mhurhangee/ep-ind-claims huggingface dataset:
A method comprising obtaining information indicative of spatial positions of one or more sound sources within an audio image of a composite audio signal, obtaining information indicative of the types of the one or more sound sources, wherein a type of a sound source is descriptive of at least one characteristic of the sound source, determining, for said one or more sound sources, a respective position in a display of the apparatus that is indicative of the spatial position of the respective sound source and causing an apparatus to display an item representing the sound source in the determined position in the display, wherein the item representing the sound source is determined on basis of the type of the sound source and wherein the size of the item representing the sound source in the display is proportional to its relative signal level in the audio image, receiving an indication of a user action associated with an item indicative of a selected sound source, determining an indication of a user selected modification of the audio image on basis of the user action, and modifying the composite audio signal in accordance with the user selected modification, characterised in that: the position determined for a sound source in a first direction of the display is directly proportional to a vertical component of the spatial position of the respective sound source, the indication of the user action comprises an indication of the user pinching the item representing the selected sound source and the extent of pinching, the indication of the user selected modification comprises an indication to change the signal level of the selected sound source in accordance with the extent of pinching, and the method further comprises changing the size of the item indicative of the selected sound source in the display in accordance with the extent of pinching. the position determined for a sound source in a first direction of the display is directly proportional to a vertical component of the spatial position of the respective sound source, the indication of the user action comprises an indication of the user pinching the item representing the selected sound source and the extent of pinching, the indication of the user selected modification comprises an indication to change the signal level of the selected sound source in accordance with the extent of pinching, and the method further comprises changing the size of the item indicative of the selected sound source in the display in accordance with the extent of pinching.
An apparatus for sterilizing and disinfecting air, the apparatus comprising: an air management chamber that creates a turbulent flow, wherein the air management chamber comprises: an inlet;; an outlet; one or more reaction tubes having a UV light reflective internal surface, and mated openings in and distributed along a wall of the reaction tube; and UV light emitting diodes (LEDs) affixed to the one or more reaction tubes via the mated openings such that UV radiation is emitted into the one or more reaction tubes, thereby exposing the air flow to the UV radiation but not impeding the air flow through the reaction tube; means for creating a convective air exchange in a room to mobilize latent pathogens and directing the convective air exchange into the inlet of the air management chamber, a sensor for monitoring the irradiance level in each reaction tube; a high efficiency particulate air (HEPA) filter located at the outlet of the air management chamber; a filter impregnated with silver ions and citric acid located at the outlet of the air management chamber; an electronics and control module located outside of the airflow path; an externally visible indicator to tell the user that the apparatus is working; and an external housing, characterized in that the one or more reaction tubes have at least one area of sudden expansion of the reaction tube diameter along the UV light reflective internal surface. an inlet;; an outlet; one or more reaction tubes having a UV light reflective internal surface, and mated openings in and distributed along a wall of the reaction tube; and UV light emitting diodes (LEDs) affixed to the one or more reaction tubes via the mated openings such that UV radiation is emitted into the one or more reaction tubes, thereby exposing the air flow to the UV radiation but not impeding the air flow through the reaction tube; means for creating a convective air exchange in a room to mobilize latent pathogens and directing the convective air exchange into the inlet of the air management chamber, a sensor for monitoring the irradiance level in each reaction tube; a high efficiency particulate air (HEPA) filter located at the outlet of the air management chamber; a filter impregnated with silver ions and citric acid located at the outlet of the air management chamber; an electronics and control module located outside of the airflow path; an externally visible indicator to tell the user that the apparatus is working; and an external housing,
A recombinant swinepox virus (rSPV) comprising at least one first foreign gene sequence in its genome, wherein said first foreign gene sequence is inserted into the IL-18 binding protein (IL18bp) gene of the rSPV genome.
A method for storing user data in a non-volatile memory of a document, wherein the non-volatile memory comprises unoccupied memory areas (212, 214,...) and memory areas (204, 206,...) occupied with user data, wherein the user data (128, 140) are contiguous data blocks, wherein the document further comprises a volatile memory and a communication interface, wherein the storing of the user data comprises: • receiving the user data via the communication interface, • compressing the user data, • storing the compressed user data in the volatile memory, • determining the necessary length of an unoccupied contiguous memory area in order to store the compressed user data in the non-volatile memory, • determining whether the non-volatile memory has a contiguous unoccupied memory area, the length of which corresponds at least to the previously determined length, • in the event that the non-volatile memory does not have a contiguous unoccupied memory area of the previously determined length, defragmenting the non-volatile memory, wherein the defragmenting comprises a rearranging of the user data stored in the occupied memory areas so that a plurality of the unoccupied memory areas form a contiguous unoccupied memory area that is at least of the previously determined length, and • moving the compressed user data from the volatile memory into the unoccupied memory area of the non-volatile memory. • receiving the user data via the communication interface, • compressing the user data, • storing the compressed user data in the volatile memory, • determining the necessary length of an unoccupied contiguous memory area in order to store the compressed user data in the non-volatile memory, • determining whether the non-volatile memory has a contiguous unoccupied memory area, the length of which corresponds at least to the previously determined length, • in the event that the non-volatile memory does not have a contiguous unoccupied memory area of the previously determined length, defragmenting the non-volatile memory, wherein the defragmenting comprises a rearranging of the user data stored in the occupied memory areas so that a plurality of the unoccupied memory areas form a contiguous unoccupied memory area that is at least of the previously determined length, and • moving the compressed user data from the volatile memory into the unoccupied memory area of the non-volatile memory.
A polypeptide, which is any one of the following polypeptides (a) to (c): (a) a polypeptide consisting of the amino acid sequence shown in SEQ ID NO: 1,3,5, or 7; (b) a polypeptide consisting of an amino acid sequence that has a deletion, an insertion, a substitution and/or an addition of 1 or a plurality of amino acids with respect to the amino acid sequence shown in SEQ ID NO: 1, 3, 5, or 7, and having activity to -selectively hydrolyze a racemic tropic acid amide, wherein the plurality of amino acids is 30 amino acids or less; and (c) a polypeptide consisting of an amino acid sequence that has 90% or more sequence identity with the amino acid sequence shown in SEQ ID NO: 1, 3, 5, or 7, and having activity to -selectively hydrolyze a racemic tropic acid amide. (a) a polypeptide consisting of the amino acid sequence shown in SEQ ID NO: 1,3,5, or 7; (b) a polypeptide consisting of an amino acid sequence that has a deletion, an insertion, a substitution and/or an addition of 1 or a plurality of amino acids with respect to the amino acid sequence shown in SEQ ID NO: 1, 3, 5, or 7, and having activity to -selectively hydrolyze a racemic tropic acid amide, wherein the plurality of amino acids is 30 amino acids or less; and (c) a polypeptide consisting of an amino acid sequence that has 90% or more sequence identity with the amino acid sequence shown in SEQ ID NO: 1, 3, 5, or 7, and having activity to -selectively hydrolyze a racemic tropic acid amide.
A method for use in a wireless local area network, WLAN, system, the method comprising: receiving, by a receiving station, STA, a physical protocol data unit, PPDU, wherein the PPDU includes a legacy signal field, a control signal field contiguous to the legacy signal field, and a data field, wherein the legacy signal field is received through a first symbol, and the control signal field is received through a second symbol, wherein the legacy signal field and the control signal field are generated based on binary phase shift keying, BPSK, wherein the legacy signal field is generated based on a first signal bit, wherein the control signal field is generated based on a second signal bit, and wherein the second signal bit includes a packet indication field indicating whether the PPDU is an extreme high throughput, EHT, PPDU and second control information related to bandwidth of the PPDU; and determining, by the receiving STA, whether the PPDU is an EHT PPDU based on the control signal field. receiving, by a receiving station, STA, a physical protocol data unit, PPDU, wherein the PPDU includes a legacy signal field, a control signal field contiguous to the legacy signal field, and a data field, wherein the legacy signal field is received through a first symbol, and the control signal field is received through a second symbol, wherein the legacy signal field and the control signal field are generated based on binary phase shift keying, BPSK, wherein the legacy signal field is generated based on a first signal bit, wherein the control signal field is generated based on a second signal bit, and wherein the second signal bit includes a packet indication field indicating whether the PPDU is an extreme high throughput, EHT, PPDU and second control information related to bandwidth of the PPDU; and determining, by the receiving STA, whether the PPDU is an EHT PPDU based on the control signal field.
An agricultural unit comprising: - a tank system adapted to provide a combined aquatic environment for raising aquatic animals in aquaculture and cultivating plants in hydroponic culture, whereby excretions of said aquatic animals are released directly into said aquatic environment so as to produce nutrients for said plants; and - an electrochemical device; wherein said electrochemical device is operable in an electrolysis mode to produce hydrogen and oxygen while consuming electrical energy provided by a source of electrical energy; wherein said electrochemical device is further operable in a fuel cell mode to produce electrical energy and heat by oxidizing said produced hydrogen; and wherein said electrochemical device is operatively coupled to said tank system so as to transfer at least part of said produced heat and said produced oxygen to said aquatic environment. - a tank system adapted to provide a combined aquatic environment for raising aquatic animals in aquaculture and cultivating plants in hydroponic culture, whereby excretions of said aquatic animals are released directly into said aquatic environment so as to produce nutrients for said plants; and - an electrochemical device;
Apparatus for determining a load current (i L), which is output by a supply device, which has a first power stage and a second power stage, wherein - the first power stage can be fed with a first feed current (i 1) via a first feed line and can output a first output current via a first output line, - the second power stage can be fed with a second feed current (i 2) via a second feed line and can output a second output current via a second output line, - the power stages (16a, 16b) can be switched alternately via a first control line or via a second control line, respectively, by a control unit for a respective predefined switching period with a finite current change (di/dt), as a result of which the values of the feed currents (i 1; i 2) or the values of the output currents, respectively, are influenced. - a first inductive measurement sensor is arranged in the region of the first feed line and/or in the region of the first output line and - a second inductive measurement sensor is arranged in the region of the second feed line and/or in the region of the second output line, - aL least one integrator is provided, which is configured to integrate the sensor signals of the inductive measurement sensors (30a, 30b), - a control unit is provided, which is configured to read out the integrated sensor signals at predefined times within the switching periods and, depending thereon, to generate at least one output signal (sa1, sa2, sa3), characterized in that the first inductive measurement sensor and the second inductive measurement sensor are connected in series. - the first power stage can be fed with a first feed current (i 1) via a first feed line and can output a first output current via a first output line, - the second power stage can be fed with a second feed current (i 2) via a second feed line and can output a second output current via a second output line, - the power stages (16a, 16b) can be switched alternately via a first control line or via a second control line, respectively, by a control unit for a respective predefined switching period with a finite current change (di/dt), as a result of which the values of the feed currents (i 1; i 2) or the values of the output currents, respectively, are influenced. - a first inductive measurement sensor is arranged in the region of the first feed line and/or in the region of the first output line and - a second inductive measurement sensor is arranged in the region of the second feed line and/or in the region of the second output line, - aL least one integrator is provided, which is configured to integrate the sensor signals of the inductive measurement sensors (30a, 30b), - a control unit is provided, which is configured to read out the integrated sensor signals at predefined times within the switching periods and, depending thereon, to generate at least one output signal (sa1, sa2, sa3),
Method for preparing polymer cements for reparative surgery or for bone reconstruction, comprising bringing a liquid single-phase formulation, said formulation comprising a liquid phase containing at least one polymer or copolymer in solution or in suspension in at least one monomer, and at least one activator of polymerization, into contact with an initiator of radical polymerization deposited in the form of a thin layer or film on a support.
A covering plate (20; 30), particularly for a floor, ceiling, or wall covering, comprising: - a carrier plate (22; 32) of wooden composite having an upper side and a lower side, and - a decor layer (21; 31), arranged at the upper side, and a veneer layer of real wood, - characterized in that - a barrier layer (24; 34) of a first material is applied to the lower side, protecting the carrier plate from moisture, and - wherein a decoupling layer (23; 33) of a second material is applied to the upper side, decoupling the decor layer (21; 31) from the carrier plate (22; 32), wherein the decor layer is adhered onto the decoupling layer by means of an adhesive, such that the carrier plate and the decor layer may extend differently. - a carrier plate (22; 32) of wooden composite having an upper side and a lower side, and - a decor layer (21; 31), arranged at the upper side, and a veneer layer of real wood, - characterized in that - a barrier layer (24; 34) of a first material is applied to the lower side, protecting the carrier plate from moisture, and - wherein a decoupling layer (23; 33) of a second material is applied to the upper side, decoupling the decor layer (21; 31) from the carrier plate (22; 32), wherein the decor layer is adhered onto the decoupling layer by means of an adhesive, such that the carrier plate and the decor layer may extend differently.
A safety link assembly for releasing a connection between an aerial delivery platform and an extractor parachute once the aerial delivery platform has been pulled out relative to an aircraft by a required distance by the extractor parachute, the safety link assembly comprising: - a main body, - an ejectable connector, - a retaining mechanism comprising a retaining lever (164, 165) rotatably mounted on a rotary axis on the main body and rotatable between a first retaining position, in which a first region of the retaining lever (164, 165) acts on the ejectable connector to retain the ejectable connector adjacent the main body, and a second releasing position, in which the ejectable connector is ejectable from the main body, and - a securing mechanism comprising a securing member moveable between a first securing position, in which a first region of the securing member acts on a second region of the retaining lever (164, 165) to secure the retaining lever (164, 165) in its first retaining position, and a second non-securing position, in which the retaining lever (164, 165) is not secured in the first retaining position, wherein the distance from the first region of the retaining lever (164, 165) to the rotary axis is less than the distance from the second region of the retaining lever (164, 165) to the rotary axis characterised in that the first region and second region of the retaining lever (164, 165) are both on the same side of the retaining lever (164, 165) with respect to the rotary axis. - a main body, - an ejectable connector, - a retaining mechanism comprising a retaining lever (164, 165) rotatably mounted on a rotary axis on the main body and rotatable between a first retaining position, in which a first region of the retaining lever (164, 165) acts on the ejectable connector to retain the ejectable connector adjacent the main body, and a second releasing position, in which the ejectable connector is ejectable from the main body, and - a securing mechanism comprising a securing member moveable between a first securing position, in which a first region of the securing member acts on a second region of the retaining lever (164, 165) to secure the retaining lever (164, 165) in its first retaining position, and a second non-securing position, in which the retaining lever (164, 165) is not secured in the first retaining position,
A magnetic device comprising at least one magnetically excited stator and one magnetically excited translator, said translator being movable in relation to the stator along a translator movement path, wherein the stator is a permanent magnet and the translator is an electromagnet or the stator is an electromagnet and the translator is a permanent magnet, wherein a magnetic force F ( x,j) acts between the stator and the translator, with x ≥ 0 being the distance between the stator and the translator and J being the current density of the electromagnet, wherein an acceleration unit generates a force acting on the translator at least in portions of the translator movement path, said force creating an acceleration force state comprising at least a corrective force F corr ( x), said acceleration force state being oriented away from the stator, characterized in that F ( x,J = 0) defines a magnetic capture effect counteracting a desired movement of the translator, wherein F ( x,J = 0) can be determined by measurements when the electromagnet is not supplied with a current (J=0), and that (a) when the translator moves away from the stator, the sum total of the forces acting on the translator is greater than zero F x, J = 0 + F corr x > 0, hence F corr x > − F x, J = 0, or (b) when the translator moves towards the stator, the sum total of the forces acting on the translator is smaller than zero F x, J = 0 + F corr x < 0, hence F corr x < − F x, J = 0, or (c) when the translator and the stator are in an equilibrium state, the sum total of the forces acting on the translator is zero F x, J = 0 + F corr x = 0, hence F corr x = − F x, J = 0, so that the corrective force | F corr ( x)| ≥ | F ( x,J = 0)| counteracts the capture effect in part or in full. (a) when the translator moves away from the stator, the sum total of the forces acting on the translator is greater than zero F x, J = 0 + F corr x > 0, hence F corr x > − F x, J = 0, or (b) when the translator moves towards the stator, the sum total of the forces acting on the translator is smaller than zero F x, J = 0 + F corr x < 0, hence F corr x < − F x, J = 0, or (c) when the translator and the stator are in an equilibrium state, the sum total of the forces acting on the translator is zero F x, J = 0 + F corr x = 0, hence F corr x = − F x, J = 0,
A method of determining at least one ophthalmological parameter of a subject consisting in their interpupillary half-distances, including observation of both eyes of the subject by a gaze tracking device worn by the subject and determination of said parameter at least from said observation, the gaze tracking device including at least one left optical sensor and at least one right optical sensor, the optical sensors comprising a camera.
A method for authenticating a plurality of slave devices (D1-D3) connected to a master device, the method comprising: generating and sending, by the master device, a respective challenge (c1-c3) to each slave device; in each slave device, generating a response (r1-r3) to the respective challenge and transmitting the response to the master device; characterized in that it comprises the following steps: returning, by the master device, the response of the slave device of rank i to the slave device of rank i + 1, where i varies from 1 to N-1, N being the number of slave devices; verifying, by the master device, the response of the slave device of rank N; if the response verified by the master device is valid, authenticating the slave device of rank N; and if the response verified by a device of rank j is valid, authenticating the device of rank j-1, where j decreases from N to 2. generating and sending, by the master device, a respective challenge (c1-c3) to each slave device; in each slave device, generating a response (r1-r3) to the respective challenge and transmitting the response to the master device; returning, by the master device, the response of the slave device of rank i to the slave device of rank i + 1, where i varies from 1 to N-1, N being the number of slave devices; verifying, by the master device, the response of the slave device of rank N; if the response verified by the master device is valid, authenticating the slave device of rank N; and if the response verified by a device of rank j is valid, authenticating the device of rank j-1, where j decreases from N to 2.