mhurhangee/ep-ind-claims huggingface dataset:
Method for coating a powder compact, in particular for producing a capsule containing beverage powder, comprising the following steps: i) Providing a powder compact of a powder containing at least one polysaccharide, ii) Providing a container having a container wall of a perforated material enclosing a cavity, the material being a material having a plurality of small holes, the holes being regularly arranged in the material and each having at least substantially the same shape and size, the container having an inlet opening for introducing coating liquid into the cavity, iii) placing the powder compact into the cavity of the container, wherein the powder compact is smaller than the volume of the cavity, iv) introducing a coating liquid containing a coating material into the cavity via the inlet port, v) immersing the container filled with the powder compact and the coating material in a hardener liquid containing a hardener compound, the viscosity of the hardener liquid being lower than the viscosity of the coating liquid, and vi) Removing the container from the hardener liquid and removing the coated powder compact from the container. i) Providing a powder compact of a powder containing at least one polysaccharide, ii) Providing a container having a container wall of a perforated material enclosing a cavity, the material being a material having a plurality of small holes, the holes being regularly arranged in the material and each having at least substantially the same shape and size, the container having an inlet opening for introducing coating liquid into the cavity, iii) placing the powder compact into the cavity of the container, wherein the powder compact is smaller than the volume of the cavity, iv) introducing a coating liquid containing a coating material into the cavity via the inlet port, v) immersing the container filled with the powder compact and the coating material in a hardener liquid containing a hardener compound, the viscosity of the hardener liquid being lower than the viscosity of the coating liquid, and vi) Removing the container from the hardener liquid and removing the coated powder compact from the container.
A device for removing materials from an artificial tube, comprising a clearing catheter having an aspiration lumen and an irrigation lumen a driving mechanism configured to apply repetitive motion to the clearing catheter to move the clearing catheter and the aspiration lumen and the irrigation lumen of the clearing catheter, characterized in that the device further comprises a dual lumen connector (42; 45) in fluid communication with said aspiration lumen and said irrigation lumen, said dual lumen connector (42; 45) having releasably attachable male and female components interconnecting said aspiration lumen and irrigation lumen respectively with aspiration tubing and irrigation tubing.
A method of allocating network resources to users in a cloud-based data network by identifying, for each user, a plurality of data centres capable of providing services required by the user, analysing (184, 185) a plurality of characteristics of paths connecting nodes in the network by which the user and each of the identified data centres may communicate, identifying a set of such paths, each path having characteristics optimised for criteria defined by a respective predetermined service objective and, for each path in the set, generating a display indicative of characteristics of that path, and, in response to a selection input by the user, allocating resources to provide a path selected by the user between a user-connected node and a data centre, characterised in that the characteristics of each path analysed include a time (t1-t2, t2-t3.....) at which the path will be available.
An apparatus, comprising: processing circuitry responsive to a bounded pointer generation request to perform a generation operation to generate a bounded pointer from specified data provided at least one generation condition is met, the bounded pointer comprising a pointer value and associated attributes, the associated attributes including range information indicative of an allowable range of addresses when using said pointer value; the processing circuitry being responsive to detection from the specified data that the bounded pointer to be generated is a signed bounded pointer incorporating a signature, to perform as part of the generation operation, at least when a signing condition is met, an insert signature operation during which the signature is determined from a portion of the specified data and incorporated within the generated bounded pointer within a plurality of specified bits whose content within an unsigned version of the bounded pointer is reproducible from other bits of the bounded pointer; and storage (50, 60) to store the bounded pointer generated by the processing circuitry. processing circuitry responsive to a bounded pointer generation request to perform a generation operation to generate a bounded pointer from specified data provided at least one generation condition is met, the bounded pointer comprising a pointer value and associated attributes, the associated attributes including range information indicative of an allowable range of addresses when using said pointer value; the processing circuitry being responsive to detection from the specified data that the bounded pointer to be generated is a signed bounded pointer incorporating a signature, to perform as part of the generation operation, at least when a signing condition is met, an insert signature operation during which the signature is determined from a portion of the specified data and incorporated within the generated bounded pointer within a plurality of specified bits whose content within an unsigned version of the bounded pointer is reproducible from other bits of the bounded pointer; and storage (50, 60) to store the bounded pointer generated by the processing circuitry.
An electrostatic filter construction including - a charging unit, which charges the particles to be filtered into a first electric potential and is arranged in the filter construction in the path of the air flow before bag shaped filter elements, - an electrode unit comprising a plurality of electrically conducting electrodes connected to a second electric potential different to the potential of the charged particles and set substantially parallel to the direction of the airflow, and - a bag unit comprising the bag shaped filter elements positioned after the charging unit in the path of the air flow, wherein each bag shaped filter element of the bag unit comprises an electrode, characterized in that - each bag shaped filter element has at least one designated UV-light source and an element (14, 31) of photo catalytic material like TiO 2, wherein the electrodes inside the bag shaped filter elements are equipped with UV- light sources and are covered with photo catalytic material like TiO 2. - a charging unit, which charges the particles to be filtered into a first electric potential and is arranged in the filter construction in the path of the air flow before bag shaped filter elements, - an electrode unit comprising a plurality of electrically conducting electrodes connected to a second electric potential different to the potential of the charged particles and set substantially parallel to the direction of the airflow, and - a bag unit comprising the bag shaped filter elements positioned after the charging unit in the path of the air flow, - each bag shaped filter element has at least one designated UV-light source and an element (14, 31) of photo catalytic material like TiO 2, wherein the electrodes inside the bag shaped filter elements are equipped with UV- light sources and are covered with photo catalytic material like TiO 2.
An immunoglobulin conjugate, comprising an immunoglobulin having at least one mutation at residue 20(V L), wherein the at least one mutation is a substitution with a cysteine residue, and an atom or molecule, wherein the atom or molecule is conjugated to the cysteine residue.
An electrical equipment housing element with an integrated gasket comprising a body of the electrical equipment housing element and an integrated gasket, characterized in that: - the gasket is a core-shell gasket having a core formed of thermoplastic elastomer and the shell formed of a thermoplastic polymer having high gas barrier properties, - wherein the body of the electrical equipment housing element and the shell of the gasket are chemically or chemically-mechanically bonded in 2K injection molding process. - the gasket is a core-shell gasket having a core formed of thermoplastic elastomer and the shell formed of a thermoplastic polymer having high gas barrier properties, - wherein the body of the electrical equipment housing element and the shell of the gasket are chemically or chemically-mechanically bonded in 2K injection molding process.
A computer-implemented method for maintaining order among a plurality of threads (402a, 402b, 402c) disposed at one or more processors, each thread executing an instruction sequence, the method comprising the steps of: storing an order group table defining a plurality of order groups, each order group defining a set of threads over which order is to be imposed; assigning, in a particular order, a selected set of threads of the plurality of threads to an order group; treating the first assigned thread as being, at least initially, at a head-of-line, HOL, for the order group; assigning a separate sequence number to each thread of the set, each sequence number indicating the order in which the respective thread was assigned to the order group; storing, for each order group, a modifiable current HOL sequence value in the order group table that specifies which sequence number is currently at the HOL of the order group; modifying the HOL sequence value in the order group table, when the thread currently at the HOL of the order group completes its instruction sequence, so as to indicate the next thread in the particular order; and suspending a given thread of the set from performing at least some of the given thread's instruction sequence until the given thread reaches the HOL of the order group as indicated by the thread's sequence number matching the modifiable HOL sequence value; the method further comprising issuing, by a given thread, a request to change the order group of the thread; and switching the given thread from a first order group to a second order group in response to the request. storing an order group table defining a plurality of order groups, each order group defining a set of threads over which order is to be imposed; assigning, in a particular order, a selected set of threads of the plurality of threads to an order group; treating the first assigned thread as being, at least initially, at a head-of-line, HOL, for the order group; assigning a separate sequence number to each thread of the set, each sequence number indicating the order in which the respective thread was assigned to the order group; storing, for each order group, a modifiable current HOL sequence value in the order group table that specifies which sequence number is currently at the HOL of the order group; modifying the HOL sequence value in the order group table, when the thread currently at the HOL of the order group completes its instruction sequence, so as to indicate the next thread in the particular order; and suspending a given thread of the set from performing at least some of the given thread's instruction sequence until the given thread reaches the HOL of the order group as indicated by the thread's sequence number matching the modifiable HOL sequence value; the method further comprising issuing, by a given thread, a request to change the order group of the thread; and switching the given thread from a first order group to a second order group in response to the request.
A set of oligonucleotides comprising - a first oligonucleotide having 40 or fewer nucleotides comprising a sequence selected from the group consisting of SEQ ID NOs: 2 and 17-20, or a complement thereof; and - a second oligonucleotide having 40 or fewer nucleotides comprising a sequence selected from the group consisting SEQ ID NOs: 3, 6 and 25-26, or a complement thereof; or - a first oligonucleotide having 40 or fewer nucleotides comprising a sequence selected from the group consisting of SEQ ID NOs: 8, 12 and 14-16, or a complement thereof; and - a second oligonucleotide having 40 or fewer nucleotides comprising a sequence selected from the group consisting SEQ ID NOs: 9 and 21-24, or a complement thereof. - a first oligonucleotide having 40 or fewer nucleotides comprising a sequence selected from the group consisting of SEQ ID NOs: 2 and 17-20, or a complement thereof; and - a second oligonucleotide having 40 or fewer nucleotides comprising a sequence selected from the group consisting SEQ ID NOs: 3, 6 and 25-26, or a complement thereof; - a first oligonucleotide having 40 or fewer nucleotides comprising a sequence selected from the group consisting of SEQ ID NOs: 8, 12 and 14-16, or a complement thereof; and - a second oligonucleotide having 40 or fewer nucleotides comprising a sequence selected from the group consisting SEQ ID NOs: 9 and 21-24, or a complement thereof.
A method for detecting possibilities for improving the operator control of a vehicle, said method comprising the steps of: receiving an indication of the operator control possibilities of the vehicle; recording operator control actions which are performed at the vehicle; determining the effect desired by the operator for each operator control action or groups of recorded operator control actions; characterised by identifying a recorded operator control action or a group of recorded operator control actions of which the desired effect can be achieved in an improved way with use of the operator control possibilities of the vehicle by means of another operator control action or a group of other operator control actions; outputting an indication of the one other operator control action or of the group of other operator control actions. receiving an indication of the operator control possibilities of the vehicle; recording operator control actions which are performed at the vehicle; determining the effect desired by the operator for each operator control action or groups of recorded operator control actions; characterised by identifying a recorded operator control action or a group of recorded operator control actions of which the desired effect can be achieved in an improved way with use of the operator control possibilities of the vehicle by means of another operator control action or a group of other operator control actions; outputting an indication of the one other operator control action or of the group of other operator control actions.
Pump device for operating vacuum drainage systems and for pumping waste water, in particular on watercraft, comprising a drive device having a drive shaft which comprises a first shaft end and a second shaft end and can be rotated by means of the drive device, a centrifugal pump having at least one impeller which is connected in a torque-proof manner to the drive shaft in the region of the first shaft end, and a vacuum pump having at least one rotor which is connected in a torque-proof manner to the drive shaft in the region of the second shaft end, characterised in that a cutting device is provided having at least one rotatable cutting means that is connected in a torque-proof manner to the drive shaft in the region of the first shaft end upstream of the impeller and in that the vacuum pump is provided on its suction side with a condensate separator which prevents suctioned water droplets or condensate from the suction line and an upstream buffer storage from getting into the vacuum pump.
A wound dressing material comprising a particle comprising a crosslinked gelatin derivative, the gelatin derivative comprising the structure represented by the following formula: GltnNH-CHR 1 R 2 wherein "Gltn" represents a gelatin residue, R 1 represents an alkyl group having 1-17 carbon atoms, and R 2 represents a hydrogen atom or an alkyl group having 1-17 carbon atoms, and the particle having a particle size ranging from 1 to 1,000 μm, wherein the wound dressing material is obtainable by a method comprising the steps of: preparing the gelatin derivative comprising the structure represented by the aforesaid formula; spray drying a solution of the gelatin derivative to form particles; and heat treating the formed particles by heating at a temperature of from 140 to 160 °C for at least 3 hours. preparing the gelatin derivative comprising the structure represented by the aforesaid formula; spray drying a solution of the gelatin derivative to form particles; and heat treating the formed particles by heating at a temperature of from 140 to 160 °C for at least 3 hours.
A compound semiconductor device, comprising: a first compound semiconductor layer of a first conductivity type; an electron transit layer formed over the first compound semiconductor layer; an electron supply layer formed over the electron transit layer; a gate electrode and a source electrode formed over the electron supply layer; a drain electrode formed below the first compound semiconductor layer; a second compound semiconductor layer of a second conductivity type different from the first conductivity type, formed between the electron transit layer and the first compound semiconductor layer; a control unit configured to control an electric potential of the second compound semiconductor layer; and a current confinement layer comprising an opening and formed between the electron transit layer and the drain electrode, characterized in that the device is configured such that a current which flows through the opening flows through the second compound semiconductor layer. a first compound semiconductor layer of a first conductivity type; an electron transit layer formed over the first compound semiconductor layer; an electron supply layer formed over the electron transit layer; a gate electrode and a source electrode formed over the electron supply layer; a drain electrode formed below the first compound semiconductor layer; a second compound semiconductor layer of a second conductivity type different from the first conductivity type, formed between the electron transit layer and the first compound semiconductor layer; a control unit configured to control an electric potential of the second compound semiconductor layer; and a current confinement layer comprising an opening and formed between the electron transit layer and the drain electrode, characterized in that the device is configured such that a current which flows through the opening flows through the second compound semiconductor layer.
A process for preparing a compound of Formula comprising the steps of a) contacting a compound of Formula with a base and a first solvent to obtain a solution wherein the molar ratio of base to compound of Formula is at least 0.7; b) addition of hydrazine to obtain a compound of Formula c) optionally adding a second solvent and/or partially removing the first solvent; and d) heating the reaction mixture to a temperature above 190° C to obtain the compound of Formula, wherein step (b) and (c) are optionally performed concurrently; and wherein R 1 -R 7 are hydrogen, R 8 and R 9 are independently hydrogen or C 1 -C 8 alkyl; and X is a counter acid; and wherein the first solvent and the second solvent is triethylene glycol. a) contacting a compound of Formula with a base and a first solvent to obtain a solution wherein the molar ratio of base to compound of Formula is at least 0.7; b) addition of hydrazine to obtain a compound of Formula c) optionally adding a second solvent and/or partially removing the first solvent; and d) heating the reaction mixture to a temperature above 190° C to obtain the compound of Formula, wherein step (b) and (c) are optionally performed concurrently; and wherein
Hydrometallurgical method for recovering zinc in sulphuric media from sulphidic zinc concentrates with high iron content, wherein the zinc concentrate is subjected to the following stages (a) Roasting of at least part of the zinc concentrate; (b) Neutral leaching where zinc oxide is dissolved; (c) Acid leaching where zinc ferrites are leached by means of sulphuric acid in the form of spent electrolyte and concentrated sulphuric acid, generating a resulting solution rich in zinc and iron that contains between 10 and 35 g/l of Fe +++ and between 10 and 70 g/l of sulphuric acidity, and a residue wherein lead, silver and gold contained in the concentrates are concentrated; (d) Reducing the Fe +++ contained in the solution resulting from stage (c) to Fe ++ by adding zinc concentrate; (e) Neutralizing the acidity of the solution resulting from stage (d) with calcine and generating a final solution with a pH between 3.8 and 5.2; (f) Iron oxidation and jarosite precipitation from the solution resulting from stage (e), free of contaminating solids, by injecting oxygen or oxygen-enriched air and adding an alkali or a Na + o NH 4 + salt,; wherein all stages except stage (a), take place at atmospheric pressure; characterized in that the method comprises obtaining a final Fe ++ concentration in stage (f) that allows working with a final acidity between pH 1.5 and 10 g/l without using any neutralizing agent other than the products necessary for the reactions characteristic of stage (f) to take place, by at least one of diluting the solution to which zinc concentrate has been added in stage (d) with a zinc sulphate solution obtained during stage (f); diluting the solution which has been neutralized in stage (e) with a zinc sulphate solution obtained during stage (f); in stage (f), in addition to iron oxidation and jarosite precipitation from the solution resulting from stage (e), diluting it with a zinc sulphate solution obtained during stage (b); in stage (f), in addition to iron oxidation and jarosite precipitation from the solution resulting from stage (f), diluting it with a zinc sulphate solution resulting from stage (f). (a) Roasting of at least part of the zinc concentrate; (b) Neutral leaching where zinc oxide is dissolved; (c) Acid leaching where zinc ferrites are leached by means of sulphuric acid in the form of spent electrolyte and concentrated sulphuric acid, generating a resulting solution rich in zinc and iron that contains between 10 and 35 g/l of Fe +++ and between 10 and 70 g/l of sulphuric acidity, and a residue wherein lead, silver and gold contained in the concentrates are concentrated; (d) Reducing the Fe +++ contained in the solution resulting from stage (c) to Fe ++ by adding zinc concentrate; (e) Neutralizing the acidity of the solution resulting from stage (d) with calcine and generating a final solution with a pH between 3.8 and 5.2; (f) Iron oxidation and jarosite precipitation from the solution resulting from stage (e), free of contaminating solids, by injecting oxygen or oxygen-enriched air and adding an alkali or a Na + o NH 4 + salt,;
An actuator comprising: a conductive polymer layer; an ambient temperature molten salt fayer; and an opposite electrode layer; characterized in that the ambient temperature molten salt layer is interposed between the conductive polymer layer and the opposite electrode layer, the ambient temperature molten salt layer comprises an adhesive layer in the inside thereof; one surface of the adhesive layer adheres to the conductive polymer layer; and the other surface of the adhesive layer adheres to the opposite electrode layer. a conductive polymer layer; an ambient temperature molten salt fayer; and an opposite electrode layer; characterized in that the ambient temperature molten salt layer is interposed between the conductive polymer layer and the opposite electrode layer, the ambient temperature molten salt layer comprises an adhesive layer in the inside thereof; one surface of the adhesive layer adheres to the conductive polymer layer; and the other surface of the adhesive layer adheres to the opposite electrode layer.