mhurhangee/ep-ind-claims huggingface dataset:
- An exhaust hood, which is positioned above a cooking device, comprising a body; an exhaust duct which is connected to a chimney opening to the outer environment; one or more than one fan which is mounted into the exhaust duct; one or more than one temperature sensor which is disposed onto the body and/or into the exhaust duct, and which measures the temperature of the air rising from the cooking device and from a cooking receptacle by heating up during a cooking process; a timer which measures the heating time elapsing until the temperature of the air rising from the cooking device reaches a preset value; and a control unit which is adapted to - calculate the rate of increase in temperature according to the data received from the temperature sensor and the timer, - determine, according to the rate of increase in temperature, the type of the cooking device and - determine, according to the type of the cooking device, an operation level of the exhaust hood which is defined as the fan motor speed or the number of fans to be activated, characterized in that, the control unit is further adapted to - compare the heating time elapsing until the temperature sensor detects a predetermined temperature value after the operation of the cooking device with a predetermined first threshold heating time and a predetermined second threshold heating time in the control unit and determine if the cooking device is a gas cooker, an induction heating cooker or an electric cooker, - determine that the cooking device is a gas cooker if the heating time is lower than the first threshold time (T<T1), - determine that the cooking device is an induction heating cooker if the heating time is higher than the first threshold time (T<T1) and lower than the second threshold time (T1<T<T2), and - determine that the cooking device is an electric cooker if the heating time is higher than the second threshold time (T>T2). - calculate the rate of increase in temperature according to the data received from the temperature sensor and the timer, - determine, according to the rate of increase in temperature, the type of the cooking device and - determine, according to the type of the cooking device, an operation level of the exhaust hood which is defined as the fan motor speed or the number of fans to be activated, - compare the heating time elapsing until the temperature sensor detects a predetermined temperature value after the operation of the cooking device with a predetermined first threshold heating time and a predetermined second threshold heating time in the control unit and determine if the cooking device is a gas cooker, an induction heating cooker or an electric cooker, - determine that the cooking device is a gas cooker if the heating time is lower than the first threshold time (T<T1), - determine that the cooking device is an induction heating cooker if the heating time is higher than the first threshold time (T<T1) and lower than the second threshold time (T1<T<T2), and - determine that the cooking device is an electric cooker if the heating time is higher than the second threshold time (T>T2).
Process for removal by catalytic oxidation of at least one oxidisable gaseous compound from a gas mixture comprising the at least one oxidisable gaseous compound as well as oxygen, through the use of an oxidation catalyst, whereby the gas mixture is not a combustion exhaust gas, characterised in that the oxidation catalyst was produced through the exclusive use of at least one platinum oxalate complex as platinum precursor that can be decomposed exothermically, without the use of other precursors, neither of platinum nor of other metals or precious metals, whereby the platinum oxalate complex or complexes is/are complex compositions produced by reacting platinum- -hydroxo acid with oxalic acid in aqueous solution.
A ribonucleic acid comprising a double stranded structure suitable for mediating RNA interference in a mammalian cell, whereby the double- stranded structure comprises a first strand and a second strand, whereby the first strand comprises a first stretch of contiguous nucleotides and whereby said first stretch is at least partially complementary to a target nucleic acid, and the second strand comprises a second stretch of contiguous nucleotides and whereby said second stretch is at least partially identical to the target nucleic acid characterised in that said first strand or stretch and said second strand or stretch comprises a plurality of groups of modified nucleotides having a modification at the 2'-position whereby within the strand or stretch each group of modified nucleotides is flanked on one or both sides by a flanking group of nucleotides whereby the flanking nucleotide(s) forming the flanking group of nucleotides is/are either an unmodified nucleotide(s) or a nucleotide(s) having a modification different from the modification of the modified nucleotides, wherein the modification is a 2' O methyl group, and wherein the modified group of nucleotides of the first strand corresponds to the unmodified group of nucleotides of the second strand and vice versa, or wherein the modified group of nucleotides of the first strand corresponds to a group of nucleotides of the second strand having a different modification from the one of the modified group and vice versa.
An electrode cartridge for use in a hermetic zinc secondary battery comprising: a separator structure including a separator exhibiting hydroxide ion conductivity and water impermeability; a counter member liquid-tightly sealed to the separator structure so as to form an internal space and constituting an open-top water impermeable case together with the separator structure; and an electrode accommodated in the internal space of the water impermeable case, the electrode being a negative electrode comprising zinc and/or zinc oxide or a positive electrode. a separator structure including a separator exhibiting hydroxide ion conductivity and water impermeability; a counter member liquid-tightly sealed to the separator structure so as to form an internal space and constituting an open-top water impermeable case together with the separator structure; and an electrode accommodated in the internal space of the water impermeable case, the electrode being a negative electrode comprising zinc and/or zinc oxide or a positive electrode.
A method, at a base station, for reducing interference between networks, comprising: decoding a signal transmitted by a first network over a communications medium using an unlicensed frequency spectrum to determine one or more parameters of a packet in the signal; estimating a level of utilization of the communications medium by the first network based at least in part on both of a signal strength of the signal and the one or more parameters; and adjusting a time for communicating in a second network over the communications medium using the unlicensed frequency spectrum based at least in part on the level of utilization of the communications medium by the first network. decoding a signal transmitted by a first network over a communications medium using an unlicensed frequency spectrum to determine one or more parameters of a packet in the signal; estimating a level of utilization of the communications medium by the first network based at least in part on both of a signal strength of the signal and the one or more parameters; and adjusting a time for communicating in a second network over the communications medium using the unlicensed frequency spectrum based at least in part on the level of utilization of the communications medium by the first network.
A method for processing molasses which are taken from a whey preparation process, wherein first of all albumen is extracted from the whey by a membrane separation method and then lactose is extracted by a crystallisation method, the mother lye of which provides the molasses and which has a dry mass content of between 18 and 35%, comprising the procedural steps: setting the dry mass content of the molasses introduced to the process to 10% or less, isolating a mineral-depleted component by separating minerals from the molasses, concentrating the mineral-depleted component by eliminating water by evaporation, crystallising the concentrated component, separating the crystalline phase precipitated by the crystallisation from the liquid phase, washing the separated crystalline phase with a washing liquid, characterised in that the minerals are separated from the molasses by electrodialysis and by setting the dry mass content by adding vapours produced during the evaporation step. setting the dry mass content of the molasses introduced to the process to 10% or less, isolating a mineral-depleted component by separating minerals from the molasses, concentrating the mineral-depleted component by eliminating water by evaporation, crystallising the concentrated component, separating the crystalline phase precipitated by the crystallisation from the liquid phase, washing the separated crystalline phase with a washing liquid, characterised in that the minerals are separated from the molasses by electrodialysis and by setting the dry mass content by adding vapours produced during the evaporation step.
Pipeline comprising at least first and second portions (16.1, 16.2) and at least one coupling system (22, 24) connecting the first and second portions (16.1, 16.2), each of the first and second portions (16.1, 16.2) comprising an outer pipe, an inner pipe positioned inside the outer pipe, an intermediary space situated between the outer and inner pipes (26, 28) and containing a first atmosphere, the pipeline comprising at least one leak detection system configured to determine a characteristic of the first atmosphere, the coupling system (22, 24) comprising at least a downstream flange ring connected to at least one of the outer and inner pipes (26, 28) of the first portion (16.1), at least an upstream flange ring connected to at least one of the outer and inner pipes (26, 28) of the second portion (16.2), and connecting elements (22.3, 24.3) connecting the upstream and downstream flange rings (40, 42); the coupling system (22, 24) comprising first and second annular seals (54, 56) interposed between the upstream and downstream flange rings (40, 42) and configured to delimit, with the upstream and downstream flange rings (40, 42), a buffer space containing a second atmosphere, the pipeline comprising at least one leak detection system configured to determine at least one characteristic of the second atmosphere, the coupling system (22, 24) comprising at least one end stop to keep the first and second annular seals (54, 56) apart, the first annular seal having an inside diameter, the second annular seal being positioned inside the first annular seal and having an outside diameter and the end stop being a circular rib secured to a first flange ring of either the upstream or the downstream flange rings (40, 42), the circular rib having an outside diameter substantially equal to the inside diameter of the first annular seal and an inside diameter substantially equal to the outside diameter of the second annular seal, the coupling system (22, 24) comprising at least one through-orifice passing through at least one of the upstream and downstream flange rings (40, 42) to cause the buffer space to communicate with one of the intermediary spaces of the first and second portions (16.1, 16.2).
A method for verifying a detachment of a security tag consisting of a first portion and a second portion from an article, said method comprising: producing, by a detaching unit, a first signal at a first frequency and a second signal at a second frequency different from the first frequency when the security tag is in proximity to the detaching unit, the detaching unit operative to detach the security tag from the article (step 1404); generating, by the security tag comprising a non-linear electrical circuit in its first portion, a third signal by mixing said first and second signals applied to said non-linear electrical circuit of the security tag by the detaching unit (step 1406); ceasing generation of the third signal by the non-linear electrical circuit when said first portion of the security tag is removed from the second portion and moved a certain distance from the detaching unit, wherein the second portion of the security tag is still in proximity to the detaching unit when generation of the third signal is ceased (step 1408); and determining by the detaching unit that the first portion of the security tag has been decoupled from said second portion of the security tag when the third signal is no longer being generated by the non-linear electrical circuit (step 1410). producing, by a detaching unit, a first signal at a first frequency and a second signal at a second frequency different from the first frequency when the security tag is in proximity to the detaching unit, the detaching unit operative to detach the security tag from the article (step 1404); generating, by the security tag comprising a non-linear electrical circuit in its first portion, a third signal by mixing said first and second signals applied to said non-linear electrical circuit of the security tag by the detaching unit (step 1406); ceasing generation of the third signal by the non-linear electrical circuit when said first portion of the security tag is removed from the second portion and moved a certain distance from the detaching unit, wherein the second portion of the security tag is still in proximity to the detaching unit when generation of the third signal is ceased (step 1408); and determining by the detaching unit that the first portion of the security tag has been decoupled from said second portion of the security tag when the third signal is no longer being generated by the non-linear electrical circuit (step 1410).
A method of producing a non-human mammalian sperm sample suitable for in vitro fertilisation, including the step of: obtaining sperm cells; and characterised in that the method further includes the steps of: cryopreserving the sperm cells; thawing the sperm cells; sorting the sperm cells; cryopreserving the sperm cells; thawing the twice cryopreserved sperm cells; and establishing a sperm sample from the twice cryopreserved sperm cells; wherein the sperm sample is comprised of a sample selected from the group consisting of a straw, a pellet, an insemination dose, and a prepared sperm sample. cryopreserving the sperm cells; thawing the sperm cells; sorting the sperm cells; cryopreserving the sperm cells; thawing the twice cryopreserved sperm cells; and establishing a sperm sample from the twice cryopreserved sperm cells; wherein the sperm sample is comprised of a sample selected from the group consisting of a straw, a pellet, an insemination dose, and a prepared sperm sample.
An isolated peptide that reduces leukocyte recruitment selected from (i) an isolated peptide comprising SEQ ID NO: 1, (ii) the isolated peptide of (i), wherein the peptide is modified by pegylation, acetylation, glycosylation, biotinylation, or substitution of one or more L-amino acids with the same type of D-amino acids, and (iii) the isolated peptide of (i), wherein the peptide comprises one or more modified amino acid residues or amino acid analogs, wherein the modified amino acid residues are modified by methylation, amidation, or acetylation, and wherein the amino acid analogs are selected from β-alanine, norvaline, norleucine, 4-aminobutyric acid, ornithine, hydroxyproline, sarcosine, citrulline, cysteic acid, cyclohexylalanine, 2-aminoisobutyric acid, 6-aminohexanoic acid, t-butylglycine, phenylglycine, o-phosphoserine, N-acetyl serine, N-formylmethionine, and 3-methylhistidine. (i) an isolated peptide comprising SEQ ID NO: 1, (ii) the isolated peptide of (i), wherein the peptide is modified by pegylation, acetylation, glycosylation, biotinylation, or substitution of one or more L-amino acids with the same type of D-amino acids, and (iii) the isolated peptide of (i), wherein the peptide comprises one or more modified amino acid residues or amino acid analogs,
A system for automatically configuring a lighting, wherein the system comprises: - a network of presence detectors, wherein each presence detector is activated by detecting an activity and outputs its activation, - a network of lamps, wherein each lamp is activated by a control signal and outputs its activation, each lamp being coupled to a presence detector of the network of presence detectors, and - a lighting configurator comprising - a model of a random process of activations of the lamps and the presence detectors, wherein the model of the random process is configured - to learn patterns of activations of the lamps and the presence detectors received as input data from the lamps and the presence detectors, - to predict a pattern of activations of the lamps and the presence detectors based on the received input data, the learned patterns of activations of the lamps and the presence detectors and a current setting of an adaptation rate, and - to output the predicted pattern as control signals for the lamps, wherein the prediction of the pattern of activations of the lamps and the presence detectors is adapted to changes in the system by variation of the adaptation rate, wherein the lighting configurator comprises a configurator to lower or increase the adaptation rate, the configurator enabling a user to manually lower or increase the adaptation rate. - a network of presence detectors, wherein each presence detector is activated by detecting an activity and outputs its activation, - a network of lamps, wherein each lamp is activated by a control signal and outputs its activation, each lamp being coupled to a presence detector of the network of presence detectors, and - a lighting configurator comprising - a model of a random process of activations of the lamps and the presence detectors, wherein the model of the random process is configured - to learn patterns of activations of the lamps and the presence detectors received as input data from the lamps and the presence detectors, - to predict a pattern of activations of the lamps and the presence detectors based on the received input data, the learned patterns of activations of the lamps and the presence detectors and a current setting of an adaptation rate, and - to output the predicted pattern as control signals for the lamps, - to learn patterns of activations of the lamps and the presence detectors received as input data from the lamps and the presence detectors, - to predict a pattern of activations of the lamps and the presence detectors based on the received input data, the learned patterns of activations of the lamps and the presence detectors and a current setting of an adaptation rate, and - to output the predicted pattern as control signals for the lamps,
A fluid management system comprising: an implantable device comprising a gear pump coupled to an electric motor, and a first controller; an inflow catheter having an inlet end and an outlet end configured to be coupled to the gear pump; and an outflow catheter having an inlet end configured to be coupled to the gear pump and an outlet end configured to be positioned in a sink cavity, characterized in that the first controller is programmed to selectively activate the gear pump to move fluid from the inlet end of the inflow catheter to the sink cavity during predetermined time periods and to operate the motor and gear pump in a tick mode to reduce potential clogging, substantially without moving fluid to the sink cavity, during other predetermined time periods. an implantable device comprising a gear pump coupled to an electric motor, and a first controller; an inflow catheter having an inlet end and an outlet end configured to be coupled to the gear pump; and an outflow catheter having an inlet end configured to be coupled to the gear pump and an outlet end configured to be positioned in a sink cavity, characterized in that the first controller is programmed to selectively activate the gear pump to move fluid from the inlet end of the inflow catheter to the sink cavity during predetermined time periods and to operate the motor and gear pump in a tick mode to reduce potential clogging, substantially without moving fluid to the sink cavity, during other predetermined time periods.
Shaft-driven generator system with a shaft-driven generator, a voltage source converter for decoupling the shaft-driven generator and on-board network by frequency and voltage and a network-side inductance, wherein the voltage source converter has a converter (44, 46) on the generator side and network side respectively which are connected to each other on the DC voltage side, wherein the on-board network is an isolated network, characterised in that the network-side converter has at least two phase modules which each have an upper and a lower valve branch (P1, N1, P2, N2, P3, N3), which each have a plurality of two-pole sub-systems (SM1,..., SMn) connected electrically in series, which each have a unipolar storage capacitor (C SM), to which a series circuit of two semiconductor switches (S1, S2) that can be switched off is connected electrically in parallel, each semiconductor switch having a diode (D1, D2) connected antiparallel.
A gas-liquid separator, comprising: a body enclosing a cavity; a gas outlet attached to the top of the body and communicated with the cavity; a liquid outlet attached to the bottom of the body and communicated with the cavity; an input tube constructed to include a bent portion and communicated into the cavity from the external of the body; and a partition located in the cavity and comprising one or more holes; wherein the input tube further comprises: a first part extending along a first straight line and downstream communicated with the bent portion; and a third part extending in the cavity along a third straight line and upstream communicated with the bent portion; wherein the bent portion extends along the curve, and the curve is selected from one or more of the following curves: an arc, an ellipse, a parabola, a part of a hyperbola, an irregular curve, or a combination of them; and wherein the curve is a spiral line and extends along the periphery of the body for more than one round. a body enclosing a cavity; a gas outlet attached to the top of the body and communicated with the cavity; a liquid outlet attached to the bottom of the body and communicated with the cavity; an input tube constructed to include a bent portion and communicated into the cavity from the external of the body; and a partition located in the cavity and comprising one or more holes; wherein the input tube further comprises: a first part extending along a first straight line and downstream communicated with the bent portion; and a third part extending in the cavity along a third straight line and upstream communicated with the bent portion; wherein the bent portion extends along the curve, and the curve is selected from one or more of the following curves: an arc, an ellipse, a parabola, a part of a hyperbola, an irregular curve, or a combination of them; and wherein the curve is a spiral line and extends along the periphery of the body for more than one round.