mhurhangee/patent-ind-claim-en huggingface dataset:
Robot gripper having a holder which is designed to be connected to an industrial robot, and having at least one suction unit which is designed to be connected to a vacuum source, wherein the suction unit comprises a suction surface against which a preferably planar workpiece that preferably consists at least in portions of wood, wood-based materials, plastics material, aluminium or the like can be held by means of negative pressure, and wherein the robot gripper comprises a substantially straight pressing edge in an edge portion, wherein the robot gripper further comprises an actuator which is designed to tilt the suction unit about a first tilt axis relative to the holder , characterised in that the actuator is preloaded into a first neutral position by means of a spring element , and wherein the actuator is designed to perform a discrete stroke counter to the preload when pressure is applied.
Cooking support device, in particular a Teppan-Yaki cooking support device, comprising a cooking plate and a holding device holding the cooking plate , a bottom made of metal, comprising a first region with ferromagnetic metal , the first region being part of the cooking plate , and a second region without ferromagnetic metal , the second region being part of the holding device , characterised in that the holding device comprises a sheet metal part arranged and adapted to guide the cooking plate horizontally and/or the cooking plate is up against a vertical portion of the sheet metal part , wherein the holding device comprises a gripping device made of wood and the sheet metal part is insulated from the gripping device by means of an insulating element made of plastic.
An antenna device comprising: a metal housing having an aperture ; a first conductor disposed in a portion except for the aperture of the metal housing , the first conductor being capacitively coupled to the metal housing ; and a second conductor disposed in the aperture of the metal housing and in a same plane as that of the first conductor , wherein the first and second conductor are configured such that between them an alternating-current voltage is applied, the second conductor being transparent to visible light. a metal housing having an aperture ; a first conductor disposed in a portion except for the aperture of the metal housing , the first conductor being capacitively coupled to the metal housing ; and a second conductor disposed in the aperture of the metal housing and in a same plane as that of the first conductor ,
Cleaning appliance comprising a dispensing compartment , a drawer having a grip panel , a recessed grip which allows an operator to reach into the grip panel when the drawer is pushed into the dispensing compartment , and an apparatus for closing the dispensing compartment , the dispensing compartment being shaped to accommodate the drawer having the grip panel , characterized in that the apparatus has the following features: a grating structure for closing the recessed grip ; and a fixing device for fixing the apparatus relative to the dispensing compartment in order to close the dispensing compartment and prevent the operator from opening the drawer. a grating structure for closing the recessed grip ; and a fixing device for fixing the apparatus relative to the dispensing compartment in order to close the dispensing compartment and prevent the operator from opening the drawer.
A microwave spark plug for injecting microwave energy into a combustion chamber of an engine, comprising an elongated housing , including an elongated chamber forming a hollow conductor in an interior of the housing, and a microwave window arranged at one end of the hollow conductor in the housing , wherein the microwave window closes the hollow conductor relative to a combustion chamber , wherein a thread for threading into an engine housing defining the combustion chamber is arranged at an outer circumference of the housing , the hollow conductor includes a connection conductor for a high frequency feed conductor at another end of the hollow conductor arranged distal from the microwave window , the connection element includes a high frequency inlet cross section geometry which differs from a high frequency outlet cross section geometry at the microwave window, and a transition from the high frequency entry cross section geometry at the first end of the hollow conductor to the high frequency outlet cross section geometry at the second end of the hollow conduction is provided continuously.
An air-conditioning apparatus comprising: an outdoor unit including a compressor ; an indoor unit ; inlet temperature detection means that detects an indoor inlet temperature; and a controller that performs control of reducing an operating frequency of the compressor as a difference between the indoor inlet temperature and a set temperature decreases, wherein the controller determines that a thermo-off condition is satisfied in a case where the indoor inlet temperature is less than or equal to a thermo-off set temperature in a cooling mode or the indoor inlet temperature is greater than or equal to the thermo-off set temperature in a heating mode; if the thermo-off condition is satisfied, the controller determines whether thermo-off postponement control is allowed or not on the basis of a current operating frequency of the compressor , if the controller determines that the thermo-off postponement control is allowed, the controller performs thermo-off postponement control in which a lowest operating frequency in an operating frequency range of the compressor is temporarily reduced within a range greater than or equal to a minimum operating frequency of the compressor in use and an operation is continued, and if the controller determines that the thermo-off postponement control is not allowed, the controller performs thermo-off in which the compressor is stopped. an outdoor unit including a compressor ; an indoor unit ; inlet temperature detection means that detects an indoor inlet temperature; and a controller that performs control of reducing an operating frequency of the compressor as a difference between the indoor inlet temperature and a set temperature decreases, wherein the controller determines that a thermo-off condition is satisfied in a case where the indoor inlet temperature is less than or equal to a thermo-off set temperature in a cooling mode or the indoor inlet temperature is greater than or equal to the thermo-off set temperature in a heating mode; if the thermo-off condition is satisfied, the controller determines whether thermo-off postponement control is allowed or not on the basis of a current operating frequency of the compressor , if the controller determines that the thermo-off postponement control is allowed, the controller performs thermo-off postponement control in which a lowest operating frequency in an operating frequency range of the compressor is temporarily reduced within a range greater than or equal to a minimum operating frequency of the compressor in use and an operation is continued, and if the controller determines that the thermo-off postponement control is not allowed, the controller performs thermo-off in which the compressor is stopped.
A foldable device , the device comprising: a flexible display ; a first sensor for detecting whether the foldable device is unfolded; an iris recognizing camera for acquiring an image of a user during an unfolding operation of the foldable device , and a controller configured to, during the unfolding operation of the foldable device , activate the iris recognizing camera for authenticating the user and perform the user authentication by using the image of the user obtained by the iris recognizing camera , and in response to the user being authenticated by the image of the user obtained by the iris recognizing camera , to control the foldable device to release a locking state of the foldable device and provide an unlocked screen. a flexible display ; a first sensor for detecting whether the foldable device is unfolded; an iris recognizing camera for acquiring an image of a user during an unfolding operation of the foldable device , and a controller configured to, during the unfolding operation of the foldable device , activate the iris recognizing camera for authenticating the user and perform the user authentication by using the image of the user obtained by the iris recognizing camera , and in response to the user being authenticated by the image of the user obtained by the iris recognizing camera , to control the foldable device to release a locking state of the foldable device and provide an unlocked screen.
Agricultural baler comprising a baling chamber (C) and a pre-compression chamber , wherein the pre-compression chamber is adapted to gather crop material and to periodically form a slice of said crop material and comprises a slice pushing mechanism for introducing the slice towards the baling chamber into a first segment of the baling chamber, the baling chamber comprising a plunger (D) provided for reciprocally moving in the baling chamber thereby compressing slices of crop material into a bale , the baling chamber further comprising at least one movable wall , the agricultural baler further comprising multiple sensors and a controller adapted for controlling operation of the agricultural baler, operation of the agricultural baler comprising synchronization of the slice pushing mechanism and the plunger, and comprising adjusting the position of the at least one movable wall, based on inputs of the multiple sensors, wherein a first subset of the multiple sensors is directly related to bale parameters and a second subset of the multiple sensors is indirectly related to said bale parameters, wherein the controller is configured to, in a first time period, control the operation of the agricultural baler and calibrate the sensors of the second subset based on outputs of sensors of the first subset.
A method for producing a host cell protein-reduced (HCP-reduced) anti-IL-13 antibody preparation from a sample mixture comprising an anti-IL-13 antibody and at least one HCP, said method comprising: (a) filtrating said sample mixture with a depth filtration filter and collecting a depth filtrated sample mixture; (b) contacting said depth filtrated sample mixture with a Protein A affinity chromatography resin, washing said affinity chromatography resin with a buffer comprising 25 mM Tris, 100 mM NaCl, pH 7.2, followed by a wash with a buffer comprising 20 mM sodium citrate/citric acid, 0.5 M NaCl, pH 6, and then with a buffer comprising 25 mM Tris, 100 mM NaCl, pH 7.2 and collecting an affinity chromatography sample; (c) subjecting said affinity chromatography sample to a reduction in pH thus forming a reduced pH sample, wherein said reduced pH sample has a pH of about 3 to about 4; (d) adjusting the pH of said reduced pH sample to a pH of about 4.5 to about 8.5 and contacting said adjusted pH sample with an anion exchange resin comprising a quaternary aminoethyl (QAE) anionic substituent and collecting an ion exchange sample; and (e) contacting said ion exchange sample with a hydrophobic interaction chromatography (HIC) material and collecting an HIC sample, wherein said HIC sample comprises said HCP-reduced antibody preparation, wherein about refers to 20% greater than or less than the referenced value, and wherein said anti-IL-13 antibody is a humanized IgA 1 , IgA 2 , IgG 1 , IgG 2 , IgG 4 , or IgM antibody comprising a heavy chain variable region of EVTLRESGPGLVKPTQTLTLTCTLYGFSLSTSDMGVDWIRQPPGKGLEWLAHIWWDDVKRYN PALKSRLTISKDTSKNQVVLKLTSVDPVDTATYYCARTVSSGYIYYAMDYWGQGTLVTVSS and a light chain variable region of (a) filtrating said sample mixture with a depth filtration filter and collecting a depth filtrated sample mixture; (b) contacting said depth filtrated sample mixture with a Protein A affinity chromatography resin, washing said affinity chromatography resin with a buffer comprising 25 mM Tris, 100 mM NaCl, pH 7.2, followed by a wash with a buffer comprising 20 mM sodium citrate/citric acid, 0.5 M NaCl, pH 6, and then with a buffer comprising 25 mM Tris, 100 mM NaCl, pH 7.2 and collecting an affinity chromatography sample; (c) subjecting said affinity chromatography sample to a reduction in pH thus forming a reduced pH sample, wherein said reduced pH sample has a pH of about 3 to about 4; (d) adjusting the pH of said reduced pH sample to a pH of about 4.5 to about 8.5 and contacting said adjusted pH sample with an anion exchange resin comprising a quaternary aminoethyl (QAE) anionic substituent and collecting an ion exchange sample; and (e) contacting said ion exchange sample with a hydrophobic interaction chromatography (HIC) material and collecting an HIC sample, wherein said HIC sample comprises said HCP-reduced antibody preparation,
A beta-lactamase resistant penicillin for use in a method of treating a bacterial infection in a subject in need thereof, wherein said bacterial infection is caused by a bacterial population from a Enterococci, Pneumococci or Staphylococci bacterial species wherein said bacterial population has resistance to said penicillin induced by low affinity penicillin-binding proteins (PBPs) ; wherein said subject is further administered, before or simultaneously to said penicillin, a statin of formula (I) or (Ia), or a pharmaceutically acceptable salt or stereoisomer thereof: wherein R 1 and R 2 are independently selected from the group consisting of H, OH, CH 3 , CH 2 CH 3 , and halogen, and wherein said statin reduces or reverses resistance to said penicillin in said resistant bacterial population. wherein said subject is further administered, before or simultaneously to said penicillin, a statin of formula (I) or (Ia), or a pharmaceutically acceptable salt or stereoisomer thereof: wherein R 1 and R 2 are independently selected from the group consisting of H, OH, CH 3 , CH 2 CH 3 , and halogen, and wherein said statin reduces or reverses resistance to said penicillin in said resistant bacterial population.
Method for generating a result image, the method comprising the steps of: a. acquiring a STED image of a sample, the STED image comprising pixels, by irradiating the sample with pulsed excitation light having a focus, and irradiating the sample with de-excitation light surrounding the central region of a focus; b. detecting photon arrival times relative to excitation pulses of the excitation light; c. calculating Fourier coefficients of the photon arrival times for pixels of the STED image, resulting in real coefficients representing a first image and in imaginary coefficients representing a second image; d. deriving an intensity image from the STED image; e. applying a spatial filter to the first image, the second image and the intensity image resulting in respective filtered images, wherein the spatial filter is a de-noising filter; f. calculating an image G based on the filtered first image and the filtered intensity image by dividing the filtered first image by the filtered intensity image; g. calculating an image S based on the filtered second image and the filtered intensity image by dividing the filtered second image by the filtered intensity image; and h. calculating the result image based on the two images G and S. a. acquiring a STED image of a sample, the STED image comprising pixels, by irradiating the sample with pulsed excitation light having a focus, and irradiating the sample with de-excitation light surrounding the central region of a focus; b. detecting photon arrival times relative to excitation pulses of the excitation light; c. calculating Fourier coefficients of the photon arrival times for pixels of the STED image, resulting in real coefficients representing a first image and in imaginary coefficients representing a second image; d. deriving an intensity image from the STED image; e. applying a spatial filter to the first image, the second image and the intensity image resulting in respective filtered images, wherein the spatial filter is a de-noising filter; f. calculating an image G based on the filtered first image and the filtered intensity image by dividing the filtered first image by the filtered intensity image; g. calculating an image S based on the filtered second image and the filtered intensity image by dividing the filtered second image by the filtered intensity image; and h. calculating the result image based on the two images G and S.
Apparatus for measuring the mass flow of a foaming and/or foam producing liquid, comprising a housing having at least one inlet and at least one outlet , wherein a measuring section is provided in the housing, and wherein the apparatus further comprises at least one measuring device , which is disposed in the measuring section, wherein the measuring device comprises at least two electrodes spaced apart from one another, in the shape of a first and a second electrode , and an evaluation unit , characterized in that the apparatus comprises an electric means for applying an electric magnitude to the first electrode and a means for picking up an electric signal between the first electrode and the second electrode , and that the first electrode is configured elongated and is disposed such that it immerses in the liquid and captures the height level of the flowing liquid, wherein during measuring the first electrode is wetted with the liquid up to a specific height level and wetting takes place both with the liquid phase and with any foam phase that may be present, and that the electric means is connected with two points of the first electrode remote from one another, so that it is connected in parallel with the first electrode and a potential can be applied, which drops over the length of the electrode, and that the second electrode is electrically connected with the first electrode via the means for picking up the electric signal , such that a potential is measured for deriving the mass flow between the first electrode and the second electrode .
A map data storage method for acquiring map data content used in a subject vehicle and storing the map data content in a database by using a controller, comprising: setting (S103) a priority level to the map data content in accordance with a level for achieving a function regarding an autonomous driving of the subject vehicle on a road; acquiring (S105) the map data content in accordance with the set priority level from an external database; converting (S106) a format of the acquired map data content to a predetermined format that can be used in the subject vehicle; storing (S107) the map data content converted into the predetermined format in the database; acquiring (S201) update information regarding the map data content stored in the database; and editing the map data content in the predetermined format stored in the database on a basis of the acquired update information. setting (S103) a priority level to the map data content in accordance with a level for achieving a function regarding an autonomous driving of the subject vehicle on a road; acquiring (S105) the map data content in accordance with the set priority level from an external database; converting (S106) a format of the acquired map data content to a predetermined format that can be used in the subject vehicle; storing (S107) the map data content converted into the predetermined format in the database; acquiring (S201) update information regarding the map data content stored in the database; and editing the map data content in the predetermined format stored in the database on a basis of the acquired update information.
A separator for an electrochemical device, comprising a porous first separator layer and a porous second separator layer, wherein the first separator layer comprises 50 vol.% or more of resin A that is melted to close pores so that s shutdown occurs when a temperature reaches its melting point or higher and a shutdown temperature is in a range of 105°C to 135°C, the second separator layer comprises 80 vol.% or more of a filler that has a heat-resistant temperature of not lower than 150°C, the second separator layer has a thickness of not less than 2 μm and not more than 10 μm, and at least one of the first separator layer and the second separator layer comprises flakes.
A method for detecting insulin resistance and early insulin resistance syndrome in a subject comprising obtaining a TD-NMR (time-domain nuclear magnetic resonance) data set or spin relaxation curve for a sample with an NMR or MRI instrument tuned to measure a particular nucleus selected from 1 H, 2 H, 3 H or 17 O, analyzing the data or curve to extract T 2 relaxation times for water or surrogates thereof and converting the water T 2 values by a process comprising a step of partially suppressing the water signal to detect insulin resistance and early insulin resistance syndrome in the subject, wherein the sample is a plasma sample, a serum sample, or whole blood sample.
A method of decoding video data, the method comprising: receiving a bitstream that includes a sequence of bits that forms a representation of a coded picture of the video data; determining a partitioning of the coded picture of the video data into a plurality of blocks using three different partition structures, wherein the partitioning is selected from among three different partition structures for at least one depth of a tree structure that represents how a particular block of the coded picture of the video data is partitioned, and wherein the three different partition structures include a triple-tree partition structure, a quad-tree partition structure and a binary-tree partition structure; determining the partitioning of at least one block of the coded picture of the video data using a triple-tree partition type of the triple-tree partition structure, wherein the triple-tree partition structure divides the at least one block into three sub-blocks without dividing the at least one block through the center line of the at least one block, wherein at least one of the three sub-blocks is a non-leaf node of the tree structure; and reconstructing the plurality of blocks of the coded picture of the video data receiving a bitstream that includes a sequence of bits that forms a representation of a coded picture of the video data; determining a partitioning of the coded picture of the video data into a plurality of blocks using three different partition structures, wherein the partitioning is selected from among three different partition structures for at least one depth of a tree structure that represents how a particular block of the coded picture of the video data is partitioned, and wherein the three different partition structures include a triple-tree partition structure, a quad-tree partition structure and a binary-tree partition structure; determining the partitioning of at least one block of the coded picture of the video data using a triple-tree partition type of the triple-tree partition structure, wherein the triple-tree partition structure divides the at least one block into three sub-blocks without dividing the at least one block through the center line of the at least one block, wherein at least one of the three sub-blocks is a non-leaf node of the tree structure; and reconstructing the plurality of blocks of the coded picture of the video data