mhurhangee/patent-ind-claim-en huggingface dataset:
A method for watching a scene, the method comprising a step of: - acquisition of surveillance videos or images of a scene by an acquisition device , - conversion of surveillance videos or images into text descriptions by the acquisition device , in order to obtain text data, the conversion being implemented using a conversion model, the conversion model being derived from an artificial intelligence technique, the artificial intelligence technique being supervised learning, - transmission of text data to a central analysis station , - extraction of specific data of interest from the text data by a syntax analyser at the central analysis station and presentation of this specific data of interest to an operator , - requesting a specific image or video, by the central analysis station , as a function of the specific data of interest presented, and - transmission of the specific image or video by the acquisition device to the central analysis station . - acquisition of surveillance videos or images of a scene by an acquisition device , - conversion of surveillance videos or images into text descriptions by the acquisition device , in order to obtain text data, the conversion being implemented using a conversion model, the conversion model being derived from an artificial intelligence technique, the artificial intelligence technique being supervised learning, - transmission of text data to a central analysis station , - extraction of specific data of interest from the text data by a syntax analyser at the central analysis station and presentation of this specific data of interest to an operator , - requesting a specific image or video, by the central analysis station , as a function of the specific data of interest presented, and - transmission of the specific image or video by the acquisition device to the central analysis station .
A method for extracting recombinant proteins from bacteria, comprising the steps of: i. adding a basic solution to a suspension of bacteria containing said recombinant proteins, thus obtaining an incubation mixture having a pH of 12 or more; ii. incubating said bacteria in said incubation mixture having a pH in the range of 12 and 14; iii. at the end of the incubation, adding a volume of acid solution to the incubation mixture, such as to obtain a final mixture having a pH ranging between 7 and 9; iv. purifying the recombinant proteins extracted from the incubation mixture or from the final mixture; Wherein: - said basic solution is a solution of sodium hydroxide (NaOH); - said bacteria are incubated in said incubation mixture for a time ranging between 1 and 3 hours; - said bacteria are incubated in said incubation mixture at a temperature ranging between 18°C and 30°C; and wherein said bacteria are gram negative. i. adding a basic solution to a suspension of bacteria containing said recombinant proteins, thus obtaining an incubation mixture having a pH of 12 or more; ii. incubating said bacteria in said incubation mixture having a pH in the range of 12 and 14; iii. at the end of the incubation, adding a volume of acid solution to the incubation mixture, such as to obtain a final mixture having a pH ranging between 7 and 9; iv. purifying the recombinant proteins extracted from the incubation mixture or from the final mixture; - said basic solution is a solution of sodium hydroxide (NaOH); - said bacteria are incubated in said incubation mixture for a time ranging between 1 and 3 hours; - said bacteria are incubated in said incubation mixture at a temperature ranging between 18°C and 30°C;
A method for operating an HVAC system , the HVAC system having an HVAC unit for conditioning inside air of a building and an HVAC controller configured to control whether the HVAC unit is in a cooling mode or a heating mode and whether the HVAC unit is currently activated or not, the method comprising: sensing a temperature of the inside air of the building; maintaining in a memory of the HVAC controller a recurring schedule having a number of time periods, the recurring schedule having a control mode associated with at least two of the number of time periods, at least one of the time periods being associated with an HVAC-off control mode in which the HVAC unit does not condition the inside air of the building regardless of the sensed temperature of the inside air, and at least another one of the time periods being associated with an HVAC-on control mode in which the HVAC unit controls the sensed temperature of the inside air of the building in accordance with one or more setpoints; and controlling the HVAC unit with the HVAC controller in accordance with the recurring schedule . sensing a temperature of the inside air of the building; maintaining in a memory of the HVAC controller a recurring schedule having a number of time periods, the recurring schedule having a control mode associated with at least two of the number of time periods, at least one of the time periods being associated with an HVAC-off control mode in which the HVAC unit does not condition the inside air of the building regardless of the sensed temperature of the inside air, and at least another one of the time periods being associated with an HVAC-on control mode in which the HVAC unit controls the sensed temperature of the inside air of the building in accordance with one or more setpoints; and controlling the HVAC unit with the HVAC controller in accordance with the recurring schedule .
An imaging apparatus to which an interchangeable lens and an intermediate accessory , which is attachable between the interchangeable lens and the imaging apparatus , are attachable, the imaging apparatus comprising: a first communication terminal (DLC) configured to communicate with the interchangeable lens ; a second communication terminal (DATA) configured to communicate with the intermediate accessory ; and communication control means configured to obtain information related to a method for a correction and information related to a parameter for correction via the second communication terminal (DATA) and to receive lens information to be corrected via the first communication terminal (DLC). a first communication terminal (DLC) configured to communicate with the interchangeable lens ; a second communication terminal (DATA) configured to communicate with the intermediate accessory ; and communication control means configured to obtain information related to a method for a correction and information related to a parameter for correction via the second communication terminal (DATA) and to receive lens information to be corrected via the first communication terminal (DLC).
Circuit arrangement for controlling an alternating current, AC, drive system of an electric vehicle, said vehicle comprising - at least one asynchronous drive motor associated with at least one wheel of the vehicle, - at least one frequency converter unit having at least one AC heavy-current input and at least one AC heavy-current output (U/T1, V/T2, W/T3), the at least one AC heavy-current output (U/T1, V/T2, W/T3) is in connection with the at least one asynchronous drive motor , - a battery unit supplying current consumers of the vehicle, including the at least one frequency converter unit , - a control unit connected to the at least one frequency converter unit , characterised in that - a direct current output of the battery unit is connected through a switching unit to terminals (+, -) dedicated for an external DC choke of the at least one frequency converter unit . - the at least one frequency converter unit comprises a frequency converter of type ATV71HU55M3, - shut-down relays are associated with the battery packs , each shut-down relay is connected between one of the electric output terminals of the battery pack and the terminal of a battery cell included therein, and - the actuating coil of the relay is connected to an auxiliary battery through an emergency switch . - at least one asynchronous drive motor associated with at least one wheel of the vehicle, - at least one frequency converter unit having at least one AC heavy-current input and at least one AC heavy-current output (U/T1, V/T2, W/T3), the at least one AC heavy-current output (U/T1, V/T2, W/T3) is in connection with the at least one asynchronous drive motor , - a battery unit supplying current consumers of the vehicle, including the at least one frequency converter unit , - a control unit connected to the at least one frequency converter unit , characterised in that - a direct current output of the battery unit is connected through a switching unit to terminals (+, -) dedicated for an external DC choke of the at least one frequency converter unit . - the at least one frequency converter unit comprises a frequency converter of type ATV71HU55M3, - shut-down relays are associated with the battery packs , each shut-down relay is connected between one of the electric output terminals of the battery pack and the terminal of a battery cell included therein, and - the actuating coil of the relay is connected to an auxiliary battery through an emergency switch .
A computer-implemented system, comprising: - at least one nontransitory processor-readable storage medium that stores at least one of processor-executable instructions or data; and - at least one processor communicably coupled to at least one nontransitory processor-readable storage medium, wherein that at least one processor: - receives segmentation learning data comprising a plurality of batches of labeled anatomical image sets, each image set comprising image data representative of a series of slices of a three-dimensional bony structure, and each image set including at least one label which identifies the region of a particular part of the bony structure depicted in each image of the image set, wherein the label indicates one of a plurality of classes indicating parts of the bone anatomy; - trains a segmentation CNN, that is a fully convolutional neural network model with layer skip connections, to segment semantically at least one part of the bony structure utilizing the received segmentation learning data; and - stores the trained segmentation CNN in at least one nontransitory processor-readable storage medium of the machine learning system. - at least one nontransitory processor-readable storage medium that stores at least one of processor-executable instructions or data; and - at least one processor communicably coupled to at least one nontransitory processor-readable storage medium, wherein that at least one processor: - receives segmentation learning data comprising a plurality of batches of labeled anatomical image sets, each image set comprising image data representative of a series of slices of a three-dimensional bony structure, and each image set including at least one label which identifies the region of a particular part of the bony structure depicted in each image of the image set, wherein the label indicates one of a plurality of classes indicating parts of the bone anatomy; - trains a segmentation CNN, that is a fully convolutional neural network model with layer skip connections, to segment semantically at least one part of the bony structure utilizing the received segmentation learning data; and - stores the trained segmentation CNN in at least one nontransitory processor-readable storage medium of the machine learning system. - receives segmentation learning data comprising a plurality of batches of labeled anatomical image sets, each image set comprising image data representative of a series of slices of a three-dimensional bony structure, and each image set including at least one label which identifies the region of a particular part of the bony structure depicted in each image of the image set, wherein the label indicates one of a plurality of classes indicating parts of the bone anatomy; - trains a segmentation CNN, that is a fully convolutional neural network model with layer skip connections, to segment semantically at least one part of the bony structure utilizing the received segmentation learning data; and - stores the trained segmentation CNN in at least one nontransitory processor-readable storage medium of the machine learning system.
A droplet discharging apparatus comprising: a supporting section that has a supporting surface that supports a medium; a droplet discharging section that includes a first nozzle that discharges first liquid onto the medium supported by the supporting surface, and a second nozzle that discharges second liquid that promotes curing of the first liquid by reacting with the first liquid onto the medium supported by the supporting surface; a carriage that reciprocally travels in a first direction while holding the droplet discharging section; an airflow generating section that generates airflow in a second direction intersecting the first direction in a discharging area facing the supporting surface; a shielding section that shields the airflow in the second direction from reaching the discharging area which is an area between the droplet discharging section and the supporting surface; and a detecting section that detects floating of the medium from the supporting surface, wherein the carriage has an extending section extending in the first direction so as to face the supporting surface from the carriage; wherein traveling of the carriage stops in the case when the detecting section detects the floating of the medium when the carriage travels in the first direction; and wherein the detecting section is attached to the extending section. a supporting section that has a supporting surface that supports a medium; a droplet discharging section that includes a first nozzle that discharges first liquid onto the medium supported by the supporting surface, and a second nozzle that discharges second liquid that promotes curing of the first liquid by reacting with the first liquid onto the medium supported by the supporting surface; a carriage that reciprocally travels in a first direction while holding the droplet discharging section; an airflow generating section that generates airflow in a second direction intersecting the first direction in a discharging area facing the supporting surface; a shielding section that shields the airflow in the second direction from reaching the discharging area which is an area between the droplet discharging section and the supporting surface; and a detecting section that detects floating of the medium from the supporting surface, wherein the carriage has an extending section extending in the first direction so as to face the supporting surface from the carriage; wherein traveling of the carriage stops in the case when the detecting section detects the floating of the medium when the carriage travels in the first direction; and wherein the detecting section is attached to the extending section.
A method of configuring an uplink short burst in wireless communications configured to operate in a 3GPP system, comprising: receiving , at a user equipment, UE , a physical downlink control channel, PDCCH, grant associated with a first transmission received from a base station , wherein the PDCCH grant indicates a location of an uplink short burst within an uplink centric slot , wherein the location of the uplink short burst is selected from a position that is either before or after an uplink long burst in the uplink centric slot, and wherein the uplink short burst comprises a physical uplink control channel, PUCCH; and transmitting the uplink short burst in the uplink centric slot , wherein the uplink short burst is located at the indicated location of the uplink centric slot. receiving , at a user equipment, UE , a physical downlink control channel, PDCCH, grant associated with a first transmission received from a base station , wherein the PDCCH grant indicates a location of an uplink short burst within an uplink centric slot , wherein the location of the uplink short burst is selected from a position that is either before or after an uplink long burst in the uplink centric slot, and wherein the uplink short burst comprises a physical uplink control channel, PUCCH; and transmitting the uplink short burst in the uplink centric slot , wherein the uplink short burst is located at the indicated location of the uplink centric slot.
A process for preparing a perfuming composition comprising the steps of: (i) Heating a viscosifying agent comprising tricyclodecanedimethanol alcohol at a temperature greater than 90°C, (ii) Optionally, cooling down the solution obtained in step i) at a temperature greater than room temperature, preferably comprised between 30°C and 80°C, and (iii) Cooling down mixture obtained in step (i) or (ii) at room temperature, wherein a perfumery carrier comprising dipropylene glycol is further added at any stage of the process, and wherein a perfume oil comprising at least one perfuming ingredient is further added in step (ii) and/or in step (iii). (i) Heating a viscosifying agent comprising tricyclodecanedimethanol alcohol at a temperature greater than 90°C, (ii) Optionally, cooling down the solution obtained in step i) at a temperature greater than room temperature, preferably comprised between 30°C and 80°C, and (iii) Cooling down mixture obtained in step (i) or (ii) at room temperature,
A portable air purifier, comprising: a case providing an accommodating space; a rear panel having a suction inlet and disposed at a first side of the case ; a front panel having a discharge outlet and disposed at a second side of the case , the front panel and the rear panel facing each other in a first direction; a fan portion accommodated in the accommodating space between the suction inlet and the discharge outlet ; an acoustic portion accommodated in the accommodating space between the rear panel and the front panel , the acoustic portion and the fan portion being arranged adjacent to each other in a second direction perpendicular to the first direction; and a fan cover extending in the second direction and being disposed between the fan portion and the discharge outlet and between the acoustic portion and the discharge outlet ; wherein the fan cover comprises a cover hole corresponding to the acoustic portion to provide a passage for communicating between the acoustic portion and the discharge outlet , wherein the acoustic portion is at least partially exposed through the cover hole . a case providing an accommodating space; a rear panel having a suction inlet and disposed at a first side of the case ; a front panel having a discharge outlet and disposed at a second side of the case , the front panel and the rear panel facing each other in a first direction; a fan portion accommodated in the accommodating space between the suction inlet and the discharge outlet ; an acoustic portion accommodated in the accommodating space between the rear panel and the front panel , the acoustic portion and the fan portion being arranged adjacent to each other in a second direction perpendicular to the first direction; and a fan cover extending in the second direction and being disposed between the fan portion and the discharge outlet and between the acoustic portion and the discharge outlet ; wherein the fan cover comprises a cover hole corresponding to the acoustic portion to provide a passage for communicating between the acoustic portion and the discharge outlet , wherein the acoustic portion is at least partially exposed through the cover hole .
A method for communicating RF wireless signals between a remote wireless base station and customer premises equipment - CPE - , comprising: employing an RF communication device to perform actions, including: configuring one or more external antennas to communicate RF wireless signals with the remote wireless base station , wherein the configuration includes one or more of a direction or a shape of a waveform provided by the one or more external antennas for communicating the RF wireless signals with the remote wireless base station ; employing one or more amplifiers to provide a separately selectable gain to an upload RF wireless signal and provide another separately selectable gain to a download RF wireless signal, wherein the upload RF wireless signal is communicated to the remote wireless base station and one or more internal antennas are employed to communicate the download RF wireless signal with the other separate gain to the CPE ; wherein the one or more external antennas are holographic metasurface antennas and the method comprises adjusting a scan impedance of the one or more external antennas to improve communication by the one or more external antennas of the upload and download RF wireless signals through a barrier; and in response to a value of a power of the upload RF wireless signal meeting a threshold, determining that the CPE is in communication with an authorized RF wireless base station, wherein the gain and the other gain are adjusted to improve communication of the upload and download RF wireless signals between the CPE and the authorized remote wireless base station . configuring one or more external antennas to communicate RF wireless signals with the remote wireless base station , wherein the configuration includes one or more of a direction or a shape of a waveform provided by the one or more external antennas for communicating the RF wireless signals with the remote wireless base station ; employing one or more amplifiers to provide a separately selectable gain to an upload RF wireless signal and provide another separately selectable gain to a download RF wireless signal, wherein the upload RF wireless signal is communicated to the remote wireless base station and one or more internal antennas are employed to communicate the download RF wireless signal with the other separate gain to the CPE ; wherein the one or more external antennas are holographic metasurface antennas and the method comprises adjusting a scan impedance of the one or more external antennas to improve communication by the one or more external antennas of the upload and download RF wireless signals through a barrier; and in response to a value of a power of the upload RF wireless signal meeting a threshold, determining that the CPE is in communication with an authorized RF wireless base station, wherein the gain and the other gain are adjusted to improve communication of the upload and download RF wireless signals between the CPE and the authorized remote wireless base station .
A concrete structure in modular design, preferably for tower structures, particularly hybrid towers of wind turbines, consisting of at least two standing precast concrete wall elements (7, 7', ..., 7 n '), arranged next to one another and if appropriate above one another, having two narrow sides , which enclose a vertical joint between them after joining the precast concrete wall elements (7, 7', ..., 7 n '), an upper side and an underside , which enclose a horizontal joint between them after joining the precast concrete wall elements (7, 7', ..., 7 n '), and also a front side and a rear side, characterized in that a first honeycomb support is anchored in one of the narrow sides and in that the opposite narrow side has a recess or depression , in which a further honeycomb support is anchored in such a manner that, during assembly of the two precast concrete wall elements with the formation of the vertical joint , the two honeycomb supports can be connected by connecting means .