mhurhangee/ep-ind-claims huggingface dataset:
A method for heating biomass moving along an industrial treatment line comprising an inlet for the incoming biomass, a pressure pump, heating means (94, 94b) and a treatment station, characterized in that steam is injected into the line between the pressure pump and the heating means (94, 94b) and characterized in that the method includes a step in which an additive is injected into the biomass upstream of the heating means (94, 94b), during which the additive is injected into the biomass such that the additive is exposed to the injected steam.
A luggage article comprising: first and second halves (150, 152) defined by front, rear, top, bottom, left, and right panels (110, 112, 120, 122, 124, 126), the first and second halves hingedly connected together at a split line, the first and second halves movable between a closed configuration in which the first and second halves abut each other to define a substantially enclosed space, and an open configuration in which the first half is pivoted away from the second half to allow user access to the enclosed space; a closure mechanism releasably securing the first and second halves together in the closed configuration along at least a portion of the split line; a split bottom pan assembly including first and second pan members (280, 282), the first pan member supporting a bottom panel portion of the first half, the second pan member supporting a bottom panel portion of the second half, each of the first and second pan members including a connecting edge (340, 341); wherein the connecting edges of the first and second pan members engage and interlock together at the split line when the luggage article is in the closed configuration to form a solid bottom structure; wherein the connecting edges of the first and second pan members are held in engagement using the closure mechanism; wherein each of the first and second pan members include one or more sidewalls extending from a periphery of a base plate; and wherein the connecting edges (340, 341) abut and interlock only along the base plates (290, 310) and the first and second sidewalls (300, 302, 320, 322). first and second halves (150, 152) defined by front, rear, top, bottom, left, and right panels (110, 112, 120, 122, 124, 126), the first and second halves hingedly connected together at a split line, the first and second halves movable between a closed configuration in which the first and second halves abut each other to define a substantially enclosed space, and an open configuration in which the first half is pivoted away from the second half to allow user access to the enclosed space; a closure mechanism releasably securing the first and second halves together in the closed configuration along at least a portion of the split line; a split bottom pan assembly including first and second pan members (280, 282), the first pan member supporting a bottom panel portion of the first half, the second pan member supporting a bottom panel portion of the second half, each of the first and second pan members including a connecting edge (340, 341); wherein the connecting edges of the first and second pan members engage and interlock together at the split line when the luggage article is in the closed configuration to form a solid bottom structure; wherein the connecting edges of the first and second pan members are held in engagement using the closure mechanism; wherein each of the first and second pan members include one or more sidewalls extending from a periphery of a base plate; and wherein the connecting edges (340, 341) abut and interlock only along the base plates (290, 310) and the first and second sidewalls (300, 302, 320, 322).
Method of additive manufacturing comprising the steps of: - additively manufacturing a first section for a component, wherein the first section is provided with a position feature, - additively manufacturing a second section for the component on the first section, and, in case that a build failure occurs during the additive manufacture of the second section, - machining back a present buildup until the position feature is revealed, and - additively manufacturing the second section separately from the first section, thereby providing the second section with a corresponding position feature, and - connecting the first section and the second section to provide the component. - additively manufacturing a first section for a component, wherein the first section is provided with a position feature, - additively manufacturing a second section for the component on the first section, and, in case that a build failure occurs during the additive manufacture of the second section, - machining back a present buildup until the position feature is revealed, and - additively manufacturing the second section separately from the first section, thereby providing the second section with a corresponding position feature, and - connecting the first section and the second section to provide the component.
Method for determining an effect of a particle beam in a material at least partially irradiated or to be irradiated and which at least in part incorporates a biological material, wherein from at least one parameter characterizing the particle beam and from at least one parameter characterizing a material property, the effect of the particle beam in the material is determined at least partially on the basis of a microscopic damage correlation of double strand breaks of a DNA with intervals of ≥ 100 nm.
An operating device for operating lighting means, having • connections for an external supply voltage, • emergency power supply means for providing an emergency power supply, wherein the emergency power supply means comprise at least one battery or an accumulator, • electronic components, which convert the external supply voltage or the emergency power supply into an operating voltage for the lighting means, • a housing for accommodating the emergency power supply means and the electronic components, wherein the housing has a first region for the accommodation of the electronic components and a second region for the accommodation of the emergency power supply means and wherein the first region and the second region are thermally separated from one another, and wherein the housing has intermediate walls (111, 121), which separate the first region and the second region from one another, characterized in that at least two intermediate walls (111, 121) are present, which enclose an intermediate room separating the first region from the second region, and that the outer walls (131, 132) of the housing enclosing the intermediate space, which walls abut against the intermediate space, are provided with openings, so that an air circulation through the intermediate space is made possible. • connections for an external supply voltage, • emergency power supply means for providing an emergency power supply, wherein the emergency power supply means comprise at least one battery or an accumulator, • electronic components, which convert the external supply voltage or the emergency power supply into an operating voltage for the lighting means, • a housing for accommodating the emergency power supply means and the electronic components, wherein the housing has a first region for the accommodation of the electronic components and a second region for the accommodation of the emergency power supply means and wherein the first region and the second region are thermally separated from one another, and wherein the housing has intermediate walls (111, 121), which separate the first region and the second region from one another, characterized in that at least two intermediate walls (111, 121) are present, which enclose an intermediate room separating the first region from the second region, and that the outer walls (131, 132) of the housing enclosing the intermediate space, which walls abut against the intermediate space, are provided with openings, so that an air circulation through the intermediate space is made possible.
A process for preparing a compound of formula, comprising reacting α-halo-α-acyl-butyrolactone of formula with a compound of formula in the presence of an acid catalyst and an organic solvent: wherein: R 1 is C 1-10 alkyl or phenyl, R 2 is H or C 1-10 alkyl, and X is halogen.
A method of a user equipment, UE, in a wireless communication system associated with long term evolution, LTE, the method comprising: generating control information including hybrid automatic-repeat-request acknowledgement, HARQ-ACK, or rank indication, RI; based on identifying that two transport blocks, TBs, are transmitted in a physical uplink shared channel, PUSCH, for the control information, determining a number of a coded modulation symbols per layer for the control information based on a minimum number of the coded modulation symbols such that the number of the coded modulation symbols is at least the minimum number of the coded modulation symbols; and transmitting the control information based on the number of the coded modulation symbols wherein the minimum number of the coded modulation symbols is determined based on a number of one or more bits for the control information, and wherein, if the number of the one or more bits is greater than or equal to 3 and smaller than or equal to 11, the minimum number of the coded modulation symbols is determined based on a function of the number of the one or more bits, a first modulation order of one of the two TBs, and a second modulation order of another one of the two TBs generating control information including hybrid automatic-repeat-request acknowledgement, HARQ-ACK, or rank indication, RI; based on identifying that two transport blocks, TBs, are transmitted in a physical uplink shared channel, PUSCH, for the control information, determining a number of a coded modulation symbols per layer for the control information based on a minimum number of the coded modulation symbols such that the number of the coded modulation symbols is at least the minimum number of the coded modulation symbols; and transmitting the control information based on the number of the coded modulation symbols wherein the minimum number of the coded modulation symbols is determined based on a number of one or more bits for the control information, and wherein, if the number of the one or more bits is greater than or equal to 3 and smaller than or equal to 11, the minimum number of the coded modulation symbols is determined based on a function of the number of the one or more bits, a first modulation order of one of the two TBs, and a second modulation order of another one of the two TBs
A venous pressure measurement device comprising a controller configured to: obtain pulse wave information on a pulse wave of a subject measured by a sensor (114, 115); determine whether the venous pressure of the subject can be estimated from the obtained pulse wave information, determine, when the venous pressure of the subject cannot be estimated, whether a value range of the venous pressure of the subject can be calculated based on the obtained pulse wave information; and calculate a value range of venous pressure of the subject based on the obtained pulse wave information when it is determined that the venous pressure of the subject cannot be estimated and the value range of the venous pressure of the subject can be calculated from the obtained pulse wave information. obtain pulse wave information on a pulse wave of a subject measured by a sensor (114, 115); determine whether the venous pressure of the subject can be estimated from the obtained pulse wave information, determine, when the venous pressure of the subject cannot be estimated, whether a value range of the venous pressure of the subject can be calculated based on the obtained pulse wave information; and calculate a value range of venous pressure of the subject based on the obtained pulse wave information when it is determined that the venous pressure of the subject cannot be estimated and the value range of the venous pressure of the subject can be calculated from the obtained pulse wave information.
A laser resonator cavity, comprising: a housing having a first end and a second end, and a bore having an axis running between said first and second ends; a pair of coaxial metallic electrodes (13,14) disposed within said bore, said pair comprising an inner electrode and an outer electrode, said electrodes being constructed to have a gap between them and configured to have an RF field applied between them; and folding mirrors (17,18) disposed at each end region of said housing, characterized in that said laser resonator cavity further comprises a ceramic material disposed in the gap between said coaxial electrodes, said ceramic material having a series of channels formed therein, such that they generate a zig-zag pathway between said folding mirrors (17,18), wherein said zig-zag pathway, when filled with a gain medium, and said folding mirrors, together constitute a laser resonator cavity. a housing having a first end and a second end, and a bore having an axis running between said first and second ends; a pair of coaxial metallic electrodes (13,14) disposed within said bore, said pair comprising an inner electrode and an outer electrode, said electrodes being constructed to have a gap between them and configured to have an RF field applied between them; and folding mirrors (17,18) disposed at each end region of said housing,
A rotor blade for a wind turbine, comprising: a first blade segment and a second blade segment extending in opposite directions from a chord-wise joint, each of the first and second blade segments comprising at least one shell member defining an airfoil surface and an internal support structure, the internal support structure of the first blade segment comprising a beam structure extending lengthwise that structurally connects with the internal support structure of the second blade segment via a receiving section; and, one or more pin joints positioned on at least one of internal support structures of the first blade segment or the second blade segment, wherein at least one of internal support structures of the first blade segment or the second blade segment is constructed, at least in part, of a resin material comprising a plurality of fibers cured therein, characterized by the plurality of fibers having varying fiber orientations along a span of the rotor blade, at least, at locations of the one or more pin joints. a first blade segment and a second blade segment extending in opposite directions from a chord-wise joint, each of the first and second blade segments comprising at least one shell member defining an airfoil surface and an internal support structure, the internal support structure of the first blade segment comprising a beam structure extending lengthwise that structurally connects with the internal support structure of the second blade segment via a receiving section; and, one or more pin joints positioned on at least one of internal support structures of the first blade segment or the second blade segment, wherein at least one of internal support structures of the first blade segment or the second blade segment is constructed, at least in part, of a resin material comprising a plurality of fibers cured therein, characterized by the plurality of fibers having varying fiber orientations along a span of the rotor blade, at least, at locations of the one or more pin joints.
A method for authenticating a first wireless communication node, comprising: transmitting (602, 702) a first message from a distributed unit, DU, 102-1A, 102-A) of the first wireless communication node to a central unit, CU, (102-1B, 102-B) of the first wireless communication node, wherein the first message comprises first integrity information of at least one first information block configured by the DU; receiving (604, 704) a second message by the DU of the first wireless communication node from the CU of the first wireless communication node, wherein the second message comprises second integrity information of at least one second information block configured by the CU; and transmitting (606, 706) a system message, comprising the at least one first information block and the at least one second information block, from the first wireless communication node to a wireless communication device, wherein the system message comprises third integrity information to be used by the wireless communication device to determine fourth integrity information, the third integrity information comprising the first integrity information and the second integrity information. transmitting (602, 702) a first message from a distributed unit, DU, 102-1A, 102-A) of the first wireless communication node to a central unit, CU, (102-1B, 102-B) of the first wireless communication node, wherein the first message comprises first integrity information of at least one first information block configured by the DU; receiving (604, 704) a second message by the DU of the first wireless communication node from the CU of the first wireless communication node, wherein the second message comprises second integrity information of at least one second information block configured by the CU; and transmitting (606, 706) a system message, comprising the at least one first information block and the at least one second information block, from the first wireless communication node to a wireless communication device, wherein the system message comprises third integrity information to be used by the wireless communication device to determine fourth integrity information, the third integrity information comprising the first integrity information and the second integrity information.
A method for manufacturing a rack bar, the method comprising: joining an axial end portion of a first bar member and an axial end portion of a second bar member to each other, the first bar member and the second bar member being hollow members, and the first bar member having a toothed portion along an axial direction, and the toothed portion having a plurality of rack teeth, thickening a wall of at least a portion of the second bar member, that has been joined to the first bar member, along the axial direction such that the portion of the second bar member is made coaxial with the first bar member, and after the thickening has been performed, forming a power transmission section on the wall-thickened portion of the second bar member. joining an axial end portion of a first bar member and an axial end portion of a second bar member to each other, the first bar member and the second bar member being hollow members, and the first bar member having a toothed portion along an axial direction, and the toothed portion having a plurality of rack teeth, thickening a wall of at least a portion of the second bar member, that has been joined to the first bar member, along the axial direction such that the portion of the second bar member is made coaxial with the first bar member, and after the thickening has been performed, forming a power transmission section on the wall-thickened portion of the second bar member.
Method for the manufacture of a microfluidic device analytical membrane; the said analytical membrane being formed from a porous substrate sheet in the thickness of which solid wax forms impermeable edges delimiting hydrophilic regions; the said impermeable edges describing, across the substrate sheet, a pattern drawn with the wax; characterized in that it comprises the following stages: - an intermediate pattern (12a, 12b), fashioned with the wax in the image of the said pattern drawn with the wax which will form the impermeable edges of the analytical membrane, is affixed to each of the faces of a porous substrate sheet so that, on either side of the thickness of the said substrate sheet, the said intermediate patterns (12a, 12b), which are mutually symmetrical, are found positioned facing one another; - held horizontally, the said substrate sheet is subjected to a heat treatment capable of bringing about at least partial melting of the constituent wax of the intermediate patterns (12a, 12b) affixed to the faces of the said substrate sheet, and to a mechanical treatment capable of compressing the thickness of all or part of the said substrate sheet; - the said substrate sheet is subjected to a phase of mechanical and thermal relaxation capable of making it possible for the said substrate sheet to at least partially regain its initial thickness and for the wax to resolidify inside the thickness of the said substrate sheet; and in that the thickness of the said substrate sheet is between 200 μm and 1000 μm. - an intermediate pattern (12a, 12b), fashioned with the wax in the image of the said pattern drawn with the wax which will form the impermeable edges of the analytical membrane, is affixed to each of the faces of a porous substrate sheet so that, on either side of the thickness of the said substrate sheet, the said intermediate patterns (12a, 12b), which are mutually symmetrical, are found positioned facing one another; - held horizontally, the said substrate sheet is subjected to a heat treatment capable of bringing about at least partial melting of the constituent wax of the intermediate patterns (12a, 12b) affixed to the faces of the said substrate sheet, and to a mechanical treatment capable of compressing the thickness of all or part of the said substrate sheet; - the said substrate sheet is subjected to a phase of mechanical and thermal relaxation capable of making it possible for the said substrate sheet to at least partially regain its initial thickness and for the wax to resolidify inside the thickness of the said substrate sheet; and
A sterile peritoneal dialysis fluid, comprising: an acidic first liquid containing 60.0 to 94.0 g/L of icodextrin and 0 to 2.34 g/L of sodium chloride, and an alkaline second liquid containing an alkaline pH regulator, a mixture of the first liquid and the second liquid after sterilization has a pH of 6.0 to 7.5, wherein the acidic first liquid after sterilization is in an acidic region and a content of the alkaline pH regulator of the alkaline second liquid is an amount required to adjust a pH of the peritoneal dialysis liquid to pH 6.0 to 7.5 after the acidic first liquid and alkaline second liquid after sterilization are mixed with an addition of at least one of lactic acid and a lactate incorporated as an alkalizing agent. an acidic first liquid containing 60.0 to 94.0 g/L of icodextrin and 0 to 2.34 g/L of sodium chloride, and an alkaline second liquid containing an alkaline pH regulator, a mixture of the first liquid and the second liquid after sterilization has a pH of 6.0 to 7.5, wherein the acidic first liquid after sterilization is in an acidic region and a content of the alkaline pH regulator of the alkaline second liquid is an amount required to adjust a pH of the peritoneal dialysis liquid to pH 6.0 to 7.5 after the acidic first liquid and alkaline second liquid after sterilization are mixed with an addition of at least one of lactic acid and a lactate incorporated as an alkalizing agent.
A lining assembly for the body of a vehicle, in particular a railway vehicle, comprising: - a metal wall comprising an outer surface, - an outer panel attached to the outer surface of the metal wall, - an interface for securing the outer panel to the outer surface of the metal wall, the securing interface comprising an aluminium securing bracket extending from the outer surface of the metal wall, an aluminium spacer extending through the outer panel and applied to the securing bracket, and a fastener securing the spacer to the securing bracket, said spacer maintaining a gap between the outer panel and the mounting bracket. - a metal wall comprising an outer surface, - an outer panel attached to the outer surface of the metal wall, - an interface for securing the outer panel to the outer surface of the metal wall, the securing interface comprising an aluminium securing bracket extending from the outer surface of the metal wall, an aluminium spacer extending through the outer panel and applied to the securing bracket, and a fastener securing the spacer to the securing bracket, said spacer maintaining a gap between the outer panel and the mounting bracket.