mhurhangee/patent-ind-claim-en huggingface dataset:
Container for removing resin residues from a model created through three-dimensional 3D printing and adapted to be moved by means of repeated linear movements, the container including: - a tank adapted to contain a solvent ; - a cover adapted to close the tank , the cover including or being a base of three-dimensional 3D printer, the base including one or more anchoring elements for a three-dimensional model; - means for sealing the cover to the tank ; characterized in that the container further includes: - at least two handles , at least one of the handles comprising a duct having an inlet or an outlet outside of said tank and an outlet or an inlet inside of said tank , for introducing a solvent or removing it from the tank respectively. - a tank adapted to contain a solvent ; - a cover adapted to close the tank , the cover including or being a base of three-dimensional 3D printer, the base including one or more anchoring elements for a three-dimensional model; - means for sealing the cover to the tank ; characterized in that the container further includes: - at least two handles , at least one of the handles comprising a duct having an inlet or an outlet outside of said tank and an outlet or an inlet inside of said tank , for introducing a solvent or removing it from the tank respectively. - at least two handles , at least one of the handles comprising a duct having an inlet or an outlet outside of said tank and an outlet or an inlet inside of said tank , for introducing a solvent or removing it from the tank respectively.
A method for preparing an α,β-unsaturated aldehyde, comprising a step of reacting a compound of formula (I) with a compound of formula (II) to provide an α,β-unsaturated aldehyde of formula (III), wherein an alkali metal hydroxide and an alkanol having 1 to 4 carbon atoms are used in the step, an amount of the alkali metal hydroxide is 8 mol% or more and 12 mol% or less with respect to the compound of formula (I), and a total amount of water contained in materials that are used in the reaction is 10 mol% or more and 50 mol% or less with respect to the compound of formula (I). where R 1 represents a hydrogen atom or an alkyl group having 1 to 10 carbon atoms, R 2 represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, or an alkoxy group having 1 to 6 carbon atoms, R 3 represents a hydrogen atom, or R 2 and R 3 form 1,3-dioxolane together with carbon atoms to which R 2 and R 3 are bound, and R 4 , R 5 , and R 6 each independently represent a hydrogen atom or an alkyl group having 1 to 3 carbon atoms. wherein an alkali metal hydroxide and an alkanol having 1 to 4 carbon atoms are used in the step, an amount of the alkali metal hydroxide is 8 mol% or more and 12 mol% or less with respect to the compound of formula (I), and a total amount of water contained in materials that are used in the reaction is 10 mol% or more and 50 mol% or less with respect to the compound of formula (I). where R 1 represents a hydrogen atom or an alkyl group having 1 to 10 carbon atoms, R 2 represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, or an alkoxy group having 1 to 6 carbon atoms, R 3 represents a hydrogen atom, or R 2 and R 3 form 1,3-dioxolane together with carbon atoms to which R 2 and R 3 are bound, and R 4 , R 5 , and R 6 each independently represent a hydrogen atom or an alkyl group having 1 to 3 carbon atoms.
System for pressurising parallel batch reactors, which system comprises a plurality of reactors and at least one movable hollow needle connectable to a pressure source, wherein a reactor comprises: - a reactor body having a volume of 0.5-50 ml and a reactor mouth with a diameter of between 2 and 30 mm; - a removable reactor closure system for covering said reactor mouth; and wherein said hollow needle has an outer diameter of 2 millimeter or less, and which hollow needle has an opening of the inner canal of the needle, which opening is located at the lateral side of the needle at a distance from the tip of the needle equal or larger than the diameter of the needle, to at most 5 cm from the tip of the needle, wherein the removable reactor closure system for covering said reactor mouth comprises: - an elastomeric septum having a thickness of at least 200% of the diameter of the hollow needle, - and a rigid member covering the septum at the reactor mouth except for an opening in the rigid member leaving the septum exposed to the atmosphere, which opening has a diameter of not more than 200% of the diameter of the hollow needle, wherein the removable reactor closure system comprises no moving parts, and wherein the elastomeric septum has a Shore A hardness of less than 75. - a reactor body having a volume of 0.5-50 ml and a reactor mouth with a diameter of between 2 and 30 mm; - a removable reactor closure system for covering said reactor mouth; and wherein said hollow needle has an outer diameter of 2 millimeter or less, and which hollow needle has an opening of the inner canal of the needle, which opening is located at the lateral side of the needle at a distance from the tip of the needle equal or larger than the diameter of the needle, to at most 5 cm from the tip of the needle, wherein the removable reactor closure system for covering said reactor mouth comprises: - an elastomeric septum having a thickness of at least 200% of the diameter of the hollow needle, - and a rigid member covering the septum at the reactor mouth except for an opening in the rigid member leaving the septum exposed to the atmosphere, which opening has a diameter of not more than 200% of the diameter of the hollow needle, - an elastomeric septum having a thickness of at least 200% of the diameter of the hollow needle, - and a rigid member covering the septum at the reactor mouth except for an opening in the rigid member leaving the septum exposed to the atmosphere, which opening has a diameter of not more than 200% of the diameter of the hollow needle, wherein the removable reactor closure system comprises no moving parts, and wherein the elastomeric septum has a Shore A hardness of less than 75.
Tank system having a tank and having a suction-lifting device for emptying the tank , said suction-lifting device having an emptying line which has a downcomer portion and has a riser portion , wherein a blocking element is arranged in the downcomer portion , by means of which blocking element a liquid in the downcomer portion is able to be backed up, and wherein the riser portion is arranged at least partially within the tank , characterized in that , for the purpose of filling of the downcomer portion , provision is made of a connecting line which opens out into the emptying line and by means of which tank contents are able to be conducted into the downcomer portion .
A display stand for suspending a display, the display stand being operable to change an orientation of the display between a horizontally supported state and a vertically supported state without detaching and attaching the display, the display stand comprising: a stand unit having a plurality of posts and a mounting mechanism ; and a mounting bracket suitable to be mounted on a back surface of the display, wherein the mounting bracket includes three fixing members as first second, and third fixing members each extending from the back surface of the mounting bracket , wherein the mounting mechanism includes a mounting plate , the mounting plate forming at least a part of a transverse plate that connects between the plurality of posts , the mounting plate including a straight rail part having a straight slot and a bent rail part having a bent slot , the bent slot being bent at a substantially right angle, and wherein of the three fixing members fixed to the mounting bracket , the first fixing member engages with the straight rail part and is linearly movable when the display rotates, and the second fixing member and the third fixing member each engage with the bent rail part and are movable along straight portions of the bent rail part when the display rotates. a stand unit having a plurality of posts and a mounting mechanism ; and a mounting bracket suitable to be mounted on a back surface of the display, wherein the mounting bracket includes three fixing members as first second, and third fixing members each extending from the back surface of the mounting bracket , wherein the mounting mechanism includes a mounting plate , the mounting plate forming at least a part of a transverse plate that connects between the plurality of posts , the mounting plate including a straight rail part having a straight slot and a bent rail part having a bent slot , the bent slot being bent at a substantially right angle, and wherein of the three fixing members fixed to the mounting bracket , the first fixing member engages with the straight rail part and is linearly movable when the display rotates, and the second fixing member and the third fixing member each engage with the bent rail part and are movable along straight portions of the bent rail part when the display rotates.
A method for measuring a modified property of a sample comprising magnetic particles in suspension using time variable magnetic fields, wherein the method comprises: a) applying a time-varying magnetic excitation field, the excitation field having an excitation amplitude and an excitation frequency, and a magnetic field gradient to the sample , such that the magnetic particles are driven into a non-linear magnetization response regime; b) recording a non-linear magnetization response of the sample for obtaining a signal metric indicative for a phase of a higher harmonic with respect to the excitation frequency in the non-linear magnetization response; and c) determining a measurement signal indicative of the modified property, the measurement signal being based on the signal metric obtained for the sample and the same signal metric obtained for a reference sample without the modified property, the reference sample also comprising the magnetic particles in suspension, the method being characterized in that the magnetic field gradient and the time-varying magnetic excitation field are selected such that a range of offset magnetic field strengths of the magnetic field gradient overlaps a critical offset magnetic field range associated with a phase jump of the higher harmonic, when the sample and/or the reference sample is subjected to the excitation field. a) applying a time-varying magnetic excitation field, the excitation field having an excitation amplitude and an excitation frequency, and a magnetic field gradient to the sample , such that the magnetic particles are driven into a non-linear magnetization response regime; b) recording a non-linear magnetization response of the sample for obtaining a signal metric indicative for a phase of a higher harmonic with respect to the excitation frequency in the non-linear magnetization response; and c) determining a measurement signal indicative of the modified property, the measurement signal being based on the signal metric obtained for the sample and the same signal metric obtained for a reference sample without the modified property, the reference sample also comprising the magnetic particles in suspension,
Device for lifting vehicles with a ramp-like support surface which comprises at least one rail , the rail being spaced apart via at least one underneath the rail by means of a frame and pivot point arranged on at least one axis of rotation from a tilted position in which the vehicle can be driven onto the rail into a horizontal and / or tilted position, with below the rail at least two axes of rotation each with at least one point of rotation and support are provided and the axes of rotation are arranged spaced apart in the longitudinal direction of the rail such that the device can be pivoted in one of the at least two axes of rotation as a function of the tilting position, characterized in that to create at least a third axis of rotation at least one further pivot and support point that can be displaced and / or displaced on the frame is provided, the at least one pivot and support point ) comprises a plug-in module by means of which the pivot and support point can be adapted to different vehicles.
Method for detecting at least one analyte in at least one sample comprising the following steps: a) bringing together a sample to be analysed and the spot or spots of a compartment of a solid support, said spot or at least one of said spots comprising at least one resistant control marker and at least one analyte-capture ligand, b) bringing together the spot or spots of said compartment and at least one analyte-detecting ligand, said analyte-detecting ligand being coupled with a direct or indirect detection marker, c) when at least one analyte-detecting ligand is coupled with an indirect detection marker, bringing together the spot or spots of said compartment and a reporter of said indirect detection marker, d) when the reporter used in step c) is coupled with an indirect detection marker, bringing together the spot or spots of said compartment and a reporter of the indirect detection marker coupled with said reporter used in step c), e) detecting at least one signal produced by at least one resistant control marker in said compartment, f) defining at least one reading grid from the location of at least one signal detected in step e), g) detecting a signal produced by at least one detection marker of an analyte-detecting ligand, and h) reading the signal detected in step g) on the reading grid defined in step f), the steps a) to d) being implemented before steps e) to h), said resistant control marker being a marker, from which a signal is detected at the end of an analysis process, said resistant control marker being a fluorophore selected from the group consisting of a coumarin, a rhodamine, a carbopyronine, an oxazine, benzopyrylium, a phycoerythrin and their derivatives. a) bringing together a sample to be analysed and the spot or spots of a compartment of a solid support, said spot or at least one of said spots comprising at least one resistant control marker and at least one analyte-capture ligand, b) bringing together the spot or spots of said compartment and at least one analyte-detecting ligand, said analyte-detecting ligand being coupled with a direct or indirect detection marker, c) when at least one analyte-detecting ligand is coupled with an indirect detection marker, bringing together the spot or spots of said compartment and a reporter of said indirect detection marker, d) when the reporter used in step c) is coupled with an indirect detection marker, bringing together the spot or spots of said compartment and a reporter of the indirect detection marker coupled with said reporter used in step c), e) detecting at least one signal produced by at least one resistant control marker in said compartment, f) defining at least one reading grid from the location of at least one signal detected in step e), g) detecting a signal produced by at least one detection marker of an analyte-detecting ligand, and h) reading the signal detected in step g) on the reading grid defined in step f),
Cleaning composition containing (A) at least one chelating agent selected from alkali metal salts of methyl glycine diacetic acid (MGDA) and of glutamic acid diacetic acid (GLDA) and of citric acid, (B) glycine or alanine or an alkali metal or ammonium salt of at least one of the foregoing, in a weight ratio of (A):(B) of from 10:1 to 1:10. (A) at least one chelating agent selected from alkali metal salts of methyl glycine diacetic acid (MGDA) and of glutamic acid diacetic acid (GLDA) and of citric acid, (B) glycine or alanine or an alkali metal or ammonium salt of at least one of the foregoing,
A method to control the slippage of a driveline including a prime mover having an output shaft, a clutch having an input connected to the output shaft of the prime mover and an output connectable to a load ; the clutch having a controllable slippage level between its input and output via a controllable pressure applied thereonto, the slippage control method including: determining a usable torque of the prime mover ; determining a slippage condition of the clutch ; said method being characterised in that it further includes : controlling the pressure applied to the clutch according to the determined slippage condition of the clutch so as to allow the usable torque to pass therethrough and to cause the clutch to slip should a torque between the input and output of the clutch be greater than the usable torque. determining a usable torque of the prime mover ; determining a slippage condition of the clutch ; said method being characterised in that it further includes : controlling the pressure applied to the clutch according to the determined slippage condition of the clutch so as to allow the usable torque to pass therethrough and to cause the clutch to slip should a torque between the input and output of the clutch be greater than the usable torque.
A testing device for detecting a colour-change result of a lateral flow test arranged to detect the presence of a target substance in a liquid sample, the testing device comprising: one or more receptacles for receiving one or more lateral flow tests; one or more sensor systems for detecting results provided by the one or more lateral flow tests; a microcontroller connected to the one or more sensor systems for processing data from the one or more sensor systems; and a wireless transmitter connected to the microcontroller arranged as a transponder with respect to an initiator device that provides an electromagnetic field which the transponder modulates, wherein the wireless transmitter is arranged to use a Near-Field Communication, NFC, communication protocol, such that the testing device draws its operating power from the electromagnetic field provided by the initiator device. one or more receptacles for receiving one or more lateral flow tests; one or more sensor systems for detecting results provided by the one or more lateral flow tests; a microcontroller connected to the one or more sensor systems for processing data from the one or more sensor systems; and a wireless transmitter connected to the microcontroller arranged as a transponder with respect to an initiator device that provides an electromagnetic field which the transponder modulates, wherein the wireless transmitter is arranged to use a Near-Field Communication, NFC, communication protocol, such that the testing device draws its operating power from the electromagnetic field provided by the initiator device.
A unit dose cleaning composition comprising: i) a first region comprising: i a water hardness removing agent; ii a disintegrant selected from a group consisting of swellable agent, effervescent agent or combinations thereof; ii) a second region comprising: i a detersive surfactant; ii a disintegrant selected from a group consisting of swellable agent, effervescent agent or combinations thereof; wherein the weight ratio of the total amount of water hardness removing agent to the total amount of disintegrant in the first region is from 5:1 to 20:1 and wherein the weight ratio of the total amount of detersive surfactant to the total amount of disintegrant in the second region is from 0.1:1 to 5:1. i) a first region comprising: i a water hardness removing agent; ii a disintegrant selected from a group consisting of swellable agent, effervescent agent or combinations thereof; i a water hardness removing agent; ii a disintegrant selected from a group consisting of swellable agent, effervescent agent or combinations thereof; ii) a second region comprising: i a detersive surfactant; ii a disintegrant selected from a group consisting of swellable agent, effervescent agent or combinations thereof; i a detersive surfactant; ii a disintegrant selected from a group consisting of swellable agent, effervescent agent or combinations thereof;
A method for processing white balance of an image, a content of an image comprising a subject and the method comprising: calculating a first gain for the image according to a Face Automatic White Balance (FaceAWB) algorithm configured to regulate a face in the image to a skin color; calculating a second gain for the image according to a simple gray world algorithm; determining whether the first gain is similar to the second gain; responsive to a determination that the first gain is similar to the second gain, performing white balance processing on the image according to the second gain; and responsive to a determination that the first gain is not similar to the second gain, performing white balance processing on the image according to the first gain. calculating a first gain for the image according to a Face Automatic White Balance (FaceAWB) algorithm configured to regulate a face in the image to a skin color; calculating a second gain for the image according to a simple gray world algorithm; determining whether the first gain is similar to the second gain; responsive to a determination that the first gain is similar to the second gain, performing white balance processing on the image according to the second gain; and responsive to a determination that the first gain is not similar to the second gain, performing white balance processing on the image according to the first gain.
An electronic device, comprising: an image sensor including a plurality of pixels; an auto focus, AF, processing unit configured to perform calculation for performing auto focus based on a phase difference; a memory; and at least one processor configured to deliver data obtained by the image sensor to the AF processing unit or the memory, wherein each pixel included in the plurality of pixels includes a plurality of photo diodes and a microlens configured to cover the plurality of photo diodes, wherein the at least one processor is configured to provide the AF processing unit with first AF data of photo diodes arranged in a first direction among the plurality of photo diodes, wherein the at least one processor is configured to provide the AF processing unit with second AF data of photo diodes arranged in a second direction among the plurality of photo diodes by rotating or reordering the second AF data to have a data structure in the first direction, and wherein the AF processing unit performs first phase auto focus, PAF, calculation based on the first AF data and performs second PAF calculation based on the second AF data. an image sensor including a plurality of pixels; an auto focus, AF, processing unit configured to perform calculation for performing auto focus based on a phase difference; a memory; and at least one processor configured to deliver data obtained by the image sensor to the AF processing unit or the memory, wherein each pixel included in the plurality of pixels includes a plurality of photo diodes and a microlens configured to cover the plurality of photo diodes, wherein the at least one processor is configured to provide the AF processing unit with first AF data of photo diodes arranged in a first direction among the plurality of photo diodes, wherein the at least one processor is configured to provide the AF processing unit with second AF data of photo diodes arranged in a second direction among the plurality of photo diodes by rotating or reordering the second AF data to have a data structure in the first direction, and wherein the AF processing unit performs first phase auto focus, PAF, calculation based on the first AF data and performs second PAF calculation based on the second AF data.