mhurhangee/ep-ind-claims huggingface dataset:
A laminated glass assembly including two panes and an interlayer, one of the panes having a major surface bearing a low solar transmittance coating, the low solar transmittance coating comprising a first infrared-reflection film region having a thickness, a second infrared-reflection film region having a thickness, and a third infrared-reflection film region having a thickness, the low solar transmittance coating comprising, in sequence moving away from said major surface: a) a first transparent dielectric film region having an optical thickness; b) the first infrared-reflection film region; c) a second transparent dielectric film region having an optical thickness; d) the second infrared-reflection film region; e) a third transparent dielectric film region having an optical thickness; f) the third infrared-reflection film region; and g) a fourth transparent dielectric film region having an optical thickness; the three infrared-reflection film regions having thicknesses that provide the laminated glass assembly with a solar transmittance of less than 0.34 and yet the laminated glass assembly has a visible transmittance of greater than 0.705, the three infrared-reflection film regions have a combined thickness of greater than 300Å and yet the laminated glass assembly exhibits a Delta T vis, lami of less than 5%, the thickness of the third infrared-reflection film region being less than the thickness of the second infrared-reflection film region, the thickness of the first infrared-reflection film region being less than the thickness of the third infrared-reflection film region, the thickness of the first infrared-reflection film region being from 85 to 140Å, the thickness of the second infrared-reflection film region being from 120 to 180Å, and the thickness of the third infrared-reflection film region being from 110 to 170 Å, and wherein the low solar transmittance coating has a first dielectric-region ratio defined as the optical thickness of the first transparent dielectric film region divided by the optical thickness of the fourth transparent dielectric film region, the first dielectric-region ratio being less than 0.75. a) a first transparent dielectric film region having an optical thickness; b) the first infrared-reflection film region; c) a second transparent dielectric film region having an optical thickness; d) the second infrared-reflection film region; e) a third transparent dielectric film region having an optical thickness; f) the third infrared-reflection film region; and g) a fourth transparent dielectric film region having an optical thickness;
A process for preparing particles of magnesium halide/alcohol adduct, said process comprising the steps of: in an inert liquid medium, contacting a magnesium halide with an alcohol to prepare a melt of magnesium halide/alcohol adduct; dispersing the mixture of the inert liquid medium and the melt of magnesium halide/alcohol adduct prepared in step by rotation under a high-gravity field to obtain a dispersion of the melt of magnesium halide/alcohol adduct; and cooling the dispersion of the melt prepared in step to form the particles of magnesium halide/alcohol adduct. in an inert liquid medium, contacting a magnesium halide with an alcohol to prepare a melt of magnesium halide/alcohol adduct; dispersing the mixture of the inert liquid medium and the melt of magnesium halide/alcohol adduct prepared in step by rotation under a high-gravity field to obtain a dispersion of the melt of magnesium halide/alcohol adduct; and cooling the dispersion of the melt prepared in step to form the particles of magnesium halide/alcohol adduct.
A method of forming a porous absorbent structure comprising the steps of: providing an aqueous superabsorbent polymer material having a viscosity of less than about 10,000 cps, as determined by the method defined herein; adding absorbent particles into the aqueous superabsorbent polymer material to form a mixture such that the ratio by weight of superabsorbent polymer material to absorbent particles in the mixture is greater than 3:1 and less than 6:1; spraying the mixture of superabsorbent polymer material and absorbent particles onto a form; and drying the mixture to induce cross-linking in the superabsorbent polymer material and to produce a porous absorbent structure conforming to the shape of the form; wherein the form is selected from the group comprising: a nonwoven material, a woven material, paper, a film or a combination thereof; wherein the ratio by weight of superabsorbent polymer material to absorbent particles in the porous absorbent structure is greater than 1:1 and less than 1.5:1; wherein the superabsorbent polymer is sodium polyacrylate; wherein in the porous absorbent structure the superabsorbent polymer material coats the absorbent particles and the superabsorbent polymer material connects the absorbent particles into a porous absorbent network; and wherein the absorbent particles are selected from cellulose, rice flour, wheat flour, teff flour, fava bean flour, almond nut flour, almond nut shell powder, kenaf, corn starch, Arizona sand, pumice, bentonite, diatomaceous earth and chalk. providing an aqueous superabsorbent polymer material having a viscosity of less than about 10,000 cps, as determined by the method defined herein; adding absorbent particles into the aqueous superabsorbent polymer material to form a mixture such that the ratio by weight of superabsorbent polymer material to absorbent particles in the mixture is greater than 3:1 and less than 6:1; spraying the mixture of superabsorbent polymer material and absorbent particles onto a form; and drying the mixture to induce cross-linking in the superabsorbent polymer material and to produce a porous absorbent structure conforming to the shape of the form; wherein the form is selected from the group comprising: a nonwoven material, a woven material, paper, a film or a combination thereof; wherein the ratio by weight of superabsorbent polymer material to absorbent particles in the porous absorbent structure is greater than 1:1 and less than 1.5:1; wherein the superabsorbent polymer is sodium polyacrylate; wherein in the porous absorbent structure the superabsorbent polymer material coats the absorbent particles and the superabsorbent polymer material connects the absorbent particles into a porous absorbent network; and wherein the absorbent particles are selected from cellulose, rice flour, wheat flour, teff flour, fava bean flour, almond nut flour, almond nut shell powder, kenaf, corn starch, Arizona sand, pumice, bentonite, diatomaceous earth and chalk.
- Opening device for a package being filled with a pourable product and having a main body provided with a designated pour opening; the opening device comprises at least: - a base frame for coupling the opening device to the main body and about the designated pour opening; and - a covering membrane rupturably connected to the base frame along a weakening line and configured to cover the designated pour opening; wherein the weakening line comprises a first end and a second end distinct and separated from one another; wherein the covering membrane is further connected to the base frame along a tethering portion extending between the first end and the second end; wherein the weakening line and the tethering portion are configured such that, in use, upon exertion of an opening force on the covering membrane, the covering membrane separates from the base frame along the weakening line and remains attached to the base frame along the tethering portion; characterized in that the covering membrane comprises a first portion and a second portion being rupturably connected to one another along an auxiliary weakening line; wherein the auxiliary weakening line is configured such that, in use, upon exertion of the opening force, the first portion and the second portion separate from one another along the auxiliary weakening line. - a base frame for coupling the opening device to the main body and about the designated pour opening; and - a covering membrane rupturably connected to the base frame along a weakening line and configured to cover the designated pour opening; wherein the weakening line comprises a first end and a second end distinct and separated from one another; wherein the covering membrane is further connected to the base frame along a tethering portion extending between the first end and the second end; wherein the weakening line and the tethering portion are configured such that, in use, upon exertion of an opening force on the covering membrane, the covering membrane separates from the base frame along the weakening line and remains attached to the base frame along the tethering portion; characterized in that the covering membrane comprises a first portion and a second portion being rupturably connected to one another along an auxiliary weakening line; wherein the auxiliary weakening line is configured such that, in use, upon exertion of the opening force, the first portion and the second portion separate from one another along the auxiliary weakening line.
A method for testing a depth learning chip, comprising: testing a plurality of logic units in the depth learning chip, the plurality of logic units being configured to perform at least one of an inference operation and a training operation for depth learning; obtaining one or more error units that do not pass the testing from the plurality of logic units; and in response to a ratio of a number of the one or more error units to a total number of the plurality of logic units being lower than or equal to a predetermined ratio, determining the depth learning chip as a qualified chip, being characterized in that the plurality of logic units comprises a plurality of inference logic units for performing the inference operation, and a plurality of training logic units for performing the training operation, and the method further comprises: in response to that there is the one or more error units in the plurality of inference logic units, setting the depth learning chip to merely perform the training operation for the depth learning; or in response to that there is the one or more error units in the plurality of training logic units, setting the depth learning chip to merely perform the inference operation for the depth learning. testing a plurality of logic units in the depth learning chip, the plurality of logic units being configured to perform at least one of an inference operation and a training operation for depth learning; obtaining one or more error units that do not pass the testing from the plurality of logic units; and in response to a ratio of a number of the one or more error units to a total number of the plurality of logic units being lower than or equal to a predetermined ratio, determining the depth learning chip as a qualified chip, being characterized in that the plurality of logic units comprises a plurality of inference logic units for performing the inference operation, and a plurality of training logic units for performing the training operation, and the method further comprises: in response to that there is the one or more error units in the plurality of inference logic units, setting the depth learning chip to merely perform the training operation for the depth learning; or in response to that there is the one or more error units in the plurality of training logic units, setting the depth learning chip to merely perform the inference operation for the depth learning. in response to that there is the one or more error units in the plurality of inference logic units, setting the depth learning chip to merely perform the training operation for the depth learning; or in response to that there is the one or more error units in the plurality of training logic units, setting the depth learning chip to merely perform the inference operation for the depth learning.
An electric apparatus unit comprising: an electric apparatus, wherein the electric apparatus is one of an electric razor, an electric oral hygiene device, and a depilator, and includes a bottom surface and an output shaft, a grip, wherein the bottom surface and the shaft are arranged at opposite ends of the electric apparatus with respect to the grip, a rechargeable battery, a driver configured to drive the output shaft through power supplied from the rechargeable battery, and a secondary power supply unit configured to supply the power to the rechargeable battery; and a charging stand that includes a base, a primary power supply unit configured to supply the power to the secondary power supply unit, and a support configured to support the electric apparatus so that a gap is formed between the bottom surface of the electric apparatus and the base; characterised in that the output shaft points upward when the electric apparatus is installed in the charging stand. an electric apparatus, wherein the electric apparatus is one of an electric razor, an electric oral hygiene device, and a depilator, and includes a bottom surface and an output shaft, a grip, wherein the bottom surface and the shaft are arranged at opposite ends of the electric apparatus with respect to the grip, a rechargeable battery, a driver configured to drive the output shaft through power supplied from the rechargeable battery, and a secondary power supply unit configured to supply the power to the rechargeable battery; and a charging stand that includes a base, a primary power supply unit configured to supply the power to the secondary power supply unit, and a support configured to support the electric apparatus so that a gap is formed between the bottom surface of the electric apparatus and the base; a bottom surface and an output shaft, a grip, wherein the bottom surface and the shaft are arranged at opposite ends of the electric apparatus with respect to the grip, a rechargeable battery, a driver configured to drive the output shaft through power supplied from the rechargeable battery, and a secondary power supply unit configured to supply the power to the rechargeable battery; and a charging stand that includes a base, a primary power supply unit configured to supply the power to the secondary power supply unit, and a support configured to support the electric apparatus so that a gap is formed between the bottom surface of the electric apparatus and the base; characterised in that the output shaft points upward when the electric apparatus is installed in the charging stand.
Direct conversion radiation detector comprising: - a direct conversion layer comprising a direct conversion material for directly converting incoming radiation from a radiation source into electron and hole pairs; - a first electrode mounted on the direct conversion layer facing the radiation source; - a second electrode mounted on an opposite side of the direct conversion layer compared to the first electrode; and - means for applying an electrical potential between the first electrode and the second electrode, characterized in that the direct conversion material comprises a garnet with a composition of Z 3 (Al x Ga y) 5 O 12:Ce, wherein Z is Lu, Gd, Y, Tb or combinations thereof and wherein y is equal to or greater than x; and preferably Z comprises Gd. - a direct conversion layer comprising a direct conversion material for directly converting incoming radiation from a radiation source into electron and hole pairs; - a first electrode mounted on the direct conversion layer facing the radiation source; - a second electrode mounted on an opposite side of the direct conversion layer compared to the first electrode; and - means for applying an electrical potential between the first electrode and the second electrode,
A valve assembly comprising: a housing comprising: (i) an accumulator fluid passage configured to be fluidly coupled to an accumulator, (ii) a supply fluid cavity configured to be fluidly coupled to a source of fluid, (iii) a reservoir fluid cavity configured to be fluidly coupled to a reservoir of fluid, (iv) a head fluid cavity configured to be fluidly coupled to a head-side chamber of a hydraulic actuator, and (v) a rod fluid cavity configured to be fluidly coupled to a rod-side chamber of the hydraulic actuator; a main spool that is axially-movable within the housing between an unactuated axial position, a first axial position, and a second axial position; and a balancing spool that is axially-movable within the housing based on an axial position of the main spool, wherein (i) when the main spool is at the unactuated axial position, the balancing spool allows the supply fluid cavity to be fluidly coupled to the accumulator fluid passage, (ii) when the main spool is at the first axial position, the balancing spool is subjected to opposing fluid forces by fluid from the head fluid cavity and fluid from the accumulator fluid passage, thereby causing pressure level in the accumulator fluid passage to be balanced with pressure level in the head fluid cavity, and (iii) when the main spool is at the second axial position, the main spool allows the accumulator fluid passage to be fluidly coupled to the head fluid cavity and the rod fluid cavity to be fluidly coupled to the reservoir fluid cavity. a housing comprising: (i) an accumulator fluid passage configured to be fluidly coupled to an accumulator, (ii) a supply fluid cavity configured to be fluidly coupled to a source of fluid, (iii) a reservoir fluid cavity configured to be fluidly coupled to a reservoir of fluid, (iv) a head fluid cavity configured to be fluidly coupled to a head-side chamber of a hydraulic actuator, and (v) a rod fluid cavity configured to be fluidly coupled to a rod-side chamber of the hydraulic actuator; a main spool that is axially-movable within the housing between an unactuated axial position, a first axial position, and a second axial position; and a balancing spool that is axially-movable within the housing based on an axial position of the main spool, wherein (i) when the main spool is at the unactuated axial position, the balancing spool allows the supply fluid cavity to be fluidly coupled to the accumulator fluid passage, (ii) when the main spool is at the first axial position, the balancing spool is subjected to opposing fluid forces by fluid from the head fluid cavity and fluid from the accumulator fluid passage, thereby causing pressure level in the accumulator fluid passage to be balanced with pressure level in the head fluid cavity, and (iii) when the main spool is at the second axial position, the main spool allows the accumulator fluid passage to be fluidly coupled to the head fluid cavity and the rod fluid cavity to be fluidly coupled to the reservoir fluid cavity.
Luminaire comprising lighting means and a cover which has at least one planar region for emitting light, the planar region for emitting light consisting of a transparent material and being provided with a structuring on at least one side, and a plate-shaped light-influencing element which is formed by a plastics material film and printed with a pattern being arranged between the lighting means and the planar region for emitting light, characterized in that the film forming the light-influencing element is mounted clamped into the cover such that the light-influencing element is at a distance from the cover. the planar region for emitting light consisting of a transparent material and being provided with a structuring on at least one side, and a plate-shaped light-influencing element which is formed by a plastics material film and printed with a pattern being arranged between the lighting means and the planar region for emitting light, characterized in that the film forming the light-influencing element is mounted clamped into the cover such that the light-influencing element is at a distance from the cover.
An excavator, comprising: a turning drive unit, the turning drive unit including a turning electric motor; a turning speed reducer configured to transmit a rotational driving force of the turning electric motor to a turnable body; and a brake unit configured to maintain the turnable body in a state where turning of the turnable body is stopped, wherein the turning speed reducer includes a three-stage configuration of a first turning speed reducer, a second turning speed reducer, and a third turning speed reducer, the first turning speed reducer being attached to the turning electric motor and including a planetary carrier, wherein the planetary carrier includes an output shaft part that forms an output shaft, the output shaft part including a radially extended disk portion (46a1); and an axially elongated columnar portion (46a2); and a carrier part that holds a planetary gear in such a manner as to allow rotation of the planetary gear, and wherein the output shaft part and the carrier part are fastened by a bolt, characterized in that: the carrier part is fastened to the output shaft part, the bolt being inserted into a through hole extending through the carrier part in an axial direction and screwed into a hole formed on a surface of the disk portion (46a1). a turning drive unit, the turning drive unit including a turning electric motor; a turning speed reducer configured to transmit a rotational driving force of the turning electric motor to a turnable body; and a brake unit configured to maintain the turnable body in a state where turning of the turnable body is stopped, a turning electric motor; a turning speed reducer configured to transmit a rotational driving force of the turning electric motor to a turnable body; and a brake unit configured to maintain the turnable body in a state where turning of the turnable body is stopped, wherein the turning speed reducer includes a three-stage configuration of a first turning speed reducer, a second turning speed reducer, and a third turning speed reducer, the first turning speed reducer being attached to the turning electric motor and including a planetary carrier, wherein the planetary carrier includes an output shaft part that forms an output shaft, the output shaft part including a radially extended disk portion (46a1); and an axially elongated columnar portion (46a2); and a carrier part that holds a planetary gear in such a manner as to allow rotation of the planetary gear, and an output shaft part that forms an output shaft, the output shaft part including a radially extended disk portion (46a1); and an axially elongated columnar portion (46a2); and a carrier part that holds a planetary gear in such a manner as to allow rotation of the planetary gear, and wherein the output shaft part and the carrier part are fastened by a bolt, characterized in that: the carrier part is fastened to the output shaft part, the bolt being inserted into a through hole extending through the carrier part in an axial direction and screwed into a hole formed on a surface of the disk portion (46a1).
Gas extraction probe for extracting gas samples from a hot reaction chamber, comprising a gas inlet, for introducing gas samples, at a first end region of the gas extraction probe and a gas outlet, for discharging gas samples from the gas extraction probe, at a second end region of the gas extraction probe, a probe head which comprises the gas inlet, a probe body which comprises the gas outlet, and a gas extraction tube which extends from the gas inlet to the gas outlet, wherein the gas extraction tube is surrounded by a cooling device for cooling the gas extraction tube, wherein the gas extraction probe comprises at least one line (44, 46) for conducting a cleaning agent, characterized in that the probe head comprises at least one outlet duct (52, 54), which is separate from the gas inlet and serves for discharging the cleaning agent from the probe head, at the first end region of the gas extraction probe, and wherein the at least one outlet duct (52, 54) extends within the probe head at least partially radially inwards in the direction of the gas inlet.