mhurhangee/ep-ind-claims huggingface dataset:
The use of a combination, containing a) at least one substance selected from the group of cosmetic oils which are liquid at 20 °C and 1,013 hPa, fragrances and waxes, b) propellants in a total amount of from 0 to 99 wt.%, based on the total weight of the antiperspirant cosmetic agent, and c) at least one protein in a total amount of from 0.1 to 70 wt.%, based on the total weight of the antiperspirant cosmetic agent, wherein the at least one protein is a protein isolated from legumes of the genus Pisum, wherein the protein is hydrolyzed and optionally cationically modified, and wherein the at least one protein brings about a change in light absorption (measured as specified in the description) from 1 to 100% at a pH change of at least 0.5 in a pH range of from pH 4.0 to pH 8.0, at a temperature of from 20 °C to 40 °C, and at a concentration of the protein of from 0.001 to 10 wt.%, based on the total weight of the sample mixture used for determining the change in light absorption, and wherein the combination does not contain any halides and/or hydroxyhalides of aluminum and/or zirconium, for reducing and/or preventing perspiration, in particular axillary perspiration or perspiration at other parts of the body. a) at least one substance selected from the group of cosmetic oils which are liquid at 20 °C and 1,013 hPa, fragrances and waxes, b) propellants in a total amount of from 0 to 99 wt.%, based on the total weight of the antiperspirant cosmetic agent, and c) at least one protein in a total amount of from 0.1 to 70 wt.%, based on the total weight of the antiperspirant cosmetic agent, wherein the at least one protein is a protein isolated from legumes of the genus Pisum, wherein the protein is hydrolyzed and optionally cationically modified,
A method comprising: dividing a plurality of storage servers into multiple sequences, each sequence of the multiple sequences including a predetermined number of storage servers, wherein the multiple sequences collectively include the plurality of storage servers, and each of the multiple sequences includes multiple storage servers of the plurality of storage servers; dividing the plurality of storage servers into multiple virtual node groups, each virtual node group of the multiple virtual node groups including a set of storage servers of the multiple sequences, and wherein the multiple virtual node groups collectively include the plurality of storage servers; transferring data to a storage server of a virtual node group of the multiple virtual node groups; determining that the data is not successfully transferred to the storage server; and transferring the data to remaining storage servers of the virtual node group and a temporary server different from the plurality of storage servers. dividing a plurality of storage servers into multiple sequences, each sequence of the multiple sequences including a predetermined number of storage servers, wherein the multiple sequences collectively include the plurality of storage servers, and each of the multiple sequences includes multiple storage servers of the plurality of storage servers; dividing the plurality of storage servers into multiple virtual node groups, each virtual node group of the multiple virtual node groups including a set of storage servers of the multiple sequences, and wherein the multiple virtual node groups collectively include the plurality of storage servers; transferring data to a storage server of a virtual node group of the multiple virtual node groups; determining that the data is not successfully transferred to the storage server; and transferring the data to remaining storage servers of the virtual node group and a temporary server different from the plurality of storage servers.
A lubricating base oil characterized by satisfying the condition represented by the following formula: 1.435 ≤ n 20 − 0.002 × kv 100 ≤ 1.450 wherein n 20 represents the refractive index of the lubricating base oil at 20°C, and kv100 represents the kinematic viscosity at 100°C (mm 2 /s) of the lubricating base oil; wherein the proportion of the percentage of the number of paraffin carbons with respect to the total number of carbon atoms (%C P) to the percentage of naphthene carbon atoms with respect to the total number of carbon atoms (%C N) of the lubricating base oil meets the requirement 7 ≤ (%C P /%C N) ≤ 200, the values of %C P and %C N being determined by the method of ASTM D 3238-85 (n-d-M ring analysis); and wherein the content of saturated compounds in the lubricating base oil is 95% by mass or greater, and the proportion of cyclic saturated compounds among the saturated compounds is 0.1-3% by mass.
A vehicle controller (1; 1A; 1B) configured to control travel of a vehicle traveling on a merging lane that merges with a main lane, the vehicle controller comprising: a situation determination unit configured to determine whether the vehicle is in a situation where a main lane vehicle traveling on the main lane is recognizable based on a detection result of a side sensor mounted on the vehicle; a determination unit (12; 12A; 12B) configured to determine a preparatory speed of the vehicle in the merging lane based on a relative speed between a first main lane vehicle traveling on the main lane and the vehicle, the first main lane vehicle being detected by a front sensor mounted on the vehicle; a preparation unit configured to adjust speed of the vehicle such that the speed of the vehicle coincides with the preparatory speed; and a merging control unit configured to merge the vehicle into the main lane from the merging lane based on at least the detection result of the side sensor and the speed of the vehicle, when the situation determination unit determines that the vehicle is in the situation where the main lane vehicle is recognizable based on the detection result of the side sensor, after the preparation unit starts speed adjustment of the vehicle; characterized in that the determination unit is configured to determine the preparatory speed when the situation determination unit determines that the vehicle is not in the situation where the main lane vehicle is recognizable based on the detection result of the side sensor. a situation determination unit configured to determine whether the vehicle is in a situation where a main lane vehicle traveling on the main lane is recognizable based on a detection result of a side sensor mounted on the vehicle; a determination unit (12; 12A; 12B) configured to determine a preparatory speed of the vehicle in the merging lane based on a relative speed between a first main lane vehicle traveling on the main lane and the vehicle, the first main lane vehicle being detected by a front sensor mounted on the vehicle; a preparation unit configured to adjust speed of the vehicle such that the speed of the vehicle coincides with the preparatory speed; and a merging control unit configured to merge the vehicle into the main lane from the merging lane based on at least the detection result of the side sensor and the speed of the vehicle, when the situation determination unit determines that the vehicle is in the situation where the main lane vehicle is recognizable based on the detection result of the side sensor, after the preparation unit starts speed adjustment of the vehicle; characterized in that the determination unit is configured to determine the preparatory speed when the situation determination unit determines that the vehicle is not in the situation where the main lane vehicle is recognizable based on the detection result of the side sensor.
An in vitro method for selecting a patient affected with a tumor for a treatment with a molecule of the taxoid family in combination with a compound inhibiting the TGF-β signalling pathway or for determining whether a patient affected with a tumor is susceptible to benefit from a treatment with a molecule of the taxoid family in combination with a compound inhibiting the TGF-β signalling pathway, wherein the method comprises: (a) determining the expression level of SHISA3 in a cancer sample from said patient, (b) comparing the expression level of SHISA3 to a reference expression level, wherein the under-expression of SHISA3 is predictive that a treatment with a molecule of the taxoid family in combination with a compound inhibiting the TGF-β signalling pathway is indicated for said patient and (c) selecting patients with under-expression of SHISA3 as suitable for a treatment with a molecule of the taxoid family in combination with a compound inhibiting the TGF-β signalling pathway. (a) determining the expression level of SHISA3 in a cancer sample from said patient, (b) comparing the expression level of SHISA3 to a reference expression level, wherein the under-expression of SHISA3 is predictive that a treatment with a molecule of the taxoid family in combination with a compound inhibiting the TGF-β signalling pathway is indicated for said patient and (c) selecting patients with under-expression of SHISA3 as suitable for a treatment with a molecule of the taxoid family in combination with a compound inhibiting the TGF-β signalling pathway.
Method for the longitudinal register control of a printing press comprising a first printing unit (1, 2, 3, 4) and at least one further printing unit (2, 3, 4, 5), each of which has at least one imaging cylinder (26, 27) having a rotational speed (ω) and at least one respective drive system, wherein, in order to avoid divergence of printed images (11, 11') of a plurality of printing units (1, 2, 3, 4, 5), register settings of the at least one imaging cylinder (26, 27) of the further printing units (2, 3, 4, 5) are changed according to a predetermined length change (ΔI 1) of a printed image (11, 11'), characterised in that the change of the register settings is carried out with the drive systems as a function of at least one length (I 12, I 23, I 34, I 45) of a printing substrate between the printing units (1, 2, 3, 4, 5).
Method for manufacturing a three-dimensional article (100; 200), comprising: - a step of producing said article (100; 200) by an additive manufacturing technology, said article (100; 200) comprising at least two parts (110, 160; 220, 230, 260) having surfaces that face, at least partially, each other or having edges (111, 161; 211, 221, 231, 261) that face, at least partially, each other, and - a step of finishing of said article (100; 200), wherein said additive manufacturing technology comprising an operation of fusion of powder or of solidification of fluid, wherein said two parts (110, 160; 220, 230, 260) are produced together with a temporary connection (140; 240), said temporary connection (140; 240) linking said two parts, and said temporary connection (140; 240) comprising an inhomogeneity along said surfaces or said edges, wherein said inhomogeneity comprises an inhomogeneity of fusion of powder or solidification of fluid along said surfaces or said edges, and wherein said method comprises, after said step of finishing, a step of unlinking said temporary connection (140; 240) in order to separate said two parts (110, 160; 220, 230, 260). - a step of producing said article (100; 200) by an additive manufacturing technology, said article (100; 200) comprising at least two parts (110, 160; 220, 230, 260) having surfaces that face, at least partially, each other or having edges (111, 161; 211, 221, 231, 261) that face, at least partially, each other, and - a step of finishing of said article (100; 200), wherein said additive manufacturing technology comprising an operation of fusion of powder or of solidification of fluid, wherein said two parts (110, 160; 220, 230, 260) are produced together with a temporary connection (140; 240), said temporary connection (140; 240) linking said two parts, and said temporary connection (140; 240) comprising an inhomogeneity along said surfaces or said edges, wherein said inhomogeneity comprises an inhomogeneity of fusion of powder or solidification of fluid along said surfaces or said edges, and wherein said method comprises, after said step of finishing, a step of unlinking said temporary connection (140; 240) in order to separate said two parts (110, 160; 220, 230, 260).
Roofing system for roofs, comprising a supporting structure and solar modules attached to the supporting structure, said modules forming or covering essentially the entire roof area, wherein the supporting structure includes longitudinal profiles mounted in a sloping manner, which include a base plate, with a respective undercut profile provided on the top side of each of the two long edges thereof and the exterior sides of the profiles extend flush with the edge of the plate, wherein behind each profile a web, projecting upwards from the plate and extending in the longitudinal direction, is molded on for placing the solar modules with their edge zone thereon, and wherein the undercut profile constitutes an undercut groove for receiving nuts and/or screw heads for fixing clamps or the like for fixing the solar modules on the longitudinal profiles.
Apparatus for automatically smoothing also rounded corners of prevalently flat panels made of wood and/or other material or other manufactured products, during a painting and/or finishing operation of the panels or manufactured products that by suitable means are fed along a rectilinear path, in a predetermined direction and at a speed that can also be high and is known, with each subsequent panel that has, parallel to the path, a longitudinal side with the front (A') and with the rear (A") corners to be smoothed facing smoothing means, characterised in that the smoothing means are mounted on a carriage sliding on a guide rectilinear and parallel to the direction of feed of the panels, the carriage being connected to reciprocating motion means and such that, with the help of alignment and hooking means, the carriage can be controlled to accompany the panel in its forward movement, proceeding at the same speed as it and with a fixed and predetermined relative position or alignment, so that the smoothing means located on the carriage can sand the rounded front (A') or rear (A") corner of the panel and can then be moved away from the longitudinal side of the panel to allow the return of the carriage with the smoothing means to the cycle start position, be able to operate on a subsequent panel, it be provided that, on the side of the carriage facing the longitudinal side of the panel there is arranged a hook, forming said alignment and hooking means, which is connected to motion means adapted to take the hook from a raised position at rest, above the panel and without interfering with it, to a lowered working position controlled by limit switch means, in which the tooth of the hook is arranged with a vertical surface thereof, transverse on the path of the front side or of the rear side of the panel, to be able to be coupled to the side and so that, also with the contribution of its linear motion actuator, the carriage can follow the panel that is fed in the direction, with precise alignment and perfect synchronism.
A filter (102, 3502, 9302) comprising: a housing (156, 3509, 9300) having an inlet to receive a fluid, an outlet to discharge filtrate, and an internal chamber (171, 3507) in fluid communication with the inlet and the outlet; filter media (182, 3518, 9312) positioned in the internal chamber, the filter media dividing the internal chamber between a filtrate side coupled to the outlet and an inlet side connected to the inlet, the filter media having pores, wherein the filter media includes wedge wire rings having magnets coupled to a surface on at least a portion of the wedge wire rings, wherein the magnets are aligned on the wedge wire rings to repel each other to create a space between the wedge wire rings, and wherein a dimension of the pores in the filter media is defined by the space between the wedge wire rings; an actuator (3538, 9310) coupled to the filter media to move at least a portion of the filter media to vary the dimension of the pores; at least one sensor configured to generate a signal; and a controller communicatively coupled to the at least one sensor and the actuator, the controller receiving the signal from the at least one sensor and controlling the actuator to change the dimension of the pores based on the signal. a housing (156, 3509, 9300) having an inlet to receive a fluid, an outlet to discharge filtrate, and an internal chamber (171, 3507) in fluid communication with the inlet and the outlet; filter media (182, 3518, 9312) positioned in the internal chamber, the filter media dividing the internal chamber between a filtrate side coupled to the outlet and an inlet side connected to the inlet, the filter media having pores, wherein the filter media includes wedge wire rings having magnets coupled to a surface on at least a portion of the wedge wire rings, wherein the magnets are aligned on the wedge wire rings to repel each other to create a space between the wedge wire rings, and wherein a dimension of the pores in the filter media is defined by the space between the wedge wire rings; an actuator (3538, 9310) coupled to the filter media to move at least a portion of the filter media to vary the dimension of the pores; at least one sensor configured to generate a signal; and a controller communicatively coupled to the at least one sensor and the actuator, the controller receiving the signal from the at least one sensor and controlling the actuator to change the dimension of the pores based on the signal.
A pump motor having a permanent magnet rotor, a split case, a wound stator, a motor housing, a pump head, an axle, fixed on the one hand in the split case and on the other hand in the pump head, and a fixed bearing, pressed in the permanent magnet rotor and mounting the latter on the axle in a rotationally-movable manner, characterized in that the fixed bearing consists of a press ring, pressed in or injected moulded in the permanent magnet rotor, a race, rotatably received on the axle, and an annular-disc-shaped hub, constituting the connection member between the press ring and the race, and in that the press ring, the race and the hub are in one piece.
An optical fiber connector sub-assembly for an optical fiber connector, comprising: a gimbal configured to hold a ferrule at a front portion of the connector, wherein the gimbal is configured to provide articulated relative movement between the front portion of the connector and a rear portion of the connector such that the ferrule is isolated from movement of the rear portion of the connector, wherein the gimbal includes a ferrule holder carrier, a ferrule holder, the ferrule and a sleeve disposed rearward of the ferrule holder carrier along an axis of the connector, the ferrule holder carrier holding the ferrule holder and the ferrule holder holding the ferrule, wherein the sleeve and the ferrule holder carrier are configured to articulate relative to one another in an X-axis direction and a Y-axis direction that are perpendicular to each other and the connector axis to mechanically isolate the front portion of the connector from the rear portion of the connector, the sleeve and the ferrule holder carrier being rotatably fixed to one another, wherein the ferrule holder carrier receives the ferrule holder therein and the ferrule holder and the ferrule holder carrier are configured to move relative to one another along the connector axis between limits defined by an interaction between the ferrule holder carrier and the ferrule holder. a gimbal configured to hold a ferrule at a front portion of the connector, wherein the gimbal is configured to provide articulated relative movement between the front portion of the connector and a rear portion of the connector such that the ferrule is isolated from movement of the rear portion of the connector, wherein the gimbal includes a ferrule holder carrier, a ferrule holder, the ferrule and a sleeve disposed rearward of the ferrule holder carrier along an axis of the connector, the ferrule holder carrier holding the ferrule holder and the ferrule holder holding the ferrule, wherein the sleeve and the ferrule holder carrier are configured to articulate relative to one another in an X-axis direction and a Y-axis direction that are perpendicular to each other and the connector axis to mechanically isolate the front portion of the connector from the rear portion of the connector, the sleeve and the ferrule holder carrier being rotatably fixed to one another, wherein the ferrule holder carrier receives the ferrule holder therein and the ferrule holder and the ferrule holder carrier are configured to move relative to one another along the connector axis between limits defined by an interaction between the ferrule holder carrier and the ferrule holder.
Method for operating a water preparation device for detecting a faulty operation of the water preparation device, wherein at least one pump operating parameter of at least one fluid pump is set, wherein, on the basis of at least one signal of the fluid pump, at least one faulty operation is detected, wherein, in one step, a present pump operating parameter is determined by a control unit, wherein, in one step, the control unit checks whether the pump operating parameter is above a limit value and thus in a first operating parameter interval, or is below the limit value and thus in a second operating parameter interval, wherein, if in the step the pump operating parameter is above the limit value, there follows a step in which, on the basis of a signal of the fluid pump, a possible faulty operation is detected by the control unit, wherein it is not necessary to change the pump operating parameter, wherein, if in the step the pump operating parameter is below the limit value, there follows a step in which the pump operating parameter is increased by the control unit briefly during a time interval such that the pump operating parameter corresponds to a pump operating parameter from the first operating parameter interval, wherein, in one step, a fault signal and/or response signal is generated by the fluid pump and the control unit is provided therewith, wherein, in a subsequent step, the signal of the fluid pump is checked by the control unit, wherein the limit value corresponds to at most 50% of a maximum pump operating parameter.
A radiation grill unit comprising (i) a food support unit, and (ii) a radiation unit, wherein the radiation unit is configured to provide IR radiation in a direction of the food support unit, further comprising a radiation unit housing with a radiation unit housing cavity configured to host the radiation unit, characterised in that the radiation unit housing further comprises a convection channel configured to facilitate free convection of air along the radiation unit, wherein a gas flow, e.g. an air flow, is naturally generated in said convection channel without fans or other devices like cooling means.
A baking-type nanometal ink, comprising metal nanoparticles, a polymerizable compound, a polymerization reaction initiator, a polyether compound having a polyoxyalkylene unit, a volatile liquid medium having a boiling point of 40 to 250°C, and a dispersant, the polymerization reaction initiator that is to be activated by action of heat and/or light, to allow polymerization of the polymerizable compound to proceed, the dispersant including a C6-14 alkylamine.