mhurhangee/ep-ind-claims huggingface dataset:
A fuel injection system for an engine, the fuel injection system comprising: an angular velocity detection means detecting rotation angular velocity of a crankshaft of the engine; and a cetane number detection means presetting a standard value of angular velocity amplitude for judgment of cetane number based on an engine rotation speed (Ne) and a fuel injection amount, characterized in that the angular velocity detection means includes a pulsar fixed on the crankshaft and a pulse sensor measuring pulses outputted by the pulsar, and outputs a signal of a crank angle (Θ) which is a rotation position of the crankshaft regardless of time, and a signal of an angular velocity (ω) which is the number of pulses per time, and the cetane number detection means calculates an actual angular velocity amplitude (ωL1) based on the signal of the crank angle (Θ) and the signal of the angular velocity (ω) outputted by the angular velocity detection means, and compares the calculated actual angular velocity amplitude (ωL1) with the preset standard value of angular velocity amplitude so as to detect variation of cetane number. an angular velocity detection means detecting rotation angular velocity of a crankshaft of the engine; and a cetane number detection means presetting a standard value of angular velocity amplitude for judgment of cetane number based on an engine rotation speed (Ne) and a fuel injection amount, characterized in that the angular velocity detection means includes a pulsar fixed on the crankshaft and a pulse sensor measuring pulses outputted by the pulsar, and outputs a signal of a crank angle (Θ) which is a rotation position of the crankshaft regardless of time, and a signal of an angular velocity (ω) which is the number of pulses per time, and the cetane number detection means calculates an actual angular velocity amplitude (ωL1) based on the signal of the crank angle (Θ) and the signal of the angular velocity (ω) outputted by the angular velocity detection means, and compares the calculated actual angular velocity amplitude (ωL1) with the preset standard value of angular velocity amplitude so as to detect variation of cetane number.
A crossrolling mill with conical rolls for producing seamless pipes, namely in the form of a Diescher rolling mill with two driven conical rolls (6a, 6b) that are arranged in a roll stand anchored on a foundation and two driven guide discs or Diescher discs (15a, 15b), characterized in that the conical rolls (6a, 6b) are horizontally and adjacently arranged in the roll stand symmetrically to the rolling axis such that they diverge toward the rolling stock output side by an angle of spread, wherein each parallel roll stand side referred to the rolling axis is realized with an installation window (5a, 5b) for accommodating a chock of the conical rolls (6a, 6b) and lateral roll stand end covers (12a, 12b) that can be raised and lowered and carry guide columns (10a, 10b) of roll adjusting means of the conical rolls (6a, 6b) assigned to these roll stand sides.
A spunbonded nonwoven fabric comprising thermoplastic fibers, wherein the thermoplastic fiber is a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer, an apparent single fiber fineness of the conjugate fiber as viewed from the surface of the spunbonded nonwoven fabric is 0.5 dtex or more and 10 dtex or less, when the apparent single fiber fineness of the conjugate fiber is 0.5 dtex or more and less than 2 dtex, an apparent density is 0.50 to 0.70 g/cm 3, and air permeability satisfies [formula 1] described below, and when the apparent single fiber fineness of the conjugate fiber is 2 dtex or more and 10 dtex or less, the apparent density is 0.50 to 0.80 g/cm 3, and the air permeability satisfies [formula 2] described below,. 3.8 × 10 4 × [basis weight (g/m 2)] -2 ≤ [air permeablity (cc/cm 2 ·sec)] ≤ 6.0 × 10 4 × [basis weight (g/m 2)) -2, and. 2.2 × 10 4 × [basis weight (g/m 2)] -2 ≤ [air permeablity (cc/cm 2 ·sec)] ≤ 4.6 × 10 4 × [basis weight (g/m 2)) -2, wherein the apparent single fiber fineness of the conjugate fiber, the apparent density of the spunbonded nonwoven fabric and the air permeability of the spunbond nonwoven fabric are measured according to the methods disclosed in the description, and wherein the spunbonded nonwoven fabric is produced by a production method comprising the following steps (a) to (d) sequentially in this order: (a) spinning, from a spinneret, a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer, (b) stretching the spun conjugate fibers by suction flow using a high-speed suction gas and collecting the fibers on a moving net conveyor to form the collected fibers into a nonwoven web, (c) thermally bonding the obtained nonwoven web with a pair of upper and lower flat rolls at a temperature lower by 65 to 95°C than the melting point of the low-melting polymer, and (d) subsequently thermally bonding with the pair of upper and lower flat rolls at a temperature lower by 5 to 60°C than the melting point of the low-melting polymer. (a) spinning, from a spinneret, a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer, (b) stretching the spun conjugate fibers by suction flow using a high-speed suction gas and collecting the fibers on a moving net conveyor to form the collected fibers into a nonwoven web, (c) thermally bonding the obtained nonwoven web with a pair of upper and lower flat rolls at a temperature lower by 65 to 95°C than the melting point of the low-melting polymer, and (d) subsequently thermally bonding with the pair of upper and lower flat rolls at a temperature lower by 5 to 60°C than the melting point of the low-melting polymer.
A method implemented by a network component for supporting compress and forward relaying in joint multi-cell processing, MCP, the method comprising: establishing a weighted sum-rate maximization function which allows optimization of quantization noise levels for a plurality of backhaul links from a plurality of radio nodes to a network for joint MCP, wherein the weighted sum-rate maximization function is subject to a backhaul sum capacity constraint on the backhaul links; and characterized by: determining the quantization noise levels using an alternating convex optimization of the weighted sum-rate maximization function, wherein using the alternating convex optimization to determine the quantization noise levels includes: formulating the weighted sum-rate maximization function as a double maximization problem for a first group of variables and a second group of variables, wherein the first group of variables comprises the quantization noise levels; initializing the first group of variables and the second group of variables; repeating solving the first group of variables subject to fixing values of the second group of variables; and updating the second group of variables using the solved first group of variables until the first group of variables and the second group of variables converge in values. establishing a weighted sum-rate maximization function which allows optimization of quantization noise levels for a plurality of backhaul links from a plurality of radio nodes to a network for joint MCP, wherein the weighted sum-rate maximization function is subject to a backhaul sum capacity constraint on the backhaul links; and characterized by: determining the quantization noise levels using an alternating convex optimization of the weighted sum-rate maximization function, wherein using the alternating convex optimization to determine the quantization noise levels includes: formulating the weighted sum-rate maximization function as a double maximization problem for a first group of variables and a second group of variables, wherein the first group of variables comprises the quantization noise levels; initializing the first group of variables and the second group of variables; repeating solving the first group of variables subject to fixing values of the second group of variables; and updating the second group of variables using the solved first group of variables until the first group of variables and the second group of variables converge in values. formulating the weighted sum-rate maximization function as a double maximization problem for a first group of variables and a second group of variables, wherein the first group of variables comprises the quantization noise levels; initializing the first group of variables and the second group of variables; repeating solving the first group of variables subject to fixing values of the second group of variables; and updating the second group of variables using the solved first group of variables until the first group of variables and the second group of variables converge in values.
A conveyance control device configured for use with a conveyance portion, a platen, a plurality of printers (3 to 5), and a pretreatment device, wherein the plurality of printers (3 to 5) are inkjet printers, the conveyance portion being configured to convey the platen from a conveyance start position of the platen to one of the plurality of printers (3 to 5) via the pretreatment device, the pretreatment device being configured to perform pretreatment on a recording medium placed on the platen, one of the plurality of printers (3 to 5) being configured to perform a color printing process and another of the plurality of printers (3 to 5) being configured to perform the color printing process, the conveyance control device comprising: a processor configured to control the conveyance portion; and a memory storing computer-readable instructions that, when executed by the processor, perform processes including: performing determination processing (S23, S24, S26, S27, S29, S30) of determining which of the plurality of printers (3 to 5) the platen is to be conveyed to. a processor configured to control the conveyance portion; and a memory storing computer-readable instructions that, when executed by the processor, perform processes including: performing determination processing (S23, S24, S26, S27, S29, S30) of determining which of the plurality of printers (3 to 5) the platen is to be conveyed to.
A method of changing a serving cell by an evolved Node B, eNB, in a wireless communication system using inter-site carrier aggregation, CA, the method comprising: calculating a difference between a load of a current serving cell for a first user equipment, UE, and a load of a neighbor cell for the first UE, the current serving cell including a primary cell and at least one secondary cell; determining (1265, 1270, 1275) to change a serving cell of the first UE as the neighbor cell in a case that a calculated power difference between the current serving cell and the neighbor cell is larger than a value obtained by adding a load offset of the first UE and a default offset of the first UE, the load offset of the first UE being based on the difference between the loads of the current serving cell and the neighbor cell for the first UE (1220, 1225, 1230), wherein the load of the current serving cell for the first UE equals an amount of resources used by UEs other than the first UE from among resources of the current serving cell, and the load of the neighbor cell for the first UE equals an amount of resources used by UEs from among resources of the neighbor cell, and wherein the power difference is calculated (1255, 1260) based on a value obtained by subtracting a sounding reference signal, SRS, reception power of the current serving cell from an SRS reception power of the neighbor cell. calculating a difference between a load of a current serving cell for a first user equipment, UE, and a load of a neighbor cell for the first UE, the current serving cell including a primary cell and at least one secondary cell; determining (1265, 1270, 1275) to change a serving cell of the first UE as the neighbor cell in a case that a calculated power difference between the current serving cell and the neighbor cell is larger than a value obtained by adding a load offset of the first UE and a default offset of the first UE, the load offset of the first UE being based on the difference between the loads of the current serving cell and the neighbor cell for the first UE (1220, 1225, 1230), wherein the load of the current serving cell for the first UE equals an amount of resources used by UEs other than the first UE from among resources of the current serving cell, and the load of the neighbor cell for the first UE equals an amount of resources used by UEs from among resources of the neighbor cell, and wherein the power difference is calculated (1255, 1260) based on a value obtained by subtracting a sounding reference signal, SRS, reception power of the current serving cell from an SRS reception power of the neighbor cell.
A method of manufacturing at least a portion of an upper for an article of footwear, the method comprising: disposing an inflatable bladder around a last; disposing a skin over the inflatable bladder; placing the last, the inflatable bladder, and the skin within a cavity of a mold such that a mold insert is disposed between the skin and a surface of the mold cavity, the mold insert comprising a mold-cavity-facing surface, a skin-facing surface opposite the mold-cavity-facing surface, and a mold pattern comprising a plurality of surface features formed in the mold insert; heating the mold to a predetermined temperature; and inflating the inflatable bladder such that the skin is pressed against the mold insert within the heated mold cavity, thereby forming a pattern on an exterior surface of the skin and causing the skin to take on the shape of at least a portion of an upper for an article of footwear. disposing an inflatable bladder around a last; disposing a skin over the inflatable bladder; placing the last, the inflatable bladder, and the skin within a cavity of a mold such that a mold insert is disposed between the skin and a surface of the mold cavity, the mold insert comprising a mold-cavity-facing surface, a skin-facing surface opposite the mold-cavity-facing surface, and a mold pattern comprising a plurality of surface features formed in the mold insert; heating the mold to a predetermined temperature; and inflating the inflatable bladder such that the skin is pressed against the mold insert within the heated mold cavity, thereby forming a pattern on an exterior surface of the skin and causing the skin to take on the shape of at least a portion of an upper for an article of footwear.
Process for the cold treatment of metallic workpieces, in which a workpiece is brought to a low temperature by thermal contact with a cryogenic refrigerant in a cold chamber, where the cold treatment is carried out in three sections, namely a cooling phase during which the temperature of the workpiece is reduced to a lower target temperature, a hold phase in which the workpiece is maintained essentially at the target temperature and a warming phase in which the workpiece is brought to an upper target temperature, where the cooling or warming of the workpiece is interrupted a number of times during the cooling phase and/or the warming phase and the workpiece is maintained at an intermediate temperature for a predetermined period of time, characterized in that the workpiece is warmed a number of times during the hold phase and subsequently cooled back to the lower target temperature, where the lower target temperature is in the range from -170°C to -195°C, preferably from -180°C to -185°C, and the temperature to which the workpiece is warmed during the hold phase is in each case in the range from -140°C to -160°C.
A multilayered wound dressing comprising: a first layer; the first layer comprising channels that facilitate neovascularization of a wound; and a second layer in contact with the first layer, the second layer having the same or different chemical composition as the first layer; wherein the second layer comprises at least one surface that has a texture that comprises a plurality of spaced features; wherein each feature has a substantially different geometry than a neighboring feature; the plurality of spaced features arranged in a plurality of groupings, the spaced features within each of the groupings being spaced apart at an average distance of about 10 nanometers to about 200 micrometers; the adjacent groupings of features being spaced from each other to define an intermediate tortuous pathway, wherein the direction of texture is operative to facilitate cell orientation and growth, and wherein the textured surface of the second layer does not contact the first layer. a first layer; the first layer comprising channels that facilitate neovascularization of a wound; and a second layer in contact with the first layer, the second layer having the same or different chemical composition as the first layer; wherein the second layer comprises at least one surface that has a texture that comprises a plurality of spaced features; wherein each feature has a substantially different geometry than a neighboring feature; the plurality of spaced features arranged in a plurality of groupings, the spaced features within each of the groupings being spaced apart at an average distance of about 10 nanometers to about 200 micrometers; the adjacent groupings of features being spaced from each other to define an intermediate tortuous pathway, wherein the direction of texture is operative to facilitate cell orientation and growth, and wherein the textured surface of the second layer does not contact the first layer.
A vane mounting arrangement for a gas turbine engine, the arrangement comprising a pipe end and a top hat member, the pipe end having a first lateral flange and the top hat member having a second lateral flange, the first lateral flange and the second lateral flange engaging upon each other in use to prevent rotation between the pipe end and the top hat, the arrangement wherein the first lateral flange and the second lateral flange are offset relative to each other characterised in that: the first and the second lateral flange are truncated collar segments extending away from a longitudinal axis of the pipe end and the top hat member. the first and the second lateral flange are truncated collar segments extending away from a longitudinal axis of the pipe end and the top hat member.
A hand-dryer device comprising a frame that includes a rear face intended to bear against a vertical support and to be fixed thereto, and that carries: (i) air flow production means that are extended by a duct for the circulation of said air flow, (ii) at least one nozzle that is provided at a downstream end of said duct and that is adapted to generate an air blow intended to dry the hands of a user, and (iii) means for controlling said air flow production means between "ON" and "OFF" configurations, wherein said at least one nozzle is provided in a mobile outlet part that is positioned at said downstream end of said duct and that cooperates with said frame through connection means defining at least one degree of freedom, wherein said hand-dryer device includes means for generating a movement of said outlet part and of said at least one nozzle according to said degree of freedom when said air flow production means are in ON configuration, wherein said means for generating the movement of the outlet part comprise at least one thrust surface provided on said outlet part and shaped so as to cooperate with the air flow coming from said air flow production means in the "ON" configuration so as to generate the movement of said outlet part, wherein said outlet part cooperates with the frame through pivot connection means defining an axis of rotation about which said outlet part is adapted to pivot, and wherein said means for generating the movement of said outlet part consist in means for generating a rotation of said outlet part and of said at least one nozzle about said axis of rotation when said air flow production means are in the "ON" configuration, so as to obtain at least one drying air blow that pivots about said axis of rotation, wherein said at least one nozzle consists in one slot extending radially with respect to said axis of rotation, characterized in that said at least one nozzle is delimited by two opposite faces (51, 52), and in that one at least of said two faces forms an angle of attack with respect to the axis of rotation to form the thrust surface. (i) air flow production means that are extended by a duct for the circulation of said air flow, (ii) at least one nozzle that is provided at a downstream end of said duct and that is adapted to generate an air blow intended to dry the hands of a user, and (iii) means for controlling said air flow production means between "ON" and "OFF" configurations,
Use of a base comprising a polyvinyl alcohol-based resin with a carboxylic acid metal salt content of 0.8% by weight or less, for solid dispersion, wherein a saponification degree of the polyvinyl alcohol-based resin is 80-95% by mole and an average degree of polymerization of the polyvinyl alcohol-based resin is 200-2,500.
A data generation method, comprising: obtaining first image data, the first image data representing a real environment in which a user is located; obtaining three-dimensional position coordinates of a key point of a target object in a world coordinate system and obtaining plane information of the target object based on the three-dimensional position coordinates and a predetermined plane fitting algorithm, the target object being an object in the first image data, and the plane information comprising central point coordinates and a surface normal vector of an outer surface of the target object; obtaining category information of the target object; obtaining second image data, the second image data containing a virtual object that does not exist in a real environment in which a user is located; determining a relative positional relationship between the virtual object in the second image data and the target object in the first image data based on the category information; and rendering the virtual object to a predetermined position of the target object based on the plane information and the relative positional relationship, to obtain target image data, the target image data containing the target object and the virtual object. obtaining first image data, the first image data representing a real environment in which a user is located; obtaining three-dimensional position coordinates of a key point of a target object in a world coordinate system and obtaining plane information of the target object based on the three-dimensional position coordinates and a predetermined plane fitting algorithm, the target object being an object in the first image data, and the plane information comprising central point coordinates and a surface normal vector of an outer surface of the target object; obtaining category information of the target object; obtaining second image data, the second image data containing a virtual object that does not exist in a real environment in which a user is located; determining a relative positional relationship between the virtual object in the second image data and the target object in the first image data based on the category information; and rendering the virtual object to a predetermined position of the target object based on the plane information and the relative positional relationship, to obtain target image data, the target image data containing the target object and the virtual object.