mhurhangee/ep-ind-claims huggingface dataset:
A tissue paper product comprising: a web obtained by folding and stacking in a pop-up manner a plurality of sheets of tissue paper containing a moisturizer; and a cuboid paper box storing the web and having an outlet in its upper surface, wherein the sheets of tissue paper are 2-ply sheets having a 1-ply basis weight of not less than 13.0 g/m 2 and less than 14.5 g/m 2 and having a 2-ply paper thickness of more than 143 μm and less than 175 μm, the dry tensile strength of the tissue paper is more than 276 cN/25 mm and not more than 346 cN/25 mm in the machine direction, and more than 102 cN/25 mm and not more than 150 cN/25 mm in the cross-machine direction, and the content of the moisturizer in the tissue paper is not less than 1.1 g/m 2 and not more than 2.5 g/m 2, wherein the web has a web compressive stress of more than 0.51 g/cm 2 and less than 0.86 g/cm 2, wherein the ratio of the product of the paper thickness and the number of the 2-ply sheets to a web bulk is not less than 0.35, wherein the ratio of the web bulk to the height of the paper box is not less than 0.94 and not more than 0.98, wherein the ratio of the length of the tissue paper in the cross-machine direction to the length of the paper box in the longitudinal direction is not less than 0.84, and wherein the space volume ratio of the tissue paper product is not less than 78%, which refers to the ratio of the product of the web bulk, the depth of the web and the length of the tissue paper in the cross-machine direction to the product of the height of an external surface of the paper box, the width of the external surface of the paper box and the depth of the external surface of the paper box. wherein the sheets of tissue paper are 2-ply sheets having a 1-ply basis weight of not less than 13.0 g/m 2 and less than 14.5 g/m 2 and having a 2-ply paper thickness of more than 143 μm and less than 175 μm, the dry tensile strength of the tissue paper is more than 276 cN/25 mm and not more than 346 cN/25 mm in the machine direction, and more than 102 cN/25 mm and not more than 150 cN/25 mm in the cross-machine direction, and the content of the moisturizer in the tissue paper is not less than 1.1 g/m 2 and not more than 2.5 g/m 2, wherein the web has a web compressive stress of more than 0.51 g/cm 2 and less than 0.86 g/cm 2, wherein the ratio of the product of the paper thickness and the number of the 2-ply sheets to a web bulk is not less than 0.35, wherein the ratio of the web bulk to the height of the paper box is not less than 0.94 and not more than 0.98, wherein the ratio of the length of the tissue paper in the cross-machine direction to the length of the paper box in the longitudinal direction is not less than 0.84, and wherein the space volume ratio of the tissue paper product is not less than 78%, which refers to the ratio of the product of the web bulk, the depth of the web and the length of the tissue paper in the cross-machine direction to the product of the height of an external surface of the paper box, the width of the external surface of the paper box and the depth of the external surface of the paper box.
A nonwoven fabric comprising a first web of extruded strands that include an auto-adhesive material, wherein the auto-adhesive material is a polymeric material that includes thermoplastic elastomers selected from the group consisting of: multi block copolymers of radial, triblock and diblock structures including non-rubbery segments of mono- and polycyclic aromatic hydrocarbons; thermoplastic elastomers that include rubbery segments that are polymer blocks which may be comprised of homopolymers of a monomer, or a copolymer that includes two or more monomers, selected from aliphatic conjugated diene compounds; styrenic block copolymer systems that include rubbery segments which may be saturated by hydrogenating unsaturated precursors; or wherein the auto-adhesive material includes a mixture of a polyethylene and a block copolymer; and wherein said nonwoven fabric is adapted to be bonded to another item that includes a similar auto-adhesive material. multi block copolymers of radial, triblock and diblock structures including non-rubbery segments of mono- and polycyclic aromatic hydrocarbons; thermoplastic elastomers that include rubbery segments that are polymer blocks which may be comprised of homopolymers of a monomer, or a copolymer that includes two or more monomers, selected from aliphatic conjugated diene compounds; styrenic block copolymer systems that include rubbery segments which may be saturated by hydrogenating unsaturated precursors; or wherein the auto-adhesive material includes a mixture of a polyethylene and a block copolymer; and wherein said nonwoven fabric is adapted to be bonded to another item that includes a similar auto-adhesive material.
A cooling device, in particular a freezer, having a cooling circuit, wherein the cooling circuit has a compressor, at least one evaporator, and a condenser, and a closable cooling space with a plurality of cooling space sidewalls, a cooling space base, at least one cooling element, and an insulation vessel, wherein the at least one evaporator and the at least one cooling element are disposed within the cooling space such that a first side of the cooling element at least partially abuts the at least one evaporator and a second side of the cooling element faces the insulation vessel, and the insulation vessel is closed at least towards the at least one cooling element and forms a space for cooling goods, characterized in that the first side of the cooling element abutting the at least one evaporator has at least one recess into which at least one removable cold accumulator can be inserted.
γ-glutamyl cysteine and 2-[2-[4-(4-nitrobenzyloxy)phenyl]ethyl]isothiourea methanesulphonate (KB-R7943) for use in reducing the severity of blood-brain barrier reperfusion injury during thrombolytic treatment following ischemic stroke in a mammalian subject, wherein the γ-glutamyl cysteine and the KB-R7943 are co-administered to the subject after having an ischemic stroke and prior to administering a thrombolytic agent to the subject.
Lateral upright for motor vehicle body shell intended to separate two bays of the body shell, for example two lateral bays at the front and rear, at least one of the bays being lateral of the type comprising at least one stiffening section comprising two side plates (14A, 14B) that are substantially parallel to one another and are connected together by a web, the stiffening section being made of composite material, the side plates (14A, 14B) being intended to extend substantially parallel to the lateral bay of the body shell, the web of the section made of composite material forming, with the side plates, a honeycomb structure; characterised in that the section made of composite material has a generally I-shaped cross-section formed by the two side plates (14A, 14B) substantially parallel to one another and the web, the web of the section made of composite material comprising: - a substantially flat central wall connecting the two substantially parallel side plates (14A, 14B) by extending substantially perpendicular to these two side plates (14A, 14B), and - ribs made of composite material extending each side of the central wall and between the two side plates (14A, 14B) so as to connect the central wall and the two side plates (14A, 14B) together, these ribs defining cells of the honeycomb structure of the web. - a substantially flat central wall connecting the two substantially parallel side plates (14A, 14B) by extending substantially perpendicular to these two side plates (14A, 14B), and - ribs made of composite material extending each side of the central wall and between the two side plates (14A, 14B) so as to connect the central wall and the two side plates (14A, 14B) together,
Method for operating a hybrid motor system with a first drive unit, in particular an internal combustion engine, and a second drive unit, in particular an electric motor, comprising the following steps: - actuating the first drive unit and the second drive unit so that the first drive unit and the second drive unit each make available an output variable (VTM, ETM), in order to make available a total output variable; - limiting the output variable made available by the first drive unit to a limiting value which is less than a maximum output variable which can be made available by the first drive unit, - cancelling the limiting if the output variable which is made available by the second drive unit corresponds to a maximum output variable which can be made available by the second drive unit, characterized in that the time period of the cancelling of the limiting is defined as a maximum time period. - actuating the first drive unit and the second drive unit so that the first drive unit and the second drive unit each make available an output variable (VTM, ETM), in order to make available a total output variable; - limiting the output variable made available by the first drive unit to a limiting value which is less than a maximum output variable which can be made available by the first drive unit, - cancelling the limiting if the output variable which is made available by the second drive unit corresponds to a maximum output variable which can be made available by the second drive unit, characterized in that the time period of the cancelling of the limiting is defined as a maximum time period.
A process for producing a highly polymerized aromatic polycarbonate resin comprising a highly polymerizing step of reacting an aromatic polycarbonate prepolymer with an aliphatic diol compound in the presence of a transesterification catalyst to obtain a highly polymerized aromatic polycarbonate resin, wherein the weight average molecular weight of the highly polymerized aromatic polycarbonate resin is 5000 or more higher than the weight average molecular weight of the aromatic polycarbonate prepolymer; wherein the aliphatic diol is represented by one of the following Formulae and: wherein, in Formula, Ra and Rb each independently represent a hydrogen atom, a halogen atom, a linear or branched alkyl group with 1 to 30 carbon atoms optionally having an oxygen atom or a halogen atom, a cycloalkyl group with 3 to 30 carbon atoms optionally having an oxygen atom or a halogen atom, an aryl group with 6 to 30 carbon atoms optionally having an oxygen atom or a halogen atom, or an alkoxy group with 1 to 15 carbon atoms optionally having an oxygen atom or a halogen atom, and Ra and Rb may be bonded to each other to form a ring; R 1 to R 4 each independently represent a halogen atom, or a linear or branched alkyl group with 1 to 5 carbon atoms; and n represents an integer of 0 to 30; wherein, in Formula, Ra and Rb each independently represent a halogen atom, a linear or branched alkyl group with 1 to 30 carbon atoms having an oxygen atom or a halogen atom, a cycloalkyl group with 3 to 30 carbon atoms optionally having an oxygen atom or a halogen atom, or an alkoxy group with 1 to 15 carbon atoms optionally having an oxygen atom or a halogen atom, and Ra and Rb may be bonded together to form a ring.
Method for identifying defects in the running surfaces of the bearing shells and in the roller bodies of ceramic hybrid bearings, wherein the outer or inner ferromagnetic bearing shell with outer ring or inner ring of the ceramic hybrid bearing is magnetically encoded at least in a subregion, and wherein the magnetic encoding of the bearing shell with outer ring or inner ring is used as a generator for checking the running surfaces of the bearing shells with outer ring or inner ring and the ceramic roller bodies, specifically ceramic balls, by means of inverse magnetostriction, characterized in that two or more spatially separated magnetic fields which oppose one another, specifically magnetic structures, are formed in the subregion of the outer or inner ferromagnetic bearing shell, wherein a plurality of sensors outside the outer ring measure the two or more magnetic fields, wherein a final pressure profile in at least one subregion of the running surfaces of the bearing shells owing to an exerted pressure of at least one roller body on the at least one subregion of the bearing shells is ascertained from the difference between the two or more magnetic fields, and wherein a defect is identified by means of a comparison of the final pressure profile with a known pressure profile of a damaged or undamaged bearing.
A packer assembly for use in a wellbore comprising: a packer mandrel; a first piston slidably disposed about the packer mandrel defining a first chamber therewith; an activation assembly disposed about the packer mandrel initially preventing movement of the first piston; a first seal assembly disposed about the packer mandrel and operably associated with the first piston; a second piston slidably disposed about the packer mandrel defining a second chamber therewith; a release assembly disposed about the packer mandrel initially preventing movement of the second piston; and a second seal assembly disposed about the packer mandrel and operably associated with the second piston; wherein, actuation of the activation assembly allows a force generated by a pressure difference between the wellbore and the first chamber to shift the first piston in a first direction toward the first seal assembly to radially expand the first seal assembly and to actuate the release assembly; and wherein, actuation of the release assembly allows a force generated by a pressure difference between the wellbore and the second chamber to shift the second piston in the first direction toward the second seal assembly to radially expand the second seal assembly. a packer mandrel; a first piston slidably disposed about the packer mandrel defining a first chamber therewith; an activation assembly disposed about the packer mandrel initially preventing movement of the first piston; a first seal assembly disposed about the packer mandrel and operably associated with the first piston; a second piston slidably disposed about the packer mandrel defining a second chamber therewith; a release assembly disposed about the packer mandrel initially preventing movement of the second piston; and a second seal assembly disposed about the packer mandrel and operably associated with the second piston; wherein, actuation of the activation assembly allows a force generated by a pressure difference between the wellbore and the first chamber to shift the first piston in a first direction toward the first seal assembly to radially expand the first seal assembly and to actuate the release assembly; and wherein, actuation of the release assembly allows a force generated by a pressure difference between the wellbore and the second chamber to shift the second piston in the first direction toward the second seal assembly to radially expand the second seal assembly.
An implant for performing a total knee arthroplasty on a target knee joint of a patient, the knee joint comprising a lateral condyle and a medial condyle, each of the condyles having a known shape, the implant comprising: a lateral condyle component; a medial condyle component; and a bridge connecting the lateral condyle component to the medial condyle component; wherein the implant further comprises a superior surface and an inferior surface, wherein the superior surface is shaped to correspond to a shape of the condyles such that it corresponds to the actual shape of one or both of the condyles or to a shape of one or both of the condyles after resurfacing of the joint, characterized in that the implant is patient-specific, wherein the inferior surface is configured to conform to a projected shape of the condyles (1002, 1004) of the target knee joint of the patient a lateral condyle component; a medial condyle component; and a bridge connecting the lateral condyle component to the medial condyle component; wherein the implant further comprises a superior surface and an inferior surface, wherein the superior surface is shaped to correspond to a shape of the condyles such that it corresponds to the actual shape of one or both of the condyles or to a shape of one or both of the condyles after resurfacing of the joint, characterized in that the implant is patient-specific, wherein the inferior surface is configured to conform to a projected shape of the condyles (1002, 1004) of the target knee joint of the patient
A device for energy conversion comprising: a device for adaptable wavelength conversion comprising at least one layer comprising a wavelength converting material and a window arranged to receive and re-emit a light beam, wherein the device for adaptable wavelength conversion is arranged to manipulate the at least one layer to operate in a closed state, in which the window of the at least one layer is substantially covered with the wavelength converting material and to operate in an open state, in which the window of the at least one layer is substantially uncovered with the wavelength converting material, a solar cell, whereby the solar cell is arranged to, in use, receive the light beam re-emitted via the window, a control unit, and a light sensor, the light sensor being arranged to, in use, determine a frequency property of the received light beam, and provide a signal to the control unit, the control unit being arranged to control the device for adaptable wavelength conversion in accordance with the signal. a device for adaptable wavelength conversion comprising at least one layer comprising a wavelength converting material and a window arranged to receive and re-emit a light beam, wherein the device for adaptable wavelength conversion is arranged to manipulate the at least one layer to operate in a closed state, in which the window of the at least one layer is substantially covered with the wavelength converting material and to operate in an open state, in which the window of the at least one layer is substantially uncovered with the wavelength converting material, a solar cell, whereby the solar cell is arranged to, in use, receive the light beam re-emitted via the window, a control unit, and a light sensor, the light sensor being arranged to, in use, determine a frequency property of the received light beam, and provide a signal to the control unit, the control unit being arranged to control the device for adaptable wavelength conversion in accordance with the signal.
A method for use in optical measurements in patterned structures having vias, the method comprising: applying a dark-field detection mode to the patterned structure under measurements by candying out the following: illuminating the structure with light of a broad spectrum of wavelengths such that the structure is large as compared to the wavelength of the illuminating light (L' 1, L" 1), said light having certain polarization state and propagating onto the structure with normal incidence; detecting light (L' 2) retumed from the illuminated structure, while providing mutually perpendicular polarizations for the incident (L' 1, L" 1) and the returned light (L' 2); processing measured spectral data indicative of the detected light, said processing comprising applying an appropriate model and determining one or more of the following parameters of side walls of the via; a sidewall angle, side wall ripples, and characteristics of a thin insulating layer created on the via walls. applying a dark-field detection mode to the patterned structure under measurements by candying out the following: illuminating the structure with light of a broad spectrum of wavelengths such that the structure is large as compared to the wavelength of the illuminating light (L' 1, L" 1), said light having certain polarization state and propagating onto the structure with normal incidence; detecting light (L' 2) retumed from the illuminated structure, while providing mutually perpendicular polarizations for the incident (L' 1, L" 1) and the returned light (L' 2); processing measured spectral data indicative of the detected light, said processing comprising applying an appropriate model and determining one or more of the following parameters of side walls of the via; a sidewall angle, side wall ripples, and characteristics of a thin insulating layer created on the via walls. illuminating the structure with light of a broad spectrum of wavelengths such that the structure is large as compared to the wavelength of the illuminating light (L' 1, L" 1), said light having certain polarization state and propagating onto the structure with normal incidence; detecting light (L' 2) retumed from the illuminated structure, while providing mutually perpendicular polarizations for the incident (L' 1, L" 1) and the returned light (L' 2); processing measured spectral data indicative of the detected light, said processing comprising applying an appropriate model and determining one or more of the following parameters of side walls of the via; a sidewall angle, side wall ripples, and characteristics of a thin insulating layer created on the via walls.
A computer-implemented seismic data deblending method, comprising: obtaining (410, 810) a first non-blended dataset and a second blended dataset related to a same surveyed area during a seismic survey generating images used for geological prospecting; characterized in calculating a model dataset simulating the second blended dataset based on the first non-blended dataset, the model dataset making it possible to estimate crosstalk, the model dataset being calculated by interpolating data in the first dataset to match source and receiver positions of data in the second dataset and the model dataset being used to mitigate cross-talk noise in the second blended dataset by: blending the model dataset to form a continuous recording trace; pseudo-blending the continuous recording trace; calculating a cross-talk estimate based on the pseudo-blended continuous recording trace; and subtracting the cross-talk noise from the second blended dataset; and deblending the second blended dataset using the model dataset. obtaining (410, 810) a first non-blended dataset and a second blended dataset related to a same surveyed area during a seismic survey generating images used for geological prospecting; characterized in calculating a model dataset simulating the second blended dataset based on the first non-blended dataset, the model dataset making it possible to estimate crosstalk, the model dataset being calculated by interpolating data in the first dataset to match source and receiver positions of data in the second dataset and the model dataset being used to mitigate cross-talk noise in the second blended dataset by: blending the model dataset to form a continuous recording trace; pseudo-blending the continuous recording trace; calculating a cross-talk estimate based on the pseudo-blended continuous recording trace; and subtracting the cross-talk noise from the second blended dataset; and deblending the second blended dataset using the model dataset. blending the model dataset to form a continuous recording trace; pseudo-blending the continuous recording trace; calculating a cross-talk estimate based on the pseudo-blended continuous recording trace; and subtracting the cross-talk noise from the second blended dataset; and deblending the second blended dataset using the model dataset.
A method of securing a position of a crane having at least two support legs for support on surfaces, in which at least one limit value is input for the support legs, wherein when at least one limit value is exceeded by an instantaneous supporting force movements which increase the supporting force are blocked, characterised in that the limit values for each of the support legs are input individually and/or for subgroups of support legs.