mhurhangee/ep-ind-claims huggingface dataset:
A method for presence detection, the method comprising: performing a first scanning comprising scanning a first area using a millimeter-wave radar sensor to produce a first set of radar data; identifying a first set of targets (112, 114, 116, 120) based on the first set of radar data; performing a second scanning comprising scanning portions of the first area corresponding to the first set of targets using the millimeter-wave radar sensor, and performing micro-Doppler measurements on the portions of the first area, wherein performing the second scanning comprises using transmit beamforming to direct a radar beam of the millimeter-wave radar sensor toward the portions of the first area corresponding to the first set of targets (112, 114, 116, 120); detecting vital signals of targets of the first set of targets (112, 114, 116, 120) from the micro-Doppler measurement; and determining which targets of the first set of targets (112, 114, 116, 120) meet a first set of criteria based on the detected vital signals. performing a first scanning comprising scanning a first area using a millimeter-wave radar sensor to produce a first set of radar data; identifying a first set of targets (112, 114, 116, 120) based on the first set of radar data; performing a second scanning comprising scanning portions of the first area corresponding to the first set of targets using the millimeter-wave radar sensor, and performing micro-Doppler measurements on the portions of the first area, wherein performing the second scanning comprises using transmit beamforming to direct a radar beam of the millimeter-wave radar sensor toward the portions of the first area corresponding to the first set of targets (112, 114, 116, 120); detecting vital signals of targets of the first set of targets (112, 114, 116, 120) from the micro-Doppler measurement; and determining which targets of the first set of targets (112, 114, 116, 120) meet a first set of criteria based on the detected vital signals.
A method of forming a semiconductor structure comprising: providing a plurality of patterned hard masks (16, 18) atop a patterned material stack including alternating layers of semiconductor material and first layers of a sacrificial material, wherein the bottommost layer of the patterned material stack is a top semiconductor layer of a semiconductor substrate; forming at least one dummy gate over a central portion of each of said plurality of patterned hard masks; forming a second layer of a sacrificial material abutting said at least one dummy gate on both sides; removing the at least one dummy gate to form at least one trench in the sacrificial material layer, each trench centered over the central portion of the plurality of patterned hard masks, that distinguishes a channel region from the still covered source and drain regions; etching a plurality of fins within said at least one trench in the patterned material stack using the plurality of patterned hard masks as an etch mask; removing the plurality of patterned hard masks and each of said first layers of sacrificial material within said at least one trench to form a plurality of vertically stacked and vertically spaced apart semiconductor nanowires within said at least one trench; and filling the at least one trench with at least a gate region. providing a plurality of patterned hard masks (16, 18) atop a patterned material stack including alternating layers of semiconductor material and first layers of a sacrificial material, wherein the bottommost layer of the patterned material stack is a top semiconductor layer of a semiconductor substrate; forming at least one dummy gate over a central portion of each of said plurality of patterned hard masks; forming a second layer of a sacrificial material abutting said at least one dummy gate on both sides; removing the at least one dummy gate to form at least one trench in the sacrificial material layer, each trench centered over the central portion of the plurality of patterned hard masks, that distinguishes a channel region from the still covered source and drain regions; etching a plurality of fins within said at least one trench in the patterned material stack using the plurality of patterned hard masks as an etch mask; removing the plurality of patterned hard masks and each of said first layers of sacrificial material within said at least one trench to form a plurality of vertically stacked and vertically spaced apart semiconductor nanowires within said at least one trench; and filling the at least one trench with at least a gate region.
A refrigerator comprising: a cabinet configured to define a first storage region for storing food; a door rotatably connected to a first rotating shaft via a first hinge member to open or close the first storage region, the first rotating shaft being located at the front of the cabinet; a gasket provided at the door; a container configured to define a second storage region, the container being receivable in the first storage region, the container being rotatably connected to a second rotating shaft via a second hinge member, the second rotating shaft being located at the door, wherein the second hinge member is fixed to the container; a latch member installed to the container; and a fastening device provided at the door, the fastening device arranged to be selectively coupled to the latch member to selectively couple the door and the container to each other, wherein the fastening device includes a seal configured to prevent outward movement of air through the fastening device in a state in which the door and the container are coupled to each other. a cabinet configured to define a first storage region for storing food; a door rotatably connected to a first rotating shaft via a first hinge member to open or close the first storage region, the first rotating shaft being located at the front of the cabinet; a gasket provided at the door; a container configured to define a second storage region, the container being receivable in the first storage region, the container being rotatably connected to a second rotating shaft via a second hinge member, the second rotating shaft being located at the door, wherein the second hinge member is fixed to the container; a latch member installed to the container; and a fastening device provided at the door, the fastening device arranged to be selectively coupled to the latch member to selectively couple the door and the container to each other, wherein the fastening device includes a seal configured to prevent outward movement of air through the fastening device in a state in which the door and the container are coupled to each other.
A method for radio access virtualization in a wireless network, the method comprising: signaling, by a first network device (102, 104) to the network, a cooperative transmission capability or a cooperative reception capability of the first network device, receiving, by the first network device in the network, a selected operation mode, wherein the selected operation mode is selected in accordance with the cooperative transmission capability or the cooperative reception capability, and the selected operation mode is one of one or more operation modes, wherein the one or more operation modes includes a hyper transceiver mode where multiple transmitting nodes cooperatively communicate with multiple receiving nodes, and wherein the hyper transceiver mode configures a virtual transmission point formed from plural transmitting nodes to cooperatively communicate with a virtual reception point formed from cooperating receiving nodes in accordance with neighborhood relations of a target radio node, wherein the plural transmitting nodes are base stations and the cooperating receiving nodes are UEs; and communicating with a second network device (102, 104) in the network in accordance with the selected operation mode. signaling, by a first network device (102, 104) to the network, a cooperative transmission capability or a cooperative reception capability of the first network device, receiving, by the first network device in the network, a selected operation mode, wherein the selected operation mode is selected in accordance with the cooperative transmission capability or the cooperative reception capability, and the selected operation mode is one of one or more operation modes, wherein the one or more operation modes includes a hyper transceiver mode where multiple transmitting nodes cooperatively communicate with multiple receiving nodes, and wherein the hyper transceiver mode configures a virtual transmission point formed from plural transmitting nodes to cooperatively communicate with a virtual reception point formed from cooperating receiving nodes in accordance with neighborhood relations of a target radio node, wherein the plural transmitting nodes are base stations and the cooperating receiving nodes are UEs; and communicating with a second network device (102, 104) in the network in accordance with the selected operation mode.
Pruning shears comprising a shear assembly mounted to an upper end of a pole, said shear assembly comprising a movable knife and a counter knife, the movable knife being connected via a first transmission and connection means to an operating means disposed in a region of a lower end of the pole, said operating means being adapted to move the movable knife and/or the counter knife in direction to one another on a movement of said operating means in a first direction, characterized in that said operating means comprises a first and a second actuating element, in that the first actuating element is coupled to the first transmission and connection means, in that the second actuating element is coupled via a second transmission and connection means and releasable latching means to the first actuating element and is movable, on releasing said latching means, away from the first actuating element in said first direction, wherein a movement of the second actuating element away from the first actuation element causes, via the second transmission and connection means, a movement of the first actuating element in said first direction.
A device for analyzing a cylinder wise performance of an internal combustion engine, comprising ion current measurement means that are arranged to measure an ion current in an engine and that are also arranged to produce a first signal including low frequencies corresponding to a measurement performed by said ion current measurement means, and also comprising a variable gain amplifier that is connected to said ion current measurement means and that is arranged to receive and amplify said first signal in order to produce an amplified signal, and further also comprising first analyzing means for receiving and analyzing said amplified signal for detecting an indication of a knock event in the engine, characterised in that said device further comprises second analysis means connected to a low pass filter arranged to remove disturbances before being received by said second analysis means, the second analysis means being arranged to receive and analyze the amplified signal after passing the low pass filter and to adjust a gain of said amplifier and said device is further adapted for passing the amplified signal through a band pass filter connected to the first analyzing means.
A joint structure for connecting a first element and a second element included in a manipulator for a robot, the joint structure comprising: a Stewart platform configured to control at least one of a position or an angle of the second element relative to the first element, the Stewart platform including a first member to be joined to the first element, a second member to be joined to the second element, a plurality of legs connecting the first member and the second member, a driver configured to change an effective length of each of the plurality of legs to change at least one of a position or an angle of the second member relative to the first member, and a soft structure configured to elastically change the effective length of each of the plurality of legs in response to an external force applied to the second member and to restore the effective length of each of the plurality of legs in response to the external force being removed, characterized in that each of the plurality of legs includes a rod (131; 50) slidably supported by a support (111; 51), the rod (131; 50) being configured to slide to change the effective length of the leg, and the driver includes a wire-shaped member being flexible and attached to the rod (131; 50), and an elastic member elastically deformable in response to the wire-shaped member being pulled and the rod (131; 50) being slid, the elastic member being configured to generate an elastic restoring force against a pulling force on the wire-shaped member. a Stewart platform configured to control at least one of a position or an angle of the second element relative to the first element, the Stewart platform including a first member to be joined to the first element, a second member to be joined to the second element, a plurality of legs connecting the first member and the second member, a driver configured to change an effective length of each of the plurality of legs to change at least one of a position or an angle of the second member relative to the first member, and a soft structure configured to elastically change the effective length of each of the plurality of legs in response to an external force applied to the second member and to restore the effective length of each of the plurality of legs in response to the external force being removed, characterized in that each of the plurality of legs includes a rod (131; 50) slidably supported by a support (111; 51), the rod (131; 50) being configured to slide to change the effective length of the leg, and the driver includes a wire-shaped member being flexible and attached to the rod (131; 50), and an elastic member elastically deformable in response to the wire-shaped member being pulled and the rod (131; 50) being slid, the elastic member being configured to generate an elastic restoring force against a pulling force on the wire-shaped member.
A physical-limit filtering method, comprising: determining a current speed of a tracked object; calculating, when the current speed is greater than a maximum physical speed, a new location that is achievable by the tracked object based on the maximum physical speed, said calculating being based on one or more previous averaged location points (230, 230) of the tracked object; and replacing a latest averaged location point (230) with the new location. determining a current speed of a tracked object; calculating, when the current speed is greater than a maximum physical speed, a new location that is achievable by the tracked object based on the maximum physical speed, said calculating being based on one or more previous averaged location points (230, 230) of the tracked object; and replacing a latest averaged location point (230) with the new location.
A method for determining the presence or absence of Campylobacter jejuni in a sample, said method comprising: contacting a sample, said sample suspected of containing C. jejuni, with at least two amplification oligomers for amplifying a target region of a C. jejuni target nucleic acid, wherein the at least two amplification oligomers comprise first and second oligomers respectively comprising target-hybridizing sequences corresponding to the nucleotide sequences of: (i) SEQ ID NO:78 and SEQ ID NO:79; (ii) SEQ ID NO:51 and SEQ ID NO:52; (iii) SEQ ID NO:62 and SEQ ID NO:63; or (iv) SEQ ID NO:66 and SEQ ID NO:67; performing an in vitro nucleic acid amplification reaction, wherein any C. jejuni target nucleic acid, if present in said sample, is used as a template for generating one or more amplification products corresponding to the C. jejuni target region; and determining the sequence of the amplification product, or detecting the presence or absence of the amplification product using a detection probe specific for the C. jejuni target region, thereby determining the presence or absence of C. jejuni in said sample. wherein the detection probe comprises a target-hybridizing sequence corresponding to the nucleotide sequence of: SEQ ID NO:80 or SEQ ID NO:81 if the first and second oligomers are the oligomers of (i); SEQ ID NO:53 or SEQ ID NO:54 if the first and second oligomers are the oligomers of (ii); SEQ ID NO:65 if the first and second oligomers are the oligomers of (iii); or SEQ ID NO:68 or SEQ ID NO:70 if the first and second oligomers are the oligomers of (iv); contacting a sample, said sample suspected of containing C. jejuni, with at least two amplification oligomers for amplifying a target region of a C. jejuni target nucleic acid, wherein the at least two amplification oligomers comprise first and second oligomers respectively comprising target-hybridizing sequences corresponding to the nucleotide sequences of: (i) SEQ ID NO:78 and SEQ ID NO:79; (ii) SEQ ID NO:51 and SEQ ID NO:52; (iii) SEQ ID NO:62 and SEQ ID NO:63; or (iv) SEQ ID NO:66 and SEQ ID NO:67; (i) SEQ ID NO:78 and SEQ ID NO:79; (ii) SEQ ID NO:51 and SEQ ID NO:52; (iii) SEQ ID NO:62 and SEQ ID NO:63; or (iv) SEQ ID NO:66 and SEQ ID NO:67; performing an in vitro nucleic acid amplification reaction, wherein any C. jejuni target nucleic acid, if present in said sample, is used as a template for generating one or more amplification products corresponding to the C. jejuni target region; and determining the sequence of the amplification product, or detecting the presence or absence of the amplification product using a detection probe specific for the C. jejuni target region, thereby determining the presence or absence of C. jejuni in said sample. SEQ ID NO:80 or SEQ ID NO:81 if the first and second oligomers are the oligomers of (i); SEQ ID NO:53 or SEQ ID NO:54 if the first and second oligomers are the oligomers of (ii); SEQ ID NO:65 if the first and second oligomers are the oligomers of (iii); or SEQ ID NO:68 or SEQ ID NO:70 if the first and second oligomers are the oligomers of (iv);
A device for drying and polishing items such as glasses and cutlery, the device including: an enclosure having apertures (14a, 14b) through which an end of the items can be inserted; and a selectively operable steam distribution system, wherein the steam distribution system is operable on insertion of an end of said items into the enclosure, characterised in that the device further includes a plurality of movable cleaning elements within the enclosure for drying and/or polishing the items, the steam distribution system for applying steam within the enclosure to at least one of the cleaning elements and/or the items, whereby the cleaning elements dry or polish the items. an enclosure having apertures (14a, 14b) through which an end of the items can be inserted; and a selectively operable steam distribution system, wherein the steam distribution system is operable on insertion of an end of said items into the enclosure, characterised in that the device further includes a plurality of movable cleaning elements within the enclosure for drying and/or polishing the items, the steam distribution system for applying steam within the enclosure to at least one of the cleaning elements and/or the items, whereby the cleaning elements dry or polish the items.
A sample inspection system for executing sample inspection, comprising a sample inspection line, a management server, a sample access system for requesting inspections of samples, and a monitor device of said management server, wherein the sample inspection line, the management server, the sample access system and the monitor device are connected through a network (10, 11, 12); wherein said management server is configured to simulate the required processing time from start to end of each sample on the basis of facility data including a processing time of said sample inspection line and on the basis of sample processing information generated on the basis of inspection request data accepted as an inspection request from said sample access system; wherein the management server is further configured to generate a monitor window and output the monitor window to said monitor device for displaying a result of the simulation; wherein said inspection request data includes a patient ID, a priority, an order time of the inspection request from the sample access system, a required time of when the completion of the sample inspection is required and inspection items; wherein said sample processing information includes an inspection start time, an inspection estimate finish time to be updated as a result of the simulation by the management server, and the information of said inspection request data; wherein said monitor window includes a work area for vertically arranging sample bars extending horizontally to which a past record and a future schedule of respective samples are allocated with the present time as the base; wherein said sample bars are adapted to display said inspection start time, said inspection estimate finish time, and the delay time determined as the difference between the inspection estimate finish time and the required time; and wherein the management server is further configured to accept a selection designating one of the sample bars, display the sample processing information of the sample relating to the selected sample bar in a window displayed in superposition on said work area, accept setting of a provisional priority through a setting portion disposed inside the window; execute simulation of the inspection processing based on the provisional priority when a simulation start switch is operated; and set the provisional priority to an authentic priority when a setting switch is operated. accept a selection designating one of the sample bars, display the sample processing information of the sample relating to the selected sample bar in a window displayed in superposition on said work area, accept setting of a provisional priority through a setting portion disposed inside the window; execute simulation of the inspection processing based on the provisional priority when a simulation start switch is operated; and set the provisional priority to an authentic priority when a setting switch is operated.