mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a lithium iron phosphate nanopowder, comprising the steps of: (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a glycerol solvent which is a non-aqueous solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 1 bar to 10 bar, wherein Step (b) is performed at a temperature range of 150°C to 290°C, and wherein Step (b) is performed for 1 to 72 hours. (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a glycerol solvent which is a non-aqueous solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 1 bar to 10 bar,
Method for measuring a signal representative of a physiological parameter of a moving user comprising the steps of: providing a device worn on a body of the user, wherein the device includes, a securing band, at least one sensor for measuring the signal representative of the physiological parameter; wherein the at least one sensor is arranged on the securing band of the device such that when worn, the at least one sensor abuts against the body of the user; and performing a measurement session including; measuring a value of the signal using the at least one sensor; defining an amplitude envelope control band having an envelope upper amplitude value and an envelope lower amplitude value by measuring the signal during a predetermined period, and determining the envelope upper amplitude value and envelope lower amplitude value on the basis of the measured value during the predetermined period, and controlling the amplitude of the measured value to be within the amplitude envelope control band by controlling a force pressing the at least one sensor in a direction substantially perpendicular to the body of the user, wherein the step of determining the amplitude envelope control band is repeated at moments during the measuring session so as to set a new amplitude envelope control band during the measurement session. providing a device worn on a body of the user, wherein the device includes, a securing band, at least one sensor for measuring the signal representative of the physiological parameter; wherein the at least one sensor is arranged on the securing band of the device such that when worn, the at least one sensor abuts against the body of the user; and performing a measurement session including; measuring a value of the signal using the at least one sensor; defining an amplitude envelope control band having an envelope upper amplitude value and an envelope lower amplitude value by measuring the signal during a predetermined period, and determining the envelope upper amplitude value and envelope lower amplitude value on the basis of the measured value during the predetermined period, and controlling the amplitude of the measured value to be within the amplitude envelope control band by controlling a force pressing the at least one sensor in a direction substantially perpendicular to the body of the user, wherein the step of determining the amplitude envelope control band is repeated at moments during the measuring session so as to set a new amplitude envelope control band during the measurement session.
Electric drive, comprising an electric motor having a motor housing, a drive shaft rotatably mounted by means of at least two rolling bearings (21, 22), a stator fixed in the motor housing and a rotor connected to the drive shaft and rotatable in the motor housing, and a strain wave gearing comprising a gear housing, a rigid outer circle with an internal toothing, a flexible output sleeve with an external toothing, and a wave generator rotatable mounted in the gear housing and rolling on the flexible output sleeve, wherein the external toothing of the flexible output sleeve is in meshing engagement with the internal toothing of the rigid outer ring in dependence on a rotational movement of the shaft generator, wherein the rotor is mounted on the drive shaft and a first of the at least two rolling bearings (21, 22) is disposed within the flexible output sleeve and is adapted to rotatably support the drive shaft in the gear housing, characterized by - a flange plate to which the gear housing is flanged on one side of the flange plate, by connecting the flange plate to the rigid outer ring of the strain wave gearing, whereby - the motor housing is flanged to an opposite side of the flange plate, and - the rigid outer circle is mounted in the gear housing of the strain wave gearing. an electric motor having a motor housing, a drive shaft rotatably mounted by means of at least two rolling bearings (21, 22), a stator fixed in the motor housing and a rotor connected to the drive shaft and rotatable in the motor housing, and a strain wave gearing comprising a gear housing, a rigid outer circle with an internal toothing, a flexible output sleeve with an external toothing, and a wave generator rotatable mounted in the gear housing and rolling on the flexible output sleeve, wherein the external toothing of the flexible output sleeve is in meshing engagement with the internal toothing of the rigid outer ring in dependence on a rotational movement of the shaft generator, wherein the rotor is mounted on the drive shaft and a first of the at least two rolling bearings (21, 22) is disposed within the flexible output sleeve and is adapted to rotatably support the drive shaft in the gear housing, characterized by - a flange plate to which the gear housing is flanged on one side of the flange plate, by connecting the flange plate to the rigid outer ring of the strain wave gearing, whereby - the motor housing is flanged to an opposite side of the flange plate, and - the rigid outer circle is mounted in the gear housing of the strain wave gearing. - a flange plate to which the gear housing is flanged on one side of the flange plate, by connecting the flange plate to the rigid outer ring of the strain wave gearing, whereby - the motor housing is flanged to an opposite side of the flange plate, and - the rigid outer circle is mounted in the gear housing of the strain wave gearing.
A system for treatment of compressed audio signals, comprising: a processor; a sampler module executable by the processor to divide an audio signal into a series of sequential samples; the system being characterised by further comprising: a signal quality detector module executable by the processor to identify a consistent brick wall frequency of the audio signal spanning a plurality of the sequential samples at an outset of the audio signal and to determine a signal treatment indication proportional to the brick wall frequency; and a signal enhancer module executable by the processor to sequentially receive and analyze one or more sample components of the sequential samples of the audio signal to identify lost parts of the audio signal in the one or more sample components of respective sequential samples, and apply to the audio signal, at a level in accordance with the signal treatment indication, a corresponding signal treatment for each of the one or more sample components of respective sequential samples having a corresponding identified lost part. a processor; a sampler module executable by the processor to divide an audio signal into a series of sequential samples; the system being characterised by further comprising: a signal quality detector module executable by the processor to identify a consistent brick wall frequency of the audio signal spanning a plurality of the sequential samples at an outset of the audio signal and to determine a signal treatment indication proportional to the brick wall frequency; and a signal enhancer module executable by the processor to sequentially receive and analyze one or more sample components of the sequential samples of the audio signal to identify lost parts of the audio signal in the one or more sample components of respective sequential samples, and apply to the audio signal, at a level in accordance with the signal treatment indication, a corresponding signal treatment for each of the one or more sample components of respective sequential samples having a corresponding identified lost part. sequentially receive and analyze one or more sample components of the sequential samples of the audio signal to identify lost parts of the audio signal in the one or more sample components of respective sequential samples, and apply to the audio signal, at a level in accordance with the signal treatment indication, a corresponding signal treatment for each of the one or more sample components of respective sequential samples having a corresponding identified lost part.
A tensioning system for imparting tension to an endless loop power transferring member encircling a drive sprocket and at least one driven sprocket (16a, 16b), having at least one tensioning arm (18a, 18b), each tensioning arm (18a, 18b) mounted for movement relative to the endless loop power transferring member and having a shoe (20a, 20b) with a sliding face (22a, 22b), the tensioning system characterized in that it comprises: a mechanical tensioner with one way damping mechanism including a slider assembly having a rigidly fixed slotted body defining a slot with outer ends, a slider body retained in the slot of the fixed slotted body and operably connected to the at least one tensioning arm (18a, 18b) for driving the at least one tensioning arm (18a, 18b) in movement relative to the endless loop power transferring member, and a biasing spring engageable between the fixed slotted body and the slider body for urging the slider body in a predetermined direction, the slider body defining pockets between the slider body and side walls defining the slot of the slotted body, a pair of wedges (5 6) located in the pockets for movement toward the side walls when the slider body moves against the urging of the biasing spring, and a wedge spring urging the wedges toward the side walls of the slotted body. a mechanical tensioner with one way damping mechanism including a slider assembly having a rigidly fixed slotted body defining a slot with outer ends, a slider body retained in the slot of the fixed slotted body and operably connected to the at least one tensioning arm (18a, 18b) for driving the at least one tensioning arm (18a, 18b) in movement relative to the endless loop power transferring member, and a biasing spring engageable between the fixed slotted body and the slider body for urging the slider body in a predetermined direction, the slider body defining pockets between the slider body and side walls defining the slot of the slotted body, a pair of wedges (5 6) located in the pockets for movement toward the side walls when the slider body moves against the urging of the biasing spring, and a wedge spring urging the wedges toward the side walls of the slotted body.
A method for predicting risk of gestational diabetes mellitus in a pregnant individual, the method comprising: measuring one or more biochemical markers in a blood sample obtained from the pregnant individual to determine one or more biomarker levels, wherein the one or more measured biochemical markers comprises sTNFRl; identifying, by a processor of a computing device, for each of the one or more measured biochemical markers, a difference between the one or more measured biomarker levels and a corresponding predetermined control level; and responsive to the identifying, determining, by the processor, a prediction corresponding to a relative risk of the pregnant individual having or developing GDM; wherein the prediction is positive based at least in part upon identifying a sTNFRl level which reflects a statistically significant increase in comparison to a respective control level, wherein the pregnant individual has not been previously diagnosed as diabetic, and/or the pregnant individual is within a first trimester stage of pregnancy at time of obtaining the blood sample. measuring one or more biochemical markers in a blood sample obtained from the pregnant individual to determine one or more biomarker levels, wherein the one or more measured biochemical markers comprises sTNFRl; identifying, by a processor of a computing device, for each of the one or more measured biochemical markers, a difference between the one or more measured biomarker levels and a corresponding predetermined control level; and responsive to the identifying, determining, by the processor, a prediction corresponding to a relative risk of the pregnant individual having or developing GDM; wherein the prediction is positive based at least in part upon identifying a sTNFRl level which reflects a statistically significant increase in comparison to a respective control level, wherein the pregnant individual has not been previously diagnosed as diabetic, and/or the pregnant individual is within a first trimester stage of pregnancy at time of obtaining the blood sample.
A method of protecting a plug-in unit during replacement of an adjacent plug-in unit in an electronic rack by providing at least one fender (1; 1'; 101; 201) on at least one side (23, 24) of the plug-in unit that is intended for stacking in said electronic rack, characterized by providing at the plug-in unit a fender/fenders, of said at least one fender, being generally elongated and extending in a direction generally coinciding with a direction of insertion of the plug-in unit into the electronic rack, the fender having a height H taken between its upper and lower surface being at least equal or exceeding the height of components located on said side (23,24) of the plug-in unit, the material of the fender having electrostatic discharge protective properties, e.g. static dissipative material preventing the generation of electrostatic charges or dissipating electrostatic charges, such that the plug-in unit inserted in the electronic rack is protected from accidental engagement during replacement of a plug-in unit adjacent on said side (23, 24).
A semiconductor device comprising: a memory cell array comprising a memory cell; a first driver circuit; and a second driver circuit, wherein the memory cell comprises a first transistor, a second transistor, and a first capacitor, wherein the first transistor comprises a first gate electrode, a first source electrode, a first drain electrode, and a first channel formation region, wherein the second transistor comprises a second gate electrode, a second source electrode, a second drain electrode, and a second channel formation region, wherein the first channel formation region comprises a first semiconductor material, wherein the second channel formation region comprises a second semiconductor material, wherein the first gate electrode, the second drain electrode, and one electrode of the first capacitor are electrically connected to each other, wherein the first driver circuit is electrically connected to the first drain electrode and the second source electrode, wherein the second driver circuit is electrically connected to the other electrode of the first capacitor and the second gate electrode, and wherein a second capacitor is provided between the second driver circuit and the memory cell and one electrode of the second capacitor is electrically connected to the second gate electrode. a memory cell array comprising a memory cell; a first driver circuit; and a second driver circuit, wherein the memory cell comprises a first transistor, a second transistor, and a first capacitor, wherein the first transistor comprises a first gate electrode, a first source electrode, a first drain electrode, and a first channel formation region, wherein the second transistor comprises a second gate electrode, a second source electrode, a second drain electrode, and a second channel formation region, wherein the first channel formation region comprises a first semiconductor material, wherein the second channel formation region comprises a second semiconductor material, wherein the first gate electrode, the second drain electrode, and one electrode of the first capacitor are electrically connected to each other, wherein the first driver circuit is electrically connected to the first drain electrode and the second source electrode, wherein the second driver circuit is electrically connected to the other electrode of the first capacitor and the second gate electrode, and wherein a second capacitor is provided between the second driver circuit and the memory cell and one electrode of the second capacitor is electrically connected to the second gate electrode.
Transmission for a motor vehicle, comprising: - an input shaft and an output shaft, - fixed gears (11 to 16), idler gears (31 to 36) and gear couplings (37, 40, 41) for the rotationally fixed connection of the idler gears (31 to 36) to the input shaft or the output shaft, - a plurality of gears (I to VI), wherein one of the idler gears (31 to 36) and one of the gear couplings (37, 40, 41) is assigned to each gear, wherein the idler gear is connected in a rotationally fixed manner to the shaft bearing the idler gear by way of the gear coupling, when the corresponding gear is engaged, - a ring gear meshes with a first pinion, which is arranged on the output shaft, - an additional shaft, on which a second pinion, that meshes with the ring gear, and an additional toothed gear and an additional gear coupling are arranged, wherein the additional shaft and the additional gear coupling are assigned to an additional gear, wherein the second pinion is rotatably arranged on the additional shaft when the additional gear is not engaged and is connected to the additional shaft in a rotationally fixed manner when the additional gear is engaged, wherein the additional gear is a reverse gear, wherein the additional toothed gear is seated as a fixed wheel in a rotationally fixed manner on the additional shaft and meshes with an idler gear on the output shaft, wherein a sliding sleeve of the additional gear coupling can be rotated towards the second pinion when the additional gear is not engaged and is connected in a rotationally fixed manner to the second pinion when the additional gear is engaged characterised in that the idler gear, with which the additional toothed gear meshes, is assigned to a first forward gear or to a second forward gear of the transmission. - an input shaft and an output shaft, - fixed gears (11 to 16), idler gears (31 to 36) and gear couplings (37, 40, 41) for the rotationally fixed connection of the idler gears (31 to 36) to the input shaft or the output shaft, - a plurality of gears (I to VI), wherein one of the idler gears (31 to 36) and one of the gear couplings (37, 40, 41) is assigned to each gear, wherein the idler gear is connected in a rotationally fixed manner to the shaft bearing the idler gear by way of the gear coupling, when the corresponding gear is engaged, - a ring gear meshes with a first pinion, which is arranged on the output shaft, - an additional shaft, on which a second pinion, that meshes with the ring gear, and an additional toothed gear and an additional gear coupling are arranged,
An insulating vessel having an insulating vessel cover, comprising a. A thread with a rotational axis for securing the insulating vessel cover to the insulating vessel; b. A fluid channel, which has an outlet at a first lateral wall of the insulating vessel cover; and c. An air channel, which has an outlet at a second lateral wall of the insulating vessel cover; wherein the fluid channel has at least two flow delimiters at the outlet of the first lateral wall, at least regions of which flow delimiters each have a form substantially corresponding to the form of a circle sector, wherein the insulating vessel cover is screwed on an insulating vessel, characterised in that the at least two flow delimiters lengthen the fluid channel in the direction of a spout region of the insulating vessel. a. A thread with a rotational axis for securing the insulating vessel cover to the insulating vessel; b. A fluid channel, which has an outlet at a first lateral wall of the insulating vessel cover; and c. An air channel, which has an outlet at a second lateral wall of the insulating vessel cover;
A method for making a higher MW phenylalkylsiloxane having an average number average MW in excess of 10,000 as measured by proton NMR, with all of the silicon atoms bonded to a phenyl group, from a lower MW OH terminated phenylalkylsiloxane having a number average MW of from 200 to 1000, as measured by proton NMR, by polymerisation of the lower MW phenylalkylsiloxane under vacuum in the presence of an aqueous alkaline solution containing one or more alkalis selected from the group of sodium hydroxide, potassium hydroxide, magnesium hydroxide, calcium hydroxide, rubidium hydroxide ammonium hydroxide, tetraalkylammonium hydroxide, tetraalkyl ammonium alkoxide and phosphonium hydroxides in an amount of from 50ppm or greater based upon the amount of lower MW phenylalkylsiloxane.
A haemodialysis device comprising a dialysate side comprising a dialysate chamber of a dialyzer having a membrane, a dialysate pump pumping dialysate from a dialysate source to the dialysate chamber, a dialysate continuous-flow heater upstream of the dialysate chamber, and a waste pump pumping the dialysate away from the dialysate chamber, a blood side comprising an arterial line, a blood pump, a blood chamber of the dialyzer and a venous line, and a device control configured to perform a method for ending a haemodialysis treatment of a patient, comprising the method step: filling the arterial and venous lines (42, 44), which are connected with the patient, with dialysate which is pumped by the dialysate pump through the dialyzer membrane into the arterial and venous lines (42, 44) until no more patient blood is present in the lines (42, 44), wherein, while dialysate is filled in, the dialysate pumped to the dialysate chamber by the dialysate pump is heated to a set temperature by the dialysate continuous-flow heater, characterized in that, while dialysate is filled in, a continuous determination of the fluid pressure is performed by a dialysate pressure sensor between the dialysate chamber and the waste pump, an arterial pressure sensor or a venous pressure sensor, wherein filling the dialysate is ended in a volume-controlled manner, as soon as the fluid pressure measured passes a defined dialysate passage pressure threshold. filling the arterial and venous lines (42, 44), which are connected with the patient, with dialysate which is pumped by the dialysate pump through the dialyzer membrane into the arterial and venous lines (42, 44) until no more patient blood is present in the lines (42, 44), wherein, while dialysate is filled in, the dialysate pumped to the dialysate chamber by the dialysate pump is heated to a set temperature by the dialysate continuous-flow heater, characterized in that, while dialysate is filled in, a continuous determination of the fluid pressure is performed by a dialysate pressure sensor between the dialysate chamber and the waste pump, an arterial pressure sensor or a venous pressure sensor, wherein filling the dialysate is ended in a volume-controlled manner, as soon as the fluid pressure measured passes a defined dialysate passage pressure threshold.
Cosmetic spray consisting of a) an oil-in-water emulsion (O/W emulsion) comprising sodium stearoyl glutamate and ethanol and also b) a spray applicator system, wherein the spray applicator system used is a bag-on-valve applicator system, in which a bag containing the O/W emulsion is in a pressurized gas container under positive pressure, characterized in that the positive pressure in the positive pressure container of the bag-on-valve applicator is from 2 to 12 bar. a) an oil-in-water emulsion (O/W emulsion) comprising sodium stearoyl glutamate and ethanol and also b) a spray applicator system, wherein the spray applicator system used is a bag-on-valve applicator system, in which a bag containing the O/W emulsion is in a pressurized gas container under positive pressure, characterized in that the positive pressure in the positive pressure container of the bag-on-valve applicator is from 2 to 12 bar.