mhurhangee/ep-ind-claims huggingface dataset:
A facial rejuvenating apparatus, comprising: a support configured to be supported on a horizontal surface; a base having a depression, the base being adjustably mounted to the support; a soft resilient pad having an upper surface formed with a concavity therein configured to receive a human face, at least one pad breathing opening formed through the pad, the pad being nested in the depression of the base; at least one stimulator mounted in the pad in proximity to the concavity in the pad, the stimulator comprising at least one vibrator and at least one heater; and a nonporous lining removably nested with the pad and having at least one lining breathing opening substantially registered with the pad breathing opening. a support configured to be supported on a horizontal surface; a base having a depression, the base being adjustably mounted to the support; a soft resilient pad having an upper surface formed with a concavity therein configured to receive a human face, at least one pad breathing opening formed through the pad, the pad being nested in the depression of the base; at least one stimulator mounted in the pad in proximity to the concavity in the pad, the stimulator comprising at least one vibrator and at least one heater; and a nonporous lining removably nested with the pad and having at least one lining breathing opening substantially registered with the pad breathing opening.
A mixture comprising: a. an acrylic core-shell redispersible polymer powder comprising an external shell polymer associated with an internal core polymer wherein the core polymer is an acrylic polymer having a glass transition temperature in a range of -40 to 50 degrees Celsius and the shell polymer is an alkali soluble polymer that contains a more carboxyl-group functionalities than the core polymer, the acrylic core-shell redispersible powder further comprising a nucleating agent having a boiling point in a range of 150-500 degrees Celsius and a water solubility of 3.5 weight-percent or less; and b. a second redispersible polymer powder selected from vinyl acetate ethylene copolymer redispersible polymer powders and polymer powders of a blend of vinyl acetate ethylene copolymer and vinyl ester of versatic acid copolymer; where the concentration of the acrylic redispersible polymer powder (a) is between 20 weight-percent and 100 weight-percent of the total combined weight of redispersible powders (a) and (b). a. an acrylic core-shell redispersible polymer powder comprising an external shell polymer associated with an internal core polymer wherein the core polymer is an acrylic polymer having a glass transition temperature in a range of -40 to 50 degrees Celsius and the shell polymer is an alkali soluble polymer that contains a more carboxyl-group functionalities than the core polymer, the acrylic core-shell redispersible powder further comprising a nucleating agent having a boiling point in a range of 150-500 degrees Celsius and a water solubility of 3.5 weight-percent or less; and b. a second redispersible polymer powder selected from vinyl acetate ethylene copolymer redispersible polymer powders and polymer powders of a blend of vinyl acetate ethylene copolymer and vinyl ester of versatic acid copolymer;
A modified cross-section fiber comprising: a plurality of pieces of conjugate fiber structures comprising a first thermoplastic resin and a second thermoplastic resin having a lower melting or softening point than the first thermoplastic resin and a connected body comprising a third thermoplastic resin having a higher melting or softening point than the second thermoplastic resin, wherein, in an arbitrary fiber cross-section, at least two pieces of the conjugated fiber structure are connected by the connected body. a plurality of pieces of conjugate fiber structures comprising a first thermoplastic resin and a second thermoplastic resin having a lower melting or softening point than the first thermoplastic resin and a connected body comprising a third thermoplastic resin having a higher melting or softening point than the second thermoplastic resin,
A nanoparticle composition comprising nanoparticles having idealized structure II, the nanoparticles comprising a functionalized nanoparticulate metal oxide and a positively charged trioxysilane ligand wherein R 2 is independently at each occurrence a C 1 -C 3 alkyl group; R 3 is independently at each occurrence a hydrogen or a C 1 -C 3 aliphatic group; R 4 is a C 1 -C 5 aliphatic radical, a C 7 -C 12 aromatic radical, or a C 5 -C 10 cycloaliphatic group; n is 0, 1, 2 or 3; q is 1, 2 or 3; X - represents a charge balancing counterion; and the functionalized nanoparticulate metal oxide comprises nanoparticulate tantalum oxide.
Tool for processing planar workpieces, in particular metal sheets, - comprising an upper tool, which has a clamping shaft and a main body, which lie in a common positioning axis, and a processing tool, which is arranged on the main body, opposite the clamping shaft, and has at least one processing edge (38, 39), and - comprising a lower tool, which comprises a main body with a rest surface for the workpiece and comprises a counter body, which is provided on the main body, wherein the counter tool is formed as a counter roller, which has at least one counter edge (506, 507), which is opposite the at least one processing edge (38, 39) of the processing tool, - wherein the main body comprises a positioning axis, which is oriented perpendicularly to the rest surface, and - wherein the upper tool and lower tool are moveable towards one another in a stroke direction in order to process a workpiece arranged between them, and a processing plane is formed between the upper tool and the lower tool, characterised in - that the at least one processing edge (38, 39) of the processing tool extends at least partially along a holding-down surface provided on the main body, - that a processing device is provided adjacently to the at least one counter edge (506, 507) and has at least one curved counter surface oriented in the longitudinal direction of the processing edge (38, 39) of the processing tool. - comprising an upper tool, which has a clamping shaft and a main body, which lie in a common positioning axis, and a processing tool, which is arranged on the main body, opposite the clamping shaft, and has at least one processing edge (38, 39), and - comprising a lower tool, which comprises a main body with a rest surface for the workpiece and comprises a counter body, which is provided on the main body, wherein the counter tool is formed as a counter roller, which has at least one counter edge (506, 507), which is opposite the at least one processing edge (38, 39) of the processing tool, - wherein the main body comprises a positioning axis, which is oriented perpendicularly to the rest surface, and - wherein the upper tool and lower tool are moveable towards one another in a stroke direction in order to process a workpiece arranged between them, and a processing plane is formed between the upper tool and the lower tool, characterised in - that the at least one processing edge (38, 39) of the processing tool extends at least partially along a holding-down surface provided on the main body, - that a processing device is provided adjacently to the at least one counter edge (506, 507) and has at least one curved counter surface oriented in the longitudinal direction of the processing edge (38, 39) of the processing tool.
An optical transmitter, wherein the optical transmitter comprises: a total number of M lasers and a total number of M wavelength-selective optical elements, wherein the M lasers are coupled to M input ends of the M wavelength-selective optical elements, wherein the M lasers correspond to the M wavelength-selective optical elements in a one-to-one manner, and a wavelength of each wavelength-selective optical element is set to be consistent with a wavelength of a coupled laser; wherein M output ends of the M wavelength-selective optical elements are coupled as one channel; the total number of M lasers comprise a number of N lasers that are in a working state, and N<M, wherein both M and N are integers greater than or equal to 1; and the N lasers correspond to N different wavelengths; wherein the wavelength-selective elements are microring resonators, and the M microring resonators are coupled as one channel by using an optical waveguide; and when a first laser in the N lasers is switched to an idle state laser in the M lasers, a wavelength of a wavelength-selective optical element to which the first laser is coupled is adjusted from a first wavelength to a second wavelength to ensure that the wavelength-selective optical element to which the first laser is coupled does not perform any optical path turning on lights whose wavelengths are the wavelengths of the N lasers, and the second wavelength being different from the wavelengths of the N lasers. a total number of M lasers and a total number of M wavelength-selective optical elements, wherein the M lasers are coupled to M input ends of the M wavelength-selective optical elements, wherein the M lasers correspond to the M wavelength-selective optical elements in a one-to-one manner, and a wavelength of each wavelength-selective optical element is set to be consistent with a wavelength of a coupled laser; wherein M output ends of the M wavelength-selective optical elements are coupled as one channel; the total number of M lasers comprise a number of N lasers that are in a working state, and N<M, wherein both M and N are integers greater than or equal to 1; and the N lasers correspond to N different wavelengths; wherein the wavelength-selective elements are microring resonators, and the M microring resonators are coupled as one channel by using an optical waveguide; and when a first laser in the N lasers is switched to an idle state laser in the M lasers, a wavelength of a wavelength-selective optical element to which the first laser is coupled is adjusted from a first wavelength to a second wavelength to ensure that the wavelength-selective optical element to which the first laser is coupled does not perform any optical path turning on lights whose wavelengths are the wavelengths of the N lasers, and the second wavelength being different from the wavelengths of the N lasers.
An actinic-ray- or radiation-sensitive resin composition comprising any of the compounds of general formula below, a compound that when exposed to actinic rays or radiation, generates an acid, a hydrophobic resin and a resin that is decomposed by the action of an acid to thereby increase its solubility in an alkali developer, R N -A - X + in general formula, R N represents a monovalent basic compound residue containing at least one nitrogen atom, the conjugate acid of the basic compound residue, R N H +, having a pKa value of -2 to 8 or less, A - represents -X 1 -N - -X 2 -R 1 in which each of X 1 and X 2 independently represents -CO- or -SO 2 - and R 1 represents a monovalent organic group, and X + represents a counter cation, wherein in general formula, R N represents a group represented by the following general formula, in general formula, L represents a functional group of -0.1 or greater in the σ p value of Hammett's rule, excluding a hydrogen atom, X 3 represents -CO- or -SO 2 -, R 41 represents a bivalent connecting group, and * represents a site of bonding to A -. R N represents a monovalent basic compound residue containing at least one nitrogen atom, the conjugate acid of the basic compound residue, R N H +, having a pKa value of -2 to 8 or less, A - represents -X 1 -N - -X 2 -R 1 in which each of X 1 and X 2 independently represents -CO- or -SO 2 - and R 1 represents a monovalent organic group, and X + represents a counter cation, L represents a functional group of -0.1 or greater in the σ p value of Hammett's rule, excluding a hydrogen atom, X 3 represents -CO- or -SO 2 -, R 41 represents a bivalent connecting group, and * represents a site of bonding to A -.
A device, comprising: a sensor input capable of receiving a signal from a sensor, the signal being based on a sensed physiological characteristic value of a user of the device; and a processor coupled to the sensor input for operating an alarm based on the received signal from the sensor; wherein the processor is configured to activate the alarm according to: a first criterion threshold during waking hours; and a second different criterion threshold during sleeping hours; wherein the sensed physiological characteristic is a measurement of glucose; wherein the processor is configured to provide an alarm warning at an earlier timepoint during sleeping hours as compared to during waking hours by selecting said second different criterion threshold for the activation of said alarm during sleeping hours, wherein the criterion includes: glucose concentrations reaching a predetermined value; or glucose concentrations exhibiting a predetermined rate of change. a sensor input capable of receiving a signal from a sensor, the signal being based on a sensed physiological characteristic value of a user of the device; and a processor coupled to the sensor input for operating an alarm based on the received signal from the sensor; a first criterion threshold during waking hours; and a second different criterion threshold during sleeping hours; wherein the sensed physiological characteristic is a measurement of glucose; wherein the processor is configured to provide an alarm warning at an earlier timepoint during sleeping hours as compared to during waking hours by selecting said second different criterion threshold for the activation of said alarm during sleeping hours, wherein the criterion includes: glucose concentrations reaching a predetermined value; or glucose concentrations exhibiting a predetermined rate of change. wherein the sensed physiological characteristic is a measurement of glucose; wherein the processor is configured to provide an alarm warning at an earlier timepoint during sleeping hours as compared to during waking hours by selecting said second different criterion threshold for the activation of said alarm during sleeping hours, glucose concentrations reaching a predetermined value; or glucose concentrations exhibiting a predetermined rate of change.
A clutch plate for a multi-plate wet clutch formed of a steel plate, wherein the chemical composition of the steel plate contains, on the basis of percent by mass, C from 0.03 to 0.08%, Si from 0 to 1.0%, Mn from 0.2 to 0.8%, P at 0.03% or less, S at 0.01% or less, and Al at 0.05% or less, so as to satisfy a formula, and the chemical composition further containing at least one of Nb from 0.03 to 0.4%, V from 0.01 to 0.3%, and Ti from 0.01 to 0.3%, so as to satisfy a formula, with the remainder of the composition totalling 100% being Fe and unavoidable impurities; wherein the average diameter of particles of a carbide containing any one of the Nb, the V and the Ti as a precipitate in the steel plate is from 20 to 100 nm; and wherein the steel plate has cross-sectional hardness from 200 HV to 350HV 5 * C % − Si % + Mn % − 1.5 * Al % < 1 0.04 < Nb % / 1.4 + V % / 1.1 + Ti % < 0.3
A vertical takeoff and landing (VTOL) aircraft touchdown point selection and display system, comprising: a display device coupled to receive image rendering display commands and configured, upon receipt of the image rendering display commands, to render an image; an eye tracker configured to (i) measure rotational movement of one or both eyes of a user with respect to the user's head and relative to the image being rendered by the display device and (ii) supply eye movement data; a user interface in operable communication with the processor, the user interface adapted to receive user input and configured, upon receipt of a user input, to supply incremental adjustment data to touchdown point location data; and a processor in operable communication with the display device and the eye tracker, the processor configured, upon receipt of the eye movement data, to (i) determine an updated touchdown point location and (ii) supply image rendering display commands to the display device that cause the display device to render an updated touchdown point at the updated touchdown point location, and further configured, upon receipt of the incremental adjustment data to touchdown point location data, to (i) determine a further updated touchdown point location and (ii) supply image rendering display commands to the display device that cause the display device to render, simultaneously with the updated touchdown point, a further updated touchdown point at the further updated touchdown point location on the display device. a display device coupled to receive image rendering display commands and configured, upon receipt of the image rendering display commands, to render an image; an eye tracker configured to (i) measure rotational movement of one or both eyes of a user with respect to the user's head and relative to the image being rendered by the display device and (ii) supply eye movement data; a user interface in operable communication with the processor, the user interface adapted to receive user input and configured, upon receipt of a user input, to supply incremental adjustment data to touchdown point location data; and a processor in operable communication with the display device and the eye tracker, the processor configured, upon receipt of the eye movement data, to (i) determine an updated touchdown point location and (ii) supply image rendering display commands to the display device that cause the display device to render an updated touchdown point at the updated touchdown point location, and further configured, upon receipt of the incremental adjustment data to touchdown point location data, to (i) determine a further updated touchdown point location and (ii) supply image rendering display commands to the display device that cause the display device to render, simultaneously with the updated touchdown point, a further updated touchdown point at the further updated touchdown point location on the display device.
A stator seal structure in a uniaxial eccentric screw pump, the stator seal structure comprising: a male-threaded rotor coupled to a driving shaft; a stator rotatably coupled to a housing via a bearing and having a female-threaded inner surface with a rotational axial line arranged to be eccentric with respect to a rotational axial line of the rotor; and a pair of sealing mechanisms (14a, 14b) for sealing space between the housing and an intake side end portion of the stator, and between the housing and a discharge side end portion of the stator, characterized in that each of the pair of sealing mechanisms (14a, 14b) has a sliding seal surface arranged to be opposite to a sliding surface of the stator in a direction of the rotational axial line of the rotor, and has a ring-shaped secured ring (15a, 15b) secured to the housing, the secured ring (15a, 15b) is attached with an elastic body (16a, 16b) for ensuring with an elastic force of the elastic body (16a, 16b) a contact pressure between the sliding seal surface of the stator and the sliding seal surface of the secured ring (15a, 15b) and for sealing space between the secured ring (15a, 15b) and the housing, the secured ring (15a, 15b) is made of ceramics or cemented carbide, and the sliding seal surface of the stator is coated with ceramics (17a, 17b). a male-threaded rotor coupled to a driving shaft; a stator rotatably coupled to a housing via a bearing and having a female-threaded inner surface with a rotational axial line arranged to be eccentric with respect to a rotational axial line of the rotor; and a pair of sealing mechanisms (14a, 14b) for sealing space between the housing and an intake side end portion of the stator, and between the housing and a discharge side end portion of the stator, characterized in that each of the pair of sealing mechanisms (14a, 14b) has a sliding seal surface arranged to be opposite to a sliding surface of the stator in a direction of the rotational axial line of the rotor, and has a ring-shaped secured ring (15a, 15b) secured to the housing, the secured ring (15a, 15b) is attached with an elastic body (16a, 16b) for ensuring with an elastic force of the elastic body (16a, 16b) a contact pressure between the sliding seal surface of the stator and the sliding seal surface of the secured ring (15a, 15b) and for sealing space between the secured ring (15a, 15b) and the housing, the secured ring (15a, 15b) is made of ceramics or cemented carbide, and the sliding seal surface of the stator is coated with ceramics (17a, 17b).
E-cabinet for the installation of e-components of a rail vehicle, wherein the e-cabinet has at least two cabinet walls (10, 20, 30, 40, 50, 60), of which at least some of the cabinet walls (10, 20, 30, 40, 50, 60) are in the form of supporting parts (10, 20, 30, 40, 50, 60), of which at least one supporting part (10, 20, 30, 40, 50, 60) is substantially made up of at least one or precisely one extruded profile, characterized in that one cabinet wall is in the form of a door wall, and/or one cabinet wall is in the form of a rear wall of the e-cabinet, and in that the door wall and/or the cabinet wall are each produced from a single original extruded profile or from different original extruded profiles. characterized in that one cabinet wall is in the form of a door wall, and/or one cabinet wall is in the form of a rear wall of the e-cabinet, and in that the door wall and/or the cabinet wall are each produced from a single original extruded profile or from different original extruded profiles.
Industrial truck (101; 201), comprising: a chassis (102; 202), a front axle (103; 203) mounted on the chassis (102; 202), two front wheels (VRL, VRR) provided on opposite longitudinal ends of the front axle (103; 203), one load-lifting means (106; 206) provided in a front region on the chassis (102; 202), preferably in front of the front wheels (VRL, VRR), a front drive motor (111; 211) coupled to the two front wheels (VRL, VRR) by means of a differential gear (110; 210) in order to drive these wheels, a rear wheel (HR; HRL, HRR) mounted on the chassis (102; 202) by means of a pivot plate (104; 204L, 204R) such that said rear wheel can rotate about a rear wheel vertical axis (A; AL, AR), a steering mechanism (120; 220) coupled to the pivot plate (104; 204L, 204R) for adjusting a steering angle of the rear wheel (HR; HRL, HRR), a rear drive motor (105; 205; 205R, 205L) coupled to the rear wheel (HR; HRL; HRR) in order to drive said rear wheel, and a control device (130; 230) which is designed to distribute a currently required driving torque for the industrial truck (101; 201) to the front drive motor (111; 211) and the rear drive motor (105; 205; 205R, 205L), specifically depending on at least one current steering angle of the rear wheel (HR, HRL, HRR).