mhurhangee/patent-ind-claim-en huggingface dataset:
A thermostable freeze dried rotavirus vaccine formulation wherein said vaccine formulation comprises: - at least one rotavirus serotype, and - at least one excipient comprising of a lyoprotectant, a first class of buffering agent, a salt, an ion, a bulking agent, a dispersant, an activating agent; wherein - said lyoprotectant is selected from sucrose, trehalose, sorbitol or lactose; - said first class of buffering agent is selected from HEPES, Tris, Phosphate, citrate or Histidine; - said salt is selected from Sodium chloride, Magnesium chloride, Potassium chloride. - said ion is a divalent cation selected from Zn (II) and Ca (II); - said bulking agent is Polyvinylpyrrolidone (PVP); - said dispersant is selected from Tween 20 and Tween 80; - said activating agent is selected from L-Arginine, Glycine, either alone or in combination; wherein - said lyoprotectant is in the range of 1.2% w/v to 6.0% w/v. - said first class of buffering agent is in the range of 10 mM to 50 mM; - said salt is in the range of 0mM-50mM; - said divalent cation is in the range of 0 mM to 2 mM; - said bulking agent is in the range of 2% to 6 % w/v; - said dispersant is in the range of 0 to 0.02%w/v; - said activating agent is in the range of 10 to 100mM; and wherein said vaccine formulation does not exceed potency losses exceeding Log 10 = [0.5] when stored at 5 ± 3°C up to 2 years and when stored up to 45°C for at least 18 weeks. - at least one rotavirus serotype, and - at least one excipient comprising of a lyoprotectant, a first class of buffering agent, a salt, an ion, a bulking agent, a dispersant, an activating agent; - said lyoprotectant is selected from sucrose, trehalose, sorbitol or lactose; - said first class of buffering agent is selected from HEPES, Tris, Phosphate, citrate or Histidine; - said salt is selected from Sodium chloride, Magnesium chloride, Potassium chloride. - said ion is a divalent cation selected from Zn (II) and Ca (II); - said bulking agent is Polyvinylpyrrolidone (PVP); - said dispersant is selected from Tween 20 and Tween 80; - said activating agent is selected from L-Arginine, Glycine, either alone or in combination; - said lyoprotectant is in the range of 1.2% w/v to 6.0% w/v. - said first class of buffering agent is in the range of 10 mM to 50 mM; - said salt is in the range of 0mM-50mM; - said divalent cation is in the range of 0 mM to 2 mM; - said bulking agent is in the range of 2% to 6 % w/v; - said dispersant is in the range of 0 to 0.02%w/v; - said activating agent is in the range of 10 to 100mM; and
Method for validating a homogenizing valve , comprising the steps of: - preparing an emulsion having a hydrophilic phase comprising, in weight percentage on the total weight: from 55% to 74% demineralized water, from 10% to 20% glycerin and from 3% to 4.2% butylene glycol, and a lipophilic phase comprising, in weight percentage on the total weight: from 5.1% to 5.9% squalane, from 7.2% to 8.8% caprylic acid alkyl ester and from 0.665% to 0.735% cetyl alcool; - subjecting said emulsion to forced passage within said homogenizing valve from a high pressure zone (HP) to a low pressure zone (LP) from 15 to 20 times. - preparing an emulsion having a hydrophilic phase comprising, in weight percentage on the total weight: from 55% to 74% demineralized water, from 10% to 20% glycerin and from 3% to 4.2% butylene glycol, and a lipophilic phase comprising, in weight percentage on the total weight: from 5.1% to 5.9% squalane, from 7.2% to 8.8% caprylic acid alkyl ester and from 0.665% to 0.735% cetyl alcool; - subjecting said emulsion to forced passage within said homogenizing valve from a high pressure zone (HP) to a low pressure zone (LP) from 15 to 20 times.
A base for use in promoting remineralization of a dental surface or subsurface wherein the base contacts the dental surface or subsurface after a mineralizing agent which is a phosphopeptide stabilized amorphous calcium phosphate (ACP) and/or amorphous calcium fluoride phosphate (ACFP).
Apparatus for imaging a sample , said apparatus comprising: illumination means for illuminating said sample simultaneously in a line focus or an array of foci; and detection means for detecting photons emitted or scattered from the sample simultaneously in an array of fields of view; wherein an array of sub-observation volumes in the sample , from which photons are emitted or scattered during imaging, is defined by the volumes in space where the line focus or array of foci from the illumination means overlap with the corresponding array of field of views of the detection means ; wherein the apparatus comprises a cylindrical sample holder configured to hold the sample at the lateral surface thereof, said cylindrical sample holder being rotatably arranged such that at least a portion of said sample can be transported through at least one of said sub-observation volumes by rotating the cylindrical sample holder ; and wherein the central axes of the line focus or array of foci from the illumination means and the corresponding array of field of views of the detection means are substantially parallel; characterized in that the apparatus further comprises a coating device arranged in close proximity of an outward facing surface of the cylindrical sample holder for spreading a liquid layer on the outward facing surface of the cylindrical sample holder during rotation. illumination means for illuminating said sample simultaneously in a line focus or an array of foci; and detection means for detecting photons emitted or scattered from the sample simultaneously in an array of fields of view; wherein an array of sub-observation volumes in the sample , from which photons are emitted or scattered during imaging, is defined by the volumes in space where the line focus or array of foci from the illumination means overlap with the corresponding array of field of views of the detection means ; wherein the apparatus comprises a cylindrical sample holder configured to hold the sample at the lateral surface thereof, said cylindrical sample holder being rotatably arranged such that at least a portion of said sample can be transported through at least one of said sub-observation volumes by rotating the cylindrical sample holder ; and wherein the central axes of the line focus or array of foci from the illumination means and the corresponding array of field of views of the detection means are substantially parallel; characterized in that the apparatus further comprises a coating device arranged in close proximity of an outward facing surface of the cylindrical sample holder for spreading a liquid layer on the outward facing surface of the cylindrical sample holder during rotation.
A hydrofoil simulator structure, comprising a tank , in which a water current is generated, and a frame which supports an elastic trampoline , positioned above the water surface of said tank ; said structure also comprising a series of elastic ropes associated with a trapeze harness suitable to be worn by a user , who stands on a board of a hydrofoil having wings immersed in said water; wherein said elastic trampoline has a hole to allow the mast of the hydrofoil to pass through.
A clamping device comprising a clamp bar ; a first jaw assembly coupled to the clamp bar , wherein the first jaw assembly comprises a first jaw ; wherein the first jaw assembly further comprises a jaw support , characterised in that the jaw support is movably coupled to the clamp bar, together with a locking mechanism for securing the jaw support to the clamp bar , wherein the jaw support comprises a slanting surface, wherein the slanting surface tilts toward the first jaw at a portion of the jaw support nearer the clamp bar , wherein the first jaw is flexibly coupled to the jaw support , wherein the first jaw and the jaw support are configured to form a cavity, a second jaw assembly coupled to the clamp bar , wherein the second jaw assembly comprises a second jaw , wherein the first jaw and the second jaw are configured for clamping on an object, a pulling element coupled to the first jaw assembly , wherein the pulling element is disposed in the cavity between the first jaw and the jaw support , wherein the coupling between the pulling element and the first jaw assembly comprises a slanting interface, wherein the slanting interface is configured so that when a force is applied to the pulling element in a direction comprising a vertical direction, a second force is generated pushing the first jaw in a direction comprising a direction from the first jaw to the second jaw . wherein the first jaw assembly comprises a first jaw ; wherein the first jaw assembly further comprises a jaw support , characterised in that the jaw support is movably coupled to the clamp bar, together with a locking mechanism for securing the jaw support to the clamp bar , wherein the jaw support comprises a slanting surface, wherein the slanting surface tilts toward the first jaw at a portion of the jaw support nearer the clamp bar , wherein the first jaw is flexibly coupled to the jaw support , wherein the first jaw and the jaw support are configured to form a cavity, wherein the second jaw assembly comprises a second jaw , wherein the first jaw and the second jaw are configured for clamping on an object, wherein the pulling element is disposed in the cavity between the first jaw and the jaw support , wherein the coupling between the pulling element and the first jaw assembly comprises a slanting interface, wherein the slanting interface is configured so that when a force is applied to the pulling element in a direction comprising a vertical direction, a second force is generated pushing the first jaw in a direction comprising a direction from the first jaw to the second jaw .
An immunogenic composition comprising, as effective ingredients: an immunogenic microparticle composed of an antigen-adjuvant microparticle complex wherein an antigen(s) is/are encapsulated in an adjuvant microparticle composed of an amphiphilic polymer(s) whose hydrophobic segment(s) is/are poly(lactic-co-glycolic acid) and whose hydrophilic segment is a polysaccharide; and a surfactant; said surfactant being encapsulated in said immunogenic microparticle and comprising a fatty acid ester structure.
A method in a network node , comprising: obtaining a length of a paging transmission window within a discontinuous reception cycle of a first type configured in a first cell; obtaining at least one of a number of discontinuous reception cycles of a second type remaining within the paging transmission window with respect to a reference time in the first cell and an amount of time remaining within the paging transmission window starting from the reference time, wherein a discontinuous reception cycle of the second type is shorter than the discontinuous reception cycle of the first type; and determining whether a paging message can be transmitted in the first cell based on the obtained at least one of the number of discontinuous reception cycles of the second type remaining within the paging transmission window with respect to the reference time in the first cell and the amount of time remaining within the paging transmission window starting from the reference time, and transmitting the paging message in the first cell upon determining that the number of discontinuous reception cycles of the second type remaining within the paging transmission window is equal to or larger than a threshold value, the method characterized in that the threshold value is two or larger. obtaining a length of a paging transmission window within a discontinuous reception cycle of a first type configured in a first cell; obtaining at least one of a number of discontinuous reception cycles of a second type remaining within the paging transmission window with respect to a reference time in the first cell and an amount of time remaining within the paging transmission window starting from the reference time, wherein a discontinuous reception cycle of the second type is shorter than the discontinuous reception cycle of the first type; and determining whether a paging message can be transmitted in the first cell based on the obtained at least one of the number of discontinuous reception cycles of the second type remaining within the paging transmission window with respect to the reference time in the first cell and the amount of time remaining within the paging transmission window starting from the reference time, and transmitting the paging message in the first cell upon determining that the number of discontinuous reception cycles of the second type remaining within the paging transmission window is equal to or larger than a threshold value, the method characterized in that the threshold value is two or larger.
A ciphertext management method for managing ciphertext data, comprising: encrypting, by means of an encryption unit included in a ciphertext management apparatus, secret data using key data so as to generate the ciphertext data; dividing, by means of a dividing unit included in the ciphertext management apparatus, the ciphertext data and the key data so as to generate m (m represents an integer) pieces of divided ciphertext data and n (n represents an integer) pieces of divided key data; and linking, by means of a distribution unit included in the ciphertext management apparatus, the divided ciphertext data and the divided key data, characterised in that , in the linking, equal pairs are generated such that each piece of divided ciphertext data and each piece of divided key data are used only once to perform pairing, and wherein unequal pairs are generated such that one piece from among at least one from among the divided ciphertext data and the divided key data is used multiple times to perform pairing. encrypting, by means of an encryption unit included in a ciphertext management apparatus, secret data using key data so as to generate the ciphertext data; dividing, by means of a dividing unit included in the ciphertext management apparatus, the ciphertext data and the key data so as to generate m (m represents an integer) pieces of divided ciphertext data and n (n represents an integer) pieces of divided key data; and linking, by means of a distribution unit included in the ciphertext management apparatus, the divided ciphertext data and the divided key data, characterised in that , in the linking, equal pairs are generated such that each piece of divided ciphertext data and each piece of divided key data are used only once to perform pairing, and wherein unequal pairs are generated such that one piece from among at least one from among the divided ciphertext data and the divided key data is used multiple times to perform pairing.
A method of increasing starch gelatinization in a starch-containing pet food product, comprising the steps of: a. providing a multi-extrusion apparatus including a primary extruder and a plurality of satellite extruders , each extruder having an axially rotatable screw within a barrel and configured to move a material from a barrel inlet , through the barrel and out through a barrel outlet , a manifold having an inlet and a plurality of separate outlets and operable to separate the material passing through the barrel outlet of the primary extruder into a plurality of separate material streams, each stream passing through one of the manifold outlets and into an inlet of one of the satellite extruders ; b. processing a starch-containing pet food mixture by extrusion through the primary extruder ; c. next passing the extruded starch-containing mixture through the manifold to form a plurality of separate materials streams and directing each of the streams to an inlet of one of the satellite extruders ; and d. processing the material streams by extrusion through individual ones of the satellite extruders . a. providing a multi-extrusion apparatus including a primary extruder and a plurality of satellite extruders , each extruder having an axially rotatable screw within a barrel and configured to move a material from a barrel inlet , through the barrel and out through a barrel outlet , a manifold having an inlet and a plurality of separate outlets and operable to separate the material passing through the barrel outlet of the primary extruder into a plurality of separate material streams, each stream passing through one of the manifold outlets and into an inlet of one of the satellite extruders ; b. processing a starch-containing pet food mixture by extrusion through the primary extruder ; c. next passing the extruded starch-containing mixture through the manifold to form a plurality of separate materials streams and directing each of the streams to an inlet of one of the satellite extruders ; and d. processing the material streams by extrusion through individual ones of the satellite extruders .
A composite glass article comprising a first region and a second region in contact with the first region at an interface, the first region comprising a lithium-based glass ceramic, the lithium-based glass ceramic comprising a ceramic phase and a residual glass phase, wherein the ceramic phase comprises a lithium aluminosilicate phase having a lithium aluminosilicate stuffed β-quartz structure, and the second region comprising a lithium zinc aluminosilicate glass, wherein the lithium zinc aluminosilicate glass is transparent, comprises at least one sensitizing agent and at least one nucleating agent and is positively photosensitive to ultraviolet radiation; wherein the lithium zinc aluminosilicate glass comprises: from 68 wt% to 78 wt % SiO 2 ; up to 1 wt% K 2 O; from 5 wt% to 10 wt% ZnO; up to 10 wt% Br-; from 5 wt% to 14 wt% Al 2 O 3 ; from 0.01 wt% to 0.07 wt% CeO 2 ; from 0.01 wt% to 0.05 wt% Ag; from 5 wt% to 10 wt% Li 2 O; up to 1 wt% Na 2 O; from 0 wt% to 3 wt% F - ; and up to 5 wt% ZrO 2 .
A lighting driver , comprising: a rectifier having an input configured to receive an AC Mains voltage and further having an output configured to output a rectified voltage ; an output stage configured to supply an output current in response to the rectified voltage ; a surge protection circuit , comprising: a voltage clamping device (MOV2) connected across the output of the rectifier , and a differentiator circuit (843/845/847/849, 943/945/947/949) configured to differentiate between a temporary voltage spike at the input to the rectifier and a loss of a neutral connection to the lighting driver, and when the temporary voltage spike is detected to activate the voltage clamping device (MOV2) to clamp the rectified voltage until the temporary voltage spike ends, and when the loss of the neutral connection is detected to latch the voltage clamping device (MOV2) into a disabled state until the AC Mains voltage input to the lighting driver is turned off. a rectifier having an input configured to receive an AC Mains voltage and further having an output configured to output a rectified voltage ; an output stage configured to supply an output current in response to the rectified voltage ; a surge protection circuit , comprising: a voltage clamping device (MOV2) connected across the output of the rectifier , and a differentiator circuit (843/845/847/849, 943/945/947/949) configured to differentiate between a temporary voltage spike at the input to the rectifier and a loss of a neutral connection to the lighting driver, and when the temporary voltage spike is detected to activate the voltage clamping device (MOV2) to clamp the rectified voltage until the temporary voltage spike ends, and when the loss of the neutral connection is detected to latch the voltage clamping device (MOV2) into a disabled state until the AC Mains voltage input to the lighting driver is turned off. a voltage clamping device (MOV2) connected across the output of the rectifier , and a differentiator circuit (843/845/847/849, 943/945/947/949) configured to differentiate between a temporary voltage spike at the input to the rectifier and a loss of a neutral connection to the lighting driver, and when the temporary voltage spike is detected to activate the voltage clamping device (MOV2) to clamp the rectified voltage until the temporary voltage spike ends, and when the loss of the neutral connection is detected to latch the voltage clamping device (MOV2) into a disabled state until the AC Mains voltage input to the lighting driver is turned off.
A computer enabled method for controlling distribution of encrypted media content to a player from a source , the player being associated with a host device , the method comprising the acts of: the player exchanging authentication data with the host device; the host device sending a request for a token to the source, wherein the request includes a global universal identifier of the source and of the player, and additional authentication information pertaining to the global universal identifiers; the host device receiving, from the source, a token generated by the source in response to the source receiving the request for the token from the host; the player receiving the token generated by the source, via the host device, wherein the token is encrypted with a key related to the player; sending identification data from the player to the source, the data including the token generated by the source and the global universal identifier of the player; and accessing at the player, in response to the source having been sent the token from the player, at least one key received from the source relating to decryption of the media content to be distributed; receiving the encrypted media content at the player; and; decrypting the encrypted media content using the key. the player exchanging authentication data with the host device; the host device sending a request for a token to the source, wherein the request includes a global universal identifier of the source and of the player, and additional authentication information pertaining to the global universal identifiers; the host device receiving, from the source, a token generated by the source in response to the source receiving the request for the token from the host; the player receiving the token generated by the source, via the host device, wherein the token is encrypted with a key related to the player; sending identification data from the player to the source, the data including the token generated by the source and the global universal identifier of the player; and accessing at the player, in response to the source having been sent the token from the player, at least one key received from the source relating to decryption of the media content to be distributed; receiving the encrypted media content at the player; and; decrypting the encrypted media content using the key.