mhurhangee/patent-ind-claim-en huggingface dataset:
Method for transporting goods in a building under construction, comprising providing an elevator arrangement (2;20) comprising a hoistway (H) inside the building under construction, and vertically displaced landings (F0,Fn), and an elevator car , which is vertically movable inside the hoistway (H), the hoistway (H) being provided with hoistway openings between landings (F0,Fn) and the hoistway (H), one or more of the hoistway openings being provided with a first door arrangement (5;25), wherein the first door arrangement (5;25) comprises a first sliding hoistway door (6;26) for openably closing the hoistway opening , the opening direction of which first hoistway door (6;26) is vertical; and thereafter transporting vertically goods between landings (F0,Fn) of the building under construction with said elevator car ; and thereafter constructing a second door arrangement in place of one or more of the first door arrangements (5;25), wherein the second door arrangement comprises a second sliding hoistway door for openably closing the hoistway opening , the opening direction of which second sliding hoistway door is horizontal; and thereafter transporting vertically passengers between landings (F0,Fn) of the building with an elevator car vertically movable inside the hoistway (H). providing an elevator arrangement (2;20) comprising a hoistway (H) inside the building under construction, and vertically displaced landings (F0,Fn), and an elevator car , which is vertically movable inside the hoistway (H), the hoistway (H) being provided with hoistway openings between landings (F0,Fn) and the hoistway (H), one or more of the hoistway openings being provided with a first door arrangement (5;25), wherein the first door arrangement (5;25) comprises a first sliding hoistway door (6;26) for openably closing the hoistway opening , the opening direction of which first hoistway door (6;26) is vertical; and thereafter transporting vertically goods between landings (F0,Fn) of the building under construction with said elevator car ; and thereafter constructing a second door arrangement in place of one or more of the first door arrangements (5;25), wherein the second door arrangement comprises a second sliding hoistway door for openably closing the hoistway opening , the opening direction of which second sliding hoistway door is horizontal; and thereafter transporting vertically passengers between landings (F0,Fn) of the building with an elevator car vertically movable inside the hoistway (H).
An exhaust gas treatment system comprising a SCR catalyst composition; and a LNT composition, wherein the LNT composition is in fluid communication with and downstream of the SCR catalyst composition, wherein the SCR catalyst composition is disposed on a first substrate and the LNT composition is disposed on a second substrate, characterized in that the first substrate is close-coupled and the second substrate is under-floor. a SCR catalyst composition; and a LNT composition, wherein the LNT composition is in fluid communication with and downstream of the SCR catalyst composition, wherein the SCR catalyst composition is disposed on a first substrate and the LNT composition is disposed on a second substrate, characterized in that the first substrate is close-coupled and the second substrate is under-floor.
A process for creating transitorily colored hair for a hair extension comprising the steps of: obtaining a hair bundle consisting of a plurality of hair strands having a first color, the hair bundle having a top portion and a tail portion , and each of the hair strands having a top end in the top portion and a bottom end in the tail portion ; and color processing the top portion of the hair bundle to a second color and/or the tail portion of the hair bundle to a second color; characterized in that the hair strands are obtained with varied lengths and that all bottom ends of the hair strands are aligned with each other such that their top ends display the varied lengths of the hair strands to have the hair bundle realigned; that the top portion of the realigned hair bundle is color processed to the second color and/or the tail portion is color processed of the realigned hair bundle to the second color; and that all top ends of the hair strands are aligned with each other such that their bottom ends display the varied lengths of the hair strands, and at least one transitorily colored hair bundle mid-section results. obtaining a hair bundle consisting of a plurality of hair strands having a first color, the hair bundle having a top portion and a tail portion , and each of the hair strands having a top end in the top portion and a bottom end in the tail portion ; and color processing the top portion of the hair bundle to a second color and/or the tail portion of the hair bundle to a second color; characterized in that the hair strands are obtained with varied lengths and that all bottom ends of the hair strands are aligned with each other such that their top ends display the varied lengths of the hair strands to have the hair bundle realigned; that the top portion of the realigned hair bundle is color processed to the second color and/or the tail portion is color processed of the realigned hair bundle to the second color; and that all top ends of the hair strands are aligned with each other such that their bottom ends display the varied lengths of the hair strands, and at least one transitorily colored hair bundle mid-section results.
An image processing method, comprising: identifying (S101) a first object in a first video frame image and a second object located in the first object; in accordance with a position of the first object in the first video frame image, overlaying (S102) a third object as a foreground image on the first video frame image to obtain a second video frame image; wherein the third object overlays the first object in the second video frame image; in accordance with a position of the second object in the first video frame image, overlapping (S103) the second object as a foreground image on the third object of the second video frame image to obtain a third video frame image; characterized by converting color spaces of the second object and the third object in the third video frame image from a RGB color space to a HSV color space; replacing a value of the second object in H channel in the HSV color space with a value of the third object in the H channel; and converting the color spaces of the second object and the third object from the HSV space to the RGB color space to obtain a fourth video frame image. identifying (S101) a first object in a first video frame image and a second object located in the first object; in accordance with a position of the first object in the first video frame image, overlaying (S102) a third object as a foreground image on the first video frame image to obtain a second video frame image; wherein the third object overlays the first object in the second video frame image; in accordance with a position of the second object in the first video frame image, overlapping (S103) the second object as a foreground image on the third object of the second video frame image to obtain a third video frame image; characterized by converting color spaces of the second object and the third object in the third video frame image from a RGB color space to a HSV color space; replacing a value of the second object in H channel in the HSV color space with a value of the third object in the H channel; and converting the color spaces of the second object and the third object from the HSV space to the RGB color space to obtain a fourth video frame image.
A method of determining MMP-8 activation in a sample which method comprises a) providing a previously obtained biological sample from a subject; b) detecting the presence of one or more MMP-8 activation product in the biological sample, wherein the MMP-8 activation product is part of active MMP-8, comprises sequence SEQ ID NO: 1 and/or sequence SEQ ID NO: 2 and have a size between 10-35 kDa, preferably 10-30 kDa, more preferably 10 kDa, 15 kDa, 20 kDa, 25 kDa, 30 kDa or 35 kDa: c) optionally correlating the presence of the MMP-8 activation product with the presence of active MMP-8 in the sample; and/or d) optionally correlating the presence of the MMP-8 activation product with the presence of other larger parts of active MMP-8 in the sample; wherein the presence of the MMP-8 activation product in the biological sample is indicative, confirmative and/or predictive for the presence of active MMP-8 in the sample. a) providing a previously obtained biological sample from a subject; b) detecting the presence of one or more MMP-8 activation product in the biological sample, wherein the MMP-8 activation product is part of active MMP-8, comprises sequence SEQ ID NO: 1 and/or sequence SEQ ID NO: 2 and have a size between 10-35 kDa, preferably 10-30 kDa, more preferably 10 kDa, 15 kDa, 20 kDa, 25 kDa, 30 kDa or 35 kDa: c) optionally correlating the presence of the MMP-8 activation product with the presence of active MMP-8 in the sample; and/or d) optionally correlating the presence of the MMP-8 activation product with the presence of other larger parts of active MMP-8 in the sample;
A method for conferring or enhancing herbicide resistance on a plant or alga, the method including transforming a plant, alga, plant cell, protoplast, callus, hypocotyl, seed, cotyledon, or shoot with a gene encoding a polypeptide consisting of an amino acid sequence of SEQ ID NO: 1 or an amino acid sequence having 95% or higher homology thereto, wherein the herbicide is a protoporphyrinogen oxidase-inhibiting herbicide.
Method for detecting contact with a capacitive sensor element, a capacitance value of the sensor element being measured by means of a continuously applied integration method, in which in each case a voltage applied to an integration capacitor with a known capacitance value is measured by means of an A/D converter and processed to form a sensor amplitude (A), the temporal behaviour of the sensor amplitude (A) being evaluated by determining a rate of change, (ΔA/Δt), of the sensor amplitude (A), characterized in that contact with the sensor element is detected when the rate of change, (ΔA/Δt), lies between a change minimum value, (ΔA/Δt) min , and a change maximum value, (ΔA/Δt) max , and the sensor amplitude (A) after a predetermined period of time (t w ) then lies at a waiting time (Tw) between an amplitude minimum value (Amin) and an amplitude maximum value (Amax).
An immunostimulatory RNA molecule for use in a method of therapy for stimulating an immune response in a subject comprising providing to the subject at least one antigen and providing an immunostimulatory RNA molecule, wherein the immunostimulatory molecule is selected from the group consisting of SEQ ID NOs: 1 and 5 to 11 and wherein said immunostimulatory RNA is formulated in a liposomal formulation.
A printer comprising: a printer main body configured to perform printing on a long medium , a supporting frame configured to support the printer main body from a lower side, a tension applying mechanism including a tension bar configured to come into contact with the medium before printing and apply a tension to the medium, and characterized by a first roll attaching portion and a second roll attaching portion to which the medium before printing wound into a roll shape is attachable, wherein the first roll attaching portion, the tension bar, and the second roll attaching portion are disposed on one side of the supporting frame in a first direction, which is one direction in a horizontal direction, and are disposed in such order from the supporting frame side in the first direction; the medium after printing is wound into a roll shape on the other side of the supporting frame in the first direction; assuming that the medium before printing wound into a roll shape and attached to the first roll attaching portion is a first roll and the medium before printing wound into a roll shape and attached to the second roll attaching portion is a second roll, a maximum outer diameter of the second roll is larger than a maximum outer diameter of the first roll; and the tension applying mechanism includes a frame in which a guide groove having a slit shape for guiding the tension bar in a vertical direction is formed. a printer main body configured to perform printing on a long medium , a supporting frame configured to support the printer main body from a lower side, a tension applying mechanism including a tension bar configured to come into contact with the medium before printing and apply a tension to the medium, and characterized by a first roll attaching portion and a second roll attaching portion to which the medium before printing wound into a roll shape is attachable, wherein the first roll attaching portion, the tension bar, and the second roll attaching portion are disposed on one side of the supporting frame in a first direction, which is one direction in a horizontal direction, and are disposed in such order from the supporting frame side in the first direction; the medium after printing is wound into a roll shape on the other side of the supporting frame in the first direction; assuming that the medium before printing wound into a roll shape and attached to the first roll attaching portion is a first roll and the medium before printing wound into a roll shape and attached to the second roll attaching portion is a second roll, a maximum outer diameter of the second roll is larger than a maximum outer diameter of the first roll; and the tension applying mechanism includes a frame in which a guide groove having a slit shape for guiding the tension bar in a vertical direction is formed.
An automated system for controlling a patient's blood glucose, comprising a blood glucose sensor and a processing and control unit , characterized in that the processing and control unit is configured to calculate, from a first mathematical model f CR specific to the patient and taking into account a single blood glucose value G r measured by the sensor, a factor CR representative of the patient's insulin sensitivity.
A sheet for semiconductor processing, the sheet comprising a base material and a pressure sensitive adhesive layer laminated on at least one surface of the base material, the pressure sensitive adhesive layer being formed of a pressure sensitive adhesive composition, the pressure sensitive adhesive composition containing a polymer having a salt and an energy ray curable group and an energy ray curable pressure sensitive adhesive component (excluding the polymer), and the polymer having a (meth) acryloyl group as the energy ray curable group.
An intelligent network for communicating data by radio comprising: - a collection network (A) consisting: - of sensors and/or meters equipped with communicating radio devices (e1...e8) for transmitting and receiving, with transmission power adjustable between a minimum value and a maximum value, - of access points, equipped with transmitting and receiving radio communication modules, ensuring the collection of the data supplied by the communicating radio devices, - and a central information system (B) consisting of at least one server (S), at least one database (D), and at least one operating station (F), this system being programmed to process and store all the data collected, to drive all or part of the collection network, and to control the transmission power of each communicating radio device (e1...e8), characterized in that the central information system (B) is programmed to control the transmission power of each communicating radio device (e1...e8) such that this device is seen by a number of access points lying between a lower limit N1 and an upper limit N2 and in that the central information system (B) is programmed: - to lower the transmission power of the communicating radio device if the latter is seen by a number of access points greater than N2, provided that the minimum transmission power is not reached, - and to increase this transmission power if the communicating radio device is seen by a number of access points less than N1, provided that the maximum transmission power is not reached. - a collection network (A) consisting: - of sensors and/or meters equipped with communicating radio devices (e1...e8) for transmitting and receiving, with transmission power adjustable between a minimum value and a maximum value, - of access points, equipped with transmitting and receiving radio communication modules, ensuring the collection of the data supplied by the communicating radio devices, - of sensors and/or meters equipped with communicating radio devices (e1...e8) for transmitting and receiving, with transmission power adjustable between a minimum value and a maximum value, - of access points, equipped with transmitting and receiving radio communication modules, ensuring the collection of the data supplied by the communicating radio devices, - and a central information system (B) consisting of at least one server (S), at least one database (D), and at least one operating station (F), this system being programmed to process and store all the data collected, to drive all or part of the collection network, and to control the transmission power of each communicating radio device (e1...e8), - to lower the transmission power of the communicating radio device if the latter is seen by a number of access points greater than N2, provided that the minimum transmission power is not reached, - and to increase this transmission power if the communicating radio device is seen by a number of access points less than N1, provided that the maximum transmission power is not reached.
An endovascular catheter for tortuous vasculature, comprising: • a catheter shaft with a first lumen and a shaft opening (20; 20, 26), wherein the first lumen communicates with the shaft opening (20; 20, 26), characterised in that the endovascular catheter further comprises: • a deflection element , which is rotatably arranged inside the catheter shaft , and configured to deflect a guidewire through the shaft opening (20; 20, 26), and • a controlling element that is operably connected with the deflection element and configured to rotate the deflection element in a first rotating direction . • a catheter shaft with a first lumen and a shaft opening (20; 20, 26), wherein the first lumen communicates with the shaft opening (20; 20, 26), • a deflection element , which is rotatably arranged inside the catheter shaft , and configured to deflect a guidewire through the shaft opening (20; 20, 26), and • a controlling element that is operably connected with the deflection element and configured to rotate the deflection element in a first rotating direction .
A sensor for detecting changes (Δ) in fringe capacitance (A) responsive to a target animal or pest by mutual capacitance sensing comprises an electrically conductive sensor conductor , which is a transmit electrode (TX), and two electrically conductive un-grounded conductors, which are receive electrodes (RX), (14a; 14b) disposed one on either side (16a; 16b) of the sensor conductor to form a triplet (14a-12-14b), said conductors being supported on an un-grounded conductive substrate which is electrically isolated by an electrical insulator from said conductors , to act as a shield or guard, wherein each conductor (14a,12;14b) is of a width (w), and thickness (t), and is spaced by a distance (da; db) from another and the ungrounded conductive substrate such that the sensor is designed and configured to generate a directional fringe field responsive to the target animal or pest.
A peptide consisting of the amino acid sequence of SEQ ID NO: 1, wherein the peptide forms a complex with a Major Histocompatibility Complex (MHC) Class I molecule.
Formulation comprising toltrazuril and iron(III) dextran for use for simultaneous treatment of coccidial infections and iron deficiencies in suckling piglets, wherein the formulation is administered once.
A radio frequency power amplifier (RFPA, 200), comprising: a driver having a driver output node, the driver including a first depletion mode field-effect transistor (FET, 206) having a source connected to the driver output node, a second depletion mode FET having a drain connected to the source of the first depletion mode FET , and an inductor having a first terminal coupled to said driver output node and a second terminal connected to a first power supply; a high-power output stage including a third depletion mode FET , the driver output node AC-coupled via an AC coupling capacitor to an input of the high-power output stage; wherein, when the first depletion mode FET is switched ON and the second depletion mode FET is switched OFF, the first depletion mode FET shunts the inductor and is configured to supply a current from a second power supply that supplements an inductor current supplied by the inductor to charge an input gate capacitor of the third depletion mode FET. a driver having a driver output node, the driver including a first depletion mode field-effect transistor (FET, 206) having a source connected to the driver output node, a second depletion mode FET having a drain connected to the source of the first depletion mode FET , and an inductor having a first terminal coupled to said driver output node and a second terminal connected to a first power supply; a high-power output stage including a third depletion mode FET , the driver output node AC-coupled via an AC coupling capacitor to an input of the high-power output stage; wherein, when the first depletion mode FET is switched ON and the second depletion mode FET is switched OFF, the first depletion mode FET shunts the inductor and is configured to supply a current from a second power supply that supplements an inductor current supplied by the inductor to charge an input gate capacitor of the third depletion mode FET.
Method for determining a system state of a system , wherein the system is designed as a power distribution system , wherein the following steps are carried out: - Detection of at least one electrical characteristic value of the system by a characteristic value detection system , the characteristic value being detected in each case by a local measurement of a characteristic value detector of the characteristic value detection system , - Transmission of the at least one detected characteristic value to a decentralized data storage system , - Performing an estimation of the system state based on the at least one transmitted characteristic value by at least one state estimator , characterized in that the method further comprises: - Performing a validation of the estimated system state by at least one state checker based on at least one local measurement of the state checker , - Storing the validated system status in the data storage system . - Detection of at least one electrical characteristic value of the system by a characteristic value detection system , the characteristic value being detected in each case by a local measurement of a characteristic value detector of the characteristic value detection system , - Transmission of the at least one detected characteristic value to a decentralized data storage system , - Performing an estimation of the system state based on the at least one transmitted characteristic value by at least one state estimator , - Performing a validation of the estimated system state by at least one state checker based on at least one local measurement of the state checker , - Storing the validated system status in the data storage system .