mhurhangee/patent-ind-claim-en huggingface dataset:
A method of drilling a borehole in an earth formation, comprising: deploying a drilling assembly at an earth formation, the drilling assembly including a drill bit and a drill string ; performing a drilling operation by the drilling assembly according to one or more operational parameters to advance the drilling assembly through the formation, wherein performing the drilling operation includes rotating the drill bit and at least a portion of the drill string ; during the advancing, monitoring a downhole condition; determining whether the downhole condition indicates at least one of a cuttings accumulation in the borehole and wear of a downhole component; and in response to the downhole condition indicating the cuttings accumulation or the wear, adjusting at least one operational parameter to induce or adjust an oscillating motion in the drill string , the oscillating motion causing at least one of a reduction in the cuttings accumulation and a reduction of wear of the downhole component. deploying a drilling assembly at an earth formation, the drilling assembly including a drill bit and a drill string ; performing a drilling operation by the drilling assembly according to one or more operational parameters to advance the drilling assembly through the formation, wherein performing the drilling operation includes rotating the drill bit and at least a portion of the drill string ; during the advancing, monitoring a downhole condition; determining whether the downhole condition indicates at least one of a cuttings accumulation in the borehole and wear of a downhole component; and in response to the downhole condition indicating the cuttings accumulation or the wear, adjusting at least one operational parameter to induce or adjust an oscillating motion in the drill string , the oscillating motion causing at least one of a reduction in the cuttings accumulation and a reduction of wear of the downhole component.
A mesh-networkable device for use in a mesh network comprising a controller and a plurality of mesh-networked devices , operable to communicate with the controller ; the mesh-networkable device comprising a timing unit , and being operable to communicate in accordance with a frequency hopping sequence; wherein the mesh-networkable device is operable to switch between a transmit mode, in which it is capable of transmitting messages to one or more other mesh-networked device and/or the controller and an inactive mode, in which it is unable to transmit to or receive messages from one or more other mesh-networked devices or the controller ; wherein the mesh-networkable device is operable to synchronise its timing unit to the mesh-networked devices and/or the controller and operable to switch to the transmit mode at time intervals having a pseudorandom component.
Polypeptide, protein, construct, compound or other chemical entity that comprises the amino acid sequence Alb-23 as set out in SEQ ID NO: 1 or a variant of Alb-23, wherein Alb-23 or the variant of Alb-23 is directed against human serum albumin, and one or more other amino acid sequences, binding domains, binding units or other moieties or chemical entities, suitably linked to each other either directly or optionally via one or more suitable linkers or spacers, wherein said variant of Alb-23 comprises: (i) the amino acid motif GP on positions 44 and 45; (ii) the amino acid motif SKN on positions 74 to 76; (iii) a CDR1 that is the amino acid sequence SFGMS as set out in SEQ ID NO:29; (iv) a CDR2 that is the amino acid sequence SISGSGSDTLYADSVKG as set out in SEQ ID NO:30; (v) a CDR3 that is the amino acid sequence GGSLSR as set out in SEQ ID NO:31; and that preferably also comprises (vi) a G at position 16; and/or (vii) an R at position 83 and preferably both a G at position 16 and an R at position 83; wherein said variant of Alb-23 further comprises between 1 and 7, such as between 1 and 5 further amino acid differences with the sequence given in SEQ ID NO:1; and wherein said variant of Alb-23 has improved thermal stability as determined by measuring the Tm compared to Alb-8 having the sequence: (i) the amino acid motif GP on positions 44 and 45; (ii) the amino acid motif SKN on positions 74 to 76; (iii) a CDR1 that is the amino acid sequence SFGMS as set out in SEQ ID NO:29; (iv) a CDR2 that is the amino acid sequence SISGSGSDTLYADSVKG as set out in SEQ ID NO:30; (v) a CDR3 that is the amino acid sequence GGSLSR as set out in SEQ ID NO:31; and that preferably also comprises (vi) a G at position 16; and/or (vii) an R at position 83 and preferably both a G at position 16 and an R at position 83;
An infilling element for formwork for the building sector, having a dome-like shape so as to form arc-like openings which can be arranged between the perimetric walls that delimit the crawl space and legs supported by tubular elements which are arranged vertically on the ground, said infilling element having a flat base proximate to the longitudinal ends of which there protrude upward a first tab , which is shaped complementarily to said opening and is provided with a lip for engaging the first perimetric edge of said opening , and at least one second tab , which acts as a gasket in case of resting against said walls , said longitudinal ends of said flat base having an arc-like shape, characterized in that said flat base is longer than the dimension of the base diameter of said opening , the longitudinal ends thereof being shaped complementarily to the lateral surface of said tubular element , at said longitudinal ends there being means for temporary engagement with the upper end of each one of said tubular elements , said means being constituted by a fork which is shaped like an inverted letter C between the wings of which it is possible to insert said upper end of each one of said tubular elements .
An automatic swaying ornament, including a base , inside the base a sub-portion and a space applied for the sub-portion to sway, wherein the automatic swaying ornament further comprises: a plurality of connection shafts , arranged symmetrically on both sides of the sub-portion, and extending following each side; an end of each of the connection shafts being set as a sharp tip; a plurality of connection slots , arranged in both sides of an inner side of the base and adapted to the connection shafts, applied to connecting with the sub-portion; an opening of each of the connection slots having a blocking portion arranged, applied to preventing the connection shafts from coming off; a cover plate , arranged on and welded to the base, applied to covering the connection slots and to make the connection shafts to be enclosed in the connection slots , having the sub-portion exposing only; characterized in that the connection slots are U-shaped and in that the automatic swaying ornament further comprises a plurality of through holes , each arranged on one side of each of the connection slots, to enable a user to adjust the connection shafts and to remove external foreign matter from the connection slots through the through holes from a back of the base . a plurality of connection shafts , arranged symmetrically on both sides of the sub-portion, and extending following each side; an end of each of the connection shafts being set as a sharp tip; a plurality of connection slots , arranged in both sides of an inner side of the base and adapted to the connection shafts, applied to connecting with the sub-portion; an opening of each of the connection slots having a blocking portion arranged, applied to preventing the connection shafts from coming off; a cover plate , arranged on and welded to the base, applied to covering the connection slots and to make the connection shafts to be enclosed in the connection slots , having the sub-portion exposing only; characterized in that the connection slots are U-shaped and in that the automatic swaying ornament further comprises a plurality of through holes , each arranged on one side of each of the connection slots, to enable a user to adjust the connection shafts and to remove external foreign matter from the connection slots through the through holes from a back of the base .
A vibratory screening machine , comprising: an outer frame ; an inner frame connected to the outer frame ; a vibratory motor assembly attached to the inner fame such that the vibratory motor assembly vibrates the inner frame ; a plurality of screen deck assemblies attached to the inner frame and configured in a stacked arrangement, each one of the plurality of screen deck assemblies configured to receive replaceable screen assemblies , the screen assemblies secured to the screen deck assemblies by tensioning the screen assemblies in a direction that a material to be screened flows across the screen assemblies ; an undersized material discharge assembly configured to receive materials that pass through the screen assemblies ; and an oversized material discharge assembly configured to receive materials that pass over a top surface of the screen assemblies , wherein the undersized material discharge assembly includes an undersized chute in communication with each one of the plurality of screen deck assemblies , and wherein the oversized material discharge assembly includes an oversized chute assembly in communication with each one of the plurality of screen deck assemblies . an outer frame ; an inner frame connected to the outer frame ; a vibratory motor assembly attached to the inner fame such that the vibratory motor assembly vibrates the inner frame ; a plurality of screen deck assemblies attached to the inner frame and configured in a stacked arrangement, each one of the plurality of screen deck assemblies configured to receive replaceable screen assemblies , the screen assemblies secured to the screen deck assemblies by tensioning the screen assemblies in a direction that a material to be screened flows across the screen assemblies ; an undersized material discharge assembly configured to receive materials that pass through the screen assemblies ; and an oversized material discharge assembly configured to receive materials that pass over a top surface of the screen assemblies , wherein the undersized material discharge assembly includes an undersized chute in communication with each one of the plurality of screen deck assemblies , and wherein the oversized material discharge assembly includes an oversized chute assembly in communication with each one of the plurality of screen deck assemblies .
A method of mass producing different products in an automated production station having a plurality of part-processing devices , comprising: a) identifying a first workpiece received in the production station; b) selecting control parameters associated with the first workpiece identified in (a); c) electronically synchronizing the part-processing devices based on the control parameters selected in (b) to perform coordinated operations on the first workpiece for producing a first product, the operations including mating the first workpiece with a respective second workpiece received in the production station for assembly of the first product; d) identifying a third workpiece received in the production station, the third workpiece shaped differently from the first workpiece; e) selecting control parameters associated with the third workpiece identified in (d); f) electronically synchronizing the part-processing devices based on the control parameters selected in (e) to perform coordinated operations on the third workpiece for producing a second product, the operations including mating the third workpiece with another respective second workpiece received in the production station for assembly of the second product, each second workpiece having a common shape different from that of the first and third workpieces; and g) repeating (a) to (c) to produce a plurality of the first products and repeating (d) to (f) to produce a plurality of the second products interchangeably with the first products in a continuous mass production process. a) identifying a first workpiece received in the production station; b) selecting control parameters associated with the first workpiece identified in (a); c) electronically synchronizing the part-processing devices based on the control parameters selected in (b) to perform coordinated operations on the first workpiece for producing a first product, the operations including mating the first workpiece with a respective second workpiece received in the production station for assembly of the first product; d) identifying a third workpiece received in the production station, the third workpiece shaped differently from the first workpiece; e) selecting control parameters associated with the third workpiece identified in (d); f) electronically synchronizing the part-processing devices based on the control parameters selected in (e) to perform coordinated operations on the third workpiece for producing a second product, the operations including mating the third workpiece with another respective second workpiece received in the production station for assembly of the second product, each second workpiece having a common shape different from that of the first and third workpieces; and g) repeating (a) to (c) to produce a plurality of the first products and repeating (d) to (f) to produce a plurality of the second products interchangeably with the first products in a continuous mass production process.
A client device comprising a Widevine standard content protection decoder, comprising: a receiver for receiving an asset including video content and a manifest file for the asset, wherein the video content is protected according to a further standard, the Widevine and the further standards being in accordance with a common standard but being different to each other; a search engine for identifying a KeyID field in the received manifest file; a creation module for creating a Widevine content protection header for the asset in accordance with the Widevine standard based on the KeyID field, the created Widevine content protection header including: a KeyID field corresponding to the identified KeyID field of the asset manifest file; and a ContentID field comprising the value of the identified KeyID field of the asset manifest file, but following a specific format, wherein the format of the KeyID field and the created ContentID field of the created Widevine header are different; an interface for transmitting a request for a licence to a Widevine licence server including the created Widevine content protection header, and for receiving a Widevine licence responsive to the request; and a controller for accessing the video content of the asset using the received Widevine license. a receiver for receiving an asset including video content and a manifest file for the asset, wherein the video content is protected according to a further standard, the Widevine and the further standards being in accordance with a common standard but being different to each other; a search engine for identifying a KeyID field in the received manifest file; a creation module for creating a Widevine content protection header for the asset in accordance with the Widevine standard based on the KeyID field, the created Widevine content protection header including: a KeyID field corresponding to the identified KeyID field of the asset manifest file; and a ContentID field comprising the value of the identified KeyID field of the asset manifest file, but following a specific format, wherein the format of the KeyID field and the created ContentID field of the created Widevine header are different; an interface for transmitting a request for a licence to a Widevine licence server including the created Widevine content protection header, and for receiving a Widevine licence responsive to the request; and a controller for accessing the video content of the asset using the received Widevine license.
A method of lowering the sugar content of a fruit juice, the method comprising: (a) separating solid components from the juice; (b) contacting a first adsorbent with the juice, the first adsorbent being active so as to have a higher relative selectivity for disaccharides than for monosaccharides and, optionally, for organic acids, wherein the first absorbent comprises a zeolite, to treat the juice and obtain a treated juice having at least 30% less sugar than the untreated form of the juice and a ratio of disaccharides to total sugars below at least 30 percent; (c) hydrolyzing the disaccharides bound to the first adsorbent into monosaccharides after the juice has contacted the first adsorbent; and (d) washing the first adsorbent with a solution to remove the hydrolyzed monosaccharides. (a) separating solid components from the juice; (b) contacting a first adsorbent with the juice, the first adsorbent being active so as to have a higher relative selectivity for disaccharides than for monosaccharides and, optionally, for organic acids, wherein the first absorbent comprises a zeolite, to treat the juice and obtain a treated juice having at least 30% less sugar than the untreated form of the juice and a ratio of disaccharides to total sugars below at least 30 percent; (c) hydrolyzing the disaccharides bound to the first adsorbent into monosaccharides after the juice has contacted the first adsorbent; and (d) washing the first adsorbent with a solution to remove the hydrolyzed monosaccharides.
A double-sided adhesive bonding element in use with a bundle for an adhesive and detachable connection at the exteriors of at least two articles or containers bonded to each other to form a bundle of at least two articles or containers bonded adhesively to each other, wherein the bonding element comprises at least one carrier layer as well as bonding layers or adhesive layers following planarly on both sides thereto for establishing the bonded connection to the particular exteriors of the joined articles or containers , characterised in that a first adhesive force (F a1 ) between the article exteriors and the bonding layers or adhesive layers of the bonding element at the particular bonding points is greater than a second adhesive force (F a2 ) between the bonding layers or adhesive layers and the carrier layer .
A porous medium comprising a porous support and a crosslinked polymer coating, wherein the polymer of the crosslinked polymer coating comprises at least one polymerized monomer (A), at least one polymerized monomer (B), and at least one polymerized monomer (C), wherein monomer (A) has the formula: CH 2 =C(R 1 )―C(=O)―NH―(CH 2 ) n ― NR 2 R 3 , wherein n is 1-6, monomer (B) has the formula: CH 2= C(R 4 )―C(=O)―NR 5 R 6 , and monomer (C) has the formula: CH 2= C(R 8 )―C(=O)―NH―C(R 7 ) 2 ―(CH 2 ) m -X, wherein m is 1-3 and X is SO 3 H or COOH; wherein R 1 , R 4 , and R 8 are independently selected from H and C 1 -C 6 alkyl, and R 2 , R 3 , R 5 , R 6 , and R 7 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl; wherein the crosslinked polymer coating is formed by in situ crosslinking of the polymer coating on the porous support, and the crosslinking agent is selected from the group consisting of diepoxide, dialdehyde, dihalide, and diester. wherein the polymer of the crosslinked polymer coating comprises at least one polymerized monomer (A), at least one polymerized monomer (B), and at least one polymerized monomer (C), wherein monomer (A) has the formula: CH 2 =C(R 1 )―C(=O)―NH―(CH 2 ) n ― NR 2 R 3 , wherein n is 1-6, monomer (B) has the formula: CH 2= C(R 4 )―C(=O)―NR 5 R 6 , and monomer (C) has the formula: CH 2= C(R 8 )―C(=O)―NH―C(R 7 ) 2 ―(CH 2 ) m -X, wherein m is 1-3 and X is SO 3 H or COOH; monomer (A) has the formula: CH 2 =C(R 1 )―C(=O)―NH―(CH 2 ) n ― NR 2 R 3 , wherein n is 1-6, monomer (B) has the formula: CH 2= C(R 4 )―C(=O)―NR 5 R 6 , and monomer (C) has the formula: CH 2= C(R 8 )―C(=O)―NH―C(R 7 ) 2 ―(CH 2 ) m -X, wherein m is 1-3 and X is SO 3 H or COOH; wherein R 1 , R 4 , and R 8 are independently selected from H and C 1 -C 6 alkyl, and R 2 , R 3 , R 5 , R 6 , and R 7 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl; wherein the crosslinked polymer coating is formed by in situ crosslinking of the polymer coating on the porous support, and the crosslinking agent is selected from the group consisting of diepoxide, dialdehyde, dihalide, and diester. R 1 , R 4 , and R 8 are independently selected from H and C 1 -C 6 alkyl, and R 2 , R 3 , R 5 , R 6 , and R 7 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl; wherein the crosslinked polymer coating is formed by in situ crosslinking of the polymer coating on the porous support, and the crosslinking agent is selected from the group consisting of diepoxide, dialdehyde, dihalide, and diester.
A composition for straightening hair comprising: (a) at least one reducing agent selected from thiolactic acid and salts thereof; (b) at least one neutralizing agent selected from organic amines, alkali metal hydroxides, alkali earth metal hydroxides, alkali metal carbonates, alkali metal phosphates, and mixtures thereof; (c) at least one dimethicone copolyol which is present in an amount of from 0.5% to 5% by weight, preferably from 1% to 4% by weight, more preferably from 1.5% to 3% by weight, and even more preferably from 2% to 3% by weight; (d) from 0.1% to 2% by weight of at least one cellulose compound chosen from hydroxyalkyl cellulose, alkylcellulose, and mixtures thereof; and (e) water; wherein the pH of the composition ranges from 2 to less than 7; all weights being based on the total weight of the composition. (a) at least one reducing agent selected from thiolactic acid and salts thereof; (b) at least one neutralizing agent selected from organic amines, alkali metal hydroxides, alkali earth metal hydroxides, alkali metal carbonates, alkali metal phosphates, and mixtures thereof; (c) at least one dimethicone copolyol which is present in an amount of from 0.5% to 5% by weight, preferably from 1% to 4% by weight, more preferably from 1.5% to 3% by weight, and even more preferably from 2% to 3% by weight; (d) from 0.1% to 2% by weight of at least one cellulose compound chosen from hydroxyalkyl cellulose, alkylcellulose, and mixtures thereof; and (e) water; wherein the pH of the composition ranges from 2 to less than 7; all weights being based on the total weight of the composition. wherein the pH of the composition ranges from 2 to less than 7; all weights being based on the total weight of the composition.