mhurhangee/patent-ind-claim-en huggingface dataset:
A Light Emitting Diode, LED, based current splitter for splitting an LED current between a plurality of LED channels, wherein said current splitter comprises at least two in series connected LED circuits, wherein each LED circuit comprises: - a first branch (B1.1, B2.1) comprising at least one LED; - a second branch (B1.2, B2.2) connected in parallel with said first branch (B1.1, B2.1) and comprising at least one LED and a branch switch (W1, W3) connected in series with said at least one LED, wherein a forward voltage of said at least one LED in said second branch (B1.2, B2.2) is lower than a forward voltage of said at least one LED in said first branch (B1.1, B2.1); - a third branch (B1.3, B2.3) connected in parallel with said first and second branch (B1.2, B2.2) and comprising a shunt switch (W2, W4) for shunting said first branch (B1.1, B2.1) and said second branch (B1.2, B2.2). - a first branch (B1.1, B2.1) comprising at least one LED; - a second branch (B1.2, B2.2) connected in parallel with said first branch (B1.1, B2.1) and comprising at least one LED and a branch switch (W1, W3) connected in series with said at least one LED, wherein a forward voltage of said at least one LED in said second branch (B1.2, B2.2) is lower than a forward voltage of said at least one LED in said first branch (B1.1, B2.1); - a third branch (B1.3, B2.3) connected in parallel with said first and second branch (B1.2, B2.2) and comprising a shunt switch (W2, W4) for shunting said first branch (B1.1, B2.1) and said second branch (B1.2, B2.2).
Psilocybin and/or psilocin, in combination with at least one cannabinoid and/or at least one terpene for use in the prevention or treatment of a psychological disorder, wherein the at least one cannabinoid and/or at least one terpene is administered separately, sequentially or simultaneously to the psilocybin and/or psilocin.
A method for wireless communication performed by a user equipment, UE , comprising: receiving information regarding a configuration of a subframe for measuring mixed interference between the UE and one or more other UEs in a network, wherein mixed interference refers to uplink to downlink interference or downlink to uplink interference, the configuration specifying a first pattern for measuring reference signals by the UE within the subframe, and a second pattern for transmitting reference signals by the UE within the subframe; measuring reference signals according to the first pattern; transmitting reference signals to the one or more other UEs according to the second pattern and determining interference between the UE and the one or more other UEs, based on the measured reference signals. receiving information regarding a configuration of a subframe for measuring mixed interference between the UE and one or more other UEs in a network, wherein mixed interference refers to uplink to downlink interference or downlink to uplink interference, the configuration specifying a first pattern for measuring reference signals by the UE within the subframe, and a second pattern for transmitting reference signals by the UE within the subframe; measuring reference signals according to the first pattern; transmitting reference signals to the one or more other UEs according to the second pattern and determining interference between the UE and the one or more other UEs, based on the measured reference signals.
A method for manufacturing cylindrical inductively heatable aerosol generating articles , the method comprising: (i) supplying a plurality of cylindrical aerosol generating articles to a plurality of first receiving portions of a first transfer unit ; (ii) supplying a plurality of inductively heatable susceptor elements to a second receiving portion of a second unit ; (iii) aligning a longitudinal direction of the first receiving portions and a longitudinal direction of the second receiving portion ; (iv) sequentially positioning one of said inductively heatable susceptor elements in each of said cylindrical aerosol generating articles by sequentially moving each of the cylindrical aerosol generating articles supplied to the first receiving portions and the inductively heatable susceptor elements supplied to the second receiving portion relative to each other. (i) supplying a plurality of cylindrical aerosol generating articles to a plurality of first receiving portions of a first transfer unit ; (ii) supplying a plurality of inductively heatable susceptor elements to a second receiving portion of a second unit ; (iii) aligning a longitudinal direction of the first receiving portions and a longitudinal direction of the second receiving portion ; (iv) sequentially positioning one of said inductively heatable susceptor elements in each of said cylindrical aerosol generating articles by sequentially moving each of the cylindrical aerosol generating articles supplied to the first receiving portions and the inductively heatable susceptor elements supplied to the second receiving portion relative to each other.
Method for determination of causes of casting faults in products (S), particularly slabs of steel, cast in a continuous casting machine , comprising: a) ascertaining a fault (r1 - r10) in a continuously cast product (S); b) determining process parameters under which the product (S) was cast; c) checking the casting in accordance with the process parameters by a simulation model; and d) determining one or more positions, at which the fault (r1 - r10) had probably arisen, in the continuous casting plant from linking of a simulation result obtained in step c) with characteristics of the fault discovered in step a). a) ascertaining a fault (r1 - r10) in a continuously cast product (S); b) determining process parameters under which the product (S) was cast; c) checking the casting in accordance with the process parameters by a simulation model; and d) determining one or more positions, at which the fault (r1 - r10) had probably arisen, in the continuous casting plant from linking of a simulation result obtained in step c) with characteristics of the fault discovered in step a).
A light polarization state detection apparatus, comprising a housing, a polarizer (P), an imaging lens (L), a CCD and a data processing apparatus arranged in a light path in sequence and a data transmission line connected between the CCD and the data processing apparatus; wherein at least parts of the polarizer (P), the imaging lens (L) and the CCD are packaged in the housing; the apparatus is characterized by further comprising a GRIN lens , which is arranged to receive measured incident light and cause emergent light rays to generate spatial phase modulation of SOP of a light field and then enter the polarizer (P), whereby the apparatus is further configured such that light rays of different phases are subjected to polarization interference after passing the polarizer (P) and generate an interference pattern, and interference fringes are projected on the CCD after passing the imaging lens (L), recorded and transmitted to the data processing apparatus; whereby the data processing apparatus is adapted to calculate SOPs of different incident light according to the shapes of different interference patterns to which the SOPs of different incident light corresponds; whereby the GRIN lens is a device having certain birefringence parameters with certain spatial retardance distribution, including a birefringence value and an optical axis direction.
A method for testing a gas leak detection device comprising a test gas spraying device and a vacuum assembly flanged to a test object in form of a spray-on pen leak in form of a helium vacuum leak detector, including a vacuum pump for evacuating the test object and, arranged downstream of the test object , a test gas detector measuring the test gas content in the gas flow evacuated from the test object as a measurement signal, and including an evaluation unit for evaluating the measurement signal, characterized by the following steps: spraying helium onto the test object , detecting at least one time point of the spraying process by the test gas spraying device , transmitting the detected time point to the evaluating evaluation unit , correlating the transmitted time point of spraying with the measurement signal by the evaluation unit to detect at least the test gas content at the respective time point of the spraying process, and determining the reaction time of the vacuum assembly . spraying helium onto the test object , detecting at least one time point of the spraying process by the test gas spraying device , transmitting the detected time point to the evaluating evaluation unit , correlating the transmitted time point of spraying with the measurement signal by the evaluation unit to detect at least the test gas content at the respective time point of the spraying process, and determining the reaction time of the vacuum assembly .
Method for dispensing plant protection product onto an agricultural field by way of a spraying device associated with a vehicle, wherein, during the dispensing of plant protection product, location or position data of the vehicle are sensed in particular by means of a satellite navigation system and transmitted to a computer unit preferably in the form of an on-board computer, wherein the location or position data of at least one body of water are stored in the computer unit and when a predefined distance (a, a1, a2) from the body of water is reached or fallen below, the manner of operation of the spraying device is controlled or regulated by the computer unit such that the dispensing of plant protection product is adapted and/or reduced and/or ended, wherein, in the computer unit , an application map is predefined, in which the agricultural field to be treated and the amounts of plant protection product dispensed or to be dispensed are stored, characterized in that - the predefined distance (a, a1, a2) from the particular body of water is input, loaded or read into the computer unit , - the body of water is approximated on the application map by means of a marker polygon , - the marker polygon is expanded by the predefined distance (a, a1, a2) from the body of water in order to form an expanded polygon , - an overlap line is determined where the expanded polygon overlaps the agricultural field to be treated, and in that - as soon as the vehicle reaches and crosses the overlap line , the computer unit automatically controls or regulates the spraying device such that the dispensing of the plant protection product is adapted and/or reduced and/or ended, in order not to pollute the body of water with the plant protection product. - the predefined distance (a, a1, a2) from the particular body of water is input, loaded or read into the computer unit , - the body of water is approximated on the application map by means of a marker polygon , - the marker polygon is expanded by the predefined distance (a, a1, a2) from the body of water in order to form an expanded polygon , - an overlap line is determined where the expanded polygon overlaps the agricultural field to be treated, and in that - as soon as the vehicle reaches and crosses the overlap line , the computer unit automatically controls or regulates the spraying device such that the dispensing of the plant protection product is adapted and/or reduced and/or ended, in order not to pollute the body of water with the plant protection product.
An electronic light emitting flare comprising: a housing comprising a top wall , bottom wall and at least one side wall, wherein at least a portion of the side wall is translucent and at least a portion of the top wall is translucent; a plurality of light emitters positioned within the housing; electronic circuitry; and a power source; characterized in that : the electronic circuitry is connected to the power source and light emitters to drive at least some of the light emitters to emit flashes of light directed through said at least one translucent portion of the housing side wall and alternately drive at least some of the light emitters to emit flashes of light directed through said translucent portion of the top wall; and the electronic light emitting flare further comprises a switching circuitry configured to switch back and forth between a) a side emitting mode wherein light emitters emit flashes of light directed through said at least one translucent portion of the side wall and b) a top emitting mode wherein light emitters emit flashes of light directed through said at least one translucent portion of the top wall. a housing comprising a top wall , bottom wall and at least one side wall, wherein at least a portion of the side wall is translucent and at least a portion of the top wall is translucent; a plurality of light emitters positioned within the housing; electronic circuitry; and a power source; characterized in that : the electronic circuitry is connected to the power source and light emitters to drive at least some of the light emitters to emit flashes of light directed through said at least one translucent portion of the housing side wall and alternately drive at least some of the light emitters to emit flashes of light directed through said translucent portion of the top wall; and the electronic light emitting flare further comprises a switching circuitry configured to switch back and forth between a) a side emitting mode wherein light emitters emit flashes of light directed through said at least one translucent portion of the side wall and b) a top emitting mode wherein light emitters emit flashes of light directed through said at least one translucent portion of the top wall. the electronic circuitry is connected to the power source and light emitters to drive at least some of the light emitters to emit flashes of light directed through said at least one translucent portion of the housing side wall and alternately drive at least some of the light emitters to emit flashes of light directed through said translucent portion of the top wall; and the electronic light emitting flare further comprises a switching circuitry configured to switch back and forth between a) a side emitting mode wherein light emitters emit flashes of light directed through said at least one translucent portion of the side wall and b) a top emitting mode wherein light emitters emit flashes of light directed through said at least one translucent portion of the top wall.
Vehicle door handle with an electronic module, having at least one circuit board , which has conductor tracks and is fitted with electronic units, characterised in that the circuit board has at least one section with a material weakening for forming a bending area , wherein the material weakening of the circuit board is formed by a material abrasion of the circuit board , wherein the electronic module has a one-piece or multi-piece holder for fixing the circuit board which forms a bending gauge for the circuit board .
A wind turbine blade comprising: a cylindrical root portion ; a maximum chord position comprising a lifting airfoil cross sectional profile; a transition region comprising a radial transition length between the root portion and the maximum chord position; a trailing edge that is rounded in cross section from the root portion to at least one transition length radially outward of the maximum chord position; and an elongated tab extending from a pressure side of the wind turbine blade over at least a portion thereof from the maximum chord position to said one transition length outward of the maximum chord position; wherein the tab is located within an aft 10% of the chord length of the blade, and wherein the tab comprises a height normal to the pressure side, characterized in that the height gradually changes from 3 - 6% of local chord length at an inboard end of the tab to 0.5% - 2% of local chord length at an outboard end of the tab.. a cylindrical root portion ; a maximum chord position comprising a lifting airfoil cross sectional profile; a transition region comprising a radial transition length between the root portion and the maximum chord position; a trailing edge that is rounded in cross section from the root portion to at least one transition length radially outward of the maximum chord position; and an elongated tab extending from a pressure side of the wind turbine blade over at least a portion thereof from the maximum chord position to said one transition length outward of the maximum chord position; wherein the tab is located within an aft 10% of the chord length of the blade, and wherein the tab comprises a height normal to the pressure side, characterized in that the height gradually changes from 3 - 6% of local chord length at an inboard end of the tab to 0.5% - 2% of local chord length at an outboard end of the tab..
A method for generating stable semi-mature tolerogenic dendritic cells, the method comprising: a. culturing monocytes isolated from a subject's blood in culture medium comprising GM-CSF and IL-4; b. after a first period of time in culture, culturing the cells from step (a) in culture medium comprising Dexamethasone, GM-CSF and IL-4; c. after a second period of time in culture, culturing the cells from step (b) in culture medium comprising Dexamethasone, vitamin D2, GM-CSF and IL-4 for a third period of time to generate tolerogenic dendritic cells; and d. after third period of time in culture, culturing the tolerogenic dendritic cells in culture medium comprising MPLA, GM-CSF and IL-4, or MPLA, GM-CSF, IL-4 and an antigen(s) associated with an autoimmune disease, graft rejection or graft-versus-host disease; wherein the cells from step (a) are cultured in culture medium comprising Dexamethasone, GM-CSF and IL-4 on the 3 rd day in culture, and wherein the cells from step (b) are cultured in culture medium comprising Dexamethasone, vitamin D2, GM-CSF and IL-4 on the 6 th day of culture, and wherein the tolerogenic dendritic cells are cultured in culture medium comprising MPLA, GM-CSF and IL-4, or GM-CSF, IL-4, MPLA and the antigen(s) on the 7 th day of culture. a. culturing monocytes isolated from a subject's blood in culture medium comprising GM-CSF and IL-4; b. after a first period of time in culture, culturing the cells from step (a) in culture medium comprising Dexamethasone, GM-CSF and IL-4; c. after a second period of time in culture, culturing the cells from step (b) in culture medium comprising Dexamethasone, vitamin D2, GM-CSF and IL-4 for a third period of time to generate tolerogenic dendritic cells; and d. after third period of time in culture, culturing the tolerogenic dendritic cells in culture medium comprising MPLA, GM-CSF and IL-4, or MPLA, GM-CSF, IL-4 and an antigen(s) associated with an autoimmune disease, graft rejection or graft-versus-host disease;
A networked sensor system comprises: - an upper tier of server devices , the server devices comprising: - processor devices; and - memory in communication with the processor devices, - a middle tier of gateway devices that are in communication with one or more of the upper tier server devices ; - a lower level tier of devices that comprise fully functional sensor nodes with at least some of the fully functional sensor nodes including an application layer that executes routines to provide node sensor functions and an application layer manager to manage the application layer in the at least some of the functional sensor nodes , wherein the application layer manager is configured to: - manage changes in functions currently operating from function to function in respective ones of the at least some functional sensor nodes upon request by actual state functions executing in the respective ones of the at least some functional sensor nodes , wherein the application layer manager accomplishes such changes in functions currently operating using a transition table that serves as a central descriptor for the state functions; and - characterize inputs sufficiently to apply rules that dictate changes in configuration, stored data, and/or precipitate message generation. - an upper tier of server devices , the server devices comprising: - processor devices; and - memory in communication with the processor devices, - processor devices; and - memory in communication with the processor devices, - a middle tier of gateway devices that are in communication with one or more of the upper tier server devices ; - a lower level tier of devices that comprise fully functional sensor nodes with at least some of the fully functional sensor nodes including an application layer that executes routines to provide node sensor functions and an application layer manager to manage the application layer in the at least some of the functional sensor nodes , - manage changes in functions currently operating from function to function in respective ones of the at least some functional sensor nodes upon request by actual state functions executing in the respective ones of the at least some functional sensor nodes , wherein the application layer manager accomplishes such changes in functions currently operating using a transition table that serves as a central descriptor for the state functions; and - characterize inputs sufficiently to apply rules that dictate changes in configuration, stored data, and/or precipitate message generation.
A cell selection method, applied to a terminal and comprising: obtaining first information by the terminal, wherein the first information is used for indicating that a second cell does not support a first intended slice, wherein the first intended slice is an intended slice supported by the first cell, wherein the first cell is a cell currently selected or camped on by the terminal, and wherein the second cell is different from the first cell; and performing cell selection or reselection by the terminal according to the first information, wherein performing cell selection or reselection comprises at least one of: considering the second cell as an acceptable cell; falling back to a non-slice based cell selection or reselection rule; ignoring a slice-based cell selection or reselection rule; or performing non-slice based cell selection or reselection. obtaining first information by the terminal, wherein the first information is used for indicating that a second cell does not support a first intended slice, wherein the first intended slice is an intended slice supported by the first cell, wherein the first cell is a cell currently selected or camped on by the terminal, and wherein the second cell is different from the first cell; and performing cell selection or reselection by the terminal according to the first information, wherein performing cell selection or reselection comprises at least one of: considering the second cell as an acceptable cell; falling back to a non-slice based cell selection or reselection rule; ignoring a slice-based cell selection or reselection rule; or performing non-slice based cell selection or reselection. considering the second cell as an acceptable cell; falling back to a non-slice based cell selection or reselection rule; ignoring a slice-based cell selection or reselection rule; or performing non-slice based cell selection or reselection.
A method of manufacturing a multi-material tubular structure comprising: spinning a can ; depositing a powdered material (M) into the can ; and compacting the powdered material (M) within the can to provide a tubular structure; wherein: the method comprises the steps of providing an inner form within the can ; providing a vacuum on the inner form ; depositing the powder material (M) between the inner form and the can and removing the inner form . spinning a can ; depositing a powdered material (M) into the can ; and compacting the powdered material (M) within the can to provide a tubular structure; wherein: the method comprises the steps of providing an inner form within the can ; providing a vacuum on the inner form ; depositing the powder material (M) between the inner form and the can and removing the inner form .