mhurhangee/ep-ind-claims huggingface dataset:
A porous pad for impregnation of a liquid cosmetic composition, comprising: a first porous pad layer; and a second porous pad layer disposed under the first porous pad layer, wherein the first porous pad layer comprises an injection hole for injection of the liquid cosmetic composition, wherein the second porous pad layer comprises a dispersion hole and one or more main storage holes, the dispersion hole being coaxially formed through the second porous pad layer to disperse the liquid cosmetic composition that is injected through the injection hole, the main storage holes being formed through the second porous pad layer in such a way as to be located around a periphery of the dispersion hole and be radially arranged, and wherein auxiliary storage holes are formed in the second porous pad layer to increase a filling amount of the liquid cosmetic composition, each of the auxiliary storage holes having a diameter smaller than that of each of the main storage holes, characterized in that the auxiliary storage holes formed in the second porous pad layer are distributed at regular intervals between the respective main storage holes so as to guide uniform dispersion of the liquid cosmetic composition. a first porous pad layer; and a second porous pad layer disposed under the first porous pad layer, wherein the first porous pad layer comprises an injection hole for injection of the liquid cosmetic composition, wherein the second porous pad layer comprises a dispersion hole and one or more main storage holes, the dispersion hole being coaxially formed through the second porous pad layer to disperse the liquid cosmetic composition that is injected through the injection hole, the main storage holes being formed through the second porous pad layer in such a way as to be located around a periphery of the dispersion hole and be radially arranged, and wherein auxiliary storage holes are formed in the second porous pad layer to increase a filling amount of the liquid cosmetic composition, each of the auxiliary storage holes having a diameter smaller than that of each of the main storage holes, characterized in that the auxiliary storage holes formed in the second porous pad layer are distributed at regular intervals between the respective main storage holes so as to guide uniform dispersion of the liquid cosmetic composition.
A refrigerator having an insulated body and an insulated door which is mounted so it is pivotable in relation to the insulated body by door hinges and which has at least one insulated region having a peripheral seal, wherein fastening units are provided on a front end face of the insulated body for the alternate fastening of the door hinges on a left or right side of the insulated body, with an opening device for the insulated door which is installed on at least one of the unused fastening units for the door hinges on a side of the insulated body opposite to the door hinges in an installation space provided for the door hinges, wherein the opening device has a housing, out of which an ejection element is extendable in an electrically actuated manner which acts on a region of the door assembly located outside the seal, wherein the door hinge has a self-retraction function and the ejection element has a maximum stroke upon extension out of the housing, which pivots the insulated door by a door opening angle which is less than 35° and less than an angle range of a self-retraction device of the door hinge, so that the door assembly closes automatically after the ejection element retracts, if it is not manually opened.
Triggering element for a fire protection system, comprising at least one rupture body, characterized in that the rupture body is provided with an optical waveguide which has a core and a cladding surrounding the core and into which optical waveguide at least one predetermined breaking point is introduced which was produced by weakening the cladding.
System as stop means for protective equipment against falling, wherein the system has stop points or guide ropes and rails and small-area individual elements (9, 10) held by means of superimposed loading of bulk materials, wherein the individual elements form a large-area disc, variable in size and shape and to be covered with a superimposed load, characterised in that the individual elements are stiffened, have a three-dimensional structure, and are each connected to one another by connecting links in the form of push-in T-connectors to form a large-area disc, wherein the push-in T-connectors also have knobs and recesses, wherein the knobs are engaged in the assigned recesses, and wherein the stop points are attached to the large-area disc or integrated in individual elements and in this way, also through the covering with a superimposed load, are able to absorb such forces as occur in the event of a fall.
A system (200, 300) for generating a stabilized pump laser output comprising: a light source (210, 310) for generating a coherent output signal; a light stabilizer comprising a single mode optical fiber (220, 320) having an etched Bragg grating, wherein the single mode optical fiber (220, 330) is coupled to the light source (210, 310) at a coupling point and is configured to pass a single axis of propagation of the coherent output signal from the light source to a Bragg grating to generate a wavelength stabilized pump output signal for the system, wherein the etched Bragg grating is positioned in the single mode optical fiber (220, 320) at a length from the coupling point that exceeds a decoherence length, the decoherence length being determined so that reflections from the eched Bragg grating have an optical path length difference that is sufficiently long that interference terms are suppressed by at least 17 dB, and wherein the single mode optical fiber (220, 320) has a surface material that is metalized at a first portion located between the etched Bragg grating and the light source and at a second portion that is located beyond the Bragg grating opposite the first portion; and a temperature stabilizer coupled to the light source (210, 310) and to the first and second metalized portions (340, 350) of the single mode optical fiber (220, 320) to provide temperature stability for the light source (210, 310) and the single mode optical fiber (220, 320). a light source (210, 310) for generating a coherent output signal; a light stabilizer comprising a single mode optical fiber (220, 320) having an etched Bragg grating, wherein the single mode optical fiber (220, 330) is coupled to the light source (210, 310) at a coupling point and is configured to pass a single axis of propagation of the coherent output signal from the light source to a Bragg grating to generate a wavelength stabilized pump output signal for the system, wherein the etched Bragg grating is positioned in the single mode optical fiber (220, 320) at a length from the coupling point that exceeds a decoherence length, the decoherence length being determined so that reflections from the eched Bragg grating have an optical path length difference that is sufficiently long that interference terms are suppressed by at least 17 dB, and wherein the single mode optical fiber (220, 320) has a surface material that is metalized at a first portion located between the etched Bragg grating and the light source and at a second portion that is located beyond the Bragg grating opposite the first portion; and a temperature stabilizer coupled to the light source (210, 310) and to the first and second metalized portions (340, 350) of the single mode optical fiber (220, 320) to provide temperature stability for the light source (210, 310) and the single mode optical fiber (220, 320).
A method of controlling a growth environment of a plant, the method comprising: obtaining an electrical signal from the plant; generating, using at least one machine learning model, prediction data based upon the electrical signal, wherein the at least one machine learning model has been trained to assess at least one characteristic of the plant, and wherein the prediction data are based upon output(s) of the at least one machine learning model and indicate an assessment of the at least one characteristic of the plant; and applying a user defined rule set to the prediction data to generate a plant control signal, wherein the plant control signal is configured to change the growth environment of the plant. obtaining an electrical signal from the plant; generating, using at least one machine learning model, prediction data based upon the electrical signal, wherein the at least one machine learning model has been trained to assess at least one characteristic of the plant, and wherein the prediction data are based upon output(s) of the at least one machine learning model and indicate an assessment of the at least one characteristic of the plant; and applying a user defined rule set to the prediction data to generate a plant control signal, wherein the plant control signal is configured to change the growth environment of the plant.
A control device (31, 41, 91) adapted to issue commands to a plurality of servo drivers (SDx, SDy, SDz) corresponding to a plurality of servomotors (SMx, SMy, SMz), wherein the control device is adapted to set a servo driver among the plurality of servo drivers (SDx, SDy, SDz) corresponding to a standard servomotor having a maximum response delay time among the plurality of servomotors (SMx, SMy, SMz) as a standard servo driver, and to delay a command timing to another servo driver among the plurality of servo drivers (SDx, SDy, SDz) from a command timing to the standard servo driver by a difference between a response delay time of the standard servomotor and a response delay time of a servomotor among the plurality of servomotors (SMx, SMy, SMz) corresponding to the another servo driver, wherein the commands are position commands based on a target trajectory; the control device (31, 41, 91) being characterized in that the control device (31, 41, 91) is adapted to read a position loop gain from each of the plurality of servo drivers (SDx, SDy, SDz) and calculate the response delay time of each of the plurality of servomotors (SMx, SMy, SMz) as an inverse number of the read position loop gain. wherein the control device is adapted to set a servo driver among the plurality of servo drivers (SDx, SDy, SDz) corresponding to a standard servomotor having a maximum response delay time among the plurality of servomotors (SMx, SMy, SMz) as a standard servo driver, and to delay a command timing to another servo driver among the plurality of servo drivers (SDx, SDy, SDz) from a command timing to the standard servo driver by a difference between a response delay time of the standard servomotor and a response delay time of a servomotor among the plurality of servomotors (SMx, SMy, SMz) corresponding to the another servo driver, wherein the commands are position commands based on a target trajectory; the control device (31, 41, 91) being characterized in that the control device (31, 41, 91) is adapted to read a position loop gain from each of the plurality of servo drivers (SDx, SDy, SDz) and calculate the response delay time of each of the plurality of servomotors (SMx, SMy, SMz) as an inverse number of the read position loop gain.
A control module for use with a plurality of wellbore tools, the control module comprising: a power source; a logic circuit operably coupled to the power source; wherein the logic circuit is operably coupled to the plurality of wellbore tools through a topmost wellbore tool (200 1) of the plurality of wellbore tools; characterized in that the logic circuit is configured to, in response to an initiation condition: for each wellbore tool (200 i) of the plurality of wellbore tools in a sequential order from a bottommost wellbore tool (200 N) to the topmost wellbore tool (200 1), determine whether a return signal, a current draw, or a voltage change of the wellbore tool (200 i) is within an operation range; in response to a determination that the return signal, the current draw, or the voltage change is within the operation range, initiate the wellbore tool (200 i); and in response to a determination that the return signal, the current draw, or the voltage change is outside the operation range, skip initiation of the wellbore tool (200 i). a power source; a logic circuit operably coupled to the power source; wherein the logic circuit is operably coupled to the plurality of wellbore tools through a topmost wellbore tool (200 1) of the plurality of wellbore tools; characterized in that the logic circuit is configured to, in response to an initiation condition: for each wellbore tool (200 i) of the plurality of wellbore tools in a sequential order from a bottommost wellbore tool (200 N) to the topmost wellbore tool (200 1), determine whether a return signal, a current draw, or a voltage change of the wellbore tool (200 i) is within an operation range; in response to a determination that the return signal, the current draw, or the voltage change is within the operation range, initiate the wellbore tool (200 i); and in response to a determination that the return signal, the current draw, or the voltage change is outside the operation range, skip initiation of the wellbore tool (200 i). for each wellbore tool (200 i) of the plurality of wellbore tools in a sequential order from a bottommost wellbore tool (200 N) to the topmost wellbore tool (200 1), determine whether a return signal, a current draw, or a voltage change of the wellbore tool (200 i) is within an operation range; in response to a determination that the return signal, the current draw, or the voltage change is within the operation range, initiate the wellbore tool (200 i); and in response to a determination that the return signal, the current draw, or the voltage change is outside the operation range, skip initiation of the wellbore tool (200 i).
A method of a first device handling radio link failure, comprising: performing or establishing sidelink unicast communication with a second device; performing or establishing sidelink unicast communication with a third device; detecting a radio link failure associated with the second device; and performing a Sidelink Medium Access Control, in the following also referred to as MAC, reset associated with the second device in response to the radio link failure, and not performing a Sidelink MAC reset associated with the third device. performing or establishing sidelink unicast communication with a second device; performing or establishing sidelink unicast communication with a third device; detecting a radio link failure associated with the second device; and performing a Sidelink Medium Access Control, in the following also referred to as MAC, reset associated with the second device in response to the radio link failure, and not performing a Sidelink MAC reset associated with the third device.
A control device for an air-conditioning system configured to detect low pressure of a refrigerant during cooling and high pressure of the refrigerant during heating by a compressor sensor, each as a pressure detection value, and to perform pressure regulating control for regulating the pressure detection value by controlling the rotation speed of a compressor to be constant such that the pressure detection value becomes a predetermined target pressure independently of an indoor load, the control device, comprising: a pressure control means configured to perform energy-saving control to reduce a rotation speed of the compressor when the indoor load decreases, such that the pressure detection value becomes a newly adjusted target pressure; and a compression ratio control means configured to control the high pressure of the refrigerant during cooling and the low pressure of the refrigerant during heating to control a pressure ratio between the high pressure and the low pressure of the refrigerant after control by the pressure control means, in order to provide an operational point that improves efficiency of the compressor; wherein the control device is configured so that during cooling, the compression ratio control means controls the high pressure of the refrigerant and the pressure control means controls the low pressure of the refrigerant, and during heating, the pressure control means controls the high pressure of the refrigerant and the compression ratio control means controls the low pressure of the refrigerant, and the compression ratio control means controls the pressure ratio by controlling a rotation speed of a fan provided to an outdoor unit and/or by controlling the degree of opening of an expansion valve provided to an outdoor unit. a pressure control means configured to perform energy-saving control to reduce a rotation speed of the compressor when the indoor load decreases, such that the pressure detection value becomes a newly adjusted target pressure; and a compression ratio control means configured to control the high pressure of the refrigerant during cooling and the low pressure of the refrigerant during heating to control a pressure ratio between the high pressure and the low pressure of the refrigerant after control by the pressure control means, in order to provide an operational point that improves efficiency of the compressor; wherein the control device is configured so that during cooling, the compression ratio control means controls the high pressure of the refrigerant and the pressure control means controls the low pressure of the refrigerant, and during heating, the pressure control means controls the high pressure of the refrigerant and the compression ratio control means controls the low pressure of the refrigerant, and the compression ratio control means controls the pressure ratio by controlling a rotation speed of a fan provided to an outdoor unit and/or by controlling the degree of opening of an expansion valve provided to an outdoor unit.
A cosmetic composition comprising the following and: an acylproline represented by the formula or a salt thereof wherein an acyl group represented by R 1 -CO- is an acyl group induced from a saturated or unsaturated fatty acid having 2 - 23 carbon atoms, a diol compound having 2-12 carbon atoms, comprising one or more compounds selected from the group consisting of hexylglycerol and cyclohexylglycerol. an acylproline represented by the formula or a salt thereof wherein an acyl group represented by R 1 -CO- is an acyl group induced from a saturated or unsaturated fatty acid having 2 - 23 carbon atoms, a diol compound having 2-12 carbon atoms, comprising one or more compounds selected from the group consisting of hexylglycerol and cyclohexylglycerol.
A humanized monoclonal antibody capable of inhibiting terminal complement for use in the treatment of hematopoietic stem cell transplant (HSCT) associated thrombotic microangiopathy (HSCT-TMA) in a subject that has undergone a bone marrow transplant, wherein said treatment comprises administering said humanized monoclonal antibody to said subject, wherein said humanized monoclonal antibody is eculizumab and is administered in a manner sufficient to achieve a therapeutic eculizumab level in said subject, wherein said therapeutic level comprises a blood serum eculizumab trough level of greater than or at least 99 μg/mL.
An agricultural system, wherein the agricultural system comprises: a header comprising: a feed roller configured to engage a crop and to drive material other than grain of the crop toward a field; and a chopper configured to cut the MOG driven toward the field by the feed roller for discharge from the agricultural system; and characterized in that the agricultural system further comprises: at least one sensor and a control system that is communicatively coupled to the at least one sensor, the at least one sensor being configured to transmit sensor data indicative of a size of the MOG discharged from the agricultural system to the control system, the control system being configured to output a control signal to adjust a speed of the chopper relative to a speed of the feed roller based on the size of the MOG discharged from the agricultural system. a header comprising: a feed roller configured to engage a crop and to drive material other than grain of the crop toward a field; and a chopper configured to cut the MOG driven toward the field by the feed roller for discharge from the agricultural system; and a feed roller configured to engage a crop and to drive material other than grain of the crop toward a field; and a chopper configured to cut the MOG driven toward the field by the feed roller for discharge from the agricultural system; and characterized in that the agricultural system further comprises: at least one sensor and a control system that is communicatively coupled to the at least one sensor, the at least one sensor being configured to transmit sensor data indicative of a size of the MOG discharged from the agricultural system to the control system, the control system being configured to output a control signal to adjust a speed of the chopper relative to a speed of the feed roller based on the size of the MOG discharged from the agricultural system.
An imprint apparatus which cures a resin dispensed on a substrate while the resin and a pattern surface of a mold are in contact with each other, the apparatus being characterized by comprising: a supply portion configured to supply a gas, adapted to accelerate filling of a concave portion of the pattern surface of the mold with the resin, to a space which the pattern surface of the mold faces; a controller configured to control the supply portion such that the gas is supplied to the space before the resin and the pattern surface of the mold are brought into contact with each other, wherein the supply portion is configured to supply the gas to the space via a porous portion formed in at least part of the mold. a supply portion configured to supply a gas, adapted to accelerate filling of a concave portion of the pattern surface of the mold with the resin, to a space which the pattern surface of the mold faces; a controller configured to control the supply portion such that the gas is supplied to the space before the resin and the pattern surface of the mold are brought into contact with each other, wherein the supply portion is configured to supply the gas to the space via a porous portion formed in at least part of the mold.
An E. coli microorganism genetically modified for the production of 2,4-dihydroxybutyrate by converting xylose into 1,2,4-butanetriol, wherein said microorganism is further genetically modified for: i) oxidizing 1,2,4-butanetriol into 2,4-dihydroxybutanal; and ii) oxidizing 2,4-dihydroxybutanal into 2,4-dihydroxybutyrate, wherein the genetic modification i) is an overexpression of at least one gene coding for an enzyme selected from the group consisting of the gene dhaT encoding an alcohol dehydrogenase from Clostridium butyricum, Citrobacter freudii, or Klebsiella pneumoniae, and the gene fucO from E. coli encoding a lactaldehyde reductase, wherein the genetic modification ii) is an overexpression of at least one gene coding for an enzyme selected from the group consisting of the gene puuC and the gene aldB from E. coli encoding an aldehyde dehydrogenase, wherein said overexpression is achieved by increasing the number of copies of the gene within the microorganism and/or by using a promoter leading to a higher level of expression of the gene compared to the wild type promoter, and wherein said E. coli microorganism further comprises a deletion of at least one of the following genes: - a gene encoding a xylose isomerase, - a gene encoding a xylulose kinase, - a gene encoding a 3-deoxy-D-glycero-pentulosonate aldolase, - a gene encoding a keto-acid dehydrogenase, and - any combination thereof. i) oxidizing 1,2,4-butanetriol into 2,4-dihydroxybutanal; and ii) oxidizing 2,4-dihydroxybutanal into 2,4-dihydroxybutyrate, - a gene encoding a xylose isomerase, - a gene encoding a xylulose kinase, - a gene encoding a 3-deoxy-D-glycero-pentulosonate aldolase, - a gene encoding a keto-acid dehydrogenase, and - any combination thereof.