mhurhangee/ep-ind-claims huggingface dataset:
An electric power steering system comprising: a steering effort assist device that includes a motor as a drive source and applies an assist force to a steering system of a vehicle; a torque sensor that generates a sensor signal (Sa, Sb) according to a steering torque (τ) that acts on a steering shaft; a control device that calculates an assist controlled variable (Ias*) that is a control component according to the assist force to be applied to the steering system, based on the steering torque (τ) obtained from the sensor signal, and controls the motor according to the assist controlled variable (Ias*), characterized in that the control device makes the assist controlled variable (Ias*) zero when an absolute value of a steering speed (ωs) is equal to or higher than a threshold (ωsh) set based on a possibility that an unintended steering behavior, such as self-excited vibration, occurs, so that the application of the assist force to the steering system is stopped. a steering effort assist device that includes a motor as a drive source and applies an assist force to a steering system of a vehicle; a torque sensor that generates a sensor signal (Sa, Sb) according to a steering torque (τ) that acts on a steering shaft; a control device that calculates an assist controlled variable (Ias*) that is a control component according to the assist force to be applied to the steering system, based on the steering torque (τ) obtained from the sensor signal, and controls the motor according to the assist controlled variable (Ias*), characterized in that the control device makes the assist controlled variable (Ias*) zero when an absolute value of a steering speed (ωs) is equal to or higher than a threshold (ωsh) set based on a possibility that an unintended steering behavior, such as self-excited vibration, occurs, so that the application of the assist force to the steering system is stopped.
A clutch device for transmitting a force produced by a drive unit to an output unit, which is configured to be movable in a linear movement direction (DR, C, CN, CS), with a frictional force produced between a contact surface and a contacted surface or disconnecting transmission of the force to the output unit, the clutch device comprising an inhibiting portion which is configured to form a space between the contact surface and the contacted surface when the contact surface and the contacted surface contact with each other to form a contact portion therebetween and which is configured to press a residue remaining on the contacted surface or the contact surface into the space when the contact surface and the contacted surface contact with each other to inhibit the residue from accumulating on the contact surface, wherein the contact surface and the contacted surface are oblique to the linear movement direction (DR, C, CN, CS) of the output unit, wherein the inhibiting portion includes a plurality of grooves (70, 71, 72; 81; 82) formed in at least one of the contact surface and the contacted surface configured to contact with the contact surface, characterized in that the clutch device includes a clutch nut that includes a truncated cone portion and a tubular portion (61x, 61a) connected to a smaller diameter side of the truncated cone portion, and wherein the plurality of grooves (70, 71, 72; 81; 82) includes grooves (71; 81) formed on the clutch nut and each extending from the truncated cone portion, which is included in the contact portion, to a middle portion of the tubular portion (61x, 61a), which is an outside of the contact portion. the clutch device comprising an inhibiting portion which is configured to form a space between the contact surface and the contacted surface when the contact surface and the contacted surface contact with each other to form a contact portion therebetween and which is configured to press a residue remaining on the contacted surface or the contact surface into the space when the contact surface and the contacted surface contact with each other to inhibit the residue from accumulating on the contact surface, wherein the contact surface and the contacted surface are oblique to the linear movement direction (DR, C, CN, CS) of the output unit, wherein the inhibiting portion includes a plurality of grooves (70, 71, 72; 81; 82) formed in at least one of the contact surface and the contacted surface configured to contact with the contact surface, characterized in that the clutch device includes a clutch nut that includes a truncated cone portion and a tubular portion (61x, 61a) connected to a smaller diameter side of the truncated cone portion, and wherein the plurality of grooves (70, 71, 72; 81; 82) includes grooves (71; 81) formed on the clutch nut and each extending from the truncated cone portion, which is included in the contact portion, to a middle portion of the tubular portion (61x, 61a), which is an outside of the contact portion.
A method for destructing organic material in injection water and injecting said water into a subsea injection well, in which the method makes use of: - a means for introduction of said injection water in the subsea injection well; and - at least one electrochemical cell with associated operating means for in situ electrolytic generation from water of short-lived, free hydroxyl radicals, which belong to so-called reactive oxygen compounds, characterized in that the method comprises the following steps: providing said at least one electrochemical cell under water, upstream of said injection well and connecting the at least one electrochemical cell to the injection well; by means of said operating means, conducting the injection water through said electrochemical cell for in situ generation primarily of said free hydroxyl radicals using the injection water as a source material for said electrolytic generation, insofar as free hydroxyl radicals immediately destruct organic material that they engage in the injection water; and injecting said injection water into said subsea injection well. - a means for introduction of said injection water in the subsea injection well; and - at least one electrochemical cell with associated operating means for in situ electrolytic generation from water of short-lived, free hydroxyl radicals, which belong to so-called reactive oxygen compounds, characterized in that the method comprises the following steps: providing said at least one electrochemical cell under water, upstream of said injection well and connecting the at least one electrochemical cell to the injection well; by means of said operating means, conducting the injection water through said electrochemical cell for in situ generation primarily of said free hydroxyl radicals using the injection water as a source material for said electrolytic generation, insofar as free hydroxyl radicals immediately destruct organic material that they engage in the injection water; and injecting said injection water into said subsea injection well. providing said at least one electrochemical cell under water, upstream of said injection well and connecting the at least one electrochemical cell to the injection well; by means of said operating means, conducting the injection water through said electrochemical cell for in situ generation primarily of said free hydroxyl radicals using the injection water as a source material for said electrolytic generation, insofar as free hydroxyl radicals immediately destruct organic material that they engage in the injection water; and injecting said injection water into said subsea injection well.
A method of making a powder for inhalation comprising: a) a first step of mixing, blending or sieving a force-controlling agent with particles of one or more pharmacologically active materials in order to obtain a mixture wherein the particles of said force-controlling agent are disposed on the surface of the active particles as either a particulate coating, or as a continuous or discontinuous film; and then b) a second step of mixing or blending said mixture with a carrier material; characterised in that the mixing or blending in steps a) and b) is carried out in a diffusion blender, tumble blender, bin blender or conical blender, the sieving is carried out in a sieve having a size of 25 to 250 micrometres; the force- controlling agent is magnesium stearate; and the carrier material is selected from mono- or di-saccharides such as glucose, lactose, lactose mono-hydrate, sucrose or trehalose; sugar alcohols such as mannitol or xylitol; polylactic acid; or mixtures thereof and has a mean particle diameter of 50 to 500 micrometres a) a first step of mixing, blending or sieving a force-controlling agent with particles of one or more pharmacologically active materials in order to obtain a mixture wherein the particles of said force-controlling agent are disposed on the surface of the active particles as either a particulate coating, or as a continuous or discontinuous film; and then b) a second step of mixing or blending said mixture with a carrier material;
Non-magnetic watch component comprising a substrate made of a copper alloy, characterized in that at least one part of the substrate comprises a surface layer including Cu x Ti y intermetallics.
Hand-guided working implement, comprising a drive motor and at least two cutting bars (8, 9), at least one of the cutting bars (8, 9) being driven by the drive motor in a reciprocating motion, further comprising a first cover strip, which is located at a long side of one of the cutting bars and which has at least one first keyhole-shaped opening (27, 28, 29, 30, 31) and one second keyhole-shaped opening (28, 29, 30, 31, 32), and further comprising at least two fastening elements which extend through the cutting bars (8, 9) and the first cover strip, wherein each keyhole-shaped opening (27, 28, 29, 30, 31, 32) has a positioning section (40, 42, 44, 46, 48, 50) with a first width (n) which is at least equal to the width (p) of a fastening section of the fastening element on the first cover strip, and wherein each keyhole-shaped opening (27, 28, 29, 30, 31, 32) has a fixing section (41, 43, 45, 47, 49, 51) with a second width (o) which is less than the width (p) of the fastening section of the fastening element, wherein the fixing sections (41, 43, 45, 47, 49, 51) at least partially engage the fastening section of the fastening element extending through the fixing section (41, 43, 45, 47, 49, 51) from behind in the fixed state of the first cover strip, wherein the side of the fixing section (41, 43, 45, 47, 49) of the first opening (27, 28, 29, 30, 31) which faces the positioning section (40, 42, 44, 46, 48) has a first distance (r) from the side of the fixing section (43, 45, 47, 49, 51) of the second opening (28, 29, 30, 31, 32) which faces the positioning section (42, 44, 46, 48, 50), characterised in that the side of the fastening section of the first fastening element which faces the fixing section (41, 43, 45, 47, 49) in the non-fixed state of the cover strip has a second distance (q) from the side of the fastening section of the second fastening element which faces the fixing section (43, 45, 47, 49, 51), the distance (q) being greater than the first distance (r).
A process for the manufacture of ethyleneamines and ethanolamines, comprising the steps of (i) converting a glycolaldehyde derivative of formula in which R 2, R 3 are - the same or different -hydrogen, alkyl, such as C 1-6 -alkyl, or cycloalkyl such as C 3-6 -cycloalkyl; and an aminating agent of formula; R1-NH 2 in which R 1 is hydrogen, alkyl, such as C 1-6 -alkyl, or cycloalkyl such as C 3-6 -cycloalkyl, in the gas or liquid phase; (ii) feeding the reaction products obtained in step (i) into a hydrogenation reactor, where the reaction products are converted with hydrogen in the presence of a hydrogenation catalyst; wherein prior to feeding the reaction products into step (ii), the reaction products obtained in step (i) are separated from the gas or liquid phase or the solutions or the dispersions obtained in step (i) are concentrated by evaporating at least part of the solvent comprised in such solutions. (i) converting a glycolaldehyde derivative of formula in which R 2, R 3 are - the same or different -hydrogen, alkyl, such as C 1-6 -alkyl, or cycloalkyl such as C 3-6 -cycloalkyl; and an aminating agent of formula; R1-NH 2 in which R 1 is hydrogen, alkyl, such as C 1-6 -alkyl, or cycloalkyl such as C 3-6 -cycloalkyl, in the gas or liquid phase; in which R 2, R 3 are - the same or different -hydrogen, alkyl, such as C 1-6 -alkyl, or cycloalkyl such as C 3-6 -cycloalkyl; and an aminating agent of formula; R1-NH 2 in which R 1 is hydrogen, alkyl, such as C 1-6 -alkyl, or cycloalkyl such as C 3-6 -cycloalkyl, in the gas or liquid phase; (ii) feeding the reaction products obtained in step (i) into a hydrogenation reactor, where the reaction products are converted with hydrogen in the presence of a hydrogenation catalyst;
A synchronization method, wherein the method comprises: sending(301; 501), by a terminal, a first uplink signal to a network device on a supplementary uplink resource; receiving(304; 504), by the terminal, indication information from the network device, wherein the indication information indicates a frequency offset value of the supplementary uplink resource; and determining(304;504), by the terminal, the frequency offset value of the supplementary uplink resource based on the indication information, wherein the frequency offset value is used for the terminal to implement frequency synchronization with the supplementary uplink resource, wherein the indication information is a frequency offset indicator value; and wherein the method is characterized in that the determining, by the terminal, the frequency offset value of the supplementary uplink resource based on the indication information comprises: obtaining, by the terminal, frequency offset precision from the network device; and determining, by the terminal, the frequency offset value of the supplementary uplink resource based on the frequency offset precision and the frequency offset indicator value, wherein the frequency offset value is a product of the frequency offset precision and the frequency offset indicator value. sending(301; 501), by a terminal, a first uplink signal to a network device on a supplementary uplink resource; receiving(304; 504), by the terminal, indication information from the network device, wherein the indication information indicates a frequency offset value of the supplementary uplink resource; and determining(304;504), by the terminal, the frequency offset value of the supplementary uplink resource based on the indication information, wherein the frequency offset value is used for the terminal to implement frequency synchronization with the supplementary uplink resource, wherein the indication information is a frequency offset indicator value; and wherein the method is characterized in that the determining, by the terminal, the frequency offset value of the supplementary uplink resource based on the indication information comprises: obtaining, by the terminal, frequency offset precision from the network device; and determining, by the terminal, the frequency offset value of the supplementary uplink resource based on the frequency offset precision and the frequency offset indicator value, wherein the frequency offset value is a product of the frequency offset precision and the frequency offset indicator value. obtaining, by the terminal, frequency offset precision from the network device; and determining, by the terminal, the frequency offset value of the supplementary uplink resource based on the frequency offset precision and the frequency offset indicator value, wherein the frequency offset value is a product of the frequency offset precision and the frequency offset indicator value.
A method of cleaning can bodies having a continuous sidewall closed at one end by an integral bottom portion opposite an open end, the method comprising the steps of: populating a can body transporter with a plurality of can bodies, wherein the transporter transfers can bodies through a can body washer apparatus from an entry end to a delivery end of the can body washer apparatus, wherein a plurality of spray bars (16a-h) located between the entry end and the delivery end delivers a washing solution to the plurality of can bodies; characterized by the steps of: maintaining a substantially constant can body population density on the can body transporter by controlling a speed of the can body transporter (1 la) relative to a rate of production of can bodies produced by a can body manufacturing apparatus upstream of the can body washer apparatus; and controlling a time duration of an exposure of the plurality of can bodies to the washing solution by regulating delivery of the washing solution from the spray bars (16a-h). maintaining a substantially constant can body population density on the can body transporter by controlling a speed of the can body transporter (1 la) relative to a rate of production of can bodies produced by a can body manufacturing apparatus upstream of the can body washer apparatus; and controlling a time duration of an exposure of the plurality of can bodies to the washing solution by regulating delivery of the washing solution from the spray bars (16a-h).
Shower head, comprising - a shower head housing having a jet base, - a water inlet into the shower head housing, - a jet outlet surface formed by the jet base as a closure of the housing, - at least one jet outlet element, which is mounted rotatably in the jet base of the housing, - a water-powered drive device in the housing, and - a reduction gear provided with a worm between the drive device and the at least one jet outlet element, characterized by - an upper part which is placed on an inner surface of the jet base, leaves free a water-conducting cavity and secures against an axial displacement of the at least one jet outlet element. - a shower head housing having a jet base, - a water inlet into the shower head housing, - a jet outlet surface formed by the jet base as a closure of the housing, - at least one jet outlet element, which is mounted rotatably in the jet base of the housing, - a water-powered drive device in the housing, and - a reduction gear provided with a worm between the drive device and the at least one jet outlet element, - an upper part which is placed on an inner surface of the jet base, leaves free a water-conducting cavity and secures against an axial displacement of the at least one jet outlet element.
A manufacturing device for additive manufacturing of a three-dimensional component made from a powder, the manufacturing device comprising: a working surface and a top wall delimiting a manufacturing space, wherein the working surface includes a powder bed region, the top wall includes a protective glass window arranged above the powder bed region, and a beam passage zone of the manufacturing space extends between the protective glass window and the powder bed region, a laser beam for irradiating powder located in the powder bed region able to be radiated into said beam passage zone through the protective glass window, and a shielding gas system having two outflow ducts (3A, 3B) arranged on the top wall on both sides of the beam passage zone, each of the ducts having a duct wall for delimiting a duct interior, wherein each of the outflow ducts (3A, 3B) has gas permeable duct wall sections (55A, 55B, 57A, 57B, 59A, 59B, 55, 57, 59) in an inner side region of the duct wall facing the other outflow duct (3A, 3B), respectively, and in an underside region of the duct wall facing the working surface, and wherein the gas permeable duct wall sections (55A, 55B, 57A, 57B, 59A, 59B, 55, 57, 59) are provided along a duct axis of the outflow duct (3A, 3B) over an outflow length which is at least equal to the extent of the powder bed region in the direction of the duct axis, and wherein the shielding gas system further comprises an intake opening for drawing the shielding gas out of the manufacturing space. a working surface and a top wall delimiting a manufacturing space, wherein the working surface includes a powder bed region, the top wall includes a protective glass window arranged above the powder bed region, and a beam passage zone of the manufacturing space extends between the protective glass window and the powder bed region, a laser beam for irradiating powder located in the powder bed region able to be radiated into said beam passage zone through the protective glass window, and a shielding gas system having two outflow ducts (3A, 3B) arranged on the top wall on both sides of the beam passage zone, each of the ducts having a duct wall for delimiting a duct interior, wherein each of the outflow ducts (3A, 3B) has gas permeable duct wall sections (55A, 55B, 57A, 57B, 59A, 59B, 55, 57, 59) in an inner side region of the duct wall facing the other outflow duct (3A, 3B), respectively, and in an underside region of the duct wall facing the working surface, and wherein the gas permeable duct wall sections (55A, 55B, 57A, 57B, 59A, 59B, 55, 57, 59) are provided along a duct axis of the outflow duct (3A, 3B) over an outflow length which is at least equal to the extent of the powder bed region in the direction of the duct axis, and wherein the shielding gas system further comprises an intake opening for drawing the shielding gas out of the manufacturing space.
A method for transmitting a data processing request, implemented by a just a bunch of flash, JBOF, and comprising: obtaining, by a computing unit of the JBOF, the data processing request, wherein the data processing request indicates an erasure coding, EC, operation and comprises data to be stored in a solid-state drive, SSD, in the JBOF; implementing, by the computing unit, the EC operation to the data to obtain EC data; sending, by the computing unit, the EC data to target SSDs in the JBOF; storing, by the target SSDs, the EC data. obtaining, by a computing unit of the JBOF, the data processing request, wherein the data processing request indicates an erasure coding, EC, operation and comprises data to be stored in a solid-state drive, SSD, in the JBOF; implementing, by the computing unit, the EC operation to the data to obtain EC data; sending, by the computing unit, the EC data to target SSDs in the JBOF; storing, by the target SSDs, the EC data.