mhurhangee/ep-ind-claims huggingface dataset:
A dose setting mechanism for a drug delivery device, said mechanism comprising an outer housing (40; 204), an inner housing, a driver (30; 209) and a dial sleeve (10; 206) disposed between said outer housing and said inner housing, wherein the inner housing has an external groove, said inner housing being operatively coupled to the driver (30; 209) and guiding said driver to dispense a dose set by said dose setting mechanism and wherein said dial sleeve is rotatably engaged with said external groove of said inner housing; wherein the dose setting mechanism further comprises a clutch (26; 205) operatively coupled to said dial sleeve (10; 206) and said driver (30; 209), said clutch allows said dial sleeve and said driver to rotate together during a setting of a dose of said drug delivery device, and said clutch allows relative rotation of said driver and said dial sleeve during an injection of said dose; and/or wherein the dose setting mechanism is configured such that when a dose is set by said dose setting mechanism, said dial sleeve (10; 206) and driver (30; 209) are both rotated with respect to both said outer housing (40; 204) and said inner housing and are translated away from both said outer housing and said inner housing.
A device for acquiring signals from a sensor, comprising: · a differential amplifier having a first input connected to a first line (11.1) and a second input connected to a second line(11.2), the first line and the second line each being for connection to a respective output of the sensor; · two bias resistors (31.1, 31.2) for biasing the measurement device and connected respectively to the first line and to the second line; · a common mode and differential mode filter circuit connected to the first line and to the second line; and · two lightning limiter components (40.1, 40.2) connected respectively to the first line and to the second line; the device being characterized in that the differential amplifier is of the "high common mode range" type, in that the limiter components (40.1, 40.2) are dimensioned to reduce a lightning voltage to a maximum voltage value of about one hundred to three hundred volts, and in that the filter circuit and the bias resistors (31.1, 31.2) are dimensioned to withstand the maximum voltage value. · a differential amplifier having a first input connected to a first line (11.1) and a second input connected to a second line(11.2), the first line and the second line each being for connection to a respective output of the sensor; · two bias resistors (31.1, 31.2) for biasing the measurement device and connected respectively to the first line and to the second line; · a common mode and differential mode filter circuit connected to the first line and to the second line; and · two lightning limiter components (40.1, 40.2) connected respectively to the first line and to the second line;
A method for producing hydrogen peroxide, comprising: a step of reducing and then oxidizing a working solution containing an organic solvent, anthraquinone having an alkyl substituent, and tetrahydroanthraquinone having an alkyl substituent to produce hydrogen peroxide; a working solution regeneration step of removing an inert substance, generated as a sub product by the production of hydrogen peroxide, from the working solution and re-circulating the working solution deprived of the inert substance back into the step of producing hydrogen peroxide; and a step of contacting a working solution, prepared using the organic solvent, the anthraquinone and the tetrahydroanthraquinone recovered by the first distillation step and the second distillation step, to a regeneration catalyst; wherein the working solution regeneration step includes: i) a first distillation step of recovering the organic solvent by distillation performed at an atmospheric pressure or a lower pressure, until the remaining amount of solvent becomes 5% by weight or less; and ii) a second distillation step of, following the first distillation step, recovering the anthraquinone and the tetrahydroanthraquinone by distillation performed at a still lower pressure at a temperature of 200°C or higher for a residence time of 6 to 10 hours. a step of reducing and then oxidizing a working solution containing an organic solvent, anthraquinone having an alkyl substituent, and tetrahydroanthraquinone having an alkyl substituent to produce hydrogen peroxide; a working solution regeneration step of removing an inert substance, generated as a sub product by the production of hydrogen peroxide, from the working solution and re-circulating the working solution deprived of the inert substance back into the step of producing hydrogen peroxide; and a step of contacting a working solution, prepared using the organic solvent, the anthraquinone and the tetrahydroanthraquinone recovered by the first distillation step and the second distillation step, to a regeneration catalyst; wherein the working solution regeneration step includes: i) a first distillation step of recovering the organic solvent by distillation performed at an atmospheric pressure or a lower pressure, until the remaining amount of solvent becomes 5% by weight or less; and ii) a second distillation step of, following the first distillation step, recovering the anthraquinone and the tetrahydroanthraquinone by distillation performed at a still lower pressure at a temperature of 200°C or higher for a residence time of 6 to 10 hours. i) a first distillation step of recovering the organic solvent by distillation performed at an atmospheric pressure or a lower pressure, until the remaining amount of solvent becomes 5% by weight or less; and ii) a second distillation step of, following the first distillation step, recovering the anthraquinone and the tetrahydroanthraquinone by distillation performed at a still lower pressure at a temperature of 200°C or higher for a residence time of 6 to 10 hours.
A display device comprising: a first base having a display area and a non-display area; light-emitting elements (ED1, ED2, ED3) on the first base, the light-emitting elements (ED1, ED2, ED3) being located in the display area; a capping layer over the light-emitting elements (ED1, ED2, ED3); and an encapsulation layer over the capping layer and the light-emitting elements (ED1, ED2, ED3), wherein the encapsulation layer comprises: a first inorganic layer; an organic layer on the first inorganic layer, wherein the first inorganic layer is positioned between the capping layer and the organic layer; and a second inorganic layer on the organic layer, wherein the first inorganic layer comprises: a first buffer layer on the capping layer; a first barrier layer on the first buffer layer; a first porous layer on the first barrier layer; a second barrier layer on the first porous layer; and a second buffer layer on the second barrier layer, wherein a refractive index of the first buffer layer, a refractive index of the first barrier layer, and a refractive index of the first porous layer are different from one another, and wherein the refractive index of the first porous layer is smaller than the refractive index of the first buffer layer and the refractive index of the first barrier layer. a first base having a display area and a non-display area; light-emitting elements (ED1, ED2, ED3) on the first base, the light-emitting elements (ED1, ED2, ED3) being located in the display area; a capping layer over the light-emitting elements (ED1, ED2, ED3); and an encapsulation layer over the capping layer and the light-emitting elements (ED1, ED2, ED3), wherein the encapsulation layer comprises: a first inorganic layer; an organic layer on the first inorganic layer, wherein the first inorganic layer is positioned between the capping layer and the organic layer; and a second inorganic layer on the organic layer, a first inorganic layer; an organic layer on the first inorganic layer, wherein the first inorganic layer is positioned between the capping layer and the organic layer; and a second inorganic layer on the organic layer, wherein the first inorganic layer comprises: a first buffer layer on the capping layer; a first barrier layer on the first buffer layer; a first porous layer on the first barrier layer; a second barrier layer on the first porous layer; and a second buffer layer on the second barrier layer, a first buffer layer on the capping layer; a first barrier layer on the first buffer layer; a first porous layer on the first barrier layer; a second barrier layer on the first porous layer; and a second buffer layer on the second barrier layer, wherein a refractive index of the first buffer layer, a refractive index of the first barrier layer, and a refractive index of the first porous layer are different from one another, and wherein the refractive index of the first porous layer is smaller than the refractive index of the first buffer layer and the refractive index of the first barrier layer.
Interior lining for a motor vehicle with a sliding or panoramic roof, which comprises a roof liner and a stiffening frame which is attached to the roof liner, and an opening in the roof liner, which delimits, frames and stabilizes the sliding or panoramic roof, and wherein the roof liner is constructed in several layers, which comprise at least one core layer and one cover layer, characterized in that the stiffening frame is produced from a fiber-reinforced composite material mat, and the surface weight and the bending stiffness of the stiffening frame are greater than those of the roof liner structure, preferably by at least 50%, wherein the composite material of the the stiffening frame contains - a natural fiber mat, made in particular from hemp, kenaf, flax, sisal, jute, wood or mixtures thereof, and - a duroplastic binder, in particular epoxide, acrylate, phenol, polyurethane or unsaturated polyester, which is applied or introduced in liquid form or powder form onto and/or into the fiber mat, or - a thermoplastic binder, in particular a biopolymer, such as PLA, polyester or PA, which is introduced in the form of thermoplastic binder fibers into the fiber mat. - a natural fiber mat, made in particular from hemp, kenaf, flax, sisal, jute, wood or mixtures thereof, and - a duroplastic binder, in particular epoxide, acrylate, phenol, polyurethane or unsaturated polyester, which is applied or introduced in liquid form or powder form onto and/or into the fiber mat, or - a thermoplastic binder, in particular a biopolymer, such as PLA, polyester or PA, which is introduced in the form of thermoplastic binder fibers into the fiber mat.
Method for automatically generating labelled signatures from data recorded in relation to a technical installation during a predefined or predefinable recording time period, wherein the recorded data firstly comprise data recordable by means of a sensor system, calculated or generated by means of a simulation and are combined in at least one data time series and secondly comprise state values of at least one installation-related state and are combined in at least one state time series, wherein, in a first step, a quantization of the or each state time series is adapted, wherein for adapting the quantization during a predefined or predefinable section of the or a state time series, a distance between two successive state changes is compared with a predefined or predefinable minimum time and wherein, in the case of undershooting, the quantization of the or each state time series is adapted, wherein, in a second step, installation states are ascertained from the or each state time series, wherein an installation state comprises the state values of all state time series at the location of a state change in at least one state time series, wherein, in a third step, the sections of the or each data time series that lie between the locations of two successive installation states are ascertained as signatures, and wherein each signature is provided with a designator which functions as a label and which comprises at least one installation state determining the signature. wherein the recorded data firstly comprise data recordable by means of a sensor system, calculated or generated by means of a simulation and are combined in at least one data time series and secondly comprise state values of at least one installation-related state and are combined in at least one state time series, wherein, in a first step, a quantization of the or each state time series is adapted, wherein for adapting the quantization during a predefined or predefinable section of the or a state time series, a distance between two successive state changes is compared with a predefined or predefinable minimum time and wherein, in the case of undershooting, the quantization of the or each state time series is adapted, wherein, in a second step, installation states are ascertained from the or each state time series, wherein an installation state comprises the state values of all state time series at the location of a state change in at least one state time series, wherein, in a third step, the sections of the or each data time series that lie between the locations of two successive installation states are ascertained as signatures, and wherein each signature is provided with a designator which functions as a label and which comprises at least one installation state determining the signature.
A mobile robot, comprising: one or more horizontal drives that propel the mobile robot in at least one direction along at least two horizontal dimensions; and one or more vertical drives that propel the mobile robot in at least one direction along at least one vertical dimension; wherein the one or more horizontal drives are configured to engage with horizontal tracks of a multi-level storage structure, and the one or more vertical drives are configured to engage with inclined or vertical tracks of the multi-level storage structure; wherein the mobile robot is configured to propel itself horizontally along levels of the multi-level storage structure, and to propel itself vertically from level to level of the multi-level storage structure using the inclined or vertical tracks of the multi-level storage structure while maintaining a horizontal attitude; characterized in that the mobile robot further comprises a drive axle to which the one or more horizontal drives and one or more vertical drives are coupled, wherein the drive axle is extendable and retractable to selectively engage or disengage the one or more horizontal drives and one or more vertical drives with a desired track of a horizontal orientation, or with a desired track of an inclined or vertical orientation. one or more horizontal drives that propel the mobile robot in at least one direction along at least two horizontal dimensions; and one or more vertical drives that propel the mobile robot in at least one direction along at least one vertical dimension; wherein the one or more horizontal drives are configured to engage with horizontal tracks of a multi-level storage structure, and the one or more vertical drives are configured to engage with inclined or vertical tracks of the multi-level storage structure; wherein the mobile robot is configured to propel itself horizontally along levels of the multi-level storage structure, and to propel itself vertically from level to level of the multi-level storage structure using the inclined or vertical tracks of the multi-level storage structure while maintaining a horizontal attitude; characterized in that the mobile robot further comprises a drive axle to which the one or more horizontal drives and one or more vertical drives are coupled, wherein the drive axle is extendable and retractable to selectively engage or disengage the one or more horizontal drives and one or more vertical drives with a desired track of a horizontal orientation, or with a desired track of an inclined or vertical orientation.
A miniaturized computation and storage merged system, comprising: a mid-back board having a plurality of board card slots, wherein two power supply board card slots are provided on the mid-back board; a first processing board which is connected with the mid-back board; a second processing board which is connected with the mid-back board; and one or more rear-inserted board cards, each of which is fixed on the mid-back board via a board card slot, wherein the one or more rear-inserted board cards are configured to provide support in data storage and/or computation for the first processing board and the second processing board, to enable the first processing board and the second processing board to complete a data storage and/or computation task, wherein the one or more rear-inserted board cards further comprise: two power supply input board cards fixed on the mid-back board via the two power supply board card slots; two power supply fan boards, which are connected with the two power supply board card slots respectively, and are configured to supply power to as well as ventilate and cool the miniaturized computation and storage merged system in a parallel working mode; the first processing board and the second processing board are connected with the power supply fan boards and the rear-inserted board cards other than the power supply input board card through an independent management bus respectively, to establish respective management channel. a mid-back board having a plurality of board card slots, wherein two power supply board card slots are provided on the mid-back board; a first processing board which is connected with the mid-back board; a second processing board which is connected with the mid-back board; and one or more rear-inserted board cards, each of which is fixed on the mid-back board via a board card slot, wherein the one or more rear-inserted board cards are configured to provide support in data storage and/or computation for the first processing board and the second processing board, to enable the first processing board and the second processing board to complete a data storage and/or computation task, wherein the one or more rear-inserted board cards further comprise: two power supply input board cards fixed on the mid-back board via the two power supply board card slots; two power supply fan boards, which are connected with the two power supply board card slots respectively, and are configured to supply power to as well as ventilate and cool the miniaturized computation and storage merged system in a parallel working mode; the first processing board and the second processing board are connected with the power supply fan boards and the rear-inserted board cards other than the power supply input board card through an independent management bus respectively, to establish respective management channel.
A Gal-1 polypeptide variant, comprising: a mutation of the histidine residue corresponding to position 52 of the full-length amino acid sequence of native human Gal-1 as shown in SEQ ID NO: 1, the mutation being a substitution of the histidine to tyrosine or asparagine, wherein the Gal-1 polypeptide variant is resistant to acidic conditions of an inflammatory microenvironment that otherwise result in deactivation of native human Gal-1.
A segmentable wiring board, comprising: a ceramic base body having a plurality of wiring substrate regions and dividing grooves (3, 30) formed in boundaries among the plurality of wiring substrate regions; a conductor (2, 21, 22) located in a periphery of each of the plurality of wiring substrate regions; and a glass layer coveringly extending from an inner surface of each of the dividing grooves (3, 30) of the ceramic base body to the conductor (2, 21, 22), the glass layer having an upwardly-protruding convexity located on the conductor (2, 21, 22), characterized in that the upwardly-protruding convexity having a height of 4.5 μm to 32 μm. a ceramic base body having a plurality of wiring substrate regions and dividing grooves (3, 30) formed in boundaries among the plurality of wiring substrate regions; a conductor (2, 21, 22) located in a periphery of each of the plurality of wiring substrate regions; and a glass layer coveringly extending from an inner surface of each of the dividing grooves (3, 30) of the ceramic base body to the conductor (2, 21, 22), the glass layer having an upwardly-protruding convexity located on the conductor (2, 21, 22), characterized in that the upwardly-protruding convexity having a height of 4.5 μm to 32 μm.
An agent for use in cancer therapy to reduce a lethal side effect of an immune checkpoint regulator, wherein said immune checkpoint regulator is at least one selected from antagonistic antibodies against an inhibitory immune checkpoint molecule selected from PD-L1 and/or PD-1, said agent comprising as an effective ingredient an anti-CD4 antibody having a cytotoxic activity, or an anti-CD4 antibody or antigen-binding fragment thereof which antibody or fragment comprises a cytotoxic component bound thereto, wherein said anti-CD4 antibody is a human-type chimeric antibody, humanized antibody or human antibody against human CD4.
A fuel cell stack, comprising a first end plate and a second end plate; a plurality of fuel cells arranged between the end plates (51, 52); at least one elastic tensioning element tensioned in the stack direction between the end plates (51, 52); and at least one rotationally mounted mounting shaft, characterized in that at least one end section of at least one tensioning element is fixed to the rotationally mounted mounting shaft, and the rotationally mounted mounting shaft is connected via at least one tensioned torsion spring to the fuel cell stack. a first end plate and a second end plate; a plurality of fuel cells arranged between the end plates (51, 52); at least one elastic tensioning element tensioned in the stack direction between the end plates (51, 52); and at least one rotationally mounted mounting shaft, characterized in that at least one end section of at least one tensioning element is fixed to the rotationally mounted mounting shaft, and the rotationally mounted mounting shaft is connected via at least one tensioned torsion spring to the fuel cell stack.