mhurhangee/ep-ind-claims huggingface dataset:
A multilayer structure including a polyolefin layer and a polyamide resin composition layer, wherein: the polyamide resin composition constituting the layer comprises a polyamide resin (b-1) in which a diamine constituent unit thereof comprises a constituent unit derived from a xylylenediamine and a dicarboxylic acid constituent unit thereof comprises a constituent unit derived from an α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbon atoms and a modified polyolefin (b-2); and the content of the modified polyolefin (b-2) is from 5 to 30 parts by mass relative to 100 parts by mass of the polyamide resin (b-1), and wherein the multilayer structure is a cylindrical molded body and the ratio of the thickness of the polyamide resin composition layer to the thickness of the cylindrical molded body is from 0.005 to 0.5. the polyamide resin composition constituting the layer comprises a polyamide resin (b-1) in which a diamine constituent unit thereof comprises a constituent unit derived from a xylylenediamine and a dicarboxylic acid constituent unit thereof comprises a constituent unit derived from an α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbon atoms and a modified polyolefin (b-2); and the content of the modified polyolefin (b-2) is from 5 to 30 parts by mass relative to 100 parts by mass of the polyamide resin (b-1), and wherein the multilayer structure is a cylindrical molded body and the ratio of the thickness of the polyamide resin composition layer to the thickness of the cylindrical molded body is from 0.005 to 0.5.
Head restraint having a holding means and a support structure which is able to be adjusted in the angle of inclination thereof relative to the holding means and having a positive connection means which cooperates positively and/or non-positively with a locking means and, as a result, fixes the support structure in the respectively desired angular position thereof, wherein the positive connection means is provided integrally with the support structure, characterized in that the holding means is provided in a U-shape, wherein the base of the U-shape serves as a rotational axis for the support structure and the arms of the U-shape are each fastened to a backrest, in particular in a longitudinally displaceable manner.
An optical transmission apparatus(I_I) comprising: a signal converter configured to convert first transmission data (DS1, DS2) into a first electrical signal and a second electrical signal; a first transmission unit (11_1) configured to convert the first electrical signal into a first optical transmission signal (21_1) corresponding to a first sub-carrier; a second transmission unit (11_2) configured to convert the second electrical signal into a second optical transmission signal (21_2) corresponding to a second sub-carrier different from the first sub-carrier; and an output unit configured to output the first optical transmission signal (21_1) and the second optical transmission signal (21_2) to a first optical reception apparatus (2_1) via a first path,, characterized in that the signal converter is configured to convert second transmission data (DS1, DS2) into the first electric signal and convert third transmission data (DS1, DS2) into the second electric signal, and the output unit is configured to output the first optical transmission signal (21_1) corresponding to the second transmission data to the first optical reception apparatus via the first path and is configured to output the second optical transmission signal (21_2) corresponding to the third transmission data to a second optical reception apparatus via the second path. a signal converter configured to convert first transmission data (DS1, DS2) into a first electrical signal and a second electrical signal; a first transmission unit (11_1) configured to convert the first electrical signal into a first optical transmission signal (21_1) corresponding to a first sub-carrier; a second transmission unit (11_2) configured to convert the second electrical signal into a second optical transmission signal (21_2) corresponding to a second sub-carrier different from the first sub-carrier; and an output unit configured to output the first optical transmission signal (21_1) and the second optical transmission signal (21_2) to a first optical reception apparatus (2_1) via a first path,, characterized in that the signal converter is configured to convert second transmission data (DS1, DS2) into the first electric signal and convert third transmission data (DS1, DS2) into the second electric signal, and the output unit is configured to output the first optical transmission signal (21_1) corresponding to the second transmission data to the first optical reception apparatus via the first path and is configured to output the second optical transmission signal (21_2) corresponding to the third transmission data to a second optical reception apparatus via the second path.
A method for automatic frequency offset compensation in a zero-intermediate frequency receiver demodulating minimum-shift keying, MSK, signals, comprising the steps of: running a coarse carrier frequency offset estimation; running a fine carrier frequency offset estimation; determining whether an expected preamble of a MSK signal has been detected, wherein if the expected preamble has not been detected then continue running the coarse and fine carrier frequency offset estimations, and if the expected preamble has been detected then stop running the coarse and fine carrier frequency offset estimations; characterized by calculating an absolute difference between the coarse and fine carrier frequency offset estimations; determining whether the absolute difference is less than a threshold value, wherein if the absolute difference is less than the threshold value then using the fine carrier frequency offset estimation for compensating the carrier frequency offset, and if the absolute difference is equal to or greater than the threshold value then adjusting the fine carrier frequency offset estimation by adding or subtracting 180 degrees per period thereto until the absolute difference is less than the threshold value, and thereafter using the adjusted fine carrier frequency offset estimation for compensating the carrier frequency offset. running a coarse carrier frequency offset estimation; running a fine carrier frequency offset estimation; determining whether an expected preamble of a MSK signal has been detected, wherein if the expected preamble has not been detected then continue running the coarse and fine carrier frequency offset estimations, and if the expected preamble has been detected then stop running the coarse and fine carrier frequency offset estimations; characterized by calculating an absolute difference between the coarse and fine carrier frequency offset estimations; determining whether the absolute difference is less than a threshold value, wherein if the absolute difference is less than the threshold value then using the fine carrier frequency offset estimation for compensating the carrier frequency offset, and if the absolute difference is equal to or greater than the threshold value then adjusting the fine carrier frequency offset estimation by adding or subtracting 180 degrees per period thereto until the absolute difference is less than the threshold value, and thereafter using the adjusted fine carrier frequency offset estimation for compensating the carrier frequency offset.
A floor cleaning system, having a mobile floor cleaning apparatus that comprises at least one cleaning unit for cleaning a floor surface, a reservoir for receiving a cleaning liquid, a dirt receiving device for taking up dirty liquid from the floor surface, and a dirty liquid container into which the dirty liquid is transferable, and further having a docking station for the floor cleaning apparatus, which is docked thereto in a docked position, wherein the docking station has at least one supply conduit with a connection element arranged thereon, the floor cleaning apparatus having at least one liquid conduit with a connection element arranged thereon, wherein the floor cleaning apparatus comprises a rinsing device on or in the dirty liquid container, and wherein, when the floor cleaning apparatus is in the docked position, the connection elements (28, 106) are coupled to one another such that the reservoir is fillable with the cleaning liquid via the at least one liquid conduit and a rinsing liquid for rinsing the dirty liquid container is applicable to the rinsing device via the at least one liquid conduit.
A trigger structure (21, 121) for triggering an installation indication of a fluid filter, comprising: a central structure (134, 434); one or more arches (136, 436); and a filter capture ring; wherein said filter capture ring is circumferentially oriented about said central structure (134, 434); and wherein said one or more arches (136, 436) extend radially between said central structure (134, 434) and said filter capture ring; wherein the trigger structure (21, 121) is a flexible structure, which undergoes an elastic deformation, the trigger structure being deformable from a first, stable shape past a tripping point to a second, unstable shape, under an applied axial compression, wherein a sound and/or vibration is released from the trigger structure on deformation from the first, stable shape to the second, unstable shape. a central structure (134, 434); one or more arches (136, 436); and a filter capture ring; wherein said filter capture ring is circumferentially oriented about said central structure (134, 434); and wherein said one or more arches (136, 436) extend radially between said central structure (134, 434) and said filter capture ring; wherein the trigger structure (21, 121) is a flexible structure, which undergoes an elastic deformation, the trigger structure being deformable from a first, stable shape past a tripping point to a second, unstable shape, under an applied axial compression, wherein a sound and/or vibration is released from the trigger structure on deformation from the first, stable shape to the second, unstable shape. wherein said filter capture ring is circumferentially oriented about said central structure (134, 434); and wherein said one or more arches (136, 436) extend radially between said central structure (134, 434) and said filter capture ring; wherein the trigger structure (21, 121) is a flexible structure, which undergoes an elastic deformation, the trigger structure being deformable from a first, stable shape past a tripping point to a second, unstable shape, under an applied axial compression, wherein a sound and/or vibration is released from the trigger structure on deformation from the first, stable shape to the second, unstable shape.
A pipe connector comprising tubular pin member (13;) having an outer peripheral surface and a tubular box member having an inner peripheral surface corresponding to the outer peripheral surface of the pin member and which overlies the outer surface of the pin member when the members are fully engaged together, characterised in that the members being provided with inter engaging substantially annular projections (16,32) and grooves on said peripheral surfaces for axially locking the members together when they are fully engaged together, the pin member further comprising an annular collar shrink fitted onto the pin member above of the peripheral outer surface, the collar comprising a shoulder at one end of the collar adjacent the outer peripheral surface of the pin member, the arrangement being such that when the members are fully engaged together, the tubular box member abuts the shoulder of the annular collar.
A battery management system, comprising: a sensing unit configured to generate a sensing signal indicating a voltage and a current of a battery; a memory unit configured to store over-potential management information including a reference peak value and a reference peak voltage value; and a control unit configured to command first constant-current charging using a maximum allowable C-rate to a charging circuit configured to be connected to the battery, when the reference peak value is equal to or larger than a threshold peak value, in response to a charge request, wherein the control unit is configured to: determine a first differential capacity curve indicating a correlation between the voltage and differential capacity of the battery in a threshold voltage range based on the sensing signal collected during the first constant-current charging, determine a first main peak value and a first main peak voltage value indicating a differential capacity and a voltage of a first peak of the first differential capacity curve, respectively, and update the reference peak value and the reference peak voltage value to be equal to the first main peak value and the first main peak voltage value, when the first main peak value is less than the threshold peak value. a sensing unit configured to generate a sensing signal indicating a voltage and a current of a battery; a memory unit configured to store over-potential management information including a reference peak value and a reference peak voltage value; and a control unit configured to command first constant-current charging using a maximum allowable C-rate to a charging circuit configured to be connected to the battery, when the reference peak value is equal to or larger than a threshold peak value, in response to a charge request, wherein the control unit is configured to: determine a first differential capacity curve indicating a correlation between the voltage and differential capacity of the battery in a threshold voltage range based on the sensing signal collected during the first constant-current charging, determine a first main peak value and a first main peak voltage value indicating a differential capacity and a voltage of a first peak of the first differential capacity curve, respectively, and update the reference peak value and the reference peak voltage value to be equal to the first main peak value and the first main peak voltage value, when the first main peak value is less than the threshold peak value. determine a first differential capacity curve indicating a correlation between the voltage and differential capacity of the battery in a threshold voltage range based on the sensing signal collected during the first constant-current charging, determine a first main peak value and a first main peak voltage value indicating a differential capacity and a voltage of a first peak of the first differential capacity curve, respectively, and update the reference peak value and the reference peak voltage value to be equal to the first main peak value and the first main peak voltage value, when the first main peak value is less than the threshold peak value.
A delayed coking quench overflow system, which comprises: a coke drum; a closed blowdown system, which comprises at least one of a blowdown condenser and a settling drum; and a filter system connected to the coke drum at one end by a fluid passageway and connected to the closed blowdown system at another end by another fluid passageway wherein the filter system comprises a coke fines filter for removing hydrocarbon particulates from an overflow stream from the coke drum that are as small as 10-25 microns in size. a coke drum; a closed blowdown system, which comprises at least one of a blowdown condenser and a settling drum; and a filter system connected to the coke drum at one end by a fluid passageway and connected to the closed blowdown system at another end by another fluid passageway wherein the filter system comprises a coke fines filter for removing hydrocarbon particulates from an overflow stream from the coke drum that are as small as 10-25 microns in size.
A mouse comprising in its germline a first unrearranged human kappa light chain variable (V K) gene segment and an unrearranged human kappa light chain joining (J K) gene segment operably linked with the endogenous mouse heavy chain constant (C H) region at the endogenous mouse heavy chain locus, wherein the first unrearranged human V K gene segment and the unrearranged human J K gene segment replace all functional endogenous mouse heavy chain variable (V H) gene segments, all functional endogenous mouse diversity (D H) gene segments and all functional endogenous mouse heavy chain joining (J H) gene segments, wherein the first unrearranged human V K gene segment and unrearranged human J K gene segment participate in rearrangement to form a rearranged V K / J K sequence operably linked to the endogenous mouse heavy chain constant region in the mouse, and wherein the mouse further comprises in its germline a second human light chain variable (V L) gene segment and a human light chain J (J L) gene segment operably linked to a mouse light chain constant (C L) gene.
A method for producing hydroxypropyl methyl cellulose acetate succinate comprising: an esterification step of reacting hydroxypropyl methyl cellulose with an acetylating agent and a succinoylating agent in the presence of an aliphatic carboxylic acid in a kneader reactor equipped with two or more stirring blades rotating around their own axes and orbitally revolving, to obtain a reaction product solution containing hydroxypropyl methyl cellulose acetate succinate; a precipitation step of precipitating the hydroxypropyl methyl cellulose acetate succinate by mixing the reaction product solution with water to obtain a suspension of the precipitated hydroxypropyl methyl cellulose acetate succinate; and a washing and recovering step of washing the hydroxypropyl methyl cellulose acetate succinate in the suspension and recovering the washed hydroxypropyl methyl cellulose acetate succinate. an esterification step of reacting hydroxypropyl methyl cellulose with an acetylating agent and a succinoylating agent in the presence of an aliphatic carboxylic acid in a kneader reactor equipped with two or more stirring blades rotating around their own axes and orbitally revolving, to obtain a reaction product solution containing hydroxypropyl methyl cellulose acetate succinate; a precipitation step of precipitating the hydroxypropyl methyl cellulose acetate succinate by mixing the reaction product solution with water to obtain a suspension of the precipitated hydroxypropyl methyl cellulose acetate succinate; and a washing and recovering step of washing the hydroxypropyl methyl cellulose acetate succinate in the suspension and recovering the washed hydroxypropyl methyl cellulose acetate succinate.
A combined camera, comprising a first camera housing inside which a first camera is provided, wherein one side of the first camera housing is provided with a rotating disk that is rotatable relative to the first camera housing around a first axis; a rotating bracket, which is fixed on the rotating disc; and a second camera housing, which is provided on said rotating bracket, and is rotatable relative to the rotating bracket around a second axis, wherein a second camera is provided within the second camera housing; characterized in that the first camera housing has a concave hole, wherein the rotating disc is completely inserted; and the second camera housing is received at said concave hole and is rotatably connected to the first camera housing. a first camera housing inside which a first camera is provided, wherein one side of the first camera housing is provided with a rotating disk that is rotatable relative to the first camera housing around a first axis; a rotating bracket, which is fixed on the rotating disc; and a second camera housing, which is provided on said rotating bracket, and is rotatable relative to the rotating bracket around a second axis, wherein a second camera is provided within the second camera housing; characterized in that the first camera housing has a concave hole, wherein the rotating disc is completely inserted; and the second camera housing is received at said concave hole and is rotatably connected to the first camera housing.
A ligament assembly comprising: a ligament anchor (9, 14, 109, 114) including an outer sleeve (46, 146, 346); a carrier element (44, 144) configured to be at least partially disposed within the outer sleeve (46, 146, 346) of the ligament anchor (9, 14, 109, 114); a resilient element (40, 140, 340) configured to be at least partially disposed within the carrier element (44, 144), the resilient element (40, 140, 340) including a passage extending therethrough; and a ligament (18, 118) configured to extend through the passage in the resilient element (40, 140, 340), the ligament (18, 118) including a shoulder (34, 234, 334) with an annular face (35, 335) which prevents the ligament from being pulled out of the resilient element (40, 140, 340). a ligament anchor (9, 14, 109, 114) including an outer sleeve (46, 146, 346); a carrier element (44, 144) configured to be at least partially disposed within the outer sleeve (46, 146, 346) of the ligament anchor (9, 14, 109, 114); a resilient element (40, 140, 340) configured to be at least partially disposed within the carrier element (44, 144), the resilient element (40, 140, 340) including a passage extending therethrough; and a ligament (18, 118) configured to extend through the passage in the resilient element (40, 140, 340), the ligament (18, 118) including a shoulder (34, 234, 334) with an annular face (35, 335) which prevents the ligament from being pulled out of the resilient element (40, 140, 340).
A branching unit and airway adapter for delivering a respiratory gas to a neonatal or pediatric subject, the branching unit and airway adapter comprising: a first limb for delivering an expiratory gas during an expiratory phase; a second limb for delivering an inspiratory gas during an inspiratory phase; a third limb for delivering both said expiratory gas and said inspiratory gas; and a common branching point for said first limb, said second limb and said third limb, said branching point connecting said first limb and said second limb to said third limb; and an airway adapter for use with a gas measurement device; wherein the third limb is connectable to a connector of the airway adapter to form a connection; and wherein said first limb, said second limb, said third limb and said airway adapter include a volume for said respiratory gas, said volume consisting of: an active volume in said first limb and said second limb configured to permit, in use, exchange between said inspiratory phase and said expiratory phase; and a dead volume in the airway adapter and third limb; characterized in that the third limb and the connector overlap completely when connected, thereby to reduce a dead volume in the connection, the dead volume being less than 3 ml. a first limb for delivering an expiratory gas during an expiratory phase; a second limb for delivering an inspiratory gas during an inspiratory phase; a third limb for delivering both said expiratory gas and said inspiratory gas; and a common branching point for said first limb, said second limb and said third limb, said branching point connecting said first limb and said second limb to said third limb; and an airway adapter for use with a gas measurement device; wherein the third limb is connectable to a connector of the airway adapter to form a connection; and wherein said first limb, said second limb, said third limb and said airway adapter include a volume for said respiratory gas, said volume consisting of: an active volume in said first limb and said second limb configured to permit, in use, exchange between said inspiratory phase and said expiratory phase; and a dead volume in the airway adapter and third limb; an active volume in said first limb and said second limb configured to permit, in use, exchange between said inspiratory phase and said expiratory phase; and a dead volume in the airway adapter and third limb; characterized in that the third limb and the connector overlap completely when connected, thereby to reduce a dead volume in the connection, the dead volume being less than 3 ml.