mhurhangee/ep-ind-claims huggingface dataset:
A vehicle brake hydraulic pressure control apparatus comprising: a control unit into which a base body, a motor and a controller housing are unitized and in which the motor and the controller housing are disposed so as to hold the base body therebetween; and a support device interposed between a vehicle body and the control unit, wherein the support device has a lower mount member fixed to a lower surface of the base body that becomes vertical when the control unit is mounted on the vehicle body and a bracket that connects the lower mount member with the vehicle body, characterized in that the base body is configured so that a center of gravity of the control unit is situated on the base body by setting a distance from a motor mounting surface to a controller housing mounting surface larger than a size of a motor case in a direction of a motor shaft and smaller than a size of the controller housing in the direction of the motor shaft, and the lower mount member is supported by the bracket so as to be situated at an intersection point between a vertical line that passes through the center of gravity and the lower surface of the base body. a control unit into which a base body, a motor and a controller housing are unitized and in which the motor and the controller housing are disposed so as to hold the base body therebetween; and a support device interposed between a vehicle body and the control unit, wherein the support device has a lower mount member fixed to a lower surface of the base body that becomes vertical when the control unit is mounted on the vehicle body and a bracket that connects the lower mount member with the vehicle body, a lower mount member fixed to a lower surface of the base body that becomes vertical when the control unit is mounted on the vehicle body and a bracket that connects the lower mount member with the vehicle body, characterized in that the base body is configured so that a center of gravity of the control unit is situated on the base body by setting a distance from a motor mounting surface to a controller housing mounting surface larger than a size of a motor case in a direction of a motor shaft and smaller than a size of the controller housing in the direction of the motor shaft, and the lower mount member is supported by the bracket so as to be situated at an intersection point between a vertical line that passes through the center of gravity and the lower surface of the base body.
A method comprising: comparing the number of symbols used for an uplink transmission in a transmit time interval to a threshold value of symbols; sending, from a device, an indication on a sidelink channel, the indication indicating the location of symbols used for the uplink transmission when the number of symbols used for the uplink transmission is less than the threshold value; transmitting both a sidelink transmission and the uplink transmission in the transmit time interval when the number of symbols used for the uplink transmission is less than the threshold value; and transmitting only the uplink transmission in the transmit time interval when the number of symbols used for uplink transmission is at least the threshold value. comparing the number of symbols used for an uplink transmission in a transmit time interval to a threshold value of symbols; sending, from a device, an indication on a sidelink channel, the indication indicating the location of symbols used for the uplink transmission when the number of symbols used for the uplink transmission is less than the threshold value; transmitting both a sidelink transmission and the uplink transmission in the transmit time interval when the number of symbols used for the uplink transmission is less than the threshold value; and transmitting only the uplink transmission in the transmit time interval when the number of symbols used for uplink transmission is at least the threshold value.
An anti-abrasion shielding element including a protective layer made of a rubber or polyurethane-type material and secured to a support plate, said anti-abrasion shielding element being characterized in that said support plate is made of ebonite.
A binder for an anode for a secondary battery, comprising: a copolymer having a main chain composed of a repeating unit of the following Formula 1, a repeating unit of the following Formula 2, a repeating unit of the following Formula 3, and a repeating unit of the following Formula 4, wherein R 1 and R 3 are each independently substituted or unsubstituted (C1-C10)hydrocarbyl, R 2 and R 4 are each independently hydrogen or substituted or unsubstituted (C1-C10)hydrocarbyl, M n+ is a cation with an oxidation number of n excluding hydrogen ions, and n is an integer of 1 to 3, and wherein a saponification ratio of the copolymer satisfies Expression 1, 0.45 < saponification ratio = (b + d)/(a + b + c + d) < 1.00 wherein a is the number of moles of the repeating unit, b is the number of moles of the repeating unit, c is the number of moles of the repeating unit, and d is the number of moles of the repeating unit. R 1 and R 3 are each independently substituted or unsubstituted (C1-C10)hydrocarbyl, R 2 and R 4 are each independently hydrogen or substituted or unsubstituted (C1-C10)hydrocarbyl, M n+ is a cation with an oxidation number of n excluding hydrogen ions, and n is an integer of 1 to 3, and wherein a saponification ratio of the copolymer satisfies Expression 1, 0.45 < saponification ratio = (b + d)/(a + b + c + d) < 1.00 wherein a is the number of moles of the repeating unit, b is the number of moles of the repeating unit, c is the number of moles of the repeating unit, and d is the number of moles of the repeating unit.
A toner container for an electrophotographic printer having a photoconductor, a light source for selectively exposing parts of the photoconductor to a beam of light, and a light path along which the beam of light travels from the light source to the photoconductor, the container comprising a housing having an interior defining a toner supply reservoir that, when the container is installed in the printer, extends: longitudinally a distance greater than the distance between the light source and the photoconductor; and laterally substantially the full axial length of the photoconductor, the toner supply reservoir comprising interconnected lower and upper chambers (66, 68), wherein said lower chamber lies below the light path and said upper chamber lies above the light path. longitudinally a distance greater than the distance between the light source and the photoconductor; and laterally substantially the full axial length of the photoconductor, the toner supply reservoir comprising interconnected lower and upper chambers (66, 68), wherein said lower chamber lies below the light path and said upper chamber lies above the light path.
Method for encoding contactless communication data from a passive transponder to a reader by load modulation, in the form of a set of modulation patterns, each pattern - being a succession of load levels of a predefined length used for the physical encoding and - having a duration of n carrier periods (T c), n being a number of carrier steps, - comprising a succession of at least two load levels, - having a minimum pulse width (w) corresponding to the shortest duration in terms of number of carrier steps of a same load level in the pattern, and - having a retromodulation rate (t) corresponding to the ratio between the retromodulation time and the duration of a pattern, and in which - each pattern of the set of patterns encodes a number of bits p greater than or equal to 3, - the number (k) of patterns is greater than four, - the minimum pulse widths (w) of at least two patterns are different, - the retromodulation rates (t) of at least two patterns are different, - for the set of chosen patterns, the average retromodulation rate (t) is less than 0.5 and and characterized in that - for the set of chosen patterns, the minimum pulse width (w min) in terms of number of carrier steps is less than or equal to two. - being a succession of load levels of a predefined length used for the physical encoding and - having a duration of n carrier periods (T c), n being a number of carrier steps, - comprising a succession of at least two load levels, - having a minimum pulse width (w) corresponding to the shortest duration in terms of number of carrier steps of a same load level in the pattern, and - having a retromodulation rate (t) corresponding to the ratio between the retromodulation time and the duration of a pattern, and in which - each pattern of the set of patterns encodes a number of bits p greater than or equal to 3, - the number (k) of patterns is greater than four, - the minimum pulse widths (w) of at least two patterns are different, - the retromodulation rates (t) of at least two patterns are different, - for the set of chosen patterns, the average retromodulation rate (t) is less than 0.5 and and characterized in that - for the set of chosen patterns, the minimum pulse width (w min) in terms of number of carrier steps is less than or equal to two.
A method of pre-processing a digital image captured by an image sensor (6; 106) for encoding, comprising: receiving a first digital image, receiving information representative of a movement of the image sensor at a time of capture of said first digital image, and pre-processing said first digital image, wherein said pre-processing comprises performing at least one pre-processing procedure chosen from the group consisting of sharpening, tone mapping, blurring, and HDR merging, and wherein at least one parameter of said pre-processing is dependent on said information representative of movement, such that either i) at least one pre-processing procedure that would increase bitrate, chosen from the group consisting of sharpening, tone mapping, and HDR merging, is disabled if said movement of the image sensor is above a predetermined threshold, or ii) sharpening, which is a pre-processing procedure that would increase bitrate, processes the first digital image to a lesser extent if said movement of the image sensor is above a predetermined threshold than if said movement were equal to or below said threshold, or iii) blurring, which is a pre-processing procedure that would reduce bitrate, is enabled if said movement of the image sensor is above a predetermined threshold, or iv) blurring, which is a pre-processing procedure that would reduce bit rate processes the first digital image to a greater extent if said movement of the image sensor is above a predetermined threshold than if said movement were equal to or below said threshold. receiving a first digital image, receiving information representative of a movement of the image sensor at a time of capture of said first digital image, and pre-processing said first digital image, wherein said pre-processing comprises performing at least one pre-processing procedure chosen from the group consisting of sharpening, tone mapping, blurring, and HDR merging, and wherein at least one parameter of said pre-processing is dependent on said information representative of movement, such that either i) at least one pre-processing procedure that would increase bitrate, chosen from the group consisting of sharpening, tone mapping, and HDR merging, is disabled if said movement of the image sensor is above a predetermined threshold, or ii) sharpening, which is a pre-processing procedure that would increase bitrate, processes the first digital image to a lesser extent if said movement of the image sensor is above a predetermined threshold than if said movement were equal to or below said threshold, or iii) blurring, which is a pre-processing procedure that would reduce bitrate, is enabled if said movement of the image sensor is above a predetermined threshold, or iv) blurring, which is a pre-processing procedure that would reduce bit rate processes the first digital image to a greater extent if said movement of the image sensor is above a predetermined threshold than if said movement were equal to or below said threshold.
A method for producing a molten steel using a solid-state direct reduced iron as a raw material, wherein the solid-state direct reduced iron contains 3.0% by mass or more of SiO 2 and Al 2 O 3 in total and 1.0% by mass or more of carbon, a ratio of a metallic iron to the total iron content contained in the solid-state direct reduced iron is 90% by mass or more, and an excess carbon content Cx specified by the following formula to the carbons contained in the solid-state direct reduced iron is 0.2% by mass or more, the method comprising: a step in a first furnace of melting 40 to 95% by mass of the solid-state direct reduced iron, and separating a molten pig iron having a carbon content of 2.0 to 5.0% by mass and a temperature of 1350 to 1550°C and a slag having a basicity of 1.0 to 1.4 and a step in a second furnace of melting a remainder of the solid-state direct reduced iron together with the molten pig iron separated in the first furnace, and blowing oxygen onto the molten material to decarburize into a molten steel, Cx = C − FeO × 12 ÷ 55.85 + 16 ÷ 0.947 in the formula, Cx: excess carbon content (% by mass),: carbon content of solid-state direct reduced iron (% by mass), [FeO]: FeO content of solid-state direct reduced iron (% by mass). the solid-state direct reduced iron contains 3.0% by mass or more of SiO 2 and Al 2 O 3 in total and 1.0% by mass or more of carbon, a ratio of a metallic iron to the total iron content contained in the solid-state direct reduced iron is 90% by mass or more, and an excess carbon content Cx specified by the following formula to the carbons contained in the solid-state direct reduced iron is 0.2% by mass or more, the method comprising: a step in a first furnace of melting 40 to 95% by mass of the solid-state direct reduced iron, and separating a molten pig iron having a carbon content of 2.0 to 5.0% by mass and a temperature of 1350 to 1550°C and a slag having a basicity of 1.0 to 1.4 and a step in a second furnace of melting a remainder of the solid-state direct reduced iron together with the molten pig iron separated in the first furnace, and blowing oxygen onto the molten material to decarburize into a molten steel, Cx = C − FeO × 12 ÷ 55.85 + 16 ÷ 0.947 in the formula, Cx: excess carbon content (% by mass),: carbon content of solid-state direct reduced iron (% by mass), [FeO]: FeO content of solid-state direct reduced iron (% by mass). a step in a first furnace of melting 40 to 95% by mass of the solid-state direct reduced iron, and separating a molten pig iron having a carbon content of 2.0 to 5.0% by mass and a temperature of 1350 to 1550°C and a slag having a basicity of 1.0 to 1.4 and a step in a second furnace of melting a remainder of the solid-state direct reduced iron together with the molten pig iron separated in the first furnace, and blowing oxygen onto the molten material to decarburize into a molten steel, Cx = C − FeO × 12 ÷ 55.85 + 16 ÷ 0.947 in the formula, Cx: excess carbon content (% by mass),: carbon content of solid-state direct reduced iron (% by mass), [FeO]: FeO content of solid-state direct reduced iron (% by mass).
A heating element, comprising a planar heat-generating layer and two electrical contacts (101; 103) for providing an electric heating current, wherein the electrical contacts (101; 103) are arranged on the heat-generating layer on mutually opposed sides of the layer, characterised in that at least one of the contacts comprises a first contact element and a second contact element (104; 200), wherein the first contact element extends in the heat-generating layer in an undulating manner as viewed in a first plane perpendicular to the extent of the layer, wherein the second contact element (104; 200) extends parallel to the extension direction of the first contact element, wherein the first contact element and the second contact element (104; 200) have a multiplicity of common contact points as viewed in the extension direction.
A monoclonal antibody or an antibody fragment thereof that competes with one antibody selected from the following (a)-(c) to specifically recognize human FOLR1 and binds to an epitope identical to the epitope on human FOLR1 to which the antibody binds which is at positions 55 to 62 in the amino acid sequence of human FOLR1 represented by SEQ ID NO: 1, and also shows an anti-tumor activity: (a) an antibody in which complementarity determining regions (hereinafter, referred to as CDRs) 1-3 of heavy chain (hereinafter, referred to as H chain) of the antibody comprise the amino acid sequences represented by SEQ ID NOs. 30, 31, and 32, respectively and CDRs 1-3 of light chain (hereinafter, referred to as L chain) of the antibody comprise the amino acid sequences represented by SEQ ID NOs. 33, 34, and 35, respectively; (b) an antibody in which CDRs 1-3 of H chain of the antibody comprise the amino acid sequences represented by SEQ ID NOs. 30, 31, and 32, respectively and CDRs 1-3 of L chain of the antibody comprise the amino acid sequences represented by SEQ ID NOs. 33, 34, and 35, respectively, and cysteine in the amino acid sequence represented by SEQ ID NO. 32 (CDR3 of antibody H chain) is substituted with threonine, methionine, isoleucine, valine, phenylalanine, or glutamine, regarding the antibody; and (c) an antibody in which H chain of the antibody comprises the amino acid sequence represented by SEQ ID NO. 98, and L chain of the antibody comprises the amino acid sequence represented by SEQ ID NO. 94. (a) an antibody in which complementarity determining regions (hereinafter, referred to as CDRs) 1-3 of heavy chain (hereinafter, referred to as H chain) of the antibody comprise the amino acid sequences represented by SEQ ID NOs. 30, 31, and 32, respectively and CDRs 1-3 of light chain (hereinafter, referred to as L chain) of the antibody comprise the amino acid sequences represented by SEQ ID NOs. 33, 34, and 35, respectively; (b) an antibody in which CDRs 1-3 of H chain of the antibody comprise the amino acid sequences represented by SEQ ID NOs. 30, 31, and 32, respectively and CDRs 1-3 of L chain of the antibody comprise the amino acid sequences represented by SEQ ID NOs. 33, 34, and 35, respectively, and cysteine in the amino acid sequence represented by SEQ ID NO. 32 (CDR3 of antibody H chain) is substituted with threonine, methionine, isoleucine, valine, phenylalanine, or glutamine, regarding the antibody; and (c) an antibody in which H chain of the antibody comprises the amino acid sequence represented by SEQ ID NO. 98, and L chain of the antibody comprises the amino acid sequence represented by SEQ ID NO. 94.
A method for providing wireless network functionality, comprising: providing, by a network device having discrete wireless network interfaces, access to a number of wireless networks, each network having an identifier in the form of a Service Set Identifiers, SSID, (400/500); receiving requests, at the network device, from client devices to establish wireless network sessions via the wireless networks using the identifiers (404/506); mapping the identifiers to discrete internet protocol, IP, address ranges corresponding to security zones for assignment to the client devices (403/504); and segmenting security privileges of the client devices based on the security zone mapped to the identifier used to establish each wireless network session (514/516). providing, by a network device having discrete wireless network interfaces, access to a number of wireless networks, each network having an identifier in the form of a Service Set Identifiers, SSID, (400/500); receiving requests, at the network device, from client devices to establish wireless network sessions via the wireless networks using the identifiers (404/506); mapping the identifiers to discrete internet protocol, IP, address ranges corresponding to security zones for assignment to the client devices (403/504); and segmenting security privileges of the client devices based on the security zone mapped to the identifier used to establish each wireless network session (514/516).
An aqueous latex comprising particles of a polymer [polymer] comprising: - recurring units derived from vinylidene fluoride in an amount of at least 60 % moles, with respect to the total moles of recurring units; - recurring units trifluoroethylene (TrFE) in an amount of at least 18 % moles, with respect to the total moles of recurring units, and - optionally recurring units derived from at least one additional monomer different from VDF and TrFE, said polymer possessing thermodynamic ordered structure in the ferroelectric phase, such that the relation between: (i) the parameter Xc (%)defined as follows: Xc % = ΔH c ΔH m + ΔH c × 100 wherein ΔH c is the enthalpy associated to the Curie transition between ferroelectric and paraeletric phase, as determined in J/g by DSC technique on second heating scan, at a ramp rate of 10°C, and ΔH m is the enthalpy of melting, as determined in J/g according to ASTM D3418; and (ii) the content in recurring units different from VDF expressed in % moles, with respect to the total moles of recurring units, designated as CM (% moles), satisfies the following inequality: Xc(%)≥a·CM (%moles)+b wherein a = - 1.10 and b =75.00, preferably satisfies the inequality: Xc (%) ≥ a'·CM (%moles)+b' wherein a' = -0.89 and b' =71.33. - recurring units derived from vinylidene fluoride in an amount of at least 60 % moles, with respect to the total moles of recurring units; - recurring units trifluoroethylene (TrFE) in an amount of at least 18 % moles, with respect to the total moles of recurring units, and - optionally recurring units derived from at least one additional monomer different from VDF and TrFE, said polymer possessing thermodynamic ordered structure in the ferroelectric phase, such that the relation between: (i) the parameter Xc (%)defined as follows: Xc % = ΔH c ΔH m + ΔH c × 100 wherein ΔH c is the enthalpy associated to the Curie transition between ferroelectric and paraeletric phase, as determined in J/g by DSC technique on second heating scan, at a ramp rate of 10°C, and ΔH m is the enthalpy of melting, as determined in J/g according to ASTM D3418; and (ii) the content in recurring units different from VDF expressed in % moles, with respect to the total moles of recurring units, designated as CM (% moles), satisfies the following inequality: Xc(%)≥a·CM (%moles)+b wherein a = - 1.10 and b =75.00, preferably satisfies the inequality: Xc (%) ≥ a'·CM (%moles)+b' wherein a' = -0.89 and b' =71.33. (i) the parameter Xc (%)defined as follows: Xc % = ΔH c ΔH m + ΔH c × 100 wherein ΔH c is the enthalpy associated to the Curie transition between ferroelectric and paraeletric phase, as determined in J/g by DSC technique on second heating scan, at a ramp rate of 10°C, and ΔH m is the enthalpy of melting, as determined in J/g according to ASTM D3418; and (ii) the content in recurring units different from VDF expressed in % moles, with respect to the total moles of recurring units, designated as CM (% moles), satisfies the following inequality: Xc(%)≥a·CM (%moles)+b wherein a = - 1.10 and b =75.00, preferably satisfies the inequality: Xc (%) ≥ a'·CM (%moles)+b'