices in lateral walls of the refrigeration cabin , with the railing device comprising a peripheral frame flange with a flange skirt portion , the flange skirt portion pressing against lateral wall portions of the refrigeration cabin surrounding the receiving device , with an inward skirt portion of the peripheral frame flange is fitted in a receiving device channel , characterized in that said railing device comprises a plurality of fixation rods having a fixation rod engagement end establishing a snap-fit connection with the receiving device , wherein fixation rods along a first longitudinal side of the peripheral frame flange are integrally formed with a frame edge portion of the railing device at two sides, and wherein fixation rods along a second longitudinal side of the peripheral frame flange are spaced apart from the inward skirt portion by lateral fixation rod recesses .
Heat exchanger comprising: - at least one row of tubes , - at least first and second fins that are superposed and disposed transversely to said row of tubes , each first fin comprising an oblong hole for the passage of a tube and at least one spacer for spacing apart from the second fin , the tubes being joined to the fin by the tubes being clamped in a collar formed in the fin ; and - at least one row of louvres , said row being formed in the fin and interposed between two tubes of the row of tubes, characterized in that , with the fin having a flat rectangular overall shape, the ratio between the number of louvres and the width of the fin is between 0.73 and 1.13, and in that each row of louvres of each fin comprises: - what is known as a narrow end extending between the oblong hole and the spacer , and - what is known as a wide end , the narrow ends of two consecutive rows of louvres being arranged respectively close to opposite edges of the fin . - at least one row of tubes , - at least first and second fins that are superposed and disposed transversely to said row of tubes , each first fin comprising an oblong hole for the passage of a tube and at least one spacer for spacing apart from the second fin , the tubes being joined to the fin by the tubes being clamped in a collar formed in the fin ; and - at least one row of louvres , said row being formed in the fin and interposed between two tubes of the row of tubes, - what is known as a narrow end extending between the oblong hole and the spacer , and - what is known as a wide end ,
A vaccine comprising a pharmaceutical composition which comprises a fusion polypeptide, wherein the fusion polypeptide: (a) comprises a combination of antigen Rv1813, Rv3620, and Rv2608 from a Mycobacterium species, wherein Rv1813 comprises the amino acid sequence of SEQ ID NO: 5, Rv3620 comprises the amino acid sequence of SEQ ID NO: 6, and Rv2608 comprises the amino acid sequence of SEQ ID NO: 7, and the antigens are covalently linked, or; (b) comprises a combination of antigen Rv1813, Rv3620, Rv2608 and Rv3619 from a Mycobacterium species, wherein Rv1813 comprises the amino acid sequence of SEQ ID NO: 5, Rv3620 comprises the amino acid sequence of SEQ ID NO: 6, Rv2608 comprises the amino acid sequence of SEQ ID NO: 7, and Rv3619 comprises the amino acid sequence of SEQ ID NO: 8, and the antigens are covalently linked; or, (c) is selected from a polypeptide comprising the amino acid sequence set forth in SEQ ID NO: 1; a polypeptide comprising the amino acid sequence set forth in SEQ ID NO:2; or a polypeptide comprising the amino acid sequence set forth in SEQ ID NO:3 or SEQ ID NO: 4; wherein the vaccine comprises an adjuvant, for use in a method of therapy of an active tuberculosis infection in a mammal, wherein the active tuberculosis infection is characterized by Mtb bacteria which proliferate, reproduce, expand or actively multiply at an exponential, logarithmic, or semilogarithmic rate in an organ of the mammal, and wherein said therapy is in conjunction with one or more chemotherapeutic agents effective against an M.tuberculosis infection. (a) comprises a combination of antigen Rv1813, Rv3620, and Rv2608 from a Mycobacterium species, wherein Rv1813 comprises the amino acid sequence of SEQ ID NO: 5, Rv3620 comprises the amino acid sequence of SEQ ID NO: 6, and Rv2608 comprises the amino acid sequence of SEQ ID NO: 7, and the antigens are covalently linked, or; (b) comprises a combination of antigen Rv1813, Rv3620, Rv2608 and Rv3619 from a Mycobacterium species, wherein Rv1813 comprises the amino acid sequence of SEQ ID NO: 5, Rv3620 comprises the amino acid sequence of SEQ ID NO: 6, Rv2608 comprises the amino acid sequence of SEQ ID NO: 7, and Rv3619 comprises the amino acid sequence of SEQ ID NO: 8, and the antigens are covalently linked; or, (c) is selected from a polypeptide comprising the amino acid sequence set forth in SEQ ID NO: 1; a polypeptide comprising the amino acid sequence set forth in SEQ ID NO:2; or a polypeptide comprising the amino acid sequence set forth in SEQ ID NO:3 or SEQ ID NO: 4;
Anchoring system comprising a floating platform and at least one pair of anchoring lines , configured to fix or anchor the floating platform to the seabed by means of at least one bottom section of each anchoring line , wherein each anchoring line also comprises a central section attached to a counterweight , wherein each pair of anchoring lines comprises two anchoring lines arranged in a plane that passes through a central axis of the floating platform , and located respectively on one side and the other of the central axis of the floating platform , wherein the anchoring system comprises at least one first rotating fixing means for each anchoring line , where each first rotating fixing means is fixed to a first point of the floating platform and is configured to fix each anchoring line to the floating platform at said first point of the floating platform , allowing the sliding of the anchoring line along said first rotary fixing means , characterized in that : - each anchoring line comprises at least one direct subline and one cross subline , each comprising its own anchoring cable or chain, wherein each direct subline runs from the first rotary fastening means to the counterweight without passing through the central axis of the floating platform , and wherein each cross subline runs from the first rotary fastening means to the counterweight through the central axis of the floating platform ; - wherein the system comprises at least one second rotary fastening means for each anchoring line , wherein each second rotary fastening means is fixed to a second point of the floating platform and is configured to fasten each cross subline of each anchoring line to the floating platform at said second point of the floating platform , allowing sliding of the cross subline along said second rotary fastening means , so that each cross subline runs from the first rotary fastening means to the counterweight first through the central axis of the floating platform and secondly sliding along the second rotary fastening means . - each anchoring line comprises at least one direct subline and one cross subline , each comprising its own anchoring cable or chain, wherein each direct subline runs from the first rotary fastening means to the counterweight without passing through the central axis of the floating platform , and wherein each cross subline runs from the first rotary fastening means to the counterweight through the central axis of the floating platform ; - wherein the system comprises at least one second rotary fastening means for each anchoring line , wherein each second rotary fastening means is fixed to a second point of the floating platform and is configured to fasten each cross subline of each anchoring line to the floating platform at said second point of the floating platform , allowing sliding of the cross subline along said second rotary fastening means , so that each cross subline runs from the first rotary fastening means to the counterweight first through the central axis of the floating platform and secondly sliding along the second rotary fastening means .
A support structure for an optical fiber cable adapted to be aerially installed in a configuration extending generally horizontally along a series of spaced apart vertical pilots , said support structure comprising: - An approximately c-shaped support element with an open hollow in the center, prepared for the incorporation of the optical fiber cable ; - at least one longitudinal strength member integrated in the support element ; - wherein the optical fiber cable is movably arranged in the hollow of the support element when the optical fiber cable is incorporated in the support element , characterized in that the support element has the form of a square with rounded edges and a lateral opening on one corner of the square. - An approximately c-shaped support element with an open hollow in the center, prepared for the incorporation of the optical fiber cable ; - at least one longitudinal strength member integrated in the support element ; - wherein the optical fiber cable is movably arranged in the hollow of the support element when the optical fiber cable is incorporated in the support element , characterized in that the support element has the form of a square with rounded edges and a lateral opening on one corner of the square.