mhurhangee/ep-ind-claims huggingface dataset:
A circuit arrangement (100; 100'), in particular a driver circuit, for controlling at least one light-emitting component, to which a threshold current (I th) is applied, in particular for controlling at least one electro-optical transducer, for example at least one laser, such as at least one semiconductor laser, wherein the circuit arrangement (100; 100') comprises: - at least one supply element, in particular at least one voltage source, for supplying the circuit arrangement (100; 100') with voltage, - at least one current-limiting element being arranged between the supply element and the light-emitting component, and - at least one switching element for controlling the light-emitting component by means of at least one switching controller, - wherein a maximum value (I max) of the current is providable by means of the current-limiting element, and - wherein the logical "1" of data to be transmitted by means of the light-emitting component is given as periodic switching between the zero value (I = 0) of the current and the maximum value (I max) of the current supplied to the light-emitting component, characterized in n - that the switching element is arranged between the current-limiting element and the light-emitting component, and - that the current-limiting element is embodied as at least one transistor connected as current source. - at least one supply element, in particular at least one voltage source, for supplying the circuit arrangement (100; 100') with voltage, - at least one current-limiting element being arranged between the supply element and the light-emitting component, and - at least one switching element for controlling the light-emitting component by means of at least one switching controller, - wherein a maximum value (I max) of the current is providable by means of the current-limiting element, and - wherein the logical "1" of data to be transmitted by means of the light-emitting component is given as periodic switching between the zero value (I = 0) of the current and the maximum value (I max) of the current supplied to the light-emitting component, - that the switching element is arranged between the current-limiting element and the light-emitting component, and - that the current-limiting element is embodied as at least one transistor connected as current source.
An iRNA agent comprising a compound having the structure shown in formula (I'): wherein: A and B are each independently for each occurrence O, N(R N) or S; X and Y are each independently for each occurrence H, a phosphate group, a phosphodiester group, a phosphoramidite, a solid support, -P(Z')(Z")O-nucleoside, -P(Z')(Z")O-oligonucleotide, a lipid, a PEG, a steroid, a polymer, a nucleotide, a nucleoside, -P(Z')(Z")O-R 1 -Q'-R 2 -OP(Z′′′)(Zʺʺ)O-oligonucleotide, or an oligonucleotide or -Q-R; R is Q and Q' are independently for each occurrence absent, -(P 7 -Q 7 -R 7) p -T 7 - or -T 7 -Q 7 -T 7' -B 6 -T 8' -Q 8 -T 8; P 7, T 7, T 7', T 8 and T 8' are each independently for each occurrence absent, CO, NH, O, S, OC, NHC, CH 2, CH 2 NH or CH 2 O; B 6 is -CH 2 -N(B L)-CH 2 -; B L is -T B -Q B -T B' -R X; Q 7, Q 8 and Q B are independently for each occurrence absent or alkylene; T B and T B' are each independently for each occurrence absent, CO, NH, O, S, OC, OC O, NHC, NHC NH, NHC O, CH 2, CH 2 NH or CH 2 O; R x is a lipophile, or a cationic lipid; R 1, R 2, R 7 are each independently for each occurrence absent, NH, O, S, CH 2, C O, C NH, NHCH(R a)C, -C -CH(R a)-NH-, CO, CH=N-O, or heterocyclyl; R' and R" are each independently H, C 1 -C 6 alkyl, OH, SH or N(R N) 2; R N is independently for each occurrence methyl, ethyl, propyl, isopropyl, butyl or benzyl; R a is H or amino acid side chain; Z', Z", Z′′′ and Zʺʺ are each independently for each occurrence O or S; and p represents independently for each occurrence 0-20. A and B are each independently for each occurrence O, N(R N) or S; X and Y are each independently for each occurrence H, a phosphate group, a phosphodiester group, a phosphoramidite, a solid support, -P(Z')(Z")O-nucleoside, -P(Z')(Z")O-oligonucleotide, a lipid, a PEG, a steroid, a polymer, a nucleotide, a nucleoside, -P(Z')(Z")O-R 1 -Q'-R 2 -OP(Z′′′)(Zʺʺ)O-oligonucleotide, or an oligonucleotide or -Q-R; R is Q and Q' are independently for each occurrence absent, -(P 7 -Q 7 -R 7) p -T 7 - or -T 7 -Q 7 -T 7' -B 6 -T 8' -Q 8 -T 8; P 7, T 7, T 7', T 8 and T 8' are each independently for each occurrence absent, CO, NH, O, S, OC, NHC, CH 2, CH 2 NH or CH 2 O; B 6 is -CH 2 -N(B L)-CH 2 -; B L is -T B -Q B -T B' -R X; Q 7, Q 8 and Q B are independently for each occurrence absent or alkylene; T B and T B' are each independently for each occurrence absent, CO, NH, O, S, OC, OC O, NHC, NHC NH, NHC O, CH 2, CH 2 NH or CH 2 O; R x is a lipophile, or a cationic lipid; R 1, R 2, R 7 are each independently for each occurrence absent, NH, O, S, CH 2, C O, C NH, NHCH(R a)C, -C -CH(R a)-NH-, CO, CH=N-O, or heterocyclyl; R' and R" are each independently H, C 1 -C 6 alkyl, OH, SH or N(R N) 2; R N is independently for each occurrence methyl, ethyl, propyl, isopropyl, butyl or benzyl; R a is H or amino acid side chain; Z', Z", Z′′′ and Zʺʺ are each independently for each occurrence O or S; and p represents independently for each occurrence 0-20.
A computer-implemented method for controlling movement of a cursor in a portable electronic device, the method comprising: displaying a text entry area on a display of the portable electronic device; detecting that a first key of the portable electronic device is being touched and held, the first key of the portable electronic device located at a first location of the portable electronic device; detecting a key tapping action associated with a second key of the portable electronic device while the first key of the portable electronic device is being touched and held, the second key of the portable electronic device located at a second location of the portable electronic device; determining a cursor direction based on the first location and the second location; and moving a position of the cursor within the text entry area in the cursor direction for one or more spaces based on a number of taps associated with the second key. displaying a text entry area on a display of the portable electronic device; detecting that a first key of the portable electronic device is being touched and held, the first key of the portable electronic device located at a first location of the portable electronic device; detecting a key tapping action associated with a second key of the portable electronic device while the first key of the portable electronic device is being touched and held, the second key of the portable electronic device located at a second location of the portable electronic device; determining a cursor direction based on the first location and the second location; and moving a position of the cursor within the text entry area in the cursor direction for one or more spaces based on a number of taps associated with the second key.
A control system for switching an output destination of content reproduced by a mobile device when the mobile device is within proximity, or passes within proximity, of a second device, the control system comprising an NFC reader/writer configured to receive from the second device address information for wireless communication with the second device when the mobile device is within proximity, or passes within proximity, of the second device, and a wireless communication control section configured to, when the address information is received from the second device, disconnect a communication path of wireless communication with a third device and establish a communication path of wireless communication with the second device based on the received address information to transmit the content to the second device for output.
A grating disc arranged to be mounted within a food processor and to be rotated in a direction of rotation, said grating disc comprising at least one grating tooth for grating food to be processed, said grating tooth protruding from a surface of said disc and having an uninterrupted, continuous envelope surface forming an outer contour of said grating tooth, said envelope surface having a gradient which spatial derivative does not change sign, wherein said envelope surface comprises: a front surface (30; 330) which front surface is, during use, the leading surface of said grating tooth, said front surface (30,330) extending from said disc surface to a distal end of said grating tooth, and is adapted to be brought into contact with said food during use of said food processor, wherein said front surface (30; 330) is delimited in one direction by said disc surface, and in at least one other direction by at least one grating edge, and said front surface (30; 330) and the disc surface are at an angle (γ) of 90-100 degrees; and a rear surface (33; 333) located downstream said front surface (30; 330) with respect to a direction of rotation of said disc, said rear surface (33, 333) meeting said disc surface at an angle (β) of 120-135 degrees. a front surface (30; 330) which front surface is, during use, the leading surface of said grating tooth, said front surface (30,330) extending from said disc surface to a distal end of said grating tooth, and is adapted to be brought into contact with said food during use of said food processor, wherein said front surface (30; 330) is delimited in one direction by said disc surface, and in at least one other direction by at least one grating edge, and said front surface (30; 330) and the disc surface are at an angle (γ) of 90-100 degrees; and a rear surface (33; 333) located downstream said front surface (30; 330) with respect to a direction of rotation of said disc, said rear surface (33, 333) meeting said disc surface at an angle (β) of 120-135 degrees.
A system to manufacture a tire, the system comprising: one or more processors and a memory, the memory configured to store instructions that are executable by the one or more processors and cause the one or more processors to: receive, from one or more sensors of one or more pieces of tire manufacturing equipment in a tire manufacturing plant, one or more values corresponding to manufacture of a tire by the one or more pieces of tire manufacturing equipment; determine one or more metrics based on the one or more values; generate a matrix based on the one or more values and the one or more metrics; predict, via input of the matrix into a machine learning model constructed to output tire manufacturing performance data, a value for a splice tolerance metric for the tire; determine, based on the value for the splice tolerance metric, a parameter of at least one piece of equipment in the tire manufacturing plant to adjust; and provide a command to adjust the at least one piece of equipment in the tire manufacturing plant responsive to the value of the splice tolerance metric. receive, from one or more sensors of one or more pieces of tire manufacturing equipment in a tire manufacturing plant, one or more values corresponding to manufacture of a tire by the one or more pieces of tire manufacturing equipment; determine one or more metrics based on the one or more values; generate a matrix based on the one or more values and the one or more metrics; predict, via input of the matrix into a machine learning model constructed to output tire manufacturing performance data, a value for a splice tolerance metric for the tire; determine, based on the value for the splice tolerance metric, a parameter of at least one piece of equipment in the tire manufacturing plant to adjust; and provide a command to adjust the at least one piece of equipment in the tire manufacturing plant responsive to the value of the splice tolerance metric.
A method of protein analysis in a urine sample, including preparation of the urine sample and protein detection, characterized in that the step of preparation of the urine sample for analysis includes mixing the sample without centrifugation, and protein detection is performed for whole urine, wherein the proteins are IgG antibodies and complement component C3 and analysis comprises monitoring changes in IgG antibody and complement component C3 levels, in whole urine collected from a patient after kidney transplantation procedure, wherein an increase in IgG antibody and complement component C3 levels, in time indicates a risk of transplant rejection, and decrease in IgG antibody and complement component C3 levels in time indicates a probable transplant acceptance; and wherein the urine sample after collection is stored in a glass container and SDS is added to the urine sample before analysis to a concentration of around 1% (v/v); and wherein the analysis is performed in an ex vivo diagnosis of the immunological kidney transplant rejection, wherein protein detection is performed with a Western blot technique. and wherein the urine sample after collection is stored in a glass container and SDS is added to the urine sample before analysis to a concentration of around 1% (v/v); and wherein the analysis is performed in an ex vivo diagnosis of the immunological kidney transplant rejection, wherein protein detection is performed with a Western blot technique.
A vacuum pump, in particular a turbomolecular pump, comprising a rotor which is rotatably supported in the vacuum pump and which has a part at which a plurality of rotor blades are arranged; and a stator which is arranged axially offset from the part of the rotor having the rotor blades in a housing of the vacuum pump and which has at least one stator blade, wherein a spacer element is arranged between the part having the rotor blades and the stator and is configured to hold the at least one stator blade at a spacing from the rotor on a bending of the stator, with the spacer element being formed at the part having the rotor blades, characterized in that the spacer element is configured as a ring, with the rotor having a cut-out between the ring and an axis of rotation of the rotor. a rotor which is rotatably supported in the vacuum pump and which has a part at which a plurality of rotor blades are arranged; and a stator which is arranged axially offset from the part of the rotor having the rotor blades in a housing of the vacuum pump and which has at least one stator blade, wherein a spacer element is arranged between the part having the rotor blades and the stator and is configured to hold the at least one stator blade at a spacing from the rotor on a bending of the stator, with the spacer element being formed at the part having the rotor blades,
A catheter system comprising: a plurality of mapping electrodes disposed in or near an anatomical structure configured to detect activation signals of physiological activity, each of the plurality of mapping electrodes having an electrode location; a processing system associated with the plurality of mapping electrodes, the processing system configured to record the detected activation signals and associate one of the plurality of mapping electrodes with each recorded activation signal, the processing system further configured to determine a dominant frequency of each recorded activation signal at each electrode location, characterized in that the processing system is further configured to determine a plurality of difference vectors at each electrode location, wherein a difference vector of the plurality of difference vectors for a respective electrode location represents a difference between the dominant frequency of a recorded activation signal at the respective electrode location and the dominant frequency of a recorded activation signal at a neighboring electrode location, and determine a wavefront vector at each electrode location based on the plurality of difference vectors, wherein the processing system is configured to determine a wavefront vector at each electrode location by calculating the sum of the plurality of difference vectors. a plurality of mapping electrodes disposed in or near an anatomical structure configured to detect activation signals of physiological activity, each of the plurality of mapping electrodes having an electrode location; a processing system associated with the plurality of mapping electrodes, the processing system configured to record the detected activation signals and associate one of the plurality of mapping electrodes with each recorded activation signal, the processing system further configured to determine a dominant frequency of each recorded activation signal at each electrode location, characterized in that the processing system is further configured to determine a plurality of difference vectors at each electrode location, wherein a difference vector of the plurality of difference vectors for a respective electrode location represents a difference between the dominant frequency of a recorded activation signal at the respective electrode location and the dominant frequency of a recorded activation signal at a neighboring electrode location, and determine a wavefront vector at each electrode location based on the plurality of difference vectors, wherein the processing system is configured to determine a wavefront vector at each electrode location by calculating the sum of the plurality of difference vectors.
A washing machine, comprising: a water inlet, a detergent container and a tub, a first water inflowing water passage defining a main inflow waterway, which set between the water inlet and the tub, a dosing container, which communicates with the detergent container and is arranged between a rinse waterway and the tub, a venturi tube, by which a negative pressure is generated during passing of a water stream and which is arranged in the main inflow waterway, a branch pipe, which communicates with the dosing container and is arranged at the rear side of the outlet of the venturi tube, a main inlet valve arranged between the main inflow waterway and the water inlet, characterized in that a second water inflowing water passage defining said rinse waterway is set between the water inlet and the tub, a rinse water valve is arranged between the rinse waterway and the water inlet, and a control valve is arranged at a connection between the dosing container and the branch pipe wherein the washing machine is configured to be controlled via said valves (6, 7, 11) such that detergent in the detergent container is pumped into the dosing container by the negative pressure generated during feeding of water from the main inflow waterway into the tub, and wherein said detergent in the dosing container is then diluted and rushed into the tub by the inflowing water from the rinse waterway to the dosing container 8. a water inlet, a detergent container and a tub, a first water inflowing water passage defining a main inflow waterway, which set between the water inlet and the tub, a dosing container, which communicates with the detergent container and is arranged between a rinse waterway and the tub, a venturi tube, by which a negative pressure is generated during passing of a water stream and which is arranged in the main inflow waterway, a branch pipe, which communicates with the dosing container and is arranged at the rear side of the outlet of the venturi tube, a main inlet valve arranged between the main inflow waterway and the water inlet, characterized in that a second water inflowing water passage defining said rinse waterway is set between the water inlet and the tub, a rinse water valve is arranged between the rinse waterway and the water inlet, and a control valve is arranged at a connection between the dosing container and the branch pipe wherein the washing machine is configured to be controlled via said valves (6, 7, 11) such that detergent in the detergent container is pumped into the dosing container by the negative pressure generated during feeding of water from the main inflow waterway into the tub, and wherein said detergent in the dosing container is then diluted and rushed into the tub by the inflowing water from the rinse waterway to the dosing container 8.
A tape for controlling crawling pests, comprising on the first side a carrier layer, comprising a multitude of vertically extending structures, and on the opposite side means for attaching the tape to a surface, wherein at least the first side is impregnated with with a composition comprising A) 0.1 to 45% by weight (based on the total of A plus B) of one or more insecticides and B) 99.9 to 55% by weight (based on the total of A plus B) of an (meth)acrylate binder comprising one or more homo- or copolymer, comprising units derived from one or more acrylates and/or methacrylates. A) 0.1 to 45% by weight (based on the total of A plus B) of one or more insecticides and B) 99.9 to 55% by weight (based on the total of A plus B) of an (meth)acrylate binder comprising one or more homo- or copolymer, comprising units derived from one or more acrylates and/or methacrylates.
A method of forming a disposable product comprising: forming an absorbent core; capturing the absorbent core between a topsheet and a backsheet to form a core insert; supplying a chassis web; printing an image on said chassis web; coupling a stretch film to said chassis web over said image; coupling intermittently a side panel material to said chassis web over said stretch material; bonding said side panel to said chassis web; removing a portion of said stretch film overlying said image from said chassis web; coupling said core insert with said chassis web. forming an absorbent core; capturing the absorbent core between a topsheet and a backsheet to form a core insert; supplying a chassis web; printing an image on said chassis web; coupling a stretch film to said chassis web over said image; coupling intermittently a side panel material to said chassis web over said stretch material; bonding said side panel to said chassis web; removing a portion of said stretch film overlying said image from said chassis web; coupling said core insert with said chassis web.
A method of evaluating the respiratory health of a patient comprising: receiving at least one biological signal, having respiratory and cardiac components and a waveform curve in the time domain, from a sensor in operative communication with a patient; using at least one processor, processing the biological signal and computing a waveform curve that is reflective of the respiration rate of the patient; characterized in that the method comprises determining the correlation between the biological signal waveform curve and respiration rate waveform curve and determining a respective correlation coefficient; performing a frequency analysis on the biological signal and determining a respiration metric reflective of the ratio of spectral components associated with the respiratory component of the biological signal in relation to the total spectral components for the biological signal; and combining the correlation coefficient and the respiration metric and forming a respiratory stress metric for displaying to a user. receiving at least one biological signal, having respiratory and cardiac components and a waveform curve in the time domain, from a sensor in operative communication with a patient; using at least one processor, processing the biological signal and computing a waveform curve that is reflective of the respiration rate of the patient; characterized in that the method comprises determining the correlation between the biological signal waveform curve and respiration rate waveform curve and determining a respective correlation coefficient; performing a frequency analysis on the biological signal and determining a respiration metric reflective of the ratio of spectral components associated with the respiratory component of the biological signal in relation to the total spectral components for the biological signal; and combining the correlation coefficient and the respiration metric and forming a respiratory stress metric for displaying to a user.