mhurhangee/patent-ind-claim-en huggingface dataset:
A cold-rolled steel sheet which has a composition comprising, by weight, 0.1% to 0.15% of carbon (C), 0% to 0.2% of silicon (Si), 2.3% to 3.0% of manganese (Mn), 0.001% to 0.10% of phosphorus (P), 0% to 0.010% of sulfur (S), 0.01% to 0.10% of Sol. aluminum (Al), more than 0% and 0.010% or less of nitrogen (N), 0.3% to 0.9% of chrome (Cr), 0.0010% to 0.0030% of boron (B), 0.01% to 0.03% of titanium (Ti), 0.01% to 0.03% of niobium (Nb), a remainder consisting of iron (Fe) and other unavoidable impurities, wherein a microstructure comprises, by area%, 90% or greater of martensite and tempered martensite, and 10% or less of ferrite and bainite, wherein a fraction of the tempered martensite in the total of martensite and tempered martensite is, by area%, 90% or greater, wherein a ratio b/a of C + Mn concentration in the martensite a to C + Mn concentration in the total of ferrite and bainite b is 0.65 or greater. wherein a yield strength is 920MPa or greater, a tensile strength is 1200MPa or greater, a yield ratio is 0.77 or greater, elongation, measured by a tensile test of a specimen of JIS No. 5, is 6% or greater, and wherein a bending index R/t of 3% or lower, measured by bending test where bending index R/t: R is Radius of Curvature and t is Thickness of Specimen. wherein a microstructure comprises, by area%, 90% or greater of martensite and tempered martensite, and 10% or less of ferrite and bainite, wherein a fraction of the tempered martensite in the total of martensite and tempered martensite is, by area%, 90% or greater, wherein a ratio b/a of C + Mn concentration in the martensite a to C + Mn concentration in the total of ferrite and bainite b is 0.65 or greater. wherein a yield strength is 920MPa or greater, a tensile strength is 1200MPa or greater, a yield ratio is 0.77 or greater, elongation, measured by a tensile test of a specimen of JIS No. 5, is 6% or greater, and wherein a bending index R/t of 3% or lower, measured by bending test where bending index R/t: R is Radius of Curvature and t is Thickness of Specimen.
A method for communication, comprising: accessing all sub-channels in a communication frame ; generating a counter, that counts down, beginning with a received first listen before talk, LBT, communication symbol; decrementing the counter by every LBT symbol ; determining whether the counter reaches zero before receiving a second LBT communication symbol ; if the counter reaches zero, determining whether a desired number N of contiguous sub-channels are available ; and if the desired number N of contiguous sub-channels are available, transmitting an LBT symbol on the N contiguous sub-channels . accessing all sub-channels in a communication frame ; generating a counter, that counts down, beginning with a received first listen before talk, LBT, communication symbol; decrementing the counter by every LBT symbol ; determining whether the counter reaches zero before receiving a second LBT communication symbol ; if the counter reaches zero, determining whether a desired number N of contiguous sub-channels are available ; and if the desired number N of contiguous sub-channels are available, transmitting an LBT symbol on the N contiguous sub-channels .
A reverse charging device, comprising a processor, a Standard Downstream Port, SDP, and a first link on which a Charging Downstream Port, CDP, interface chip is arranged, wherein when it is detected that an On-The-Go, OTG adapter is plugged into the SDP, the processor is configured to be connected with the SDP through the first link, and the processor, the CDP interface chip and the SDP are configured to form a CDP to perform reverse charging through the CDP and the OTG adapter, the CDP having a current transmission capability higher than the SDP, characterized in that , the device further comprises a second link, wherein the processor is connected with the SDP through the second link to perform forward charging based on an established connection. wherein when it is detected that an On-The-Go, OTG adapter is plugged into the SDP, the processor is configured to be connected with the SDP through the first link, and the processor, the CDP interface chip and the SDP are configured to form a CDP to perform reverse charging through the CDP and the OTG adapter, the CDP having a current transmission capability higher than the SDP, characterized in that , the device further comprises a second link, wherein the processor is connected with the SDP through the second link to perform forward charging based on an established connection.
A cooling appliance comprising a body , at least one cooler compartment provided in the body , a door enabling access into the body , a first water chamber adapted to store water therein, disposed on the surface of the door facing the body when the door is closed, an ice chamber placed in the first water chamber so as to rest on its base, a thermoelectric module having an upper surface and a lower surface , whose upper surface contacts the base of the ice chamber , a control unit enabling ice formation in the ice chamber by operating the thermoelectric module so as to cool the upper surface and heat the lower surface when the first water chamber is filled with water such that the ice chamber remains in water, and enabling ice pieces to leave the ice chamber after completion of ice formation by operating the thermoelectric module so as to heat the upper surface and cool the lower surface , characterized by a cover for covering the ice chamber when closed, wherein the control unit is configured to close the cover throughout the period in which the upper surface is cooled, isolating the ice chamber from the first water chamber in an almost liquid tight manner, and open the cover upon heating of the upper surface , allowing the ice pieces to leave the ice chamber .
An antiperspirant composition free from aluminum and/or zirconium salt, and/or zinc based antiperspirant active, said antiperspirant composition comprising an oil-in-water emulsion, wherein said emulsion comprises oil phase and an emulsifier, wherein said oil phase comprises a lipophilic material having a melting point greater than 40°C; wherein said composition comprises 6 to 50% of said lipophilic material based on total weight of the composition; wherein said lipophilic material is a hydrogenated oil, a fatty alcohol, a fatty acid, a fatty ester, a petroleum oil, a wax or a mixture thereof.
An antisense oligonucleotide which binds a human Sirtuin 6 (SIRT6) natural antisense transcript for use as a therapeutic compound, wherein said antisense oligonucleotide increases the expression of human Sirtuin 6 (SIRT6) (SEQ ID NO: 4), and wherein the natural antisense transcript has the nucleic acid sequence as set forth in SEQ ID NOs: 13 or 14.
Method for calculating a cryptographic quantity (S) relating to a message (M), the method being implemented by an electronic calculation module and comprising: - calculation of the cryptographic quantity (S) relating to the message (M) via a cryptographic algorithm, the cryptographic algorithm being a discrete logarithm algorithm on an elliptic curve defined over a cyclic group (G), the elliptic curve satisfying the following equation: y 2 = x 3 + A . x + B mod p characterised in that the cyclic group (G) is a field extension of degree 2 of the field ( ) where p = 2 255 -19, and in that the coefficients A and B satisfy A = − 30 + 140 11 . 2 and B = 56 − 560 11 . 2 , respectively, the elliptic curve then satisfying the following equation: - calculation of the cryptographic quantity (S) relating to the message (M) via a cryptographic algorithm, the cryptographic algorithm being a discrete logarithm algorithm on an elliptic curve defined over a cyclic group (G), the elliptic curve satisfying the following equation: y 2 = x 3 + A . x + B mod p characterised in that the cyclic group (G) is a field extension of degree 2 of the field ( ) where p = 2 255 -19, and in that the coefficients A and B satisfy A = − 30 + 140 11 . 2 and B = 56 − 560 11 . 2 , respectively, the elliptic curve then satisfying the following equation:
A fuel tank comprising: an upper panel and a lower panel made of iron; at least one support column that is provided in an interior space (V) formed by causing the upper panel and the lower panel to face each other and that is made of a thermoplastic resin, and a first base made of iron that is provided on an inner surface of the upper panel so as to correspond to the support column and connects the upper panel and one end of the support column together, and a second base made of iron that is provided on an inner surface of the lower panel and connects another end of the support column of the lower panel , wherein the support column is extended in a direction in which the upper panel and the lower panel face each other, and is formed by linking together a first member fixed to the inner surface of the upper panel via the first base and a second member fixed to the inner surface of the lower panel via the second base , by means of a snap-fit mechanism, and wherein the first member and the first base , and the second member and the second base are each connected together by screw connection. an upper panel and a lower panel made of iron; at least one support column that is provided in an interior space (V) formed by causing the upper panel and the lower panel to face each other and that is made of a thermoplastic resin, and a first base made of iron that is provided on an inner surface of the upper panel so as to correspond to the support column and connects the upper panel and one end of the support column together, and a second base made of iron that is provided on an inner surface of the lower panel and connects another end of the support column of the lower panel , wherein the support column is extended in a direction in which the upper panel and the lower panel face each other, and is formed by linking together a first member fixed to the inner surface of the upper panel via the first base and a second member fixed to the inner surface of the lower panel via the second base , by means of a snap-fit mechanism, and wherein the first member and the first base , and the second member and the second base are each connected together by screw connection.
An apparatus for establishing a connection to a packet data network, PDN, comprising: a sending unit , configured to: when it is detected that user equipment roams from a first public land mobile network PLMN to a second PLMN, determine that the user equipment currently has a voice service and send, to the user equipment, an IP Multimedia Subsystem, IMS, PDN connection release request that carries a reconnection indication; a receiving unit , configured to receive an IMS PDN reconnection request sent by the user equipment; a selection unit , configured to select an anchor gateway of the second PLMN; and a connection unit , configured to connect the user equipment to the packet data network by using the selected anchor gateway. a sending unit , configured to: when it is detected that user equipment roams from a first public land mobile network PLMN to a second PLMN, determine that the user equipment currently has a voice service and send, to the user equipment, an IP Multimedia Subsystem, IMS, PDN connection release request that carries a reconnection indication; a receiving unit , configured to receive an IMS PDN reconnection request sent by the user equipment; a selection unit , configured to select an anchor gateway of the second PLMN; and a connection unit , configured to connect the user equipment to the packet data network by using the selected anchor gateway.
A gas turbine engine defining axial , radial and circumferential directions and comprising: a duct defined by an axially extending radially inner wall and an axially extending radially outer wall , wherein: an annular array of turning vanes is provided in the duct, the array comprising a set of cambered aerodynamic vanes and a set of cambered strut-vanes , each having leading edges and trailing edges ; the leading edges of the strut-vanes are axially upstream of the trailing edges of the aerodynamic vanes; the trailing edges of the strut-vanes extend further axially downstream than the trailing edges of the aerodynamic vanes; a tangent (θ 3 ) to a mean camber line at the trailing edge of the strut-vanes is more closely aligned to the axial direction than is a tangent (θ 2 ) to a mean camber line at the trailing edge of the aerodynamic vanes; and the mean camber line of the strut-vanes is the same as the mean camber line of at least some of the aerodynamic vanes for axial locations between the leading and trailing edges of the aerodynamic vanes; characterised in that the mean camber line of the strut-vanes turns towards the axial direction by an angle in the range of from 5 degrees and 30 degrees between the axial position of the trailing edge of the aerodynamic vanes and the trailing edge of the strut-vanes. an annular array of turning vanes is provided in the duct, the array comprising a set of cambered aerodynamic vanes and a set of cambered strut-vanes , each having leading edges and trailing edges ; the leading edges of the strut-vanes are axially upstream of the trailing edges of the aerodynamic vanes; the trailing edges of the strut-vanes extend further axially downstream than the trailing edges of the aerodynamic vanes; a tangent (θ 3 ) to a mean camber line at the trailing edge of the strut-vanes is more closely aligned to the axial direction than is a tangent (θ 2 ) to a mean camber line at the trailing edge of the aerodynamic vanes; and the mean camber line of the strut-vanes is the same as the mean camber line of at least some of the aerodynamic vanes for axial locations between the leading and trailing edges of the aerodynamic vanes; characterised in that the mean camber line of the strut-vanes turns towards the axial direction by an angle in the range of from 5 degrees and 30 degrees between the axial position of the trailing edge of the aerodynamic vanes and the trailing edge of the strut-vanes.
An endodontic instrument adapted to be axially reciprocated within a root canal to remove material from walls of the root canal, the endodontic instrument comprising: an elongate rod having a proximate end and an opposite distal tip end defining a working portion disposed between the proximate end and the distal tip end , the working portion including an upper region and alower region; a plurality of flutes extending helically around the working portion , each flute including a curved concave flute surface, a pair of flute shoulders at the peripheral edges of the concave flute surface, a flute width defined by a distance between the pair of flute shoulders , and a flute depth defined by a point of maximum depth between the pair of flute shoulders ; and a plurality of lands extending helically around the working portion , each land positioned between a pair of axially adjacent flutes and including a curved concave land surface, a pair of land shoulders at the peripheral edges of the concave land surface, a land width defined by a distance between the pair of land shoulders , and a land depth defined by a point of maximum depth between the pair of land shoulders , wherein the flute shoulders and the land shoulders consist in the peripheral edges of said curved concave flute surfaces and curved concave land surfaces respectively, and wherein each land shoulder coincides with the corresponding flute shoulder to form a distinct cutting edge . wherein the land width is less than the flute width and the land depth is less than the flute depth in the upper region of the working portion . an elongate rod having a proximate end and an opposite distal tip end defining a working portion disposed between the proximate end and the distal tip end , the working portion including an upper region and alower region; a plurality of flutes extending helically around the working portion , each flute including a curved concave flute surface, a pair of flute shoulders at the peripheral edges of the concave flute surface, a flute width defined by a distance between the pair of flute shoulders , and a flute depth defined by a point of maximum depth between the pair of flute shoulders ; and a plurality of lands extending helically around the working portion , each land positioned between a pair of axially adjacent flutes and including a curved concave land surface, a pair of land shoulders at the peripheral edges of the concave land surface, a land width defined by a distance between the pair of land shoulders , and a land depth defined by a point of maximum depth between the pair of land shoulders , wherein the flute shoulders and the land shoulders consist in the peripheral edges of said curved concave flute surfaces and curved concave land surfaces respectively, and wherein each land shoulder coincides with the corresponding flute shoulder to form a distinct cutting edge . wherein the land width is less than the flute width and the land depth is less than the flute depth in the upper region of the working portion .
A method for producing an article of footwear , comprising: producing the article of footwear with a customized midsole and a customized cleat arrangement, wherein the method provides that the customized cleat arrangement is manufactured with at least one knitted component forming at least a knit outsole of the customized cleat arrangement, wherein the knit outsole includes a plurality of cavities in an outsole top surface that correspond with and form cleat members , wherein the customized cleat arrangement is produced based on a knit outsole representation associated with a user including information relating to at least one of a pre-defined cleat location or a pre-defined number of cleats, and wherein the knitted component forms the knit outsole through a vacuum forming process. producing the article of footwear with a customized midsole and a customized cleat arrangement, wherein the method provides that the customized cleat arrangement is manufactured with at least one knitted component forming at least a knit outsole of the customized cleat arrangement, wherein the knit outsole includes a plurality of cavities in an outsole top surface that correspond with and form cleat members , wherein the customized cleat arrangement is produced based on a knit outsole representation associated with a user including information relating to at least one of a pre-defined cleat location or a pre-defined number of cleats, and wherein the knitted component forms the knit outsole through a vacuum forming process.
A chemical mechanical polishing composition comprising: a liquid carrier; cationic metal oxide abrasive particles dispersed in the liquid carrier, the cationic metal oxide abrasive particles having a surface modified with at least one compound comprising a silyl group represented by general formula or general formula : -Si(X) n -[L-CR 1 (OH)-C(R 2 ) 2 -A] 3-n wherein X is the same or different and each represents a hydroxyl group, a hydrolyzable substituent, a non-hydrolyzable substituent, or a bond with an O-Si of another silyl group or the particle; n is 0, 1, or 2; L is a linkage group; R 1 is a hydrogen atom or an alkyl group that contains an amino group, a hydroxyl group, or an unsaturated bond; R 2 is the same or different, and each represents a hydrogen atom or an alkyl group that contains an amino group, a hydroxyl group, or an unsaturated bond; and A is a quaternary ammonium group; wherein X' is the same or different and each represents a hydroxyl group, a hydrolyzable substituent, a non-hydrolyzable substituent, or a bond with an O-Si of another silyl group or the particle; n' is 0, 1, or 2; L' is a linkage group; and A' is a quaternary ammonium group; wherein the metal oxide abrasive particles have an aggregation ratio in a range from 1.5 to 5.0. a liquid carrier; cationic metal oxide abrasive particles dispersed in the liquid carrier, the cationic metal oxide abrasive particles having a surface modified with at least one compound comprising a silyl group represented by general formula or general formula : -Si(X) n -[L-CR 1 (OH)-C(R 2 ) 2 -A] 3-n wherein X is the same or different and each represents a hydroxyl group, a hydrolyzable substituent, a non-hydrolyzable substituent, or a bond with an O-Si of another silyl group or the particle; n is 0, 1, or 2; L is a linkage group; R 1 is a hydrogen atom or an alkyl group that contains an amino group, a hydroxyl group, or an unsaturated bond; R 2 is the same or different, and each represents a hydrogen atom or an alkyl group that contains an amino group, a hydroxyl group, or an unsaturated bond; and A is a quaternary ammonium group; wherein X' is the same or different and each represents a hydroxyl group, a hydrolyzable substituent, a non-hydrolyzable substituent, or a bond with an O-Si of another silyl group or the particle; n' is 0, 1, or 2; L' is a linkage group; and A' is a quaternary ammonium group; wherein the metal oxide abrasive particles have an aggregation ratio in a range from 1.5 to 5.0.
A method for controlling a bandwidth over a communication link (C) connecting a first client network element (A) and a second client network element (Z), wherein the first client network element (A) is configured to send to the second client network element (Z) data traffic comprising at least a best effort traffic flow of packets, said method comprising: - at said first client network element (A), marking a number of best effort packets of said best effort traffic flow with a respective control code, said control code taking, in each of said number of best effort packets, a value within a predetermined ordered control sequence of values, and sending said marked best effort packets to said second client network element (Z) through said link (C); - at said second client network element (Z), checking the control code of each marked best effort packet and, in case of detection of a missing value of said control code within said control sequence, sending to said first client network element (A) a packet containing a feedback code indicative of an adjustment of said bandwidth which shall be taken by said first client network element (A), wherein said feedback code takes a fixed value selected within said predetermined ordered control sequence of values; and - at said first client network element (A), upon reception of said packet containing said feedback code, adjusting said bandwidth. - at said first client network element (A), marking a number of best effort packets of said best effort traffic flow with a respective control code, said control code taking, in each of said number of best effort packets, a value within a predetermined ordered control sequence of values, and sending said marked best effort packets to said second client network element (Z) through said link (C); - at said second client network element (Z), checking the control code of each marked best effort packet and, in case of detection of a missing value of said control code within said control sequence, sending to said first client network element (A) a packet containing a feedback code indicative of an adjustment of said bandwidth which shall be taken by said first client network element (A), wherein said feedback code takes a fixed value selected within said predetermined ordered control sequence of values; and - at said first client network element (A), upon reception of said packet containing said feedback code, adjusting said bandwidth.