mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: one or more processors ; and memory storing instructions that, when executed by the one or more processors, cause the system to: execute a client-side data analysis artifact, the client-side data analysis artifact being executed in a client-side application, the client-side data analysis artifact being self-contained and comprising a local, embedded database compiled locally in the client-side application by importing data in low-level byte code and a user interface application for performing data analysis on the local, embedded database and rendering a result of the data analysis in the local, embedded database; receive a data analysis query; process the data analysis query on the imported data by applying the query to the local, embedded database accessible by the client-side data analysis artifact through the client-side application; store a result of the data analysis query in the local embedded database; capture a state of the local embedded database; and export the captured state of local embedded database. one or more processors ; and memory storing instructions that, when executed by the one or more processors, cause the system to: execute a client-side data analysis artifact, the client-side data analysis artifact being executed in a client-side application, the client-side data analysis artifact being self-contained and comprising a local, embedded database compiled locally in the client-side application by importing data in low-level byte code and a user interface application for performing data analysis on the local, embedded database and rendering a result of the data analysis in the local, embedded database; receive a data analysis query; process the data analysis query on the imported data by applying the query to the local, embedded database accessible by the client-side data analysis artifact through the client-side application; store a result of the data analysis query in the local embedded database; capture a state of the local embedded database; and export the captured state of local embedded database. execute a client-side data analysis artifact, the client-side data analysis artifact being executed in a client-side application, the client-side data analysis artifact being self-contained and comprising a local, embedded database compiled locally in the client-side application by importing data in low-level byte code and a user interface application for performing data analysis on the local, embedded database and rendering a result of the data analysis in the local, embedded database; receive a data analysis query; process the data analysis query on the imported data by applying the query to the local, embedded database accessible by the client-side data analysis artifact through the client-side application; store a result of the data analysis query in the local embedded database; capture a state of the local embedded database; and export the captured state of local embedded database.
Electrical brush handpiece, in particular toothbrush handpiece, comprising at least one interface for a coupling with a plug-on brush , comprising at least one frame unit and comprising at least one drive unit , which is accommodated in the frame unit , for driving the interface , the drive unit comprising at least one rotor and at least one reset element (22a; 22b) that is coupled with the rotor with a first end in a rotationally fixed manner and is fixated on the frame unit with a second end in a rotationally fixed manner, wherein the at least one reset element (22a; 22b) is implemented so as to be plate-shaped, characterised in that the at least one reset element (22a; 22b) comprises at least one abutment element (24a; 24b), which is configured to adjoin an abutment of the frame unit in at least one first abutment position of the rotor .
A stimulator device, comprising: a plurality of electrode nodes, each electrode node configured to be coupled to one of a plurality of electrodes configured to contact a patient's tissue; and stimulation circuitry configured to provide in a single timing channel a sequence of pulses at at least two of the electrode nodes selected to create a stimulation current through the patient's tissue, wherein the stimulation circuitry is configured to form each pulse at the selected electrode nodes with a first phase and a second phase, wherein the first phase at each selected electrode node comprises a plurality of first monophasic sub-phase pulses of a first polarity and separated by gaps during which no current is issued to the tissue, wherein the second phase at each selected electrode node comprises a plurality of second monophasic sub-phase pulses of a second polarity opposite the first polarity and separated by gaps during which no current is issued to the tissue, and wherein at each selected electrode node a first total charge of the plurality of first monophasic sub-phase pulses is equal but opposite a second total charge of the plurality of second monophasic sub-phase pulses, wherein each of the first monophasic sub-phase pulses has the same constant current amplitude, and wherein each of the second monophasic sub-phase pulses has the same constant current amplitude. a plurality of electrode nodes, each electrode node configured to be coupled to one of a plurality of electrodes configured to contact a patient's tissue; and stimulation circuitry configured to provide in a single timing channel a sequence of pulses at at least two of the electrode nodes selected to create a stimulation current through the patient's tissue, wherein the stimulation circuitry is configured to form each pulse at the selected electrode nodes with a first phase and a second phase, wherein the first phase at each selected electrode node comprises a plurality of first monophasic sub-phase pulses of a first polarity and separated by gaps during which no current is issued to the tissue, wherein the second phase at each selected electrode node comprises a plurality of second monophasic sub-phase pulses of a second polarity opposite the first polarity and separated by gaps during which no current is issued to the tissue, and wherein at each selected electrode node a first total charge of the plurality of first monophasic sub-phase pulses is equal but opposite a second total charge of the plurality of second monophasic sub-phase pulses, wherein each of the first monophasic sub-phase pulses has the same constant current amplitude, and wherein each of the second monophasic sub-phase pulses has the same constant current amplitude.
A Full Authority Digital Engine Control (FADEC) system that includes a digital pressure sensor and a dual channel electronic engine control unit for a gas turbine engine, comprising: a division function configured to divide a measured pressure rate of change of each of a FADEC channel A and a FADEC channel B {P dot} by an average pressure of said FADEC channel A and said FADEC channel B to obtain a resultant value from each of said FADEC channel A and said FADEC channel B, wherein each of said FADEC channel A and said FADEC channel B is in communication with a section of a gas turbine engine, when in use; said measured pressure rate of change is measured by said digital pressure sensor on each of said FADEC channel A and said FADEC channel B; a first comparator function configured to bound a proper high resultant value from said division function for each of said FADEC channel A and said FADEC channel B; a second comparator function configured to bound a proper low resultant value from said division function for each of said FADEC channel A and said FADEC channel B; and an OR gate in communication with said first comparator and said second comparator for each of said FADEC channel A and said FADEC channel B; and wherein the electronic engine control unit is configured if either comparator function is true for either of said FADEC channel A and said FADEC channel B, to filter out that FADEC channel for a time period so as to avoid triggering a surge recovery sequence. a division function configured to divide a measured pressure rate of change of each of a FADEC channel A and a FADEC channel B {P dot} by an average pressure of said FADEC channel A and said FADEC channel B to obtain a resultant value from each of said FADEC channel A and said FADEC channel B, wherein each of said FADEC channel A and said FADEC channel B is in communication with a section of a gas turbine engine, when in use; said measured pressure rate of change is measured by said digital pressure sensor on each of said FADEC channel A and said FADEC channel B; a first comparator function configured to bound a proper high resultant value from said division function for each of said FADEC channel A and said FADEC channel B; a second comparator function configured to bound a proper low resultant value from said division function for each of said FADEC channel A and said FADEC channel B; and an OR gate in communication with said first comparator and said second comparator for each of said FADEC channel A and said FADEC channel B; and wherein the electronic engine control unit is configured if either comparator function is true for either of said FADEC channel A and said FADEC channel B, to filter out that FADEC channel for a time period so as to avoid triggering a surge recovery sequence.
A nanoassembly for inducing apoptosis in cancer cells comprising: - a core comprising at least one nanoparticle of a nanostructured and semiconductor metal oxide, said nanoparticle being monocrystalline or polycrystalline; - a shell formed by a double phospholipid layer, proteins and other molecules, said shell consisting of an extracellular biovesicle derived from cells of the same organism which said cancer cells belong to, said core being enclosed inside said shell ; and - a plurality of targeting molecules (4, 4', 4") of said cancer cells, said molecules (4, 4', 4") being anchored to the external surface of said at least one biovesicle. - a core comprising at least one nanoparticle of a nanostructured and semiconductor metal oxide, said nanoparticle being monocrystalline or polycrystalline; - a shell formed by a double phospholipid layer, proteins and other molecules, said shell consisting of an extracellular biovesicle derived from cells of the same organism which said cancer cells belong to, said core being enclosed inside said shell ; and - a plurality of targeting molecules (4, 4', 4") of said cancer cells, said molecules (4, 4', 4") being anchored to the external surface of said at least one biovesicle.
An electrosurgical generator having connectors for an electrosurgical instrument and comprising a high-voltage generator , which is electrically connected to the connectors and which is designed to produce a high-frequency alternating current in its activated state and output said high-frequency alternating current via the connectors , wherein the electrosurgical generator has an effective power determination unit comprising a phase shift determination unit that is designed to supply an output signal representing a phase shift between the current and the voltage of an alternating current output during operation, wherein the phase shift determination unit is designed to produce a pulsed DC voltage signal , in which the pulse width (B) reflects a time difference between the zero crossings of the current and the voltage - and consequently the phase shift - and to process the pulsed DC voltage signal by means of a low-pass filter to form a low-pass filter output signal, the magnitude of which depends on the pulse width (B) of the pulses of the pulsed DC voltage signal , characterized in that a switch unit is provided which is arranged and designed to ensure that the low-pass filter is only supplied with the pulsed DC voltage if the high-voltage generator is switched on, but not if the high-voltage generator is switched off.
A boost pressure control method for an internal combustion engine provided with a turbo charger including a wastegate valve , the boost pressure control method comprising: setting a target boost pressure(tPR); setting a first setpoint of opening (WGS) of the wastegate valve in accordance with the target boost pressure (tPR); while a difference between the target boost pressure (tPR) and a real boost pressure (rPR) is larger than a predetermined value, controlling the opening (WGS) of the wastegate valve to a second setpoint, wherein the second setpoint is smaller than the first setpoint; while controlling the opening of the wastegate valve to the second setpoint, determining whether or not a condition for limitation is satisfied in which an intake air quantity (Qa) is greater than or equal to an intake air quantity criterion and an engine rotation speed (NE) is greater than or equal to an engine rotation speed criterion; in response to a determination that the condition for limitation is satisfied, controlling the opening (WGS) of the wastegate valve in a direction to increase from the second setpoint; and setting the intake air quantity criterion and the engine rotation speed criterion such that: the engine rotation speed criterion decreases as the intake air quantity (Qa) increases; and the intake air quantity criterion decreases as the engine rotation speed (NE) increases. setting a target boost pressure(tPR); setting a first setpoint of opening (WGS) of the wastegate valve in accordance with the target boost pressure (tPR); while a difference between the target boost pressure (tPR) and a real boost pressure (rPR) is larger than a predetermined value, controlling the opening (WGS) of the wastegate valve to a second setpoint, wherein the second setpoint is smaller than the first setpoint; while controlling the opening of the wastegate valve to the second setpoint, determining whether or not a condition for limitation is satisfied in which an intake air quantity (Qa) is greater than or equal to an intake air quantity criterion and an engine rotation speed (NE) is greater than or equal to an engine rotation speed criterion; in response to a determination that the condition for limitation is satisfied, controlling the opening (WGS) of the wastegate valve in a direction to increase from the second setpoint; and setting the intake air quantity criterion and the engine rotation speed criterion such that: the engine rotation speed criterion decreases as the intake air quantity (Qa) increases; and the intake air quantity criterion decreases as the engine rotation speed (NE) increases. the engine rotation speed criterion decreases as the intake air quantity (Qa) increases; and the intake air quantity criterion decreases as the engine rotation speed (NE) increases.
A method of manufacturing a reverse osmosis membrane, the method comprising: forming an aqueous solution layer containing a multifunctional aromatic amine compound on a porous support; forming a polyamide active layer by bringing an organic solution containing an acyl halide compound to contact an upper portion of the aqueous solution layer; and allowing an organic solution containing a multifunctional aromatic amine compound to contact an upper portion of the polyamide active layer, wherein the organic solution containing the multifunctional aromatic amine compound comprises an alcohol solvent, the alcohol concentration is 50 weight% or more, and the organic solution containing the multifunctional aromatic amine compound comprises 1 to 30 weight% of a multifunctional aromatic amine compound. forming an aqueous solution layer containing a multifunctional aromatic amine compound on a porous support; forming a polyamide active layer by bringing an organic solution containing an acyl halide compound to contact an upper portion of the aqueous solution layer; and allowing an organic solution containing a multifunctional aromatic amine compound to contact an upper portion of the polyamide active layer, wherein the organic solution containing the multifunctional aromatic amine compound comprises an alcohol solvent, the alcohol concentration is 50 weight% or more, and the organic solution containing the multifunctional aromatic amine compound comprises 1 to 30 weight% of a multifunctional aromatic amine compound.
A method for recycling textiles comprising cellulose, said method comprising the sequential steps: a. providing at least one textile material comprising cellulose, b. treating the material to swell the cellulose, under reducing conditions, wherein at least one reducing agent is present at least during a part of the swelling, wherein the pH during step b) is in the range 9-13.3, c. performing at least one of the following two bleaching steps in any order i. bleaching the material with oxygen at alkaline conditions with a pH in the range 9-13.5, and ii. bleaching the material with ozone at acid conditions below pH 6, and d. recovering the material and using the material in a process for the manufacture of a new textile. a. providing at least one textile material comprising cellulose, b. treating the material to swell the cellulose, under reducing conditions, wherein at least one reducing agent is present at least during a part of the swelling, wherein the pH during step b) is in the range 9-13.3, c. performing at least one of the following two bleaching steps in any order i. bleaching the material with oxygen at alkaline conditions with a pH in the range 9-13.5, and ii. bleaching the material with ozone at acid conditions below pH 6, and i. bleaching the material with oxygen at alkaline conditions with a pH in the range 9-13.5, and ii. bleaching the material with ozone at acid conditions below pH 6, and d. recovering the material and using the material in a process for the manufacture of a new textile.
A method of controlling power production of a wind power plant (WPP, 200) comprising a plurality of wind turbine generators (WTG, 100, 100-n), the method comprising: defining, based on received wind information , a wind wake zone comprising a group of first wind turbine generators of the plurality of wind turbine generators; and increasing a reactive power production of at least one of the first wind turbine generators of the wind wake zone, wherein a reactive power production is increased for at least two of the one or more first wind turbine generators, wherein an amount of reactive power increase of the at least two of the one or more first wind turbine generators is based on relative active power ratings of the at least two of the one or more first wind turbine generators, so that at least two of the one or more first wind turbine generators disposed within the wind wake zone are controlled to provide a relatively greater reactive power than wind turbine generators outside the wind wake zone . defining, based on received wind information , a wind wake zone comprising a group of first wind turbine generators of the plurality of wind turbine generators; and increasing a reactive power production of at least one of the first wind turbine generators of the wind wake zone, wherein a reactive power production is increased for at least two of the one or more first wind turbine generators, wherein an amount of reactive power increase of the at least two of the one or more first wind turbine generators is based on relative active power ratings of the at least two of the one or more first wind turbine generators, so that at least two of the one or more first wind turbine generators disposed within the wind wake zone are controlled to provide a relatively greater reactive power than wind turbine generators outside the wind wake zone .
A method for determining a sequence of a single-stranded nucleic acid template comprising: (a) hybridizing a sequencing primer to said single-stranded nucleic acid template, wherein said single-stranded target nucleic acid template comprises said sequence; (b) hybridizing an oligonucleotide probe comprising (i) a template-hybridizing nucleic acid sequence and (ii) a template-nonhybridizing nucleic acid structure to said single- stranded nucleic acid template, wherein said template-hybridizing nucleic acid sequence is complementary to said sequence, wherein said template-nonhybridizing nucleic acid structure is attached to said template-hybridizing nucleic acid sequence of said oligonucleotide probe, and wherein said template-nonhybridizing nucleic acid structure comprises a plurality of probe hybridization sites, wherein a probe hybridization site of said plurality of probe hybridization sites corresponds to a single known nucleotide of said template-hybridizing nucleic acid sequence, which single known nucleotide is complementary to a nucleotide of said sequence; (c) ligating said template-hybridizing nucleic acid sequence to said sequencing primer to form an extended hybridized sequence; and (d) identifying individual probe hybridization sites of said plurality of probe hybridization sites to identify a plurality of nucleotides of said template-hybridizing nucleic acid sequence in said extended hybridized sequence, wherein identification of said plurality of nucleotides of said template-hybridizing nucleic acid sequence identifies said sequence of said single- stranded nucleic acid template. (a) hybridizing a sequencing primer to said single-stranded nucleic acid template, wherein said single-stranded target nucleic acid template comprises said sequence; (b) hybridizing an oligonucleotide probe comprising (i) a template-hybridizing nucleic acid sequence and (ii) a template-nonhybridizing nucleic acid structure to said single- stranded nucleic acid template, wherein said template-hybridizing nucleic acid sequence is complementary to said sequence, wherein said template-nonhybridizing nucleic acid structure is attached to said template-hybridizing nucleic acid sequence of said oligonucleotide probe, and wherein said template-nonhybridizing nucleic acid structure comprises a plurality of probe hybridization sites, wherein a probe hybridization site of said plurality of probe hybridization sites corresponds to a single known nucleotide of said template-hybridizing nucleic acid sequence, which single known nucleotide is complementary to a nucleotide of said sequence; (c) ligating said template-hybridizing nucleic acid sequence to said sequencing primer to form an extended hybridized sequence; and (d) identifying individual probe hybridization sites of said plurality of probe hybridization sites to identify a plurality of nucleotides of said template-hybridizing nucleic acid sequence in said extended hybridized sequence, wherein identification of said plurality of nucleotides of said template-hybridizing nucleic acid sequence identifies said sequence of said single- stranded nucleic acid template.