mhurhangee/ep-ind-claims huggingface dataset:
Method (S1-S4) for operating a household cooking appliance with a cooking chamber and with at least one camera which is configured for recording pixel-based images from the cooking chamber, in which (a) at least one image from the cooking chamber is recorded by means of the at least one camera and (b) the image is evaluated (S2-S4) with exclusion of the brightness values of the associated pixels thereof, and based on a result of the evaluation, at least one action is triggered by the household cooking appliance. (a) at least one image from the cooking chamber is recorded by means of the at least one camera and (b) the image is evaluated (S2-S4) with exclusion of the brightness values of the associated pixels thereof, and
An anti-procalcitonin antibody capable of specifically binding to human procalcitonin, wherein the anti-procalcitonin antibody is anti-procalcitonin monoclonal antibody produced by a hybridoma cell line with an accession number of CGMCC No. 10417.
Process for preparing diol, characterized in that the process comprises the steps of (1-i) adding alkylene oxide and carbon dioxide onto an H-functional starter substance in the presence of a catalyst to obtain polyethercarbonate polyol and cyclic carbonate, (1-ii) separating the cyclic carbonate from the resulting reaction mixture from step (1-i), (1-iii) hydrolyzing the cyclic carbonate separated from step (1-ii) to carbon dioxide and diol, (1-iv) optionally purifying the diol from step (1-iii) by distillation, wherein (η) a Lewis or Brønsted acid, excluding carboxylic acids having a pKa of > 3.0, and optionally water are added to the cyclic carbonate from step (1-ii) and/or the diol, and the reaction mixture obtained is optionally neutralized. (1-i) adding alkylene oxide and carbon dioxide onto an H-functional starter substance in the presence of a catalyst to obtain polyethercarbonate polyol and cyclic carbonate, (1-ii) separating the cyclic carbonate from the resulting reaction mixture from step (1-i), (1-iii) hydrolyzing the cyclic carbonate separated from step (1-ii) to carbon dioxide and diol, (1-iv) optionally purifying the diol from step (1-iii) by distillation, wherein (η) a Lewis or Brønsted acid, excluding carboxylic acids having a pKa of > 3.0, and optionally water are added to the cyclic carbonate from step (1-ii) and/or the diol, and the reaction mixture obtained is optionally neutralized.
A multilayer self-adhesive fouling release coating composition comprising: (i) An optional removable underlying liner; (ii) An adhesive layer, applied over and to the optional underlying liner (i) when present; (iii) A layer comprising a polar thermoplastic polymer applied over and to the adhesive layer (ii); (iv) An intermediate silicone tie coat containing a vulcanizable silicon applied over and to the layer comprising a polar thermoplastic polymer (iii), (v) A silicone fouling release top coat containing a vulcanizable silicon and a silicone oil applied to and over the intermediate silicone tie coat (iv), and optionally (vi) A removable polymeric film, characterized in that the polar thermoplastic polymer is or comprises a polyolefin grafted with polar groups containing at least one atom selected from nitrogen, oxygen and halogen, such as groups containing a carboxylic acid or an anhydride acid. (i) An optional removable underlying liner; (ii) An adhesive layer, applied over and to the optional underlying liner (i) when present; (iii) A layer comprising a polar thermoplastic polymer applied over and to the adhesive layer (ii); (iv) An intermediate silicone tie coat containing a vulcanizable silicon applied over and to the layer comprising a polar thermoplastic polymer (iii), (v) A silicone fouling release top coat containing a vulcanizable silicon and a silicone oil applied to and over the intermediate silicone tie coat (iv), and optionally (vi) A removable polymeric film,
A cosmetic comprising aliphatic polyester-based resin particles, wherein the aliphatic polyester-based resin particles is polylactic acid-based resin particles or polybutylene succinate-based resin particles having a volume-average particle diameter of 2 to 30 μm, and a ratio of particles having a particle diameter of less than 1 μm is 15% by volume or less and a ratio of particles having a particle diameter of more than 30 μm is 6% by volume or less, wherein the volume-average particle diameter is measured using an electrical sensing particle size distribution analyzer.
Device for filling and closing disposable bags for containing banknotes, comprising: - a bag made of flexible material intended to be filled with the banknotes, - a plate for the lower support of the bag containing the banknotes, which is vertically movable through means for the controlled lowering of said plate and provided with a central slot open at the top and extending vertically through the body of the plate for the insertion of a bottom portion of the bag, - a pushing piston for pushing the banknotes towards said plate and - first sealing elements placed above the plate, characterised in that it further comprises: - a container, placed above said plate, having side walls and a bottom for direct support of the banknotes, defining an inner space for the temporary housing of one or more banknotes before their introduction into the bag, said bottom having an opening for the exit of said one or more banknotes from the container when pushed by the piston, - the bag being anchored, at the edges of its mouth, to fixing pins placed in proximity of the opening in the bottom of the container, laterally with respect to the container, and - said first sealing elements being placed between the container and the plate. - a bag made of flexible material intended to be filled with the banknotes, - a plate for the lower support of the bag containing the banknotes, which is vertically movable through means for the controlled lowering of said plate and provided with a central slot open at the top and extending vertically through the body of the plate for the insertion of a bottom portion of the bag, - a pushing piston for pushing the banknotes towards said plate and - first sealing elements placed above the plate, - a container, placed above said plate, having side walls and a bottom for direct support of the banknotes, defining an inner space for the temporary housing of one or more banknotes before their introduction into the bag, said bottom having an opening for the exit of said one or more banknotes from the container when pushed by the piston, - the bag being anchored, at the edges of its mouth, to fixing pins placed in proximity of the opening in the bottom of the container, laterally with respect to the container, and - said first sealing elements being placed between the container and the plate.
A single-package push-pull bridge magnetic field sensor comprising: one or more pairs of MTJ or GMR magnetoresistive sensor chips (51, 52, 91, 92), wherein one of the MTJ or GMR magnetoresistive sensor chips in each pair has a pinned layer magnetization direction oriented at 180 degrees with respect to the other, and the MTJ or GMR magnetoresistive sensor chips are adhered to a semiconductor package lead frame (67, 100); each MTJ or GMR magnetoresistive sensor chip (51, 52, 91, 92) comprises a bridge arm having a MTJ or GMR sensor element or an interconnected string of MTJ or GMR magnetoresistive elements (23, 24, 54, 74, 75, 76, 77, 94); the MTJ or GMR magnetoresistive elements (23, 24, 54, 74, 75, 76, 77, 94) have a resistance that is linearly proportional to an applied magnetic field over some portion of their magnetoresistive transfer curve; each of the MTJ or GMR magnetoresistive sensor chips (51, 52, 91, 92) has the same R H and R L values; bond pads are provided on the MTJ or GMR magnetoresistive sensor chips (51, 52, 91,92) for attaching respective wire bonds, wherein the electrically opposite ends of each bridge arms are electrically connected to more than one bond pad; and the MTJ or GMR magnetoresistive sensor chips (51, 52, 91, 92) are wire bonded to each other and a semiconductor package lead frame (67, 100) in a push-pull bridge sensor configuration. one or more pairs of MTJ or GMR magnetoresistive sensor chips (51, 52, 91, 92), wherein one of the MTJ or GMR magnetoresistive sensor chips in each pair has a pinned layer magnetization direction oriented at 180 degrees with respect to the other, and the MTJ or GMR magnetoresistive sensor chips are adhered to a semiconductor package lead frame (67, 100); each MTJ or GMR magnetoresistive sensor chip (51, 52, 91, 92) comprises a bridge arm having a MTJ or GMR sensor element or an interconnected string of MTJ or GMR magnetoresistive elements (23, 24, 54, 74, 75, 76, 77, 94); the MTJ or GMR magnetoresistive elements (23, 24, 54, 74, 75, 76, 77, 94) have a resistance that is linearly proportional to an applied magnetic field over some portion of their magnetoresistive transfer curve; each of the MTJ or GMR magnetoresistive sensor chips (51, 52, 91, 92) has the same R H and R L values; bond pads are provided on the MTJ or GMR magnetoresistive sensor chips (51, 52, 91,92) for attaching respective wire bonds, wherein the electrically opposite ends of each bridge arms are electrically connected to more than one bond pad; and the MTJ or GMR magnetoresistive sensor chips (51, 52, 91, 92) are wire bonded to each other and a semiconductor package lead frame (67, 100) in a push-pull bridge sensor configuration.
A method of making a semiconductor ferroelectric memory device comprising a semiconductor substrate, having a source and a drain region; and an insulator, a ferroelectric film and a metal, which are layered in this order on the semiconductor substrate, wherein the ferroelectric film comprises a bismuth layer perovskite crystalline ferroelectric, wherein the insulator, the ferroelectric film and the metal are sequentially formed in the indicated order on the semiconductor substrate and thereafter are subjected to annealing for ferroelectric crystallization, in a mixed gas; wherein said ferroelectric film comprises one selected from the class which consists of a film consisting of strontium, bismuth, tantalum and oxygen, a film of calcium, strontium, bismuth, tantalum and oxygen, a film of strontium, bismuth, tantalum, niobium and oxygen, and a film of calcium, strontium, bismuth, tantalum, niobium and oxygen; characterized in that said metal is Ir, and said mixed gas has oxygen added to nitrogen at a volume proportion of 0.0002 or more and less than 0.02 by volume of oxygen to nitrogen and that an interfacial layer is formed between the semiconductor substrate and the insulator during the annealing, and the interfacial layer is thinner than 3.4 nm after the annealing. said ferroelectric film comprises one selected from the class which consists of a film consisting of strontium, bismuth, tantalum and oxygen, a film of calcium, strontium, bismuth, tantalum and oxygen, a film of strontium, bismuth, tantalum, niobium and oxygen, and a film of calcium, strontium, bismuth, tantalum, niobium and oxygen; characterized in that said metal is Ir, and said mixed gas has oxygen added to nitrogen at a volume proportion of 0.0002 or more and less than 0.02 by volume of oxygen to nitrogen and that an interfacial layer is formed between the semiconductor substrate and the insulator during the annealing, and the interfacial layer is thinner than 3.4 nm after the annealing.
A lateral bulk acoustic resonator assembly comprising: a substrate, having a first surface, the first surface having a cavity; a sheet of material comprising one of sapphire, gadolinium-gallium-garnet "GGG", spinel, lithium niobate and yttrium-aluminum-garnet "YAG" and configured such that an associated resonant frequency of the sheet of material is a function of a length of the sheet of material in a direction parallel to the first surface of the substrate, the sheet of material being suspended over the cavity; a transducer, comprising an electromechanical layer formed on a given surface of the sheet of material and a conductive material formed as a plurality of interdigitated teeth on the electromechanical layer, the transducer being configured to induce vibrations in the sheet of material upon application of an electrical signal to the conductive material, wherein the electromechanical layer comprises one of a piezoelectric material and an electrostrictive material; and a plurality of support anchors extending from walls of the cavity to which a portion of the sheet of material is coupled to suspend the sheet of the material and the transducer over the cavity, wherein the cavity substantially isolates the sheet of material on all sides from the substrate, each of the sheet of material, the transducer, and the plurality of support anchors being configured such that the lateral bulk acoustic resonator assembly has a quality factor in excess of ten thousand. a substrate, having a first surface, the first surface having a cavity; a sheet of material comprising one of sapphire, gadolinium-gallium-garnet "GGG", spinel, lithium niobate and yttrium-aluminum-garnet "YAG" and configured such that an associated resonant frequency of the sheet of material is a function of a length of the sheet of material in a direction parallel to the first surface of the substrate, the sheet of material being suspended over the cavity; a transducer, comprising an electromechanical layer formed on a given surface of the sheet of material and a conductive material formed as a plurality of interdigitated teeth on the electromechanical layer, the transducer being configured to induce vibrations in the sheet of material upon application of an electrical signal to the conductive material, wherein the electromechanical layer comprises one of a piezoelectric material and an electrostrictive material; and a plurality of support anchors extending from walls of the cavity to which a portion of the sheet of material is coupled to suspend the sheet of the material and the transducer over the cavity, wherein the cavity substantially isolates the sheet of material on all sides from the substrate, each of the sheet of material, the transducer, and the plurality of support anchors being configured such that the lateral bulk acoustic resonator assembly has a quality factor in excess of ten thousand.
A method for determining in real time a probability of presence of a target biological tissue facing an ultrasonic transducer, said method including the following steps of: - emitting, via an ultrasonic transducer, at least one ultrasound signal in a biological tissue; - receiving, by said ultrasonic transducer, said at least one emitted ultrasound signal backscattered by said biological tissue; - calculating at least two instantaneous parameters (E, LIN, ATT) of said at least one backscattered ultrasound signal; - calculating a predictive value of presence of an acoustic signature of a target biological tissue, said predictive value being calculated via a statistical law using said at least two calculated instantaneous parameters (E, LIN, ATT); - estimating a probability of presence of said target biological tissue facing said ultrasonic transducer, said estimation being a function of said calculated predictive value and at least one robustness condition based on at least one of said two calculated instantaneous parameters (E, LIN, ATT). - emitting, via an ultrasonic transducer, at least one ultrasound signal in a biological tissue; - receiving, by said ultrasonic transducer, said at least one emitted ultrasound signal backscattered by said biological tissue; - calculating at least two instantaneous parameters (E, LIN, ATT) of said at least one backscattered ultrasound signal; - calculating a predictive value of presence of an acoustic signature of a target biological tissue, said predictive value being calculated via a statistical law using said at least two calculated instantaneous parameters (E, LIN, ATT); - estimating a probability of presence of said target biological tissue facing said ultrasonic transducer, said estimation being a function of said calculated predictive value and at least one robustness condition based on at least one of said two calculated instantaneous parameters (E, LIN, ATT).
Electrical installation comprising an electrical switchboard and a plurality of electrical connection points intended to electrically link an electrical load in a dwelling to the electrical network, these connection points comprising a first part called wall block comprising so-called first connection elements, this wall block being intended to be fixatedly mounted in a wall of the dwelling in such a way that the so-called first connection elements are electrically linked to the corresponding parts of the network, and a second part called functional block intended to provide a particular electrical function and comprising so-called second connection elements, the aforementioned wall block being intended to be fitted definitively by the electrician, whereas this functional block is suitable for being fixed removably in the wall block by a consumer or an electrician, this fixing leading to the electrical connection of the so-called second connection elements to the corresponding parts of the network via the so-called first connection elements, in such a way as to allow the aforementioned electrical function to be activated, this functional block being interchangeable, by the consumer or the electrician, with another functional block, in that each wall block is able to receive a functional block comprising means for communication with a central box and/or an electrical switchboard and/or a fixed or mobile computer, the so-called first connection elements comprise connection clips (10, 11, 12) (17, 18) and the so-called second connection elements (13, 14, 15) (20, 21) comprise pins, the functional block is pluggable onto the fixed wall block via the aforementioned clips interacting with the aforementioned pins, characterized in that this wall block and this functional block each comprise pairing means suitable for enabling pairing of the connection point with the electrical switchboard for information collection or control purposes, in that this wall block comprises coding able to be read by the functional block, this coding being associated with a feeder of the electrical switchboard.
Semiconductor layer structure having a substrate, a buffer layer deposited onto the substrate, and an active semiconductor structure deposited onto the buffer layer which includes a layer formed as a channel by depositing a barrier layer, and contacts deposited onto the barrier layer, wherein the semiconductor layer structure is formed to permanently or temporarily prevent or limit a lateral flow of current from one of the contacts to another one of the contacts through the layer at least in a first direction if a potential of the one of the contacts deviates from another potential of the other one of the contacts by less than a breakdown voltage threshold, wherein a potential of the substrate corresponds to the other potential and a drain voltage threshold lower than the breakdown voltage threshold is determined by isolating ions which are selectively implanted into the substrate in only one region of the substrate, wherein charge can dissipate from the one contact toward the one substrate region without isolating ions through the buffer layer if the one potential deviates from the other potential at least by the drain voltage threshold, wherein the substrate region without isolating ions is located underneath the one contact, wherein, in a cross section through the semiconductor layer structure, a first sectional area part of the layer in the region between the one of the contacts and the other one of the contacts is smaller than a second sectional area part of a vertical region between the one of the contacts and the substrate region without isolating ions.
A method for controlling a waste heat recovery system associated with a powertrain of a vehicle, the powertrain comprising a combustion engine and a gearbox connected to the combustion engine, the waste heat recovery system comprising a working fluid circuit; an evaporator; an expander; a condenser; a reservoir for a working fluid and a pump arranged to pump the working fluid through the circuit, wherein the evaporator is arranged for heat exchange between the working fluid and at least one heat source, wherein the waste heat recovery system further comprises a cooling circuit arranged in connection to the condenser, and wherein the expander is mechanically coupled to the powertrain, the method comprising the steps of: - determining the pressure and temperature of the working fluid upstream of the expander; - controlling the rotational speed of the expander based on the determined pressure and temperature, characterized in that the rotational speed of the expander is controlled based on a comparison between the pressure and a predetermined maximum pressure (P max) and a comparison between a difference (ΔT) between the temperature and the boiling point for the working fluid and a predetermined minimum temperature difference (ΔT min). - determining the pressure and temperature of the working fluid upstream of the expander; - controlling the rotational speed of the expander based on the determined pressure and temperature,
Stretch-reducing rolling mill for producing seamless tubes, which comprises a plurality of roll stands, which are arranged in succession in a conveying direction of the tubes, each with three rolls arranged at an angular spacing of 120°, wherein the roll stands are divided into at least two groups (A, B) each with at least two roll stands and the rolls of adjacent roll stands within one group (A, B) are staggered relative to one another by a group-internal angle α I, wherein the rolls of the roll stands of adjacent groups (A, B) are staggered relative to one another by a group-internal angle α G, which is smaller than the group-internal angle α I, characterised in that the rolls of the roll stands of the groups (A, B) have a pass shape differing from the circular shape and provided between two groups (A, B) is at least one neutral roll stand with three respective rolls which are arranged at an angular spacing of 120° and the pass shape of which has a smaller difference from the circularly round shape than that of the roll stands of the groups (A, B). the rolls of adjacent roll stands within one group (A, B) are staggered relative to one another by a group-internal angle α I, wherein the rolls of the roll stands of adjacent groups (A, B) are staggered relative to one another by a group-internal angle α G, which is smaller than the group-internal angle α I, characterised in that the rolls of the roll stands of the groups (A, B) have a pass shape differing from the circular shape and provided between two groups (A, B) is at least one neutral roll stand with three respective rolls which are arranged at an angular spacing of 120° and the pass shape of which has a smaller difference from the circularly round shape than that of the roll stands of the groups (A, B).