mhurhangee/patent-ind-claim-en huggingface dataset:
A device for attaching a protective film , the device comprising: a fixing tray including a seating portion on which an electronic device can be seated; a base including a coupling portion so as to allow the fixing tray to be attached to or detached from the base and one or more rails disposed along a lengthwise direction or a widthwise direction of the coupling portion; a roller unit configured to move along the one or more rails and to press a surface of the electronic device when seated on the fixing tray ; and characterized by a curing unit coupled to the base and configured to close or open the seating portion of the fixing tray and to emit ultraviolet rays towards the fixing tray . a fixing tray including a seating portion on which an electronic device can be seated; a base including a coupling portion so as to allow the fixing tray to be attached to or detached from the base and one or more rails disposed along a lengthwise direction or a widthwise direction of the coupling portion; a roller unit configured to move along the one or more rails and to press a surface of the electronic device when seated on the fixing tray ; and characterized by a curing unit coupled to the base and configured to close or open the seating portion of the fixing tray and to emit ultraviolet rays towards the fixing tray .
A method of coating a substrate in a deposition chamber , characterized in that the method comprises the steps of: - providing a source of at least one liquid precursor; - atomizing the at least one liquid precursor into liquid droplets in two atomizing heads; - arranging the two atomizing heads in the upper part or in the middle of the deposition chamber toward each other such that the aerosol jets discharged from the atomizing heads collide with each other in a collision point such that a planar aerosol plane that extends in a substantially horizontal direction in the deposition chamber is created; - filling the deposition chamber with aerosol for forming saturated aerosol in the deposition chamber ; and - settling saturated aerosol by gravitation towards a surface of the substrate for coating the substrate in the bottom part of the deposition chamber . - providing a source of at least one liquid precursor; - atomizing the at least one liquid precursor into liquid droplets in two atomizing heads; - arranging the two atomizing heads in the upper part or in the middle of the deposition chamber toward each other such that the aerosol jets discharged from the atomizing heads collide with each other in a collision point such that a planar aerosol plane that extends in a substantially horizontal direction in the deposition chamber is created; - filling the deposition chamber with aerosol for forming saturated aerosol in the deposition chamber ; and - settling saturated aerosol by gravitation towards a surface of the substrate for coating the substrate in the bottom part of the deposition chamber .
A zeolite structure comprising: a zeolite material containing a plurality of zeolite particles and an inorganic binding material which binds the zeolite particles to one another, wherein the plurality of zeolite particles include fine zeolite particles having a small average particle diameter and coarse zeolite particles which have an average particle diameter of three or more times the average particle diameter of the fine zeolite particles and which are not an agglomerated material of primary particles, the particles exhibiting a bimodal particle size distribution having a first peak due to the fine zeolite particles having small particle diameters and a second peak due to the coarse zeolite particles, wherein a ratio of volumes of the coarse zeolite particles with respect to the whole volume of the plurality of zeolite particles is from 40 to 90 vol%, in the zeolite material, a ratio of a volume of the inorganic binding material with respect to the whole volume of the zeolite material is from 5 to 50 vol%, and a zeolite raw material containing the plurality of zeolite particles and the inorganic binding material is extruded to form the zeolite structure; the average particle diameter of the fine zeolite particles being from 0.3 to 5 pm; and the average particle diameter of the coarse zeolite particles being from 5 to 50 μm. a zeolite material containing a plurality of zeolite particles and an inorganic binding material which binds the zeolite particles to one another, wherein the plurality of zeolite particles include fine zeolite particles having a small average particle diameter and coarse zeolite particles which have an average particle diameter of three or more times the average particle diameter of the fine zeolite particles and which are not an agglomerated material of primary particles, the particles exhibiting a bimodal particle size distribution having a first peak due to the fine zeolite particles having small particle diameters and a second peak due to the coarse zeolite particles, wherein a ratio of volumes of the coarse zeolite particles with respect to the whole volume of the plurality of zeolite particles is from 40 to 90 vol%, in the zeolite material, a ratio of a volume of the inorganic binding material with respect to the whole volume of the zeolite material is from 5 to 50 vol%, and a zeolite raw material containing the plurality of zeolite particles and the inorganic binding material is extruded to form the zeolite structure; the average particle diameter of the fine zeolite particles being from 0.3 to 5 pm; and the average particle diameter of the coarse zeolite particles being from 5 to 50 μm.
A process for the preparation of an immunogenic conjugate comprising Streptococcus pneumoniae serotype 15B capsular polysaccharide covalently linked to a carrier protein, the process comprising the steps of: (a) compounding an activated serotype 15B capsular polysaccharide with a carrier protein, wherein said activated polysaccharide is obtained by a process comprising the steps of reacting an isolated Streptococcus pneumoniae serotype 15B capsular polysaccharide comprising at least 0.6 mM acetate per mM of said serotype 15B capsular polysaccharide, with an oxidizing agent, wherein said activated polysaccharide has a molecular weight between 100 and 300kDa; and (b) reacting the compounded, activated polysaccharide and carrier protein with a reducing agent to form a serotype 15B capsular polysaccharide-carrier protein conjugate; wherein step (a) and step (b) are carried out in DMSO. (a) compounding an activated serotype 15B capsular polysaccharide with a carrier protein, wherein said activated polysaccharide is obtained by a process comprising the steps of reacting an isolated Streptococcus pneumoniae serotype 15B capsular polysaccharide comprising at least 0.6 mM acetate per mM of said serotype 15B capsular polysaccharide, with an oxidizing agent, wherein said activated polysaccharide has a molecular weight between 100 and 300kDa; and (b) reacting the compounded, activated polysaccharide and carrier protein with a reducing agent to form a serotype 15B capsular polysaccharide-carrier protein conjugate; wherein step (a) and step (b) are carried out in DMSO.
Device forming a two-layer mattress topper, comprising an external comfort layer and an internal functional layer intended to be arranged between the external comfort layer and the mattress, the internal layer consisting mainly of feather and the external layer consisting mainly of down , the two layers being removably rigidly connected to one another, the external layer comprising reversible fixing means and the internal layer comprising two sets of complementary fixing means (8', 8") which are provided on two opposing parts of the internal layer that are provided so as to be able to fix the internal layer to the external layer by means of one or the other of its two opposing faces , in order to allow the mattress topper to be periodically turned over so as to ensure that the external comfort layer is in contact with the user regardless of the orientation of the mattress topper.
A process for preparing layered foamed polymeric materials by means of the use of one or more foaming agents, where said method comprises the following steps: • providing a foamable polymeric material; • solubilising said one or more foaming agents in the foamable polymeric material under pressure and at a temperature greater than 20°C; and • releasing the pressure instantaneously; characterised in that the solubilisation step is carried out with a pressure profile of said one or more foaming agents that is variable over time. • providing a foamable polymeric material; • solubilising said one or more foaming agents in the foamable polymeric material under pressure and at a temperature greater than 20°C; and • releasing the pressure instantaneously;
A method for monitoring a brake performance of a vehicle, in particular of a trailer of a commercial vehicle, the method comprising: - collecting (S100) of sensor data from various sensors, the sensor data are associated with brake events, characterized by: - determining (S200) at least one brake performance value (BPV1, BPV2, BPV3) using the sensor data based on a statistical analysis (S230) based on a regression, wherein the statistical analysis (S230) includes the following steps: collecting reference sensor data associated with brake events assumed to be accurate and using the reference sensor data for forming a regression hyperplane; collecting sensor data during operation of the vehicle; conducting a hypothesis test by comparing the reference sensor data with the sensor data during operation by determining a likelihood value (p; Cpk) that a difference between the sensor data during operation and the reference sensor data is of no statistical significance; determining a first brake performance value (BPV1) based on the likelihood value (p; Cpk); - detecting (S300) a malfunctioning of at least one brake of at least one wheel based on the determined at least one brake performance value (BPV1, BPV2, BPV3). - collecting (S100) of sensor data from various sensors, the sensor data are associated with brake events, - determining (S200) at least one brake performance value (BPV1, BPV2, BPV3) using the sensor data based on a statistical analysis (S230) based on a regression, wherein the statistical analysis (S230) includes the following steps: collecting reference sensor data associated with brake events assumed to be accurate and using the reference sensor data for forming a regression hyperplane; collecting sensor data during operation of the vehicle; conducting a hypothesis test by comparing the reference sensor data with the sensor data during operation by determining a likelihood value (p; Cpk) that a difference between the sensor data during operation and the reference sensor data is of no statistical significance; determining a first brake performance value (BPV1) based on the likelihood value (p; Cpk); collecting reference sensor data associated with brake events assumed to be accurate and using the reference sensor data for forming a regression hyperplane; collecting sensor data during operation of the vehicle; conducting a hypothesis test by comparing the reference sensor data with the sensor data during operation by determining a likelihood value (p; Cpk) that a difference between the sensor data during operation and the reference sensor data is of no statistical significance; determining a first brake performance value (BPV1) based on the likelihood value (p; Cpk); - detecting (S300) a malfunctioning of at least one brake of at least one wheel based on the determined at least one brake performance value (BPV1, BPV2, BPV3).
Chidamide combined with R-CHOP for use in the treatment of B-cell lymphoma, wherein, R-CHOP refers to a combination drug regimen of rituximab (R) combined with cyclophosphamide (CTX), adriamycin or epirubicin (ADR/EPI), vincristine (VCR) and prednisone (Pred), and chidamide combined with R-CHOP are administered as follows and repeated for 6 courses once every 21 days: Drug name Dosage Method of administration Time of administration R 375 mg/m 2 Intravenous bolus Day 1 CTX 750 mg/m 2 Intravenous bolus Day 2 EPI 70 mg/m 2 Intravenous bolus Day 2 VCR 1.4 mg/m 2 Intravenous bolus Day 2 Pred 60 mg/m 2 Oral Days 2 to 6 Chidamide 20 mg/d Oral Days 1, 4, 8, 11 Repeat time Day 21
A liquid or semi-solid transparent filler material for use in a surgical method for treating hyperopia or presbyopia in a patient, the surgical method comprising: making a first cut deep in the patient's cornea within the bottom 50% of the patient's cornea to create a two-dimensional slit adjacent to and generally parallel to an anterior surface of the cornea; injecting a liquid or semi-solid transparent filler material into the deep cut in an amount sufficient to flatten the posterior surface of the cornea to increase the refractive power of the cornea by a predetermined correction of up to 5 diopters due to the physical flattening of the posterior surface of the cornea, wherein the transparent filler material comprises a refractive index of 1.3 to 1.6, and forms a corneal implant with a lenticular shape within the cornea; making a second, superficial cut in the patient's cornea within the top 50% of the patient's cornea to create a two-dimensional slit adjacent to and generally parallel to the anterior surface of the cornea; and injecting a liquid or semi-solid transparent filler material into the superficial cut in an amount sufficient to increase the curvature of an anterior surface of the cornea to increase the refractive power of the cornea by a predetermined correction of up to 12.0 diopters due to the physical increased curvature of the anterior surface of the cornea, wherein the transparent filler material forms a corneal implant with a lenticular shape. making a first cut deep in the patient's cornea within the bottom 50% of the patient's cornea to create a two-dimensional slit adjacent to and generally parallel to an anterior surface of the cornea; injecting a liquid or semi-solid transparent filler material into the deep cut in an amount sufficient to flatten the posterior surface of the cornea to increase the refractive power of the cornea by a predetermined correction of up to 5 diopters due to the physical flattening of the posterior surface of the cornea, wherein the transparent filler material comprises a refractive index of 1.3 to 1.6, and forms a corneal implant with a lenticular shape within the cornea; making a second, superficial cut in the patient's cornea within the top 50% of the patient's cornea to create a two-dimensional slit adjacent to and generally parallel to the anterior surface of the cornea; and injecting a liquid or semi-solid transparent filler material into the superficial cut in an amount sufficient to increase the curvature of an anterior surface of the cornea to increase the refractive power of the cornea by a predetermined correction of up to 12.0 diopters due to the physical increased curvature of the anterior surface of the cornea, wherein the transparent filler material forms a corneal implant with a lenticular shape.
Drive arrangement for driving at least one wheelset axle of a rail vehicle, the drive arrangement comprising a final drive which can be arranged on the wheelset axle , a mechanical drive train and a hydrostatic drive train , it being possible for the mechanical drive train and the hydrostatic drive train to be connected on the drive side in each case to a drive motor of the rail vehicle, the mechanical drive train being connected to a first input shaft of the final drive , and the hydrostatic drive train being connected to a second input shaft of the final drive , characterized in that the final drive comprises a shifting apparatus with at least two shifting positions (A, B), it being possible in a first shifting position (A) for the mechanical drive train or the hydrostatic drive train to be disconnected from the wheelset axle by way of the shifting apparatus .
A reticle for an optical sighting device, the reticle comprising; a horizontal stadia line and a vertical stadia line ; a plurality of elevation subtension markings connected to the vertical stadia line and having a thickness; a plurality of fine scale subtension markings positioned along the horizontal stadia line and having a thickness, wherein the plurality of fine scale subtension markings are connected to the horizontal stadia line, and wherein the plurality of fine scale subtension markings are located exclusively on a first side of the horizontal stadia line; and a plurality of coarse scale subtension markings positioned along the horizontal stadia line, wherein the plurality of coarse scale subtension markings have a thickness greater than the thickness of the fine scale subtension markings, and wherein the plurality of coarse scale subtension markings are located exclusively on a second side of the horizontal stadia line opposite the plurality of fine scale subtension markings. a horizontal stadia line and a vertical stadia line ; a plurality of elevation subtension markings connected to the vertical stadia line and having a thickness; a plurality of fine scale subtension markings positioned along the horizontal stadia line and having a thickness, wherein the plurality of fine scale subtension markings are connected to the horizontal stadia line, and wherein the plurality of fine scale subtension markings are located exclusively on a first side of the horizontal stadia line; and a plurality of coarse scale subtension markings positioned along the horizontal stadia line, wherein the plurality of coarse scale subtension markings have a thickness greater than the thickness of the fine scale subtension markings, and wherein the plurality of coarse scale subtension markings are located exclusively on a second side of the horizontal stadia line opposite the plurality of fine scale subtension markings.
A low temperature carburizing method comprising: step (a) for pre-processing a metal to be processed; step (b) for inputting the metal to be processed to a reaction chamber and heating the same to a set temperature; step (c) for forming a vacuum atmosphere in the reaction chamber and introducing a reaction gas thereinto at a predetermined pressure to accelerate carburization, wherein the reaction gas is a mixed gas of 20 to 70% hydrogen gas and 30 to 80% acetylene gas; step (d) for supplying the reaction gas to the reaction chamber at a pressure equal to or lower than the pressure of the reaction gas of step (c) to spread carburization; and step (e) for repeating step (c) and step (d) at predetermined time intervals, wherein the step (a) comprises removing or weakening a natural oxide film by performing a pickling process for the metal to be processed, wherein the step (c) comprises supplying the reaction gas to the reaction chamber at a pressure equal to or less than 5 mbar in an atmosphere of 500°C or less, and wherein the step (d) comprises supplying the reaction gas to the reaction chamber at a pressure equal to or more than 0.5 mbar and less than the pressure of the reaction gas of the step (c), and wherein the step (e) comprises gradually increasing a total process time of the step (d) which is repeated. step (a) for pre-processing a metal to be processed; step (b) for inputting the metal to be processed to a reaction chamber and heating the same to a set temperature; step (c) for forming a vacuum atmosphere in the reaction chamber and introducing a reaction gas thereinto at a predetermined pressure to accelerate carburization, wherein the reaction gas is a mixed gas of 20 to 70% hydrogen gas and 30 to 80% acetylene gas; step (d) for supplying the reaction gas to the reaction chamber at a pressure equal to or lower than the pressure of the reaction gas of step (c) to spread carburization; and step (e) for repeating step (c) and step (d) at predetermined time intervals, wherein the step (a) comprises removing or weakening a natural oxide film by performing a pickling process for the metal to be processed, wherein the step (c) comprises supplying the reaction gas to the reaction chamber at a pressure equal to or less than 5 mbar in an atmosphere of 500°C or less, and wherein the step (d) comprises supplying the reaction gas to the reaction chamber at a pressure equal to or more than 0.5 mbar and less than the pressure of the reaction gas of the step (c), and wherein the step (e) comprises gradually increasing a total process time of the step (d) which is repeated.
A battery connection module used to connect a plurality of batteries , the battery connection module comprising: a tray ; a plurality of busbars mounted on the tray and used to connect the plurality of batteries ; a circuit board connected to the plurality of busbars ; characterised by a temperature measuring assembly comprising: a first thermal conduction pad and a second thermal conduction pad respectively provided to an upper surface and a lower surface of the circuit board ; a plurality of first thermal conduction through-holes penetrating the first thermal conduction pad , the second thermal conduction pad and the circuit board ; a temperature sensor which is provided to the upper surface or the lower surface of the circuit board and is adjacent to the first thermal conduction pad or the second thermal conduction pad ; and a bridging piece connecting the corresponding busbar and the first thermal conduction pad or the second thermal conduction pad . a tray ; a plurality of busbars mounted on the tray and used to connect the plurality of batteries ; a circuit board connected to the plurality of busbars ; characterised by a temperature measuring assembly comprising: a first thermal conduction pad and a second thermal conduction pad respectively provided to an upper surface and a lower surface of the circuit board ; a plurality of first thermal conduction through-holes penetrating the first thermal conduction pad , the second thermal conduction pad and the circuit board ; a temperature sensor which is provided to the upper surface or the lower surface of the circuit board and is adjacent to the first thermal conduction pad or the second thermal conduction pad ; and a bridging piece connecting the corresponding busbar and the first thermal conduction pad or the second thermal conduction pad . a first thermal conduction pad and a second thermal conduction pad respectively provided to an upper surface and a lower surface of the circuit board ; a plurality of first thermal conduction through-holes penetrating the first thermal conduction pad , the second thermal conduction pad and the circuit board ; a temperature sensor which is provided to the upper surface or the lower surface of the circuit board and is adjacent to the first thermal conduction pad or the second thermal conduction pad ; and a bridging piece connecting the corresponding busbar and the first thermal conduction pad or the second thermal conduction pad .
Tyre for heavy load vehicle wheels comprising a tread band and two sidewalls opposite to each other relative to said tread band ; at least one of said sidewalls comprising a portion of sidewall provided with at least one sidewall wear indicator , characterized in that said sidewall wear indicator comprises at least a first circumferential groove comprising at least one portion with increased section; said first circumferential groove has a substantial continuous circumferential development around the rotation axis of the tyre which means that along a circumference concentric to the rotation axis, the first circumferential groove is continuous or has small interruptions lower than 5% of the extension of said circumference.
A solid composition comprising at least ten chemically distinct betalains at a total betalain concentration of at least 5 wt% and a betalain to sugar ratio of at least 0.3, wherein the composition is a free-flowing solid in powder form that is at least 90% soluble when dissolved in water at a concentration of at least 50 mg/ml.